def __init__(self, size):
self.player = 0
self.playerA = 'human'
self.playerB = 'minimax'
self.depth = 5
self.useDecisionTree = 1
self.dynamicDepth = 1
self.board = GameBoard(size, size, self.playerA, self.playerB,
self.depth, self.useDecisionTree,
self.dynamicDepth)
self.bars = {}
self.width, self.height = self.board.width, self.board.height
self.board_state_size = (self.width - 1) * self.height * 2
self.state_to_move = {}
self.move_to_state = {}
for dot in cartesian(range(self.width), range(self.height)):
if dot[0] < self.width - 1:
move = (dot, right(dot))
ind = self.__convert_move_to_state(move)
self.state_to_move[ind] = move
self.move_to_state[move] = ind
self.bars[move] = None
if dot[1] < self.height - 1:
move = (dot, upper(dot))
ind = self.__convert_move_to_state(move)
self.state_to_move[ind] = move
self.move_to_state[move] = ind
self.bars[move] = None
self.board.move_to_state = self.move_to_state
def run_game(player_one, player_two):
print 'Starting Game'
game = GameBoard()
turn = 0
while game.winner is None:
#player one plays even turns
if turn % 2 == 0:
current_player = player_one
#player two plays odd turns
else:
current_player = player_two
# get player input
print game
print ' '.join(str(number) for number in range(game.columns))
column = raw_input('{} which column to place {}? '.format(
current_player.name,
current_player.piece
))
# try to insert piece into board, retry turn if failure
if not game.insert_piece(column, current_player.piece):
print 'Column either full or invalid, please make another move'
continue
turn += 1
print game
print '{} wins in {} turns'.format(current_player.name, turn)
def run_game(player_one, player_two):
print 'Starting Game'
game = GameBoard()
turn = 0
while game.winner is None:
#player one plays even turns
if turn % 2 == 0:
current_player = player_one
#player two plays odd turns
else:
current_player = player_two
# get player input
print game
print ' '.join(str(number) for number in range(game.columns))
column = raw_input('{} which column to place {}? '.format(
current_player.name, current_player.piece))
# try to insert piece into board, retry turn if failure
if not game.insert_piece(column, current_player.piece):
print 'Column either full or invalid, please make another move'
continue
turn += 1
print game
print '{} wins in {} turns'.format(current_player.name, turn)
def test_find_empty_cell(self):
game_board = GameBoard()
game_board.set_cell(1,1)
game_board.set_cell(2,1)
cell_list = [1,2,3]
cell = game_board.get_empty_cell(cell_list)
print game_board
self.assertTrue(cell,3)
def _gtest(width, height):
"""A small driver to make sure that the board works. It's not
safe to use this test function in production, because it uses
input()."""
print("Running _gtest... ")
board = GameBoard(width, height)
board.turn = 1
board.scores = [0, 0]
gui = GameGUI(board)
def reset(self):
size = self.width
self.board = GameBoard(size, size, self.playerA, self.playerB,
self.depth, self.useDecisionTree,
self.dynamicDepth)
self.board.move_to_state = self.move_to_state
return self.board.board_state
def __init__(self, armies, level=4, mode=DEFAULT_MODE, game_board=None):
self._armies = armies
if game_board is None:
self._game_board = GameBoard(
generate_base.generate_random_base_by_level(level=level))
else:
self._game_board = game_board
self._sim = Simulator(self._game_board)
self._mode = mode
self.calc_fitness()
def check_long_win(board: GameBoard, i, j):
#Check if the slot (i,j) corresponds to a win in the horizontal direction
piece_count = 1
piece = board.piece
pointer = j - 1
while board.valid(i, pointer) and board[i, pointer] == piece:
piece_count += 1
pointer -= 1
pointer = j + 1
while board.valid(i, pointer) and board[i, pointer] == piece:
piece_count += 1
pointer += 1
#print("LONG:", piece_count)
return piece_count >= 4
def check_long_win(board:GameBoard, i, j):
#Check if the slot (i,j) corresponds to a win in the horizontal direction
piece_count = 1
piece = board.piece
pointer = j - 1
while board.valid(i, pointer) and board[i, pointer] == piece:
piece_count += 1
pointer -= 1
pointer = j + 1
while board.valid(i, pointer) and board[i, pointer] == piece:
piece_count += 1
pointer += 1
#print("LONG:", piece_count)
return piece_count >= 4
def test_vertical_win():
game = GameBoard()
game.insert_piece(0, 'X')
game.insert_piece(0, 'X')
game.insert_piece(0, 'X')
assert game.winner is None
game.insert_piece(0, 'X')
assert game.winner == 'X'
def test_horizontal_win():
game = GameBoard()
game.insert_piece(0, 'X')
game.insert_piece(1, 'X')
game.insert_piece(2, 'X')
assert game.winner is None
game.insert_piece(3, 'X')
assert game.winner == 'X'
def score(self, game_board: board.GameBoard, cpu_turn: bool) -> int:
if game_board.is_won():
if cpu_turn:
return 10
else:
return -10
return 0
def check_lat_win (board:GameBoard, i, j):
#Check if the slot (i,j) corresponds to a win in the vertical direction
piece_count = 1 #keeps track of how many pieces are in a row of the same color, when it reaches 4 the game ends
piece = board.piece
pointer = i - 1 #current location
while board.valid(pointer, j) and board[pointer, j] == piece: #while piece is same color as original and a valid board space
piece_count += 1
pointer -= 1
pointer = i + 1
while board.valid(pointer, j) and board[pointer, j] == piece:
piece_count += 1
pointer += 1
#print("LAT:", piece_count)
return piece_count >= 4
def ListToGameBoard(lst): """ convert python list to the GameBoard class """ boardsize = int(len(lst) ** .5) gb = GameBoard() gb.board = [[0 for j in range(0, boardsize)] for i in range(0, boardsize)] row = 0 col = 0 for item in lst: gb.board[row][col] = item col += 1 if col >= boardsize: col = 0 row += 1 return gb
def _run(width,
height,
playerA,
playerB,
depth=3,
useDecisionTree=True,
dynamicDepth=False):
print "Running... "
board = GameBoard(width, height, playerA, playerB, depth, useDecisionTree,
dynamicDepth)
board.turn = 1
board.scores = [0, 0]
try:
gui = GameGUI(board)
print "Hello"
except Exception as e:
pass
def test_cell_sum(self):
game_board = GameBoard()
self.assertFalse(game_board.check_for_win())
game_board.set_cell(3,1)
game_board.set_cell(5,1)
game_board.set_cell(7,1)
self.assertTrue(game_board.check_for_win())
class TicTacToe(game.Game):
def __init__(self, name, players=[]):
super().__init__(name, players)
self.board = GameBoard()
def play_turn(self, player):
while True:
self.board.display_board()
self.board.display_ui_board()
userinput = input("Choose a letter..\n>>> ")
if self.board.modify_ui(player.symbol, userinput):
break
else:
print("This place isn't available")
def play(self):
assert len(
self.players) == 2 # Make sure that 2 players are in the list
players_cycle = cycle(self.players)
while True:
current_player = next(players_cycle)
self.play_turn(current_player)
win = self.board.check_win()
if win:
print("{} won".format(current_player.name))
break
full = self.board.check_full_board()
if full:
print("Draw")
break
def __init__(self, player_1, player_2):
self.logger = get_logger()
self.logger.info("Starting game...")
# Players
self.player_1 = player_1
self.player_2 = player_2
# Boards
self.logger.info("Creating boards...")
self.board_1 = GameBoard(player=self.player_1,
color=self.PLAYER_1_COLOR)
self.board_2 = GameBoard(player=self.player_2,
color=self.PLAYER_2_COLOR)
# Set the opponents
self.logger.info("Assingning opponents...")
self.player_1.set_opponent_board(self.board_2)
self.player_2.set_opponent_board(self.board_1)
self.logger.info('Game started. Start placing ships!')
self.status = self.GAME_STARTED
def check_lat_win(board: GameBoard, i, j):
#Check if the slot (i,j) corresponds to a win in the vertical direction
piece_count = 1 #keeps track of how many pieces are in a row of the same color, when it reaches 4 the game ends
piece = board.piece
pointer = i - 1 #current location
while board.valid(pointer, j) and board[
pointer,
j] == piece: #while piece is same color as original and a valid board space
piece_count += 1
pointer -= 1
pointer = i + 1
while board.valid(pointer, j) and board[pointer, j] == piece:
piece_count += 1
pointer += 1
#print("LAT:", piece_count)
return piece_count >= 4
def test_horizontal_win():
game = GameBoard()
game.insert_piece(0, 'X')
game.insert_piece(1, 'X')
game.insert_piece(2, 'X')
assert game.winner is None
game.insert_piece(3, 'X')
assert game.winner == 'X'
def test_vertical_win():
game = GameBoard()
game.insert_piece(0, 'X')
game.insert_piece(0, 'X')
game.insert_piece(0, 'X')
assert game.winner is None
game.insert_piece(0, 'X')
assert game.winner == 'X'
def evaluate(self, num_games=20, max_turn_time=.2):
"""This function will play two neural nets against
each other num_games times. It returs the ratio in
which the first player won
"""
logging.info("== Starting evaluation round ==")
p1_wins = 0
for i in range(num_games):
players = [(self.p1, MCTS(.5)), (self.p2, MCTS(.5))]
board = GameBoard()
shuffle(players)
turn = cycle(players)
game_start = time.time()
while not board.game_over():
player = next(turn)
start_turn = time.time()
while (time.time() - start_turn) < max_turn_time:
player[1].search(board, player[0])
pv = player[1].prob_vec(board)
choose = np.random.choice(len(pv), p=pv)
board.place_token(choose)
if player[0] is self.p1:
p1_wins += 1
logging.info(
f"player 1 wins game {i+1} ({p1_wins} total wins)")
else:
logging.info(
f"player 2 wins game {i+1} ({i-p1_wins+1} total wins)")
logging.debug(
f"game {i} took {time.time()-game_start:.1f}s, {board.total_moves} moves\n{board}"
)
if p1_wins / num_games >= 0.55: # end early if p1 has majority
return 1
elif (i - p1_wins + 1) / num_games >= 0.55:
return 0
return p1_wins / num_games
def check_r_diag(board:GameBoard, i , j):
piece_count = 1
piece = board.piece
lat_p = i + 1
long_p = j + 1
while board.valid(lat_p, long_p) and board[lat_p,long_p] == piece:
piece_count += 1
lat_p += 1
long_p += 1
lat_p = i - 1
long_p = j - 1
while board.valid(lat_p, long_p) and board[lat_p,long_p] == piece:
piece_count += 1
lat_p -= 1
long_p -= 1
#print("RDIAG:", piece_count)
return piece_count >= 4
def _newgame(self):
self.board = GameBoard(self.board.width, self.board.height)
self.board.turn = 1
self.board.scores = [0, 0]
for square in self.squares:
self.cv.itemconfig(self.squares[square], fill='lightyellow')
for bar in self.bars:
self.cv.itemconfig(self.bars[bar], fill='lightgray')
self.cv.update()
def check_r_diag(board: GameBoard, i, j):
piece_count = 1
piece = board.piece
lat_p = i + 1
long_p = j + 1
while board.valid(lat_p, long_p) and board[lat_p, long_p] == piece:
piece_count += 1
lat_p += 1
long_p += 1
lat_p = i - 1
long_p = j - 1
while board.valid(lat_p, long_p) and board[lat_p, long_p] == piece:
piece_count += 1
lat_p -= 1
long_p -= 1
#print("RDIAG:", piece_count)
return piece_count >= 4
def test_cell_sum(self):
game_board = GameBoard()
game_board.set_cell(1,1)
game_board.set_cell(2,3)
game_board.set_cell(3,5)
cell_list = [1,2,3]
self.assertEquals(game_board.sum_cells(cell_list), 9)
def test_computer_player(self):
game_board = GameBoard()
computerplayer = ComputerPlayer("Computer",game_board,1)
name = computerplayer.name
# Test name was set
self.assertEqual(name,"Computer")
# Test board is instance of GameBoard
self.assertIsInstance(computerplayer.game_board,GameBoard)
# Test player (id of 1) has marker value of 4
self.assertEquals(computerplayer.marker_value, 4)
# Make the first move
computerplayer.make_move()
self.assertFalse(game_board.is_cell_empty(5))
# Make the another move
computerplayer.make_move()
self.assertFalse(game_board.is_cell_empty(1))
# Make the third move
computerplayer.make_move()
self.assertFalse(game_board.is_cell_empty(9))
self.assertTrue(game_board.check_for_win())
def test_computer_player(self):
game_board = GameBoard()
computerplayer = ComputerPlayer("Computer",game_board,1)
name = computerplayer.name
# Set first two cells and should return last cell
game_board.set_cell(1,4)
game_board.set_cell(2,4)
cell_list = [1,2,3]
cell = computerplayer.get_best_empty_cell(cell_list)
self.assertEquals(cell,3)
# Set last two cells and should return first cell
game_board.set_cell(5,4)
game_board.set_cell(6,4)
cell_list = [4,5,6]
cell = computerplayer.get_best_empty_cell(cell_list)
self.assertEquals(cell,4)
def __init__(self, board=None, nnet=None, mcts=None, batch_size=10):
"""Pass the baord class (defaults to GameBoard), the neural net instance
and the MCTS instance
"""
logging.basicConfig(filename="dojo.log", level=logging.DEBUG,
filemode='w')
self.board = board or GameBoard()
self.nnet = nnet or neural_net.NeuralNet()
self.tree = mcts or MCTS(3)
self.training_examples = []
self.batch_size = batch_size
def resetGame(self): #Reset Game (could probably do this more graciously)
self.ATT_CAPTURED = 0
self.DEF_CAPTURED = 0
self.att_reward_total = 0
self.def_reward_total = 0
self.captured = []
self.done = False
self._board = GameBoard()
self.action_space = []
self._turns = 0
self._state = Const.ATT_TURN
self.action_space = self.newMovements(Const.ATT_SIDE_MARK)
self.n_actions = len(self.action_space)
def _runStats(width,
height,
playerA,
playerB,
depth=3,
useDecisionTree=True,
dynamicDepth=False):
line = "%d, %d, %s, %s, %d, %d, %d\n" % (
width, height, playerA, playerB, depth, useDecisionTree, dynamicDepth)
writeToStats(line, useDecisionTree)
start = time.clock()
board = GameBoard(width, height, playerA, playerB, depth, useDecisionTree,
dynamicDepth)
board.turn = 1
board.scores = [0, 0]
try:
gui = GameGUI(board)
except Exception as e:
pass
end = time.clock()
line = "%f\n\n" % (end - start)
writeToStats(line, useDecisionTree)
def __init__(self, level=4, mode=DEFAULT_MODE, game_board=None):
self._army, titles = generate_army.generate_army_by_level(
townhall_level=level)
if game_board is None:
self._game_board = GameBoard(
generate_base.generate_base_by_level(level))
else:
self._game_board = game_board
self._sim = Simulator(self._game_board)
self._fit = 0
self._mode = mode
# calculate fitness once when created
self.calc_fitness()
def __init__(self):
self.logger = logger.create_logger('Controller')
self.load_config(CONFIG_FILE)
self.board = GameBoard(self.width, self.height)
self.running = False
self.paused = False
self.visibility = random.randint(self.minvisibility, self.maxvisibility)
# Put some trees on the board
num_trees = random.randint(self.mintrees*self.width*self.height,
self.maxtrees*self.width*self.height)
for i in xrange(num_trees):
x = random.randint(0, self.width - 1)
y = random.randint(0, self.height - 1)
if not self.board.get_object((x, y)):
self.board.add_object(Tree(self.board, (x, y)))
def __init__(self):
"""Initializing the application."""
self.master = tk.Tk()
self.master.title("Five Wins Game")
self.master.geometry("800x600+50+50")
self.master.config(bg="dodger blue")
self.master.attributes("-alpha", 0.9)
self.menubar = tk.Menu(self.master)
file_menu = tk.Menu(self.menubar, tearoff=0)
file_menu.add_command(label="Quit", command=self.quit_application)
self.menubar.add_cascade(label="File", menu=file_menu)
self.main_window = MainWindow(self.master)
self.main_window.add(GameBoard(self.main_window), text="Game Board")
self.master.config(menu=self.menubar)
def __init__(self):
super(Tablut, self).__init__()
self.att_reward_total = 0 #Following variable are used in printStats()
self.def_reward_total = 0
self.ATT_WIN_COUNT = 0
self.DEF_WIN_COUNT = 0
self.DEF_CAPTURED = 0
self.ATT_CAPTURED = 0
self._turns = 0
self._state = Const.ATT_TURN #See rule #3 of game rules
self.done = False #Used to stop game
self.captured = [] #Keep track of captured pieces
self._board = GameBoard() #Instantiate board
self.action_space = self.newMovements(
Const.ATT_SIDE_MARK) #Holds all possible moves for either side
self.n_actions = len(
self.action_space) #Used for QLearningTable algorithm
def minimax(self, game_board: board.GameBoard, cpu_turn: bool,
player_x_turn: bool) -> int:
# If the game is over return the score
s = self.score(game_board, cpu_turn)
if s != 0:
return s
# Create the list of scores of all further possible moves
scores = list()
moves = game_board.available_moves()
# Check for no available moves left, in which case tie
if len(moves) == 0:
return 0
# Parity the turn
player_x_turn = not player_x_turn
# Get the score of each possible move
for move in moves:
trial_board: board.GameBoard = copy.deepcopy(game_board)
# Determine the value of the play
if player_x_turn:
val = board.TTTValue.X
else:
val = board.TTTValue.O
trial_board.make_move(move, val)
# Find the minimax score of this new move
scores.append(
self.minimax(trial_board, not cpu_turn, player_x_turn))
# Do the minimax calculation
if not cpu_turn:
return max(scores)
else:
return min(scores)
def test_marker_valuet(self):
game_board = GameBoard()
self.assertEquals(game_board.get_marker_value_by_id(1),4)
def test_diagonal_win():
game = GameBoard()
game.insert_piece(0, 'X')
game.insert_piece(1, 'Y')
game.insert_piece(1, 'X')
game.insert_piece(2, 'Y')
game.insert_piece(2, 'Y')
game.insert_piece(2, 'X')
game.insert_piece(3, 'Y')
game.insert_piece(3, 'Y')
game.insert_piece(3, 'Y')
assert game.winner is None
game.insert_piece(3, 'X')
assert game.winner == 'X'
def run_simulation():
print 'Game Start'
game = GameBoard()
game.insert_piece(0,'X')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(1, 'Y')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(0,'X')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(2, 'Y')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(0,'X')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(2, 'Y')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
game.insert_piece(0,'X')
print game
print '#'* 10, 'winner: {}'.format(game.winner), '#'* 10
def test_insert_piece_failure():
# ensure incorrectly inserting piece results in failure return
game = GameBoard()
assert game.insert_piece('test', 'X') is False
from board import GameBoard
from players import Human_Player, AI_Player
import time
players = []
size = 11
depth = 2
Reverse = False
for i in range(len(sys.argv)):
if sys.argv[i] == ‘-l’
Reverse = True
if sys.argv[i] == ‘-n’
size = int(sys.argv[i+1])
end
board = GameBoard(size)
if not Reverse:
players.append(Human_Player("human", board, 0, depth))
players.append(AI_Player("COM", board, 1, depth))
else:
players.append(Human_Player("COM", board, 0, depth))
players.append(AI_Player("human", board, 1, depth))
playing = True
while playing:
# print "\nMATCH: %s vs %s." % (players[0].get_name(), players[1].get_name())
print board
moves = 0
current_player_id = 0
active_turn = True
def test_get_cell(self):
game_board = GameBoard()
game_board.set_cell(3,1)
self.assertEquals(game_board.get_cell(3), 1)
def test_is_empty(self):
game_board = GameBoard()
self.assertTrue(game_board.is_cell_empty(1))
def test_insert_piece_success():
# ensure correctly inserting piece results in successful return
game = GameBoard()
assert game.insert_piece(0, 'X') is True
def test_insert_piece_failure():
# ensure incorrectly inserting piece results in failure return
game = GameBoard()
assert game.insert_piece('test', 'X') is False
def test_bad_int_entry():
# ensure board state remains unchanged upon bad int entry
game = GameBoard()
empty_board = str(game)
game.insert_piece(12315, 'X')
assert str(game) == empty_board
def test_good_string_entry():
# ensure board state changes upon correct string entry
game = GameBoard()
empty_board = str(game)
game.insert_piece('0', 'X')
assert str(game) != empty_board
def test_good_string_entry():
# ensure board state changes upon correct string entry
game = GameBoard()
empty_board = str(game)
game.insert_piece('0', 'X')
assert str(game) != empty_board
def test_insert_piece_success():
# ensure correctly inserting piece results in successful return
game = GameBoard()
assert game.insert_piece(0, 'X') is True
class Controller(object):
logger = None
board = None
running = None
paused = None
width = None
height = None
minvisibility = None
maxvisibility = None
mintrees = None
maxtrees = None
visibility = None
snapshot_file = None
def __init__(self):
self.logger = logger.create_logger('Controller')
self.load_config(CONFIG_FILE)
self.board = GameBoard(self.width, self.height)
self.running = False
self.paused = False
self.visibility = random.randint(self.minvisibility, self.maxvisibility)
# Put some trees on the board
num_trees = random.randint(self.mintrees*self.width*self.height,
self.maxtrees*self.width*self.height)
for i in xrange(num_trees):
x = random.randint(0, self.width - 1)
y = random.randint(0, self.height - 1)
if not self.board.get_object((x, y)):
self.board.add_object(Tree(self.board, (x, y)))
def load_config(self, filename):
self.logger.info("Loading game configuration...")
config = ConfigParser.ConfigParser()
config.read(filename)
self.snapshot_file = config.get("Server", "Snapshot")
self.width = int(config.get("GameBoard", "Width"))
self.height = int(config.get("GameBoard", "Height"))
self.minvisibility = int(config.get("Player", "MinVisibility"))
self.maxvisibility = int(config.get("Player", "MaxVisibility"))
self.mintrees = float(config.get("GameBoard", "MinTrees"))
self.maxtrees = float(config.get("GameBoard", "MaxTrees"))
self.snowball_speed = int(config.get("Snowball", "Speed"))
snowball.SPEED = self.snowball_speed
self.logger.info("Min Visibility: " + str(self.minvisibility))
self.logger.info("Max Visibility: " + str(self.maxvisibility))
self.logger.info("Game Height: " + str(self.height))
self.logger.info("Game Width: " + str(self.width))
def create_player(self, username, connection):
x = random.randint(0, self.width - 1)
y = random.randint(0, self.height - 1)
while self.board.get_object((x, y)):
x = random.randint(0, self.width - 1)
y = random.randint(0, self.height - 1)
player = Player(username, connection, self.board, (x,y))
return player
def add_player(self, newPlayer):
# check to see if player already exists
if self.get_player(newPlayer.username):
raise Exception('Player', 'Already exists')
#add player to game
self.board.add_object(newPlayer)
def remove_player(self, player):
self.board.remove_object(player)
def get_player(self, name):
for player in self.board.players:
if player.username == name:
return player
return None
def run(self):
if(self.paused):
self.logger.debug("Resuming game")
self.paused = False
else:
self.logger.debug("Starting game")
self.running = True
snapshot_counter = 0
while self.running and not self.paused and len(self.board.players) > 0 :
self.step()
time.sleep(0.5)
snapshot_counter += 1
if snapshot_counter == 10:
snapshot_counter = 0
file = open(self.snapshot_file, 'w')
file.write(str(self.board))
file.close()
if self.running:
self.logger.debug("Pausing game")
else:
# close the game
self.logger.debug("Stopping game")
#while len(self.board.players):
# self.board.players[0].disconnect()
# del self.board.players[0]
self.board.clear()
self.running = False
def step(self):
nextMoves = {}
self.logger.debug("Getting players' moves")
# for each player, create their visible map and ask for a move
for player in self.board.players:
if not player.connection.running:
continue
player.increment_steps()
board = self.board.get_visible_board(player.coordinates, self.visibility)
player.request_move(board)
# wait for all of the players to respond (or timeout)
for player in self.board.players:
if player.connection.getting_move:
player.connection.move_join()
move = player.get_next_position(nextMoves)
try:
player.perform_action()
except Exception as e:
self.logger.info(e)
#print move
if move in nextMoves:
nextMoves[move].append(player)
else:
nextMoves[move] = [player]
# populate the nextMoves list with static objects
for obj in self.board.staticObjects:
if obj.coordinates in nextMoves:
nextMoves[obj.coordinates].append(obj)
else:
nextMoves[obj.coordinates] = [obj]
# populate the nextMoves list with dynamic objects
for obj in self.board.dynamicObjects:
move = obj.get_next_position(nextMoves)
if move in nextMoves:
nextMoves[move].append(obj)
else:
nextMoves[move] = [obj]
# check for collisions and handle them
for loc,lst in nextMoves.items():
if len(lst) > 1:
# if there are more than one object at that location
for obj in lst:
# loop through each of the objects and
# have the dynamic ones handle the collision
if(isinstance(obj, DynamicObject)):
others = nextMoves[loc][:]
others.remove(obj)
obj.handle_collision(others)
# apply all of the moves to the objects
self.logger.debug("Applying moves")
for obj in self.board.dynamicObjects:
try:
self.board.move_object(obj, obj.get_next_position(nextMoves))
except Exception as e:
self.logger.info(e)
for player in self.board.players:
if not self.board.move_object(player, player.get_next_position(nextMoves)):
# if the player could not move (moved off game board)
player.increment_deaths()
#print self.board
def pause(self):
self.paused = True
def resume(self):
self.start()
def stop(self):
self.running = False
def start(self):
t = Thread(group = None, target = self.run)
t.start()
'''def reload_config(self):
def test_get_cell_offset(self):
game_board = GameBoard()
self.assertEquals(game_board.get_cell_offset(1,1), 1)
self.assertEquals(game_board.get_cell_offset(3,3), 9)
self.assertEquals(game_board.get_cell_offset(4,4), -1)
name1="Contestant 1", name2="Contestant 2",
verbose=False, interactive=False, ansi=False, replay=False,
**kwargs):
delay = 1.0/FPS
try:
p1 = Player(cmd1, name1)
except Exception, e:
raise PlayerFailedException(name1, "Couldn't start process: "+str(e))
try:
p2 = Player(cmd2, name2)
except Exception, e:
raise PlayerFailedException(name2, "Couldn't start process: "+str(e))
gameboard = GameBoard(board)
if replay:
replayfile = get_replayfile(replay)
replayfile.write("+OK|{} {}|".format(gameboard.width, gameboard.height))
for line in gameboard.board:
replayfile.write(''.join(line).translate(P1BOARD))
replayfile.write('\n')
replayfile.write("|{}|{}|".format(name1, name2))
result = None
exception1 = None
exception2 = None
try:
while True:
if verbose:
class BoardGenetics:
MAXIMIZE_FITNESS = False
DEFAULT_MODE = DESTORYER
"""
This class manages all of the functions necessery in order to run GA.
"""
def __init__(self, armies, level=4, mode=DEFAULT_MODE, game_board=None):
self._armies = armies
if game_board is None:
self._game_board = GameBoard(
generate_base.generate_random_base_by_level(level=level))
else:
self._game_board = game_board
self._sim = Simulator(self._game_board)
self._mode = mode
self.calc_fitness()
def get_gb(self):
return self._game_board
def set_armies(self, armies):
self._armies = armies
def minimize_fitness(self):
return True
def run(self, army):
return self._sim.run(army)
"""
Our fitness function, currently linear.
"""
def calc_fitness(self):
self._fit = 0
try:
for army in self._armies:
outcome = self.run(army)
# calculate fitness
if self._mode == REGULAR:
self._fit += 2 * outcome["percent"] + 0.3 * outcome[
"stars"] + outcome["gold"] + outcome["elixir"]
elif self._mode == DESTORYER:
self._fit += 2 * outcome["percent"] + 0.3 * outcome["stars"]
elif self._mode == GOLD_DIGGER:
self._fit += outcome["gold"]
elif self._mode == ELIXIR_LOVER:
self._fit += outcome["elixir"]
elif self._mode == GOLD_DIGGER:
self._fit += outcome["gold"] + outcome["elixir"]
except Exception as e:
print(e)
self._fit = 0
self._fit /= len(self._armies)
print(self._fit)
def get_fitness(self):
return self._fit
def viz(self, index, viz_mode=True):
if viz_mode:
path = SAVE_FOLDER + "%04d.png" % index
board_viz.viz_board(game_board=self._game_board,
army=self._armies[0],
path=path)
self._game_board.update_viz()
"""
Our mutation function.
"""
def mutation(self, only_second=False):
if not only_second:
for i in range(random.randint(1, 5)):
self.mutation_step_1()
for i in range(random.randint(1, 2)):
self.mutation_step_2()
self.calc_fitness()
# Swaps 2 random buildings of size 3
def mutation_step_2(self):
buildings = self._game_board.get_buildings()
buildings = [b for b in buildings if b.get_size() == 3]
i1, i2 = random.randint(0,
len(buildings) - 1), random.randint(
0,
len(buildings) - 1)
x, y = buildings[i1].get_pos()
buildings[i1].set_pos(buildings[i2].get_pos())
buildings[i2].set_pos((x, y))
def mutation_step_1(self):
# getting buildings and buildings that are not empty
buildings = self._game_board.get_buildings()
# running through all the non empty buildings and try to replace them
# with other buildings in the same size (including emptys)
index = random.randint(3, len(buildings) - 1)
building = buildings[index]
# try swapping the building
moved = False
i = 0
while i < 20:
i += 1
x, y = util.gen_board_location(BOARD_SIZE - building.get_size() +
1)
g = Building(pos=(x, y), size=building.get_size())
# check for building at that location
has_overlap = any([
b.overlap(g) for b in buildings[:index] + buildings[index + 1:]
])
# if building exists
if not has_overlap:
# swap between buildings if are the same size
building.set_pos((x, y))
break
class Display: # 棋盘显示程序
def __init__(self, board=None, pipe=None, mode=None):
global ori_board
if board is None:
self.game_board = GameBoard()
else:
self.game_board = board
self.s = pipe
self.turn = 1
self.win = tk.Tk()
###
if pipe is None:
self.win.title("Surakarta")
else:
self.win.title(self_user_name)
###
self.buffer = []
ori_board = cv2.imread('resources/pictures/board.jpeg')
ori_board = ori_board[..., ::-1]
ori_board = cv2.resize(ori_board, (600, 600),
interpolation=cv2.INTER_NEAREST)
ori_board = ImageTk.PhotoImage(Image.fromarray(ori_board))
self.board_frame = tk.Frame(self.win)
self.control_panel = tk.Frame(self.win,
bg='WHITE',
bd=0,
height=600,
width=200)
self.display_canvas = tk.Canvas(self.board_frame,
bg='WHITE',
bd=0,
heigh=600,
width=600)
self.display_canvas.create_image(0, 0, anchor='nw', image=ori_board)
self.r = 15
self.a = None
self.b = None
self.x = None
self.y = None
self.p = None
self.history = []
self.mode = mode
self.display_posi = []
self.my_turn_flag = None
for i in range(15):
line_display_posi = [] # 初始化 显示位置矩阵
for j in range(15):
x = 39.2 * j + 25
y = 39.2 * i + 25
line_display_posi.append(Position(x, y))
self.display_posi.append(line_display_posi)
if self.s is not None:
while self.my_turn_flag is None:
try:
print('try receiving1')
info = self.receive()
print(info)
info = info.split('.')
if info[1] == 'first':
self.my_turn_flag = True
t = Thread(target=self.receive_position)
t.start()
elif info[1] == 'second':
self.my_turn_flag = False
t = Thread(target=self.receive_position)
t.start()
except IndexError:
pass
def receive_position(self):
while True:
if self.my_turn_flag is False:
print('receiving')
if self.buffer == ['']:
self.buffer.pop()
if self.buffer:
print('info', self.buffer)
######
# if info=='quit.':
# endbattle=1;
######
info = self.buffer.pop(0)
info = info.split('.')[1].split(',')
self.game_board.make_move(
[int(info[0]), int(info[1])], self.turn)
self.display_chess(self.game_board)
self.turn = -self.turn
self.change_turn()
else:
info = self.s.recv(1024).decode('utf-8')
if info == 'quit.':
# self.win.destroy()
self.win.quit()
a = quit_ui()
info = info.split('#')
for info_ in info:
self.buffer.append(info_)
info = self.buffer.pop(0)
info = info.split('.')[1].split(',')
self.game_board.make_move(
[int(info[0]), int(info[1])], self.turn)
self.display_chess(self.game_board)
self.turn = -self.turn
self.change_turn()
def change_turn(self):
if self.my_turn_flag:
self.my_turn_flag = False
else:
self.my_turn_flag = True
def receive(self):
if self.buffer:
info = self.buffer.pop(0)
print('return', info)
return info
else:
info = self.s.recv(1024).decode('utf-8')
info = info.split('#')
for info_ in info:
self.buffer.append(info_)
info = self.buffer.pop(0)
print('return', info)
return info
def display_chess(self, game_board): # 显示棋子函数
self.display_canvas.delete("chess")
for i in range(15): # 遍历棋盘
for j in range(15):
if game_board.board[i][
j] == WHITE_CHESS: # 如果是白棋，则跟觉显示矩阵和半径，绘制白棋
self.display_canvas.create_oval(
self.display_posi[i][j].x - self.r,
self.display_posi[i][j].y - self.r,
self.display_posi[i][j].x + self.r,
self.display_posi[i][j].y + self.r,
fill='GhostWhite',
tag='chess')
elif game_board.board[i][
j] == BLACK_CHESS: # 如果是黑棋，则跟觉显示矩阵和半径，绘制黑棋
self.display_canvas.create_oval(
self.display_posi[i][j].x - self.r,
self.display_posi[i][j].y - self.r,
self.display_posi[i][j].x + self.r,
self.display_posi[i][j].y + self.r,
fill='Black',
tag='chess')
self.win.update()
if game_board.judge() is not None:
poi = game_board.judge()
if game_board.board[poi[0]][poi[1]] == BLACK_CHESS:
messagebox.showinfo('Game End', 'The Game is End!BLACK WIN!')
self.win.quit()
if game_board.board[poi[0]][poi[1]] == WHITE_CHESS:
messagebox.showinfo('Game End', 'The Game is End!WHITE WIN!')
self.win.quit()
# messagebox.showinfo('Game End', 'The Game is End!')
# self.win.quit()
def place_chess(self, event): # 点击，放置棋子
if self.my_turn_flag or self.s is None:
for row_index in range(15): # 遍历棋盘
for col_index in range(15):
if self.display_posi[row_index][col_index].x - self.r < event.x < self.display_posi[row_index][
col_index].x + self.r and self.display_posi[row_index][col_index].y - self.r < event.y < \
self.display_posi[row_index][col_index].y + self.r: # 如果鼠标的点击范围在棋子的附近内
if self.game_board.board[row_index][
col_index] == NO_CHESS: # 如果当前位置棋盘为空，则可以放置棋子
self.game_board.make_move([row_index, col_index],
self.turn, self.history)
self.turn = -self.turn
self.display_chess(self.game_board)
if self.s is not None:
print('position.' + str(row_index) + ',' +
str(col_index))
self.s.send(
bytes(
'position.' + str(row_index) + ',' +
str(col_index), 'utf-8'))
self.change_turn()
if self.mode is not None:
# ai = SearchEngine(self.game_board, self.turn)
ai = AlphaBeta(self.game_board, self.turn)
move = ai.search()
self.game_board.make_move([move[0], move[1]],
self.turn,
self.history)
self.turn = -self.turn
self.display_chess(self.game_board)
return
def check_play_legal(self):
if self.a != self.x or self.b != self.y:
return True
return False
###
def quit(self, event):
if self.s is not None:
self.s.send(bytes('quit.', 'utf-8'))
self.s.close()
# self.win.destroy()
###
def display(self):
# self.display_chess(self.game_board)
self.board_frame.pack(side=tk.LEFT)
# self.control_panel.pack(side=tk.RIGHT)
self.display_canvas.pack()
self.win.bind("<Button-1>", self.place_chess)
self.win.bind('<Tab>', self.quit)
self.win.bind("<Return>", self.retract)
self.win.mainloop()
def retract(self, event): # 撤销棋子函数
print('enr')
if self.s is None:
move = self.history.pop() # history 中储存了历史放置棋子队列，根据历史信息回退
self.game_board.board[move[0]][move[1]] = NO_CHESS
self.turn = -self.turn
self.display_chess(self.game_board)
def refresh(self):
self.board_frame.pack(side=tk.LEFT)
self.control_panel.pack(side=tk.RIGHT)
self.display_canvas.pack()
# self.display_chess(board)
self.win.update()
def test_set_cell(self):
game_board = GameBoard()
game_board.set_cell(3,1)
self.assertFalse(game_board.is_cell_empty(3))
def __init__(self, board=None, pipe=None, mode=None):
global ori_board
if board is None:
self.game_board = GameBoard()
else:
self.game_board = board
self.s = pipe
self.turn = 1
self.win = tk.Tk()
###
if pipe is None:
self.win.title("Surakarta")
else:
self.win.title(self_user_name)
###
self.buffer = []
ori_board = cv2.imread('resources/pictures/board.jpeg')
ori_board = ori_board[..., ::-1]
ori_board = cv2.resize(ori_board, (600, 600),
interpolation=cv2.INTER_NEAREST)
ori_board = ImageTk.PhotoImage(Image.fromarray(ori_board))
self.board_frame = tk.Frame(self.win)
self.control_panel = tk.Frame(self.win,
bg='WHITE',
bd=0,
height=600,
width=200)
self.display_canvas = tk.Canvas(self.board_frame,
bg='WHITE',
bd=0,
heigh=600,
width=600)
self.display_canvas.create_image(0, 0, anchor='nw', image=ori_board)
self.r = 15
self.a = None
self.b = None
self.x = None
self.y = None
self.p = None
self.history = []
self.mode = mode
self.display_posi = []
self.my_turn_flag = None
for i in range(15):
line_display_posi = [] # 初始化 显示位置矩阵
for j in range(15):
x = 39.2 * j + 25
y = 39.2 * i + 25
line_display_posi.append(Position(x, y))
self.display_posi.append(line_display_posi)
if self.s is not None:
while self.my_turn_flag is None:
try:
print('try receiving1')
info = self.receive()
print(info)
info = info.split('.')
if info[1] == 'first':
self.my_turn_flag = True
t = Thread(target=self.receive_position)
t.start()
elif info[1] == 'second':
self.my_turn_flag = False
t = Thread(target=self.receive_position)
t.start()
except IndexError:
pass
def test_bad_string_entry():
# ensure board state remains unchanged upon bad string entry
game = GameBoard()
empty_board = str(game)
game.insert_piece('test', 'X')
assert str(game) == empty_board
players.reverse()
"""
This is the main logic for the game. It will:
- create the board
- prompt for number of players (human/computer)
- prompt for player names
- loop - allowing for multiple games for same players
- loop - for each player move - re-displaying board each time
- check for winner and display winner name or tie if game over
- prompt to see if they want to play again
"""
# Create array to hold players
players = []
board = GameBoard()
print "\nWelcome to the TIC-TAC-TOE game!\n"
# Hard code this for now - will prompt later
num_players = get_num_humans()
player_cnt = 0
# Prompt for player's names and then create player
while player_cnt < num_players:
# Use static method to get name
name = Player.get_player_name()
# Create player and add to player list
players.append(Player(name, board, player_cnt))
player_cnt += 1