def tryMoveAndEval(move):
tempGame = Game(fen, True)
tempGame.apply_move(move)
tempBoard = tempGame.board._position
score = 0
for i in range(8):
for u in range(8):
if originalBoard[ind(i,u)] != tempBoard[ind(i,u)]:
score += alignedMap[i][u]
return score
def create(file_name: str, game: str):
if game == 'chess':
base_info: GameInformation = GameInformation.create_game_info(str(Game()))
game_json: str = str(base_info)
AbsGame.__create_log_file(file_name, game, game_json)
elif game == 'dga':
base_info: DGA = DGA(DGA.start_board)
game_json: str = str(base_info)
AbsGame.__create_log_file(file_name, game, game_json)
def play_one_game(fen, last_move, rybka, max_tree_depth=3):
chess_game = Game(fen=fen)
chess_game.apply_move(last_move)
print chess_game
start_new_game(rybka, chess_game, search_depth=8)
# print "for " + str(chess_game).split()[1] + ", the cp parameter is " + str(200)
reasonable_moves = find_all_reasonable_moves(rybka, current_depth=0, search_depth=8, cp_parameter=200) # CP is 200 the first time
tree_of_moves = FenTree(root=fen, last_move=last_move, score=0)
first_player_color = str(chess_game).split()[1]
# print str(chess_game).split()[1]
if reasonable_moves: # If there are any reasonable_moves
build_the_tree(tree_of_moves, reasonable_moves, chess_game, rybka, first_player_color, max_tree_depth)
#[x.display_the_tree() for x in tree_of_moves.moves]
return tree_of_moves
def _extract_chessgame(self, pgn_in_file):
# get game model
chessgame = Game()
cmd = ('{0} {1} -Wlalg --nomovenumbers --nocomments --nochecks -V --notags -s'
.format(self.server.pgn_extract_path, pgn_in_file))
p = get_command_process(cmd)
stdout_content = p.stdout.readlines()
# We need to decode the bytes from stdout when running on python 3
if not b_legacy.get_python_major_version() <= 2:
temp = []
for stdout_line in stdout_content:
temp.append(stdout_line.decode())
stdout_content = temp
stdout_content = ''.join(stdout_content)
moves = re.sub('[\r\n]+', ' ', stdout_content)
moves = b_legacy.b_filter(self._filter_move, moves.split(' '))
result = moves[-1]
del moves[-1]
for i in range(0, len(moves)):
chessgame.apply_move(moves[i])
# extract existing comments
comments = {}
# TODO
return chessgame, moves, result, comments
def _validate(self, curr_fen: str) -> bool:
with open(self.__game_path, 'r')as f:
lines = f.read().splitlines()
last_line = lines[-2]
try:
prev_ginfo = GameInformation(json.loads(last_line.split('$')[1]))
except IndexError:
if last_line.startswith('-'):
print('Must be a new file, passing through')
return True
curr = Game()
curr.set_fen(curr_fen)
if str(self.__ginfo) == str(prev_ginfo):
self.__game_is_updated = False
return True
prev = Game()
prev.set_fen(prev_ginfo.get_fen())
print(prev)
print(curr)
if str(prev) == str(curr):
self.__game_is_updated = True
return True
for move in prev.get_moves():
tmp: Game = copy.deepcopy(prev)
tmp.apply_move(move)
if str(tmp) == str(curr):
self.__game_is_updated = True
print('Valid move made: %s' % move)
return True
print('Your opponent seems to be cheating... Game aborted. You are the winner.')
self.__ginfo.set_status(State.CHEATED)
self.__ginfo.set_winner(self.get_who_am_i())
self.get_ginfo().set_loser('p1' if self.get_who_am_i() == 'p2' else 'p2')
self.get_ginfo().inc_seq()
self._update()
return False
def __init__(self, game_id: str, ip: str):
"""
:param game_id:
"""
self.__game_id = game_id
self.__game_path = 'games/%s.chess' % game_id
self.__ip = ip
self.__playable = False
self.__game_is_updated = False
self.__curr_game: Game = Game()
self.__ginfo: GameInformation = None
if game_id is not None:
with open(self.__game_path, 'r') as f:
time, game_info = f.read().splitlines()[-1].split('$')
# game_fen, self.__dic = self.get_game_file_info(game_info)
self.__ginfo = gi(json.loads(game_info))
game_fen = self.__ginfo.get_fen()
if self._validate(game_fen):
if not self.__ginfo.game_is_initiated():
if self.__ginfo.can_i_update():
self._update()
print('Starting the loop new')
self.is_looping = False
self.__curr_game.set_fen(game_fen)
if self.__ginfo.get_player(self._get_turn_of()) == self.get_who_am_i() \
and self.get_ginfo().get_status() == State.ONGOING:
self.__playable = True
else:
self.__curr_game.set_fen(game_fen)
print('Game is not updated yet. Wait for your opponent.')
def AttackMatrix(sFEN): # This I made
print("FEN string is: " + sFEN)
sFENnp = sFEN # setting up for sFEN without pawns
sFENnp = sFENnp.replace('p','1')
sFENnp = sFENnp.replace('P','1')
###############
# DIAGNOSTIC
#im = draw_board(fen=sFEN)
#im.save(os.path.join(os.getcwd(),'diagnostics','withpawns.png'))
#im = draw_board(fen=sFENnp)
#im.save(os.path.join(os.getcwd(),'diagnostics','withoutpawns.png'))
###############\
chessgame = Game(sFEN) # this and next ...
possiblem = chessgame.get_moves() # ... get valid moves with all pieces
chessgamenp = Game(sFENnp) # this and next ...
possiblemnp = chessgamenp.get_moves() # ... get valid moves without pawns
vm = rp(possiblem, possiblemnp) # all moves on board with pawns w/o pawn-fwd moves
#TallyMatrix[row][column]
TallyMatrix = [[0 for x in range(8)] for x in range(8)]
for move in vm:
vr = move[2]
vc = move[3]
vr = ''.join([(str(ord(x)-96) if x.isalpha() else x) for x in list(vr)])
vr = int(vr)-1
vc = int(vc)-1
TallyMatrix[vc][vr] = TallyMatrix[vc][vr] + 1
print('h1 ...... h8')
for r in range(len(TallyMatrix)):
print(TallyMatrix[7-r])
print('a1 ...... a8')
return TallyMatrix #need this line, d'oh!
from __future__ import print_function
from Chessnut import Game
from pystockfish import *
import sys, subprocess
if len(sys.argv) < 2 or 'help' in sys.argv[1]:
print('Usage:\n python evaluate_move.py [FEN]')
print('Reply: [best_move] [NEW_FEN] if valid, otherwise error')
sys.exit(0);
fen = sys.argv[1].strip()
# Throws error if fen is not valid
try :
chessgame = Game(fen, True)
except:
print('Invalid fen: %s' % fen, file=sys.stderr)
sys.exit(1)
### Interface with Stockfish
searcher = Engine(movetime=100)
searcher.setposition_fen(fen)
bestmove = searcher.bestmove_time()['move']
# Throws error if the move is not valid
try:
chessgame.apply_move(bestmove)
except:
print('Invalid move: %s' % bestmove, file=sys.stderr)
sys.exit(1)
exit()
detection_status = {}
detection_status['board'] = False
detection_status['corners'] = False
engage_detection = True
frame_index = 0
board_features = {}
prev_board_features = {}
cur_board_features = {}
cv2.namedWindow('output', cv2.WINDOW_AUTOSIZE)
cv2.namedWindow('corners', cv2.WINDOW_AUTOSIZE)
chessgame = Game()
print(chessgame)
chessboard = chess.Board()
img_file = sys.argv[1]
param_file = sys.argv[2]
cap = cv2.VideoCapture(img_file)
ret, frame = cap.read()
# fourcc = cv2.VideoWriter_fourcc(*'XVID')
# out = cv2.VideoWriter('output.avi', fourcc, 20.0, (692, 692))
if not ret:
print 'can\'t open the video'
exit()
from Chessnut import Game
chessgame = Game()
print(chessgame) # 'rnbqkbnr/pppppppp/8/8/8/8/PPPPPPPP/RNBQKBNR w KQkq - 0 1'
print(chessgame.get_moves())
"""
['a2a3', 'a2a4', 'b2b3', 'b2b4', 'c2c3', 'c2c4', 'd2d3', 'd2d4', 'e2e3',
'e2e4', 'f2f3', 'f2f4', 'g2g3', 'g2g4', 'h2h3', 'h2h4', 'b1c3', 'b1a3',
'g1h3', 'g1f3']
"""
chessgame.apply_move('e2e4') # succeeds!
print(chessgame) # 'rnbqkbnr/pppppppp/8/8/4P3/8/PPPP1PPP/RNBQKBNR b KQkq e3 0 1'
#chessgame.apply_move('e2e4') # fails! (raises InvalidMove exception)
if __name__ == "__main__":
if USE_DUMP:
#load data directly using pickle
f = open(sys.argv[1], 'rb')
data = pickle.load(f)
f.close()
detectMove(data[0], data[1], data[2])
if (len(sys.argv) < 4):
print "USAGE: python detect_features file1.png file2.png sample_param.yml"
exit()
chessgame = Game()
chessgame.apply_move('e2e4')
chessgame.apply_move('e7e5')
chessgame.apply_move('g1f3')
chessgame.apply_move('d7d5')
chessgame.apply_move('e4d5')
print(chessgame)
img_file1 = sys.argv[1]
img_file2 = sys.argv[2]
param_file = sys.argv[3]
frames = []
frames.append(cv2.imread(img_file1))
frames.append(cv2.imread(img_file2))
#!/usr/bin/python3.5
from random import randint
from Chessnut import Game
import subprocess
import cgitb
import cgi
cgitb.enable()
print("Content-Type: text/html")
print()
board = Game()
moves = ""
arg_moves = []
#try:
# arg = cgi.FieldStorage()['history']
# arg_moves = arg.value.split(' ')
#except:
# pass
#for move in arg_moves:
# try:
# board.apply_move(move.strip())
# moves = moves + " " + move
# except:
# pass
arg = cgi.FieldStorage()['history']
arg_moves = arg.value.split(' ')
for move in arg_moves:
board.apply_move(move.strip())
available_moves = board.get_moves()
chosen_move = available_moves[randint(0, len(available_moves) - 1)]
from __future__ import print_function
from Chessnut import Game
import sys
if len(sys.argv) < 3 or 'help' in sys.argv[1]:
print('Usage:\n python make_move.py [FEN] [move]')
print('Reply: [NEW_FEN] if valid, otherwise error')
sys.exit(0)
fen = sys.argv[1].strip()
move = sys.argv[2].strip().replace('_', '')
# Throws error if fen is not valid
try:
chessgame = Game(fen, True)
except:
print('Invalid fen: %s' % fen, file=sys.stderr)
sys.exit(1)
# Throws error if the move is not valid
try:
chessgame.apply_move(move)
except:
print('Invalid move: %s' % move, file=sys.stderr)
sys.exit(1)
print("%s" % chessgame)
help='Verbose output.')
parser.add_argument('-l', metavar='<LEVEL>', default=1,
help='Engine level (1-20).')
args = parser.parse_args()
from bptbx.b_logging import setup_logging
from bptbx import b_legacy
setup_logging(args.v)
from Chessnut import Game
from Chessnut.game import InvalidMove
from chesster.core.position import Position
from chesster.core.uci_frontend import ChessterUciFrontend
uci_frontend = ChessterUciFrontend()
chessgame = Game()
options = {
'setoption name Skill Level value {}'.format(args.l),
'setoption name Hash value 32',
'setoption name Threads value 2'
}
uci_frontend.init_engine(options)
print (Position(chessgame.get_fen()).fen_to_string_board())
while True:
if not args.b: # if user plays black, skip first user move
# get move from user
while True:
print ('-- Your move: ')
try:
raw = b_legacy.b_raw_input().strip()
def add_the_tree(chess_tree, problem_id, fen, prev_move, blitz_rating, std_rating):
"""
" Tree size, for each level
"""
global accumulated_distance
size = {}
display_the_size(chess_tree, size)
print size
nodes = sorted(size.items(), key=lambda y: y[0])
fathers = [0] * len(nodes)
sons = [0] * len(nodes)
branching_factor = {}
i = 0
for x in range(len(nodes) - 1):
fathers[i] += nodes[x][1]
i += 1
i = 0
for x in range(1, len(nodes)):
sons[i] += nodes[x][1]
i += 1
for x in range(len(nodes)):
if float(fathers[x]) > 0:
branching_factor[x] = sons[x] / float(fathers[x])
else:
branching_factor[x] = 0
position = fen.split()[0]
figures = re.findall('[a-zA-Z]', position)
types_of_pieces = len(set(figures))
number_of_pieces = len(figures)
"""
" 13.10.2014
" Calculate the piece values
" example: rnbqkbnr would yield 5 + 3 + 3 + 9 + 0 + 3 + 3 + 5 = 31 points for black
" RNBQKB1R would yield 5 + 3 + 3 + 9 + 0 + 3 + 5 = 28 points for white
" If it's white to move, the ratio will then be 28 / 31 = 0.9032258
" The ratio then helps determine the difficulty of the game
"""
new_fen = Game(fen=fen)
new_fen.apply_move(prev_move)
piece_value_w = calculate_values('w', str(new_fen))
piece_value_b = calculate_values('b', str(new_fen))
next_to_move = str(new_fen).split()[1]
if next_to_move == 'w':
piece_value_ratio = piece_value_w / float(piece_value_b)
else:
piece_value_ratio = piece_value_b / float(piece_value_w)
# End of piece value calculation code
with open('C:\Users\Simon\Dropbox\FRI\Diplomsko delo\Program\processed_data.csv', 'a+b') as csv_file:
fen_writer = csv.writer(csv_file, delimiter=',')
my_buffer = [problem_id, fen, prev_move, blitz_rating, std_rating]
for i in range(4):
my_buffer.append(size.get(i, 0))
average_branching_factor = 0
for i in range(4):
my_buffer.append(branching_factor.get(i, 0))
average_branching_factor += branching_factor.get(i, 0)
average_branching_factor /= 4.0
my_buffer.append(average_branching_factor)
my_buffer.append(number_of_pieces)
my_buffer.append(types_of_pieces)
for i in range(4):
my_buffer.append(accumulated_distance.get(i, 0))
my_buffer.append(piece_value_ratio)
fen_writer.writerow(my_buffer)
# Reset the distance calculator for the moves
accumulated_distance = {}
def view():
keyboard.on_press(key_press)
arduino_python.connection()
chessgame = Game()
coordinate, listxy = chess3.points()
# _, = chess3.poinxts()
cap = cv2.VideoCapture(2)
diff = []
diff1 = []
old_place = np.zeros((64, ), dtype=np.int)
place = np.zeros((64, ), dtype=np.int)
place1 = np.zeros((64, ), dtype=np.int)
aligment = 0
legal_move = 0
white_check = 0
black_check = 0
emotion_time = time.time()
timer_a = time.time()
change = 0
# count = 0
black_start = 0
white_start = 0
started = 0
robot_time = time.time()
robot = 0
rook = 0
white_find_rook = 0
black_find_rook = 0
rook_control = 0
stock_fish = stockfish.Stockfish()
contempt_value = 0
check2 = 0
check1 = 0
contempt_factor = {'Contempt': contempt_value}
while True:
# Yuz tanima ve contempt factor degeri ayarlama
face_emotions = emotions()
if time.time() - emotion_time > 10:
emotion_time = time.time()
if face_emotions == "sad":
contempt_value = random.randrange(0, 20)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
elif face_emotions == "fear":
contempt_value = random.randrange(20, 40)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
elif face_emotions == "neutral":
contempt_value = random.randrange(40, 60)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
elif face_emotions == "angry":
contempt_value = random.randrange(60, 80)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
elif face_emotions == "happy":
contempt_value = random.randrange(80, 100)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
else:
contempt_value = random.randrange(0, 100)
contempt_factor.update(Contempt=contempt_value)
stock_fish.__init__(param=contempt_factor)
# print(face_emotions)
_, img = cap.read()
img = cv2.resize(img, (640, 400))
masked = chess3.masked(img, coordinate[0], coordinate[1],
coordinate[2], coordinate[3])
red_pieces, blue_pieces, img1 = pieces_detect(masked)
cv2.imshow("Pieces Place", img1)
# Beyaz tas sayaci
if white_start == 0:
control(listxy, place, blue_pieces)
check = 0
for i in range(0, len(place)):
if place[i] == 1:
check = check + 1
old_place[i] = place[i]
place[i] = 0
if check1 != check:
print("Beyaz Tas Sayisi : " + str(check))
check1 = check
if check == 16:
black_start = 2
white_start = 1
print("Beyazlarsiniz")
# Siyah tas sayaci
if black_start == 0:
control(listxy, place, red_pieces)
check = 0
for i in range(0, len(place)):
if place[i] == 1:
check = check + 1
old_place[i] = place[i]
place[i] = 0
if check2 != check:
print("Siyah Tas Sayisi : " + str(check))
check2 = check
# print(check)
if check == 16:
black_start = 1
white_start = 2
print("Siyahlarsiniz")
# Siyah Tas Islemleri
if black_start == 1:
if white_check == 0:
control(listxy, place, blue_pieces)
check = 0
for i in range(0, len(place)):
if place[i] == 1:
check = check + 1
old_place[i] = place[i]
place[i] = 0
if check == 16:
white_check = 1
if (started == 0) and white_check == 1:
robot = 2
robot_time = time.time()
best_move, poslist = sfish.black_start_game()
chessgame.apply_move(best_move)
if old_place[character.index(best_move[2:], 0)] == 1:
arduino_python.push('-' + best_move[:2] + '-fully-' +
best_move[2:] + '_down-' + "empty-")
arduino_python.push('-redL-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + best_move[:2] + '-fully-' +
best_move[2:] + '_down-' + "empty-")
robot_time = robot_time + 30
arduino_python.push('-redL-')
started = 1
if robot == 2 and time.time() - robot_time > 0:
robot_time = time.time()
print("lutfen oynayin 1")
arduino_python.push('-greenL-')
robot = 0
if (change == 0) and white_check == 1 and robot == 0:
for i in range(0, 64):
place[i] = 0
if aligment == 0:
control(listxy, place, red_pieces)
for i in range(0, 64):
old_place[i] = place[i]
aligment = 1
control(listxy, place, red_pieces)
for i in range(0, len(place)):
if place[i] != old_place[i]:
robot = 1
print("10 saniye icinde oyna")
arduino_python.push('-tenSec-')
timer_a = time.time()
change = 1
break
elif old_place.any() == place.any():
change = 0
robot = 0
if time.time(
) - timer_a > 10 and change == 1 and started == 1 and robot == 1:
robot = 0
arduino_python.push('-greenL-')
for i in range(0, 64):
place1[i] = 0
control(listxy, place1, red_pieces)
timer_a = time.time()
# if (count == 0):
# for i in range(0, len(place1)):
# old_place[i] = place1[i]
# count = 1
# count = 1
# if count == 1:
for i in range(0, len(place1)):
if place1[i] != old_place[i]:
diff.append(i)
if len(diff) == 2:
if old_place[i] == 0:
diff1.append(diff[0])
diff1.append(diff[1])
elif old_place[i] == 1:
diff1.append(diff[1])
diff1.append(diff[0])
elif len(diff) == 4 and rook == 0:
if old_place[i] == 0:
diff1.append(diff[0])
diff1.append(diff[1])
elif old_place[i] == 1:
diff1.append(diff[1])
diff1.append(diff[0])
old_place[i] = place1[i]
if len(diff1) == 2:
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.black_start_game()
chessgame.apply_move(best_move)
if white_find_rook == 0:
white_find_rook, rook_control = white_rook_detect(
poslist, white_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-redL-' + '-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-redL-' + '-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-redL-' + '-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-redL-' + '-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif legal_move == 1:
print("Yanlis Hamle Oynadiniz" + character[diff1[0]] +
character[diff1[1]])
arduino_python.push('-illegal_move-')
diff1.clear()
rook_control = 0
elif len(diff1) == 4 and character[diff1[0]] + character[
diff1[1]] == 'e8f8' and rook == 0:
for i in range(0, 64):
place1[i] = 0
character[diff1[0]] = 'e8'
character[diff1[1]] = 'g8'
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.black_start_game()
chessgame.apply_move(best_move)
character[diff1[0]] = 'e8'
character[diff1[1]] = 'f8'
if white_find_rook == 0:
white_find_rook, rook_control = white_rook_detect(
poslist, white_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-' + '-redL-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + '-redL-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
robot_time = robot_time + 30
elif legal_move == 1:
arduino_python.push('-illegal_move-')
print("Yanlis Hamle Oynadiniz " + character[diff1[0]] +
character[diff1[1]])
diff1.clear()
rook_control = 0
rook = 1
elif len(diff1) == 4 and character[diff1[0]] + character[
diff1[1]] == 'a8c8' and rook == 0:
for i in range(0, 64):
place1[i] = 0
character[diff1[0]] = 'e8'
character[diff1[1]] = 'c8'
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.black_start_game()
chessgame.apply_move(best_move)
character[diff1[0]] = 'a8'
character[diff1[1]] = 'c8'
if white_find_rook == 0:
white_find_rook, rook_control = white_rook_detect(
poslist, white_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-' + '-redL-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + '-redL-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif legal_move == 1:
arduino_python.push('-illegal_move-')
print("Yanlis Hamle Oynadiniz " + character[diff1[0]] +
character[diff1[1]])
diff1.clear()
rook_control = 0
rook = 1
# elif len(diff1) == 1:
# robot = 3
change = 0
diff.clear()
diff1.clear()
if robot == 3 and time.time() - robot_time > 0:
robot_time = time.time()
for i in range(0, 64):
place1[i] = 0
control(listxy, place1, red_pieces)
for i in range(0, len(place1)):
old_place[i] = place1[i]
print("lutfen oynayin 2")
if legal_move == 0:
arduino_python.push('-greenL-')
elif legal_move == 1:
arduino_python.push('-illegal_move-')
robot = 0
# Beyaz Tas islemleri
elif white_start == 1:
if black_check == 0:
control(listxy, place, red_pieces)
check = 0
for i in range(0, len(place)):
if place[i] == 1:
check = check + 1
old_place[i] = place[i]
place[i] = 0
if check == 16:
black_check = 1
if change == 0 and robot == 0 and black_check == 1:
for i in range(0, 64):
place[i] = 0
if aligment == 0:
control(listxy, place, blue_pieces)
for i in range(0, 64):
old_place[i] = place[i]
aligment = 1
control(listxy, place, blue_pieces)
for i in range(0, len(place)):
if place[i] != old_place[i]:
robot = 1
print("10 saniye icinde oyna")
arduino_python.push('-tenSec-')
timer_a = time.time()
change = 1
break
elif old_place.any() == place.any():
change = 0
robot = 0
if time.time() - timer_a > 10 and change == 1 and robot == 1:
arduino_python.push('-greenL-')
robot = 0
for i in range(0, 64):
place1[i] = 0
control(listxy, place1, blue_pieces)
timer_a = time.time()
# if count == 2:
# for i in range(0, len(place1)):
# old_place[i] = place1[i]
# count = 1
# count = 1
# if count == 1:
for i in range(0, len(place1)):
if place1[i] != old_place[i]:
diff.append(i)
if len(diff) == 2:
if old_place[i] == 0:
diff1.append(diff[0])
diff1.append(diff[1])
elif old_place[i] == 1:
diff1.append(diff[1])
diff1.append(diff[0])
elif len(diff) == 4 and rook == 0:
if old_place[i] == 0:
diff1.append(diff[0])
diff1.append(diff[1])
elif old_place[i] == 1:
diff1.append(diff[1])
diff1.append(diff[0])
old_place[i] = place1[i]
if len(diff1) == 2:
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.white_start_game()
chessgame.apply_move(best_move)
if black_find_rook == 0:
black_find_rook, rook_control = black_rook_detect(
poslist, white_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-' + '-redL-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + '-redL-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif legal_move == 1:
arduino_python.push('-illegal_move-')
print("Yanlis Hamle Oynadiniz " + character[diff1[0]] +
character[diff1[1]])
rook_control = 0
diff1.clear()
elif len(diff1) == 4 and character[diff1[0]] + character[
diff1[1]] == 'e1f1' and rook == 0:
for i in range(0, 64):
place1[i] = 0
character[diff1[0]] = 'e1'
character[diff1[1]] = 'g1'
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.white_start_game()
chessgame.apply_move(best_move)
character[diff1[0]] = 'e1'
character[diff1[1]] = 'f1'
if black_find_rook == 0:
black_find_rook, rook_control = black_rook_detect(
poslist, white_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-' + '-redL-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + '-redL-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif legal_move == 1:
arduino_python.push('-illegal_move-')
print("Yanlis Hamle Oynadiniz " + character[diff1[0]] +
character[diff1[1]])
rook_control = 0
diff1.clear()
rook = 1
elif len(diff1) == 4 and character[diff1[0]] + character[
diff1[1]] == 'a1c1' and rook == 0:
for i in range(0, 64):
place1[i] = 0
character[diff1[0]] = 'e1'
character[diff1[1]] = 'c1'
robot = 3
robot_time = time.time()
legal_move = chessgame.apply_move(character[diff1[0]] +
character[diff1[1]])
if legal_move == 0:
sfish.position(character[diff1[0]] +
character[diff1[1]])
best_move, poslist = sfish.white_start_game()
chessgame.apply_move(best_move)
character[diff1[0]] = 'a1'
character[diff1[1]] = 'c1'
if black_find_rook == 0:
black_find_rook, rook_control = black_rook_detect(
poslist, black_find_rook)
if rook_control == 1:
robot_time = robot_time + 60
try:
if old_place[character.index(
best_move[2:],
0)] == 1 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[2:] + '-fully-' +
'out-' + 'empty-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif old_place[character.index(
best_move[2:],
0)] == 0 and rook_control == 0:
arduino_python.push('-' + '-redL-' +
best_move[:2] + '-fully-' +
best_move[2:] + '_down-' +
"empty-")
robot_time = robot_time + 30
except ValueError:
if len(best_move) == 3:
arduino_python.push(
'-' + '-redL-' + best_move[0:1] +
str(int(best_move[1:2]) - 1) + '-fully-' +
best_move[0:2] + '_down-' + '-empty-')
robot_time = robot_time + 30
else:
arduino_python.push('-' + '-redL-' +
best_move[2:4] +
'-fully-' + 'out-' +
'empty-' + best_move[:2] +
'-fully-' +
best_move[2:4] + '_down-' +
'empty-')
robot_time = robot_time + 60
elif legal_move == 1:
arduino_python.push('-illegal_move-')
print("Yanlis Hamle Oynadiniz " + character[diff1[0]] +
character[diff1[1]])
rook_control = 0
diff1.clear()
rook = 1
change = 0
diff.clear()
diff1.clear()
if robot == 3 and time.time() - robot_time > 0 and black_start == 1:
robot_time = time.time()
for i in range(0, 64):
place1[i] = 0
control(listxy, place1, red_pieces)
for i in range(0, len(place1)):
old_place[i] = place1[i]
print("lutfen oynayin 3")
if legal_move == 0:
arduino_python.push('-greenL-')
elif legal_move == 1:
arduino_python.push('-illegal_move-')
robot = 0
elif robot == 3 and time.time(
) - robot_time > 0 and white_start == 1:
robot_time = time.time()
for i in range(0, 64):
place1[i] = 0
control(listxy, place1, blue_pieces)
for i in range(0, len(place1)):
old_place[i] = place1[i]
print("lutfen oynayin 4")
if legal_move == 0:
arduino_python.push('-greenL-')
elif legal_move == 1:
arduino_python.push('-illegal_move-')
robot = 0
# print(blue_pieces)
if cv2.waitKey(10) & 0xFF == ord('q'):
cap.release()
cv2.destroyAllWindows()
break
sys.exit(1)
heatmap = []
for i in range(8):
heatmap.append(list(values[8 * i:8 * (i + 1)]))
def rotateHeatmap(heatmap):
newMap = []
for i in reversed(range(len(heatmap))):
newMap.append(list(reversed(heatmap[i])))
return newMap
alignedMap = rotateHeatmap(heatmap)
originalGame = Game(fen, True)
originalBoard = originalGame.board._position
def ind(a,b):
return a * 8 + b
def tryMoveAndEval(move):
tempGame = Game(fen, True)
tempGame.apply_move(move)
tempBoard = tempGame.board._position
score = 0
for i in range(8):
for u in range(8):
if originalBoard[ind(i,u)] != tempBoard[ind(i,u)]:
score += alignedMap[i][u]
return score
from __future__ import print_function
from Chessnut import Game
import sys
if len(sys.argv) < 3 or "help" in sys.argv[1]:
print("Usage:\n python make_move.py [FEN] [move]")
print("Reply: [NEW_FEN] if valid, otherwise error")
sys.exit(0)
fen = sys.argv[1].strip()
move = sys.argv[2].strip().replace("_", "")
# Throws error if fen is not valid
try:
chessgame = Game(fen, True)
except:
print("Invalid fen: %s" % fen, file=sys.stderr)
sys.exit(1)
# Throws error if the move is not valid
try:
chessgame.apply_move(move)
except:
print("Invalid move: %s" % move, file=sys.stderr)
sys.exit(1)
print("%s" % chessgame)
from Chessnut import Game
from ChessBoard import *
import random
from Node import Node
#This program models a game of chess with the help of ChessNut, and integrates a GUI and intelligent chess agent
#Authors: Elias Strizower, Henry Kwan, Alex Godziela
################ GLOBAL VARIABLES ########################################
board = ChessBoard(8, 8)
## chessgame = Game() # use this for a NEW GAME, use a fen generator for testing
chessgame = Game()
HumanNextMoves = {
} #Dictionary that will hold 2 ply of the human player's next moves
AINextMoves = {} #Dictionary that will hold 2 ply of the AI's next moves
board.updateBoard(str(chessgame))
#This functions checks whether a player is in check, checkmate, or stalemate
def checkStatus():
if chessgame.status == 1:
print("CHECK")
if chessgame.status == 2:
print("CHECKMATE")
print("GAME OVER")
if chessgame.status == 3:
print("STALEMATE")
from Chessnut import Game
chessgame = Game()
print(chessgame) # 'rnbqkbnr/pppppppp/8/8/8/8/PPPPPPPP/RNBQKBNR w KQkq - 0 1'
print(chessgame.get_moves())
"""
['a2a3', 'a2a4', 'b2b3', 'b2b4', 'c2c3', 'c2c4', 'd2d3', 'd2d4', 'e2e3',
'e2e4', 'f2f3', 'f2f4', 'g2g3', 'g2g4', 'h2h3', 'h2h4', 'b1c3', 'b1a3',
'g1h3', 'g1f3']
"""
chessgame.apply_move('e2e4') # succeeds!
print(
chessgame) # 'rnbqkbnr/pppppppp/8/8/4P3/8/PPPP1PPP/RNBQKBNR b KQkq e3 0 1'
#chessgame.apply_move('e2e4') # fails! (raises InvalidMove exception)
