def test_recieve_input(self):
player = AIPlayer()
game = Checkers(player, Player())
options = game.possible_movements()
action = player.recieve_input(options)
self.assertGreaterEqual(action, 0)
self.assertLessEqual(action, len(options))
def test_has_ended(self):
player1 = Player()
player2 = Player()
game = Checkers(player1, player2)
for cell in game.board.cells:
cell.value = None
self.assertTrue(game.has_ended())
def test_play(self, input):
player = CheckersPlayer()
game = Checkers(player, CheckersPlayer())
game.player_in_turn = 0
self.assertTrue(game.board.get_cell(5, 0).value == "x")
player.play()
self.assertTrue(game.board.get_cell(4, 1).value == "x")
self.assertTrue(game.board.get_cell(5, 0).value is None)
def test_single_jump(self):
c = Checkers()
# move a red piece in a position where black can jump
c.move(src=(1, 2), dest=(2, 3))
c.move(src=(2, 3), dest=(3, 4))
# make sure the destination is empty
self.assertTrue(c.board[3][4] is None)
# jump a black piece over the red piece
c.move(src=(2, 5), dest=(4, 3))
# make sure the piece is at the destination
self.assertTrue(c.board[3][4].color is Checkers.colors['black'])
# make sure the jumped piece is removed from the board
self.assertTrue(c.board[4][3] is None)
def __init__(self):
self._model = Checkers()
self.to_move = None
self.moves = []
self.description = ''
self.black_men = []
self.white_men = []
self.black_kings = []
self.white_kings = []
self.flip_board = False
self.num_players = 1
self._move_check = False
self._bm_check = False
self._bk_check = False
self._wm_check = False
self._wk_check = False
def __init__(self):
gtk.DrawingArea.__init__(self)
self.tile_size = 100
self.tile_count = 8
self.w = self.h = self.tile_count * self.tile_size
cmap = self.get_colormap()
self.color_black = cmap.alloc_color('#000000')
self.color_white = cmap.alloc_color('#FFFFFF')
self.color_red = cmap.alloc_color('#BB3333')
self.color_green = cmap.alloc_color('#33DD33')
self.set_size_request(320, 320)
self.connect("expose_event", self.exposeEvent)
self.connect("size-allocate", self.__sizeAllocate)
self.connect("button_press_event", self.buttonPressEvent)
self.set_events(gtk.gdk.EXPOSURE_MASK | gtk.gdk.BUTTON_PRESS_MASK)
#TODO: use settings
self.tile_w = gtk.gdk.pixbuf_new_from_file("images/tile_w.jpg")
self.tile_b = gtk.gdk.pixbuf_new_from_file("images/tile_b.jpg")
self.selector = gtk.gdk.pixbuf_new_from_file("images/selector.png")
self.checkers = Checkers()
self.checkers.setSelected((2,5))
def __init__(self, **props):
self.model = Checkers()
self._root = props['root']
self.parent = props['parent']
self.training = props['training'] # If true, game will be played
# against an evolved GPController
statusbar = Label(self._root,
relief=SUNKEN,
font=('Helvetica', 7),
anchor=NW)
statusbar.pack(side='bottom', fill='x')
self.view = BoardView(self._root,
model=self.model,
parent=self,
statusbar=statusbar,
invisible=True)
if self.training:
self.view.override_canvas(TrainingCanvas())
self.fitness = props['fitness']
self.player_color = BLACK
self.num_players = 1
self.set_controllers()
self._controller1.start_turn()
self.filename = None
class TestCoder(unittest.TestCase):
def setUp(self):
# Init coder
print("Initializing coder...")
self.checker = self.checkerList[self.checkerIndex]
self.dictionary = Dictionary(self.checker)
self.coder = Coder(self.dictionary)
# Load all data from DB
print("Fetching data from database...")
self.allData = self.db.getFixDataForChecker(self.checker)
self.allDataLen = len(self.allData)
print("Done, fetched {0} records".format(self.allDataLen))
def tearDown(self):
self.checkerIndex += 1
@classmethod
def setUpClass(self):
print("Starting up...")
self.db = CFDatabase(config.getCfDbFile())
self.checkers = Checkers()
self.checkerList = ['deadcode.DeadStores']
self.checkerIndex = 0
def testDeadcodeDeadStores(self):
self.assertTrue(self.allDataLen > 0, msg="No data found")
# Encode all data
print("Testing encoding")
i = 0
while i < self.allDataLen:
checkerInfo = self.checkers.extractTokensForChecker(
self.checker, self.allData[i][4])
encodedBugData, initialUnkList = self.coder.encode(
self.allData[i][1], checkerData=checkerInfo)
encodedFixData, finalUnkList = self.coder.encode(
self.allData[i][2], unkList=initialUnkList, reverse=False)
if -1 in encodedBugData:
print(
"{0}: [{2} - {3} ({1})] Some tokens were not parsed (bug), ignoring (lenUnk = {1})"
.format(i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
elif -1 in encodedFixData:
print(
"{0}: [{2} - {3} ({1})] Some tokens were not parsed (fix), ignoring (lenUnk = {1})"
.format(i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
else:
print("{0}: [{2} - {3} ({1})] Done (lenUnk = {1})".format(
i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
textBug = self.coder.decode(encodedBugData, finalUnkList, True)
textFix = self.coder.decode(encodedFixData, finalUnkList)
self.assertEqual(textBug, self.allData[i][1])
self.assertEqual(textFix, self.allData[i][2])
i += 1
print("All done.")
def test_get_movement(self):
player1 = Player()
player2 = Player()
game = Checkers(player1, player2)
for cell in game.board.cells:
cell.value = None
game.board.set_cell(7, 4, "x")
game.board.set_cell(6, 3, "o")
game.board.set_cell(4, 3, "o")
game.board.set_cell(2, 3, "o")
game.board.set_cell(0, 3, "o")
game.board.set_cell(6, 5, "o")
game.board.set_cell(4, 5, "o")
game.board.set_cell(2, 5, "o")
game.board.set_cell(0, 5, "o")
movements = list(game._get_movement(7, 4, ["LU", "RU"], ["o", "O"]))
self.assertEqual([((1, 2), [(2, 3), (4, 3), (6, 3)]),
((1, 6), [(2, 5), (4, 3), (6, 3)]),
((1, 2), [(2, 3), (4, 5), (6, 5)]),
((1, 6), [(2, 5), (4, 5), (6, 5)])], movements)
game.board.set_cell(7, 4, None)
game.board.set_cell(5, 6, "X")
game.board.set_cell(6, 1, "o")
game.board.set_cell(4, 1, "o")
game.board.set_cell(2, 1, "o")
game.board.set_cell(0, 1, "o")
game.board.set_cell(6, 7, "o")
game.board.set_cell(4, 7, "o")
game.board.set_cell(2, 7, "o")
game.board.set_cell(0, 7, "o")
movements = list(
game._get_movement(5, 6, ["LU", "RU", "LD", "RD"], ["o", "O"]))
self.assertEqual([((1, 6), [(2, 5), (4, 3), (4, 1), (2, 1), (2, 3),
(4, 5)]),
((7, 0), [(6, 1), (4, 1), (2, 1), (2, 3), (4, 5)]),
((5, 6), [(6, 5), (6, 3), (4, 1), (2, 1), (2, 3),
(4, 5)]), ((1, 6), [(2, 5), (4, 5)]),
((7, 4), [(6, 5)])], movements)
def new_game(self):
self._stop_updates()
self._save_curr_game_if_needed()
self.filename = None
self._root.title('Raven ' + VERSION)
self.model = Checkers()
self.player_color = BLACK
self.view.reset_view(self.model)
self.think_time = self.parent.thinkTime.get()
self.set_controllers()
self.view.update_statusbar()
self.view.reset_toolbar_buttons()
self.view.curr_annotation = ''
self.controller1.start_turn()
def __init__(self, **props):
self.model = Checkers()
self._root = props['root']
self.parent = props['parent']
statusbar = Label(self._root,
relief=SUNKEN,
font=('Helvetica', 7),
anchor=NW)
statusbar.pack(side='bottom', fill='x')
self.view = BoardView(self._root,
model=self.model,
parent=self,
statusbar=statusbar)
self.player_color = BLACK
self.num_players = 1
self.set_controllers()
self.controller1.start_turn()
self.filename = None
self.think_time = self.parent.thinkTime.get()
def test_evaluate_winner(self):
player1 = Player()
player2 = Player()
game = Checkers(player1, player2)
game.player_in_turn = 0
for cell in game.board.cells:
if cell.value in ["o", "0"]:
cell.value = None
self.assertEqual(player1, game.evaluate_winner())
game.player_in_turn = 1
for cell in game.board.cells:
if cell.value in ["x", "X"]:
cell.value = None
self.assertEqual(player2, game.evaluate_winner())
def eval(agent:Agent, env: Checkers, color:str, n_games=100):
agent.net.eval()
opponent = Agent(gamma=agent.gamma,
epsilon=1,
lr=0,
input_dims=[8*8 + 1],
batch_size=agent.batch_size,
action_space=agent.action_space,
eps_dec=0,
max_mem_size=0
)
opponent.net.eval()
initial_state = env.save_state()
score = {'black': 0, 'white': 0}
for i in tqdm(range(n_games)):
env.restore_state(initial_state)
winner = None
moves = torch.tensor(env.legal_moves())
board, turn, last_moved_piece = env.save_state()
brain = agent if turn == color else opponent
board_tensor = torch.from_numpy(env.flat_board()).view(-1).float()
encoded_turn = torch.tensor([1.]) if turn == 'black' else torch.tensor([0.])
observation = torch.cat([board_tensor, encoded_turn])
while not winner:
action = brain.choose_action(observation)
while not action_is_legal(action, moves):
action = brain.choose_action(observation)
new_board, new_turn, _, moves, winner = env.move(*action.tolist())
moves = torch.tensor(moves)
board_tensor = torch.from_numpy(env.flat_board()).view(-1).float()
encoded_turn = torch.tensor([1. if turn == 'black' else 0.])
observation = torch.cat([board_tensor, encoded_turn])
brain = agent if turn == color else opponent
score[winner] +=1
agent.net.train()
return score[color] / n_games
epsilon=args.epsilon,
batch_size=args.batch_size,
action_space=action_space,
input_dims=[8 * 8 + 1],
lr=args.lr,
eps_dec=args.epsilon_decay),
'white':
Agent(gamma=args.gamma,
epsilon=args.epsilon,
batch_size=args.batch_size,
action_space=action_space,
input_dims=[8 * 8 + 1],
lr=args.lr,
eps_dec=args.epsilon_decay)
}
env = Checkers()
initial_state = env.save_state()
eps_history = []
score = {'black': 0, 'white': 0}
os.makedirs(args.checkpoints_dir, exist_ok=True)
for i in range(args.games):
print(
f"episode={i}, score={score}, black_eps:{players['black'].epsilon}, white_eps:{players['white'].epsilon}"
)
score = {'black': 0, 'white': 0}
env.restore_state(initial_state)
winner = None
moves = torch.tensor(env.legal_moves())
board, turn, last_moved_piece = env.save_state()
def reset(self):
self.checkers = Checkers()
def __init__(self):
self.db = CFDatabase(config.getCfDbFile())
self.lexer = CxxLexer()
self.checkers = Checkers()
def __init__(self):
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.code = []
self.checkers = Checkers()
from checkers import Checkers, AIPlayer, HumanPlayer
if __name__ == '__main__':
checkers = Checkers(AIPlayer(), AIPlayer())
checkers.start()
print("Game ended in {} turns".format(checkers.turn + 1))
checkers.render()
if checkers.winner:
print("Winner!! Player {}".format(checkers.player_in_turn + 1))
else:
print("Draw!!")
class DictionaryBuilder():
def __init__(self):
self.db = CFDatabase(config.getCfDbFile())
self.lexer = CxxLexer()
self.checkers = Checkers()
def build(self, checker):
# Load all data from DB
print("Fetching data from database...")
allData = self.db.getFixDataForChecker(checker)
allDataLen = len(allData)
print("Done, fetched {0} records".format(allDataLen))
if allDataLen < 1:
print("No data found")
return
# Tokenize all code snippets and extract extra tokens from checker's messages
# Labelize all tokens existing only in fixed code (added data)
# Labelize all tokens appearing more than X times
# Labelize all C++ STL names (namespaces, constants, defines, variables, functions, headers, numeric literals)
# Labelize all UNK token indexes
print("Converting to tokens...")
tokens = deque()
tokensLen = 0
labels = {}
i = 0
tokensLen = 0
minTokens1Len = 9999
minTokens2Len = 9999
maxTokens1Len = 0
maxTokens2Len = 0
uniqTokenIDs = {}
for tid in range(globals.firstAvailableToken):
uniqTokenIDs[tid] = 0
uniqTokenIDs[0] = 1 # T_ZERO
uniqTokenIDs[349] = 1 # T_SOS
uniqTokenIDs[351] = 1 # T_UNK
while i < allDataLen:
# Tokenize
tokens1 = self.lexer.tokenize(allData[i][1])
tokens2 = self.lexer.tokenize(allData[i][2])
extra = self.checkers.extractTokensForChecker(
checker, allData[i][4])
newTokens = []
# Extract new tokens
for token2 in tokens2:
matchFound = False
for token1 in tokens1:
if token1['token'] == token2['token'] and token1[
'has_value'] == token2['has_value']:
if token1['has_value']:
if token1['value'] == token2['value']:
matchFound = True
else:
matchFound = True
if not matchFound:
newTokens.append(token2)
tokens1Len = len(tokens1)
tokens2Len = len(tokens2)
# Statistics
if tokens1Len < minTokens1Len:
minTokens1Len = tokens1Len
if tokens2Len < minTokens2Len:
minTokens2Len = tokens2Len
if tokens1Len > maxTokens1Len:
maxTokens1Len = tokens1Len
if tokens2Len > maxTokens2Len:
maxTokens2Len = tokens2Len
# Count occurrences of each label
allTokens = tokens1 + tokens2 + extra
for token in allTokens:
value = globals.emptyValue
if token['has_value']:
value = token['value']
if value in labels:
labels[value] += 1
else:
labels[value] = 1
uniqTokenIDs[int(token['token'])] += 1
tokensLen += 1
if len(newTokens) > 0:
tokens.append(newTokens)
i += 1
print('Done {0}, processed {1} tokens ({2}/{3}/{4}/{5})'.format(
i, len(allTokens), tokens1Len, tokens2Len, len(extra),
len(newTokens)),
file=sys.stderr)
print("Done, converted {0} tokens".format(tokensLen))
# Labelizing
labelDb = [globals.emptyValue]
# UNK
print("Adding UNK token labels")
for i in range(config.cfNoOfUnkTokens):
labelDb.append("UNK_{0}".format(i))
print("Done, current label DB has {0} entries".format(len(labelDb)))
# Common occurrences
print("Filtering labels, selecting only those with > {0} occurrences".
format(config.cfLabelThreshold))
for key in labels.keys():
if labels[key] > config.cfLabelThreshold:
labelDb.append(key)
print("Done, current label DB has {0} entries".format(len(labelDb)))
# New tokens in fixed code
print("Filtering labels, selecting only tokens introduced with fix")
for entry in tokens:
for token in entry:
if token['has_value']:
labelDb.append(token['value'])
print("Done, current label DB has {0} entries".format(len(labelDb)))
# STL part
# Token IDs
for i in range(globals.firstAvailableToken):
if uniqTokenIDs[i] > 0:
labelDb.append("T_{0}".format(i))
# Printout
print("Uniqueing labels")
labelsUnique = list(set(labelDb))
print("Done, current label DB has {0} entries".format(
len(labelsUnique)))
print("Data set info")
print("Min no of tokens (bug): {0}".format(minTokens1Len))
print("Min no of tokens (fix): {0}".format(minTokens2Len))
print("Max no of tokens (bug): {0}".format(maxTokens1Len))
print("Max no of tokens (fix): {0}".format(maxTokens2Len))
print("Extracted labels:")
print(labelsUnique)
print("Token uses:")
for i in range(globals.firstAvailableToken):
if uniqTokenIDs[i] > 0:
print("{0}: {1}".format(i, uniqTokenIDs[i]))
# Save to file
print("Writing to dictionary file")
with open(config.cfDictFilenameFormat.format(checker), "w") as f:
f.write(json.dumps(labelsUnique))
print("Done, exiting...")
return fixUnusedParam(code, bugData)
if bugData.getChecker() == 'clang-diagnostic-constant-conversion':
return fixConstConv(code, bugData)
return None
ccdb = CCDatabase(config.getCcDbFile())
db = sqlite3.connect('../Results/db.sqlite')
cursor = db.cursor()
cursor.execute('SELECT * FROM bugs')
dataFromDb = cursor.fetchall()
bugs = []
bugsPerFile = {}
BUG_NOT_PROCESSED = 0
vcs = GitProvider(config.getRepoDir())
checkers = Checkers()
currentCommit = vcs.getAllVersions(config.getBranch())[0]
bugDataList = {}
fileContents = {}
codechecker = CodeChecker(config.getRepoDir())
if len(dataFromDb) > 0:
print("Skipping steps 1-2, DB already filled with data")
for bug in dataFromDb:
if bug[2] not in bugsPerFile:
bugsPerFile[bug[2]] = []
if bug[3] == BUG_NOT_PROCESSED:
bugDataList[bug[0]] = ccdb.getNotResolvedBugData(bug[0])
bugsPerFile[bug[2]].append(bug[0])
else:
# 1.
def setUpClass(self):
print("Starting up...")
self.db = CFDatabase(config.getCfDbFile())
self.checkers = Checkers()
self.checkerList = ['deadcode.DeadStores']
self.checkerIndex = 0
def __init__(self, history=[]):
# Rollout statistics
self.child_visits = []
# Terminal values for the first player
# 1 for win
# 0 for draw
# -1 for loss
# None for incomplete
self.game_value = None
# XXX Conventions:
# - Black player moves first
# - Ego-centric views assume the king row are at the top, i.e. starts at the bottom (Second player has the same view as absolute)
self.ch = Checkers()
# Action space
self.actions = []
# Simple moves
for from_sq in range(self.ch.n_positions):
for to_sq in self.ch.neighbors[from_sq]:
if to_sq is not None:
simple_move = (from_sq, to_sq)
self.actions.append(simple_move)
assert 98 == len(self.actions), 'There should be 98 simple moves.'
# Jumps
for from_sq in range(self.ch.n_positions):
row, col = self.ch.sq2pos(from_sq)
# For each direction
for di, (drow, dcol) in enumerate(Checkers.dir2del):
next_row, next_col = row + 2 * drow, col + 2 * dcol
if 0 <= next_row < self.ch.size and 0 <= next_col < self.ch.size:
# Within bound
to_sq = self.ch.pos2sq(next_row, next_col)
jump = (from_sq, to_sq)
self.actions.append(jump)
self.num_actions = len(self.actions)
assert 98 + 72 == self.num_actions, 'There should be 98 simple moves and 72 jumps.'
# Inverse dictionary
self.action2ind = {
action: ind
for ind, action in enumerate(self.actions)
}
# Square mapping from absolute to first player's ego-centric (reflect through the center)
self.abs2ego_sq = {}
for sq in range(self.ch.n_positions):
row, col = self.ch.sq2pos(sq)
re_row, re_col = -row + self.ch.size - 1, -col + self.ch.size - 1
re_sq = self.ch.pos2sq(re_row, re_col)
self.abs2ego_sq[sq] = re_sq
# Inverse
self.ego2abs_sq = {re_sq: sq for sq, re_sq in self.abs2ego_sq.items()}
# Move mapping from absolute to first player's ego-centric
self.abs2ego_ac = {}
for ac, (from_sq, to_sq) in enumerate(self.actions):
ego_move = (self.abs2ego_sq[from_sq], self.abs2ego_sq[to_sq])
ego_ac = self.action2ind[ego_move]
self.abs2ego_ac[ac] = ego_ac
# Inverse
self.ego2abs_ac = {
ego_ac: ac
for ac, ego_ac in self.abs2ego_ac.items()
}
# Fast forward to the last state by taking actions from history
self.history = []
for action in history:
self.apply(action)
class BoardView(gtk.DrawingArea):
def __init__(self):
gtk.DrawingArea.__init__(self)
self.tile_size = 100
self.tile_count = 8
self.w = self.h = self.tile_count * self.tile_size
cmap = self.get_colormap()
self.color_black = cmap.alloc_color('#000000')
self.color_white = cmap.alloc_color('#FFFFFF')
self.color_red = cmap.alloc_color('#BB3333')
self.color_green = cmap.alloc_color('#33DD33')
self.set_size_request(320, 320)
self.connect("expose_event", self.exposeEvent)
self.connect("size-allocate", self.__sizeAllocate)
self.connect("button_press_event", self.buttonPressEvent)
self.set_events(gtk.gdk.EXPOSURE_MASK | gtk.gdk.BUTTON_PRESS_MASK)
#TODO: use settings
self.tile_w = gtk.gdk.pixbuf_new_from_file("images/tile_w.jpg")
self.tile_b = gtk.gdk.pixbuf_new_from_file("images/tile_b.jpg")
self.selector = gtk.gdk.pixbuf_new_from_file("images/selector.png")
self.checkers = Checkers()
self.checkers.setSelected((2,5))
def __sizeAllocate(self, widget, rect):
if rect.width < rect.height:
self.tile_size = rect.width / self.tile_count
else:
self.tile_size = rect.height / self.tile_count
self.w = self.h = self.tile_count * self.tile_size
def exposeEvent(self, widget, event):
window = self.window
gc = window.new_gc()
rect = gtk.gdk.Rectangle(0, 0, self.w, self.h)
window.begin_paint_rect(rect)
self.__drawBoard(window, gc, rect)
window.end_paint()
def __drawBackground(self, window, gc, rect):
bg_w = self.tile_w.get_width()
bg_h = self.tile_w.get_height()
mod = True
for i in range(self.tile_count):
for ii in range(self.tile_count):
if mod:
window.draw_pixbuf(gc, self.tile_w, (bg_w - self.tile_size) / 2,
(bg_h - self.tile_size) / 2,
i * self.tile_size, ii * self.tile_size,
self.tile_size, self.tile_size)
else:
window.draw_pixbuf(gc, self.tile_b, (bg_w - self.tile_size) / 2,
(bg_h - self.tile_size) / 2,
i * self.tile_size, ii * self.tile_size,
self.tile_size, self.tile_size)
mod = not mod
mod = not mod
def __drawPiece(self, window, gc, rect, type, x, y):
gc
s = self.tile_size
if abs(type) == Checkers.WH:
gc.set_foreground(self.color_white)
window.draw_arc(gc, True, s*x+s/10, s*y+s/10, s - s/5, s - s/5, 0, 65*360)
if type < 0:
gc.set_foreground(self.color_black)
window.draw_arc(gc, True, s*x+s/4, s*y+s/4, s/2, s/2, 0, 65*360)
elif abs(type) == Checkers.BL:
gc.set_foreground(self.color_black)
window.draw_arc(gc, True, s*x+s/10, s*y+s/10, s - s/5, s - s/5,
0, 65*360)
if type < 0:
gc.set_foreground(self.color_white)
window.draw_arc(gc, True, s*x+s/4, s*y+s/4, s/2, s/2, 0, 65*360)
def __drawPieces(self, window, gc, rect):
for i in range(8):
for ii in range(8):
if (i+ii)%2:
self.__drawPiece(window, gc, rect, self.checkers.checkTile(ii,i), ii, i)
def __drawSelector(self, window, gc):
a = self.checkers.getSelected()[0]
if a:
gc.set_line_attributes(self.tile_size / 20,
gtk.gdk.LINE_SOLID,
gtk.gdk.CAP_NOT_LAST,
gtk.gdk.JOIN_MITER)
gc.set_foreground(self.color_red)
window.draw_rectangle(gc, False, a[0] * self.tile_size, a[1] * self.tile_size,
self.tile_size, self.tile_size)
def __drawMoves(self, window, gc):
a = self.checkers.getSelected()[1:]
for i in a:
gc.set_line_attributes(self.tile_size / 20,
gtk.gdk.LINE_SOLID,
gtk.gdk.CAP_NOT_LAST,
gtk.gdk.JOIN_MITER)
gc.set_foreground(self.color_green)
window.draw_rectangle(gc, False, i[0] * self.tile_size, i[1] * self.tile_size,
self.tile_size, self.tile_size)
def __drawBoard(self, window, gc, rect):
self.__drawBackground(window, gc, rect)
self.__drawPieces(window, gc, rect)
self.__drawSelector(window, gc)
self.__drawMoves(window, gc)
def __getCoords(self, x, y):
x = int(x / self.tile_size)
y = int(y / self.tile_size)
if x > 7 or y > 7:
return None
else:
return (x, y)
def buttonPressEvent(self, widget, event):
if event.button != 1:
return
target = self.__getCoords(event.x, event.y)
if not target:
return
m = self.checkers.getSelected()
if target in m[1:]:
self.checkers.move(m, target)
else:
self.checkers.setSelected(target)
self.exposeEvent(None, None)
def reset(self):
self.checkers = Checkers()
class Predictor():
def __init__(self):
self.vcs = GitProvider(config.getRepoDir())
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.checkers = Checkers()
self.loadCommitList()
def loadCommitList(self):
self.commits = self.vcs.getAllVersions(config.getBranch())
self.currentCommitIndex = 0
def convertFilePathToRepoRelativePath(self, path):
return os.path.relpath(path, config.getRepoDir())
def getDiffResolvedIds(self):
resolved = self.codeChecker.diffResolved(config.getCcRunName(),
config.getTmpDir(), self.ccdb)
ids = []
for bug in resolved:
ids.append(bug['reportId'])
return ids
def predict(self, id, checker):
# Load all bugs
print("Loading bug data...")
ids = []
if id == -1:
bugs = self.ccdb.getAllBugsForChecker(checker)
ids = [x[0] for x in bugs]
else:
ids.append(id)
# Loading model
print("Loading model...")
model = load_model(config.cfModelFilenameFormat.format(checker))
model.summary()
vLabels = ['NOT OK', 'OK', 'Skipped']
# Initialize coder
print("Initializing coder...")
self.dictionary = Dictionary(checker)
self.coder = Coder(self.dictionary)
self.totalDictionaryLength = self.dictionary.length()
# Predicting
print("Starting predictions...")
for i in ids:
allData = self.ccdb.getBugData(i)
if allData.getChecker(
) not in globals.availableCheckers or allData.getChecker(
) != checker:
print("Bug #{0} - checker not supported".format(i))
else:
# Load extra tokens from checker message
checkerInfo = self.checkers.extractTokensForChecker(
allData.getChecker(), allData.getMessage())
# Retrieve code fragment with bug
fileRelativePath = self.convertFilePathToRepoRelativePath(
allData.getFile())
fullCodeWithBug = self.vcs.getFileContents(
fileRelativePath, self.commits[self.currentCommitIndex])
extractor = CodeExtractor(allData)
extractor.loadCodeFromText(fullCodeWithBug)
extractor.extractBugCode()
bugCodeFragment = extractor.getBugCodeFragment()
fixCodeFragment = ''
# Encode it
encodedBugData, initialUnkList = self.coder.encode(
bugCodeFragment, checkerData=checkerInfo)
# Convert to one-hot
MODEL_X_MAX_LEN = model.get_layer(index=0).input_shape[1]
if len(encodedBugData) > MODEL_X_MAX_LEN:
print(
"Bug #{0} - Code too big for model, ignored".format(i))
continue
elif id == -1:
print("Bug #{0} - Good to go".format(i))
continue
noZerosToPad = MODEL_X_MAX_LEN - len(encodedBugData)
if noZerosToPad > 0:
encodedBugData = self.coder.applyPadding(
encodedBugData, noZerosToPad)
X = np.zeros((1, MODEL_X_MAX_LEN, self.totalDictionaryLength))
X[0] = self.coder.convertToOneHot(
encodedBugData,
np.zeros((MODEL_X_MAX_LEN, self.totalDictionaryLength)))
# Predict and convert from one-hot
Y = self.coder.convertFromOneHot(model.predict(X)[0])
print(Y)
# Decode
Y = self.coder.removePadding(Y)
fixCodeFragment = self.coder.decode(Y, initialUnkList)
#Verify?
vStatus = 2
if config.cfVerifyPrediction:
# Apply fix in source code file
extractor.applyFix(fixCodeFragment)
extractor.saveToFile(allData.getFile())
# Run CodeChecker and analyze code
self.codeChecker.check(True)
resolvedIds = self.getDiffResolvedIds()
# Check if ID is resolved in tmp folder
isFixed = i in resolvedIds
# Set vStatus accordingly
if isFixed:
vStatus = 1
else:
vStatus = 0
#Print
print("Bug #{0} - summary".format(i))
print("== Code fragment with bug ==")
print(bugCodeFragment)
print("== Suggested fix ==")
print(fixCodeFragment)
print("Verification: {0}".format(vLabels[vStatus]))
a = ' '
while a != 'y' and a != 'n':
a = input("Apply fix? (y/n): ")
if a == 'y':
if not config.cfVerifyPrediction:
# Apply fix in source code file
extractor.applyFix(fixCodeFragment)
extractor.saveToFile(allData.getFile())
elif config.cfVerifyPrediction:
# Revert file contents
self.vcs.checkout(self.commits[self.currentCommitIndex])
print('Done')
print("All done, exiting...")
sleep(1)
screen.fill(BLACK)
# print winner
score = game.scoreGame()
font = pygame.font.SysFont('Calibri', 30, True, False)
text = ""
# tie
if score == 0:
text = font.render("TIE", True, WHITE)
# ai wins
elif score == 1:
text = font.render("You lose, AI wins", True, WHITE)
# human wins
else:
text = font.render("You win, AI loses", True, WHITE)
screen.blit(text, [width / 3 + width / 12, height / 2])
# update screen
pygame.display.flip()
sleep(1.5)
# end game
pygame.quit()
print('Starting Checkers game...')
game = Checkers()
agent = Minimax(game, 3, False)
print('Program terminated')
class FixTautOORCmp():
def __init__(self):
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.code = []
self.checkers = Checkers()
def loadCodeFromFile(self):
with open(self.bugData.getFile(), 'r') as file:
code = file.readlines()
self.code = []
for line in code:
self.code.append(line.replace("\r\n", "\n"))
"""
code = file.read()
noCrLf = code.count("\r\n")
noCr = code.count("\r") - noCrLf
noLf = code.count("\n") - noCrLf
if noCrLf > noCr:
if noCrLf > noLf:
self.lineEnding = "\r\n"
else:
self.lineEnding = "\n"
else:
if noCr > noLf:
self.lineEnding = "\r"
else:
self.lineEnding = "\n"
self.code = code.split(self.lineEnding)
"""
def saveCodeToFile(self):
with open(self.bugData.getFile(), 'w') as file:
#file.write(self.lineEnding.join(self.code))
file.writelines(self.code)
def findMatchingDefine(self, value):
patValue = '({0})'
patName = '[ \t]([0-9a-zA-Z_]+)[ \t]'
for line in self.code:
if line[:7] == '#define':
if re.search(patValue.format(value), line):
return re.search(patName, line).group(1)
return None
def fix(self, file):
fileData = self.ccdb.getFileData(file)
print(fileData)
bugs = self.ccdb.getAllBugsForChecker(
'clang-diagnostic-tautological-constant-out-of-range-compare')
lines = []
for bug in bugs:
if bug[2] == fileData[-1][0]:
self.bugData = self.ccdb.getBugData(bug[0])
if self.bugData.getLine() not in lines:
self.loadCodeFromFile()
tokens = self.checkers.extractTokensForChecker(
'clang-diagnostic-tautological-constant-out-of-range-compare',
self.bugData.getMessage())
line = self.code[self.bugData.getLine() - 1]
pat = "\([^\(]*{0}\)".format(tokens[0]['value'])
match = re.search(pat, line)
if match is None:
pat = "\([^\(]*{0}\)".format(
self.findMatchingDefine(tokens[0]['value']))
match = re.search(pat, line)
match = match.group(0)
newLine = line.replace(match,
'({0})'.format(tokens[1]['value']))
self.code[self.bugData.getLine() - 1] = newLine
self.saveCodeToFile()
lines = lines + list(
range((self.bugData.getLine() - 11),
(self.bugData.getLine() + 10)))
print("Passed")
print(self.bugData.getLine())
pass
else:
print("Dismissed")
print(self.bugData.getLine())
pass
def test_possible_movements(self):
player1 = Player()
player2 = Player()
game = Checkers(player1, player2)
for cell in game.board.cells:
cell.value = None
game.board.set_cell(2, 3, "X")
game.board.set_cell(2, 5, "O")
game.board.set_cell(4, 3, "x")
game.board.set_cell(4, 5, "o")
game.player_in_turn = 0
self.assertEqual(6, len(game.possible_movements()))
game.player_in_turn = 1
self.assertEqual(6, len(game.possible_movements()))
game.board.set_cell(3, 4, "x")
game.board.set_cell(2, 3, "o")
game.board.set_cell(2, 5, "o")
game.board.set_cell(4, 3, "o")
game.board.set_cell(4, 5, "o")
game.player_in_turn = 0
self.assertEqual(2, len(game.possible_movements()))
game.board.set_cell(3, 4, "X")
self.assertEqual(4, len(game.possible_movements()))
game.board.set_cell(3, 4, "o")
game.board.set_cell(2, 3, "x")
game.board.set_cell(2, 5, "x")
game.board.set_cell(4, 3, "x")
game.board.set_cell(4, 5, "x")
game.player_in_turn = 1
self.assertEqual(2, len(game.possible_movements()))
game.board.set_cell(3, 4, "O")
self.assertEqual(4, len(game.possible_movements()))
class SavedGame(object):
def __init__(self):
self._model = Checkers()
self.to_move = None
self.moves = []
self.description = ''
self.black_men = []
self.white_men = []
self.black_kings = []
self.white_kings = []
self.flip_board = False
self.num_players = 1
self._move_check = False
self._bm_check = False
self._bk_check = False
self._wm_check = False
self._wk_check = False
def _write_positions(self, f, prefix, positions):
f.write(prefix + ' ')
for p in sorted(positions):
f.write('%d ' % p)
f.write('\n')
def _write_moves(self, f):
f.write('<moves>\n')
for move in reversed(self.moves):
start = keymap[move.affected_squares[FIRST][0]]
dest = keymap[move.affected_squares[LAST][0]]
movestr = '%d-%d' % (start, dest)
annotation = move.annotation
if annotation.startswith(movestr):
annotation = annotation.replace(movestr, '', 1).rstrip()
f.write('%s;%s\n' % (movestr, annotation))
def write(self, filename):
with open(filename, 'w') as f:
f.write('<description>\n')
for line in self.description.splitlines():
# numbered lists or hyperlinks are not word wrapped.
if line.startswith('# ') or '[[' in line:
f.write(line + '\n')
continue
else:
f.write(textwrap.fill(line, 80) + '\n')
f.write('<setup>\n')
if self.to_move == WHITE:
f.write('white_first\n')
elif self.to_move == BLACK:
f.write('black_first\n')
else:
raise ValueError, "Unknown value for to_move variable"
if self.num_players >=0 and self.num_players <=2:
f.write('%d_player_game\n' % self.num_players)
else:
raise ValueError, "Unknown value for num_players variable"
if self.flip_board:
f.write('flip_board 1\n')
else:
f.write('flip_board 0\n')
self._write_positions(f, 'black_men', self.black_men)
self._write_positions(f, 'black_kings', self.black_kings)
self._write_positions(f, 'white_men', self.white_men)
self._write_positions(f, 'white_kings', self.white_kings)
self._write_moves(f)
def read(self, filename):
with open(filename, 'r') as f:
lines = f.readlines()
linelen = len(lines)
i = 0
while True:
if i >= linelen:
break
line = lines[i].strip()
if line.startswith('<description>'):
self.description = ''
i += 1
while i < linelen and not lines[i].startswith('<setup>'):
self.description += lines[i]
i += 1
elif line.startswith('<setup>'):
i = self._parse_setup(lines, i, linelen)
elif line.startswith('<moves>'):
i = self._parse_moves(lines, i, linelen)
else:
raise IOError, 'Unrecognized section in file, line %d' % (i+1)
def _parse_items(self, line):
men = line.split()[1:]
return map(int, men)
def _add_men_to_board(self, locations, val):
squares = self._model.curr_state.squares
try:
for loc in locations:
idx = squaremap[loc]
squares[idx] = val
except ValueError:
raise IOError, 'Checker location not valid, line %d' % (i+1)
def _parse_setup(self, lines, idx, linelen):
curr_state = self._model.curr_state
curr_state.clear()
idx += 1
while idx < linelen and '<moves>' not in lines[idx]:
line = lines[idx].strip().lower()
if line == 'white_first':
self.to_move = curr_state.to_move = WHITE
self._move_check = True
elif line == 'black_first':
self.to_move = curr_state.to_move = BLACK
self._move_check = True
elif line.endswith('player_game'):
numstr, _ = line.split('_', 1)
self.num_players = int(numstr)
elif line.startswith('flip_board'):
_, setting = line.split()
val = int(setting)
self.flip_board = True if val else False
elif line.startswith('black_men'):
self.black_men = self._parse_items(line)
self._add_men_to_board(self.black_men, BLACK | MAN)
self._bm_check = True
elif line.startswith('white_men'):
self.white_men = self._parse_items(line)
self._add_men_to_board(self.white_men, WHITE | MAN)
self._wm_check = True
elif line.startswith('black_kings'):
self.black_kings = self._parse_items(line)
self._add_men_to_board(self.black_kings, BLACK | KING)
self._bk_check = True
elif line.startswith('white_kings'):
self.white_kings = self._parse_items(line)
self._add_men_to_board(self.white_kings, WHITE | KING)
self._wk_check = True
idx += 1
if (not self._move_check and not self._bm_check and not self._wm_check
and not self._bk_check and not self._wk_check):
raise IOError, 'Error in <setup> section: not all required items found'
return idx
def _is_move(self, delta):
return delta in KING_IDX
def _is_jump(self, delta):
return delta not in KING_IDX
def _try_move(self, idx, start, dest, state_copy, annotation):
legal_moves = self._model.legal_moves(state_copy)
# match move from file with available moves on checkerboard
found = False
startsq, destsq = squaremap[start], squaremap[dest]
for move in legal_moves:
if (startsq == move.affected_squares[FIRST][0] and
destsq == move.affected_squares[LAST][0]):
self._model.make_move(move, state_copy, False, False)
move.annotation = annotation
self.moves.append(move)
found = True
break
if not found:
raise IOError, 'Illegal move found in file, line %d' % (idx+1)
def _try_jump(self, idx, start, dest, state_copy, annotation):
if not self._model.captures_available(state_copy):
return False
legal_moves = self._model.legal_moves(state_copy)
# match jump from file with available jumps on checkerboard
startsq, destsq = squaremap[start], squaremap[dest]
small, large = min(startsq, destsq), max(startsq, destsq)
found = False
for move in legal_moves:
# a valid jump may either have a single jump in it, or
# multiple jumps. In the multiple jump case, startsq is the
# source of the first jump, and destsq is the endpoint of the
# last jump.
if (startsq == move.affected_squares[FIRST][0] and
destsq == move.affected_squares[LAST][0]):
self._model.make_move(move, state_copy, False, False)
move.annotation = annotation
self.moves.append(move)
found = True
break
return found
def _parse_moves(self, lines, idx, linelen):
""" Each move in the file lists the beginning and ending square, along
with an optional annotation string (in Creole format) that describes it.
Since the move listing in the file contains less information than
we need inside our Checkerboard model, I make sure that each move works
on a copy of the model before I commit to using it inside the code. """
state_copy = copy.deepcopy(self._model.curr_state)
idx += 1
while idx < linelen:
line = lines[idx].strip()
if line == "":
idx += 1
continue # ignore blank lines
try:
movestr, annotation = line.split(';', 1)
except ValueError:
raise IOError, 'Unrecognized section in file, line %d' % (idx+1)
# move is always part of the annotation; I just don't want to
# have to repeat it explicitly in the file.
annotation = movestr + annotation
# analyze affected squares to perform a move or jump.
try:
start, dest = [int(x) for x in movestr.split('-')]
except ValueError:
raise IOError, 'Bad move format in file, line %d' % idx
delta = squaremap[start] - squaremap[dest]
if self._is_move(delta):
self._try_move(idx, start, dest, state_copy, annotation)
else:
jumped = self._try_jump(idx, start, dest, state_copy,
annotation)
if not jumped:
raise IOError, 'Bad move format in file, line %d' % idx
idx += 1
self.moves.reverse()
return idx
def test_recieve_input(self, input):
player = HumanPlayer()
game = Checkers(player, Player())
self.assertEqual(player.recieve_input(game.possible_movements()), 4)
def test_invalid_jump(self):
c = Checkers()
# try jumping over the same colored piece
with self.assertRaises(MoveError):
c.move(src=(2, 1), dest=(0, 3))
class Verifier():
def __init__(self):
self.vcs = GitProvider(config.getRepoDir())
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.checkers = Checkers()
def convertFilePathToRepoRelativePath(self, path):
return os.path.relpath(path, config.getRepoDir())
def getDiffResolvedIds(self):
resolved = self.codeChecker.diffResolved(config.getCcRunName(), config.getTmpDir(), self.ccdb)
ids = []
for bug in resolved:
ids.append(bug['reportId'])
return ids
def getBugDataFromDiff(self, obj):
return BugData(int(obj['location']['line']), int(obj['location']['line']), obj['location']['file_name'], obj['check_name'], 'New', obj['description'], int(obj['location']['line']), None)
def getDiffNew(self):
new = self.codeChecker.diffNew(config.getCcRunName(), config.getTmpDir(), self.ccdb)
ids = []
for bug in new:
ids.append(self.getBugDataFromDiff(bug))
return ids
def isBugDataEqual(self, b1, b2):
if b1.getLine() != b2.getLine():
return False
if b1.getChecker() != b2.getChecker():
return False
if b1.getMessage() != b2.getMessage():
return False
if b1.getFile() != b2.getFile():
return False
if b1.getStatus() != b2.getStatus():
return False
if b1.getReviewStatus() != b2.getReviewStatus():
return False
return True
def displaySuggestions(self, suggestions):
statuses = ['Negative', 'Positive', 'Skipped']
for s in suggestions:
print("File: {2}, L{0}, Type: {1}".format(s.bug.getLine(), s.bug.getChecker(), s.file))
print("Verification status: {0}".format(statuses[s.verificationStatus]))
if s.verificationStatus in [1, 2]:
print("Code fragment with bug: \n{0}".format(s.bugCode))
print("Suggested code fragment for replacement: \n{0}".format(s.fixCode))
def applyValidFixes(self, suggestions, files):
for f in files:
bugs = []
for s in suggestions:
if s.file == f and s.verificationStatus in [1, 2]:
bugs.append(s)
bugs.sort(key=lambda x: x.bug.getLine(), reverse=True)
for b in bugs:
print("File: {2}, L{0}, Type: {1}... ".format(b.bug.getLine(), b.bug.getChecker(), s.file), end='')
self.applyFix(b)
print("Applied")
self.vcs.applyChangeForFile(f)
def applyFix(self, s):
extractor = CodeExtractor(s.bug)
extractor.loadCodeFromFile()
extractor.extractBugCode()
extractor.applyFix(s.fixCode)
extractor.saveToFile(s.bug.getFile())
def main(self):
# Do analysis
shutil.rmtree(config.getTmpDir())
self.codeChecker.check(True)
# Diff new
newBugs = self.getDiffNew()
if len(newBugs) < 1:
print('No new bugs introduced, commit is accepted!')
return
print("New bugs found! Count: {0}. Attempting repairs...".format(len(newBugs)))
# Load models
models = {}
for checker in globals.availableCheckers:
models[checker] = load_model(config.cfModelFilenameFormat.format(checker))
# Load all content from files having new
files = set([self.convertFilePathToRepoRelativePath(x.getFile()) for x in newBugs])
fileContents = {}
for f in files:
fn = config.getRepoDir() + f
with open(fn, 'r') as fh:
fileContents[f] = ''.join(fh.readlines())
# For each file sort by bug line desc
suggestions = []
validSuggestions = 0
for f in files:
bugs = [x for x in newBugs if self.convertFilePathToRepoRelativePath(x.getFile()) == f]
bugs.sort(key=lambda x: x.getLine(), reverse=True)
print("=== File: {0} ===".format(f))
# For each bug get a suggestion and test it
for b in bugs:
print("L{0}, Type: {1}".format(b.getLine(), b.getChecker()))
# Prepare useful data
dictionary = Dictionary(b.getChecker())
coder = Coder(dictionary)
totalDictionaryLength = dictionary.length()
# Prepare and extract bug fragment
checkerInfo = self.checkers.extractTokensForChecker(b.getChecker(), b.getMessage())
extractor = CodeExtractor(b)
extractor.loadCodeFromText(fileContents[f])
extractor.extractBugCode()
bugCodeFragment = extractor.getBugCodeFragment()
fixCodeFragment = ''
# Encode it
encodedBugData, initialUnkList = coder.encode(bugCodeFragment, checkerData = checkerInfo)
# Convert to one-hot
MODEL_X_MAX_LEN = models[b.getChecker()].get_layer(index = 0).input_shape[1]
if len(encodedBugData) > MODEL_X_MAX_LEN:
print("Ignored: Code too big for model")
continue
noZerosToPad = MODEL_X_MAX_LEN - len(encodedBugData)
if noZerosToPad > 0:
encodedBugData = coder.applyPadding(encodedBugData, noZerosToPad)
X = np.zeros((1, MODEL_X_MAX_LEN, totalDictionaryLength))
X[0] = coder.convertToOneHot(encodedBugData, np.zeros((MODEL_X_MAX_LEN, totalDictionaryLength)))
# Predict and convert from one-hot
Y = coder.convertFromOneHot(models[b.getChecker()].predict(X)[0])
Y = coder.removePadding(Y)
# Decode
fixCodeFragment = coder.decode(Y, initialUnkList)[:-1]
#Verify?
vStatus = 2
if config.cfVerifyPrediction:
# Apply fix in source code file
extractor.applyFix(fixCodeFragment)
extractor.saveToFile(b.getFile())
# Run CodeChecker and analyze code
shutil.rmtree(config.getTmpDir())
compilationLog = self.codeChecker.check(True)
newBugsAfterFix = self.getDiffNew()
# Check if ID is resolved in tmp folder
isFixed = 'Build failed' not in compilationLog
for nb in newBugsAfterFix:
if self.isBugDataEqual(b, nb):
isFixed = False
# Set vStatus accordingly
if isFixed:
vStatus = 1
else:
vStatus = 0
# Revert file
extractor.loadCodeFromText(fileContents[f])
extractor.saveToFile(b.getFile())
if vStatus == 0:
print("Verification: Negative, cannot be applied")
elif vStatus == 1:
print("Verification: Positive, can be applied")
validSuggestions += 1
elif vStatus == 2:
print("Verification: Skipped")
validSuggestions += 1
sugg = SuggestionData(f, b, bugCodeFragment, fixCodeFragment, vStatus)
suggestions.append(sugg)
print("Valid suggestions prepared for {0} / {1} bugs.".format(validSuggestions, len(newBugs)))
if validSuggestions > 0:
print("Apply valid suggestions (a), display them (d), ignore them (i) or abort commit (q)?")
apply = False
choice = True
while choice:
c = sys.stdin.read(1)
if c == 'a':
apply = True
choice = False
print("Applying fixes...")
elif c == 'i':
choice = False
print("Fixes ignored...")
elif c == 'd':
self.displaySuggestions(suggestions)
print("Apply valid suggestions (a), ignore them (i) or abort commit (q)?")
elif c == 'q':
print("Aborting commit...")
sys.exit(1)
if apply:
self.applyValidFixes(suggestions, files)
print("Fixes applied!")
if validSuggestions != len(newBugs):
print("Unable to fix all bugs, continue with commit (c) or abort (q)?")
choice = True
while choice:
c = sys.stdin.read(1)
if c == 'c':
choice = False
print("Continuing...")
elif c == 'q':
print("Aborting commit...")
sys.exit(1)
else:
print("Bugs corrected, commit is good to go!")
class LearningDataBuilder():
def __init__(self):
self.db = CFDatabase(config.getCfDbFile())
self.checkers = Checkers()
def build(self, checker):
# Initialize coder
print("Initializing coder...")
self.dictionary = Dictionary(checker)
self.coder = Coder(self.dictionary)
# Load all data from DB
print("Fetching data from database...")
allData = self.db.getFixDataForChecker(checker)
allDataLen = len(allData)
print("Done, fetched {0} records".format(allDataLen))
if allDataLen < 1:
print("No data found")
return
# Encode all data
print("Encoding all data and writing to output file...")
i = 0
(maxBug, maxFix,
maxUnk) = self.checkers.getModelStatsForChecker(checker)
with open(config.cfTrainFilenameFormat.format(checker), 'w') as f:
while i < allDataLen:
checkerInfo = self.checkers.extractTokensForChecker(
checker, allData[i][4])
encodedBugData, initialUnkList = self.coder.encode(
allData[i][1], checkerData=checkerInfo)
encodedFixData, finalUnkList = self.coder.encode(
allData[i][2], unkList=initialUnkList, reverse=False)
if -1 in encodedBugData:
print(
"{0}: [{2} - {3} ({1})] Some tokens were not parsed (bug), ignoring (lenUnk = {1})"
.format(i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
elif -1 in encodedFixData:
print(
"{0}: [{2} - {3} ({1})] Some tokens were not parsed (fix), ignoring (lenUnk = {1})"
.format(i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
elif len(encodedBugData) > maxBug or len(
encodedFixData) > maxFix or len(finalUnkList) > maxUnk:
print(
"{0}: [{2} - {3} ({1})] Some tokens were not parsed (lengths), ignoring (lenUnk = {1})"
.format(i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
else:
print("{0}: [{2} - {3} ({1})] Done (lenUnk = {1})".format(
i + 1, len(finalUnkList), len(encodedBugData),
len(encodedFixData)))
f.write(
json.dumps({
'x': encodedBugData,
'y': encodedFixData
}) + '\n')
i += 1
print('Done {0}'.format(i), file=sys.stderr)
print("All done, exiting...")
def test_move(self):
c = Checkers()
# COMMENTS ARE FROM THE PLAYER'S PERSPECTIVE
# move red forward left
self.assertTrue(c.board[3][2] is None)
c.move(src=(1, 2), dest=(2, 3))
self.assertTrue(c.board[3][2] is not None)
# move red forward right
self.assertTrue(c.board[4][1] is None)
c.move(src=(2, 3), dest=(1, 4))
self.assertTrue(c.board[4][1] is not None)
# try moving red where an enemy is
self.assertTrue(c.board[5][0].color is Checkers.colors['black'])
with self.assertRaises(MoveError):
c.move(src=(1, 4), dest=(0, 5))
self.assertTrue(c.board[5][0].color is Checkers.colors['black'])
# try moving red backwards as a regular piece
self.assertTrue(c.board[3][2] is None)
with self.assertRaises(MoveError):
c.move(src=(1, 4), dest=(2, 3))
# try moving a piece that doesn't exist
self.assertTrue(c.board[3][1] is None)
with self.assertRaises(KeyError):
c.move(src=(1, 3), dest=(2, 2))
class FixTautOORCmp():
def __init__(self):
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.code = []
self.checkers = Checkers()
def loadCodeFromFile(self):
with open(self.bugData.getFile(), 'r') as file:
code = file.readlines()
self.code = []
for line in code:
self.code.append(line.replace("\r\n", "\n"))
def saveCodeToFile(self):
with open(self.bugData.getFile(), 'w') as file:
#file.write(self.lineEnding.join(self.code))
file.writelines(self.code)
def findMatchingDefine(self, value):
patValue = '({0})'
patName = '[ \t]([0-9a-zA-Z_]+)[ \t]'
for line in self.code:
if line[:7] == '#define':
if re.search(patValue.format(value), line):
return re.search(patName, line).group(1)
return None
def fix(self, file):
fileData = self.ccdb.getFileData(file)
print(fileData)
bugs = self.ccdb.getAllBugsForChecker('clang-diagnostic-constant-conversion')
lines = []
linesSingle = {}
linesToSuppress = []
for bug in bugs:
if bug[2] == fileData[-1][0]:
self.bugData = self.ccdb.getBugData(bug[0])
if self.bugData.getLine() in linesSingle:
linesSingle[self.bugData.getLine()] += 1
else:
linesSingle[self.bugData.getLine()] = 1
for k in linesSingle:
if linesSingle[k] > 5:
linesToSuppress.append(k)
inserts = 0
for bug in bugs:
if bug[2] == fileData[-1][0]:
self.bugData = self.ccdb.getBugData(bug[0])
if self.bugData.getLine() not in lines:
self.loadCodeFromFile()
if self.bugData.getLine() not in linesToSuppress:
tokens = self.checkers.extractTokensForChecker('clang-diagnostic-constant-conversion', self.bugData.getMessage())
test = tokens
line = self.code[self.bugData.getLine() - 1 + inserts]
newLine = line.replace(tokens[0]['value'], '({0}){1}'.format(tokens[1]['value'], tokens[0]['value']))
if line == newLine:
tokens[0]['value'] = self.findMatchingDefine(tokens[0]['value'])
if tokens[0]['value'] is not None:
newLine = line.replace(tokens[0]['value'], '({0}){1}'.format(tokens[1]['value'], tokens[0]['value']))
if line == newLine:
s = re.search('= (.*);', line)
expr = s.group(1)
newLine = line.replace(expr, '({0})({1})'.format(tokens[1]['value'], expr))
self.code[self.bugData.getLine() - 1 + inserts] = newLine
else:
line = self.code[self.bugData.getLine() - 1 + inserts]
self.code[self.bugData.getLine() - 1 + inserts] = '// codechecker_intentional [clang-diagnostic-constant-conversion] Suppress\n{0}'.format(line)
inserts += 1
self.saveCodeToFile()
lines = lines + list(range((self.bugData.getLine() - 11), (self.bugData.getLine() + 10)))
print("Passed, suppressed: {0}".format(self.bugData.getLine() in linesToSuppress))
print(self.bugData.getLine())
pass
else:
print("Dismissed")
print(self.bugData.getLine())
pass
def __init__(self):
self.vcs = GitProvider(config.getRepoDir())
self.ccdb = CCDatabase(config.getCcDbFile())
self.codeChecker = CodeChecker(config.getRepoDir())
self.checkers = Checkers()
self.loadCommitList()
class CheckersGame(Game):
def __init__(self, history=[]):
# Rollout statistics
self.child_visits = []
# Terminal values for the first player
# 1 for win
# 0 for draw
# -1 for loss
# None for incomplete
self.game_value = None
# XXX Conventions:
# - Black player moves first
# - Ego-centric views assume the king row are at the top, i.e. starts at the bottom (Second player has the same view as absolute)
self.ch = Checkers()
# Action space
self.actions = []
# Simple moves
for from_sq in range(self.ch.n_positions):
for to_sq in self.ch.neighbors[from_sq]:
if to_sq is not None:
simple_move = (from_sq, to_sq)
self.actions.append(simple_move)
assert 98 == len(self.actions), 'There should be 98 simple moves.'
# Jumps
for from_sq in range(self.ch.n_positions):
row, col = self.ch.sq2pos(from_sq)
# For each direction
for di, (drow, dcol) in enumerate(Checkers.dir2del):
next_row, next_col = row + 2 * drow, col + 2 * dcol
if 0 <= next_row < self.ch.size and 0 <= next_col < self.ch.size:
# Within bound
to_sq = self.ch.pos2sq(next_row, next_col)
jump = (from_sq, to_sq)
self.actions.append(jump)
self.num_actions = len(self.actions)
assert 98 + 72 == self.num_actions, 'There should be 98 simple moves and 72 jumps.'
# Inverse dictionary
self.action2ind = {
action: ind
for ind, action in enumerate(self.actions)
}
# Square mapping from absolute to first player's ego-centric (reflect through the center)
self.abs2ego_sq = {}
for sq in range(self.ch.n_positions):
row, col = self.ch.sq2pos(sq)
re_row, re_col = -row + self.ch.size - 1, -col + self.ch.size - 1
re_sq = self.ch.pos2sq(re_row, re_col)
self.abs2ego_sq[sq] = re_sq
# Inverse
self.ego2abs_sq = {re_sq: sq for sq, re_sq in self.abs2ego_sq.items()}
# Move mapping from absolute to first player's ego-centric
self.abs2ego_ac = {}
for ac, (from_sq, to_sq) in enumerate(self.actions):
ego_move = (self.abs2ego_sq[from_sq], self.abs2ego_sq[to_sq])
ego_ac = self.action2ind[ego_move]
self.abs2ego_ac[ac] = ego_ac
# Inverse
self.ego2abs_ac = {
ego_ac: ac
for ac, ego_ac in self.abs2ego_ac.items()
}
# Fast forward to the last state by taking actions from history
self.history = []
for action in history:
self.apply(action)
def clone(self):
game = CheckersGame()
state = self.ch.save_state()
game.ch.restore_state(state)
return game
def apply(self, action_index):
from_sq, to_sq = self.actions[action_index]
board, turn, last_moved_piece, all_next_moves, winner = self.ch.move(
from_sq, to_sq)
# Terminate when one player wins
if winner == 'black':
self.game_value = 1
elif winner == 'white':
self.game_value = -1
self.history.append(action_index)
def legal_actions(self):
moves = self.ch.legal_moves()
action_idices = {self.action2ind[move] for move in moves}
return action_idices
def is_first_player_turn(self):
return self.ch.turn == 'black'
def ego_board_representation(self):
# XXX Channels
# 0 my men
# 1 my kings
# 2 opponent's men
# 3 opponent's kings
# 4 my last moved piece
# QUESTION: try indicating the king row and skipping ego transform?
rep = np.zeros((self.ch.size, self.ch.size, 5))
if self.ch.turn == 'white':
# Same as the absolute view
for sq in self.ch.board['white']['men']:
row, col = self.ch.sq2pos(sq)
rep[row, col, 0] = 1
for sq in self.ch.board['white']['kings']:
row, col = self.ch.sq2pos(sq)
rep[row, col, 1] = 1
for sq in self.ch.board['black']['men']:
row, col = self.ch.sq2pos(sq)
rep[row, col, 2] = 1
for sq in self.ch.board['black']['kings']:
row, col = self.ch.sq2pos(sq)
rep[row, col, 3] = 1
if self.ch._last_moved_piece is not None:
row, col = self.ch.sq2pos(self.ch._last_moved_piece)
rep[row, col, 4] = 1
else:
# Need to invert the board
for sq in self.ch.board['black']['men']:
sq = self.abs2ego_sq[sq]
row, col = self.ch.sq2pos(sq)
rep[row, col, 0] = 1
for sq in self.ch.board['black']['kings']:
sq = self.abs2ego_sq[sq]
row, col = self.ch.sq2pos(sq)
rep[row, col, 1] = 1
for sq in self.ch.board['white']['men']:
sq = self.abs2ego_sq[sq]
row, col = self.ch.sq2pos(sq)
rep[row, col, 2] = 1
for sq in self.ch.board['white']['kings']:
sq = self.abs2ego_sq[sq]
row, col = self.ch.sq2pos(sq)
rep[row, col, 3] = 1
if self.ch._last_moved_piece is not None:
sq = self.abs2ego_sq[self.ch._last_moved_piece]
row, col = self.ch.sq2pos(sq)
rep[row, col, 4] = 1
return rep
def ego_sample(self, state_index: int):
# Fast forward
game = CheckersGame(list(self.history[:state_index]))
# Ego-centric views of the current player
rep = game.ego_board_representation()
# Zero-sum game
ego_val = self.game_value if game.is_first_player_turn() else (
0 - self.game_value)
# Ego-centric actions
if game.is_first_player_turn():
# Invert actions for the first player
visits = np.zeros(self.num_actions)
for i in range(self.num_actions):
visits[self.abs2ego_ac[i]] = self.child_visits[state_index][i]
else:
visits = np.asarray(self.child_visits[state_index])
return rep, ego_val, visits
def ego2abs_policy(self, is_first_player, ego_policy):
if is_first_player:
policy = np.zeros(self.num_actions)
for ego_ac, pr in enumerate(ego_policy):
policy[self.ego2abs_ac[ego_ac]] = pr
else:
policy = ego_policy
return policy