def get_best_move_for(game: Game):
global leaf_nodes_found
global input_data
global output_data
possible_action = game.get_possible_positions()
output_data_for_this_game = [0] * game.board.columns * game.board.rows
action_game_map = {}
for action in possible_action:
game1 = game.clone()
game1.make_move(*get_coordinates(action, game1))
if game1.check_game_over():
output_data_for_this_game[action] = 1
input_data.append(game.toArray())
output_data.append(output_data_for_this_game)
leaf_nodes_found += 1
if leaf_nodes_found % 10000 == 0:
print('leaf nodes total', leaf_nodes_found, len(input_data), len(input_data) - leaf_nodes_found)
return True
action_game_map[action] = game1
for action in possible_action:
game1 = action_game_map[action]
can_opponent_win = get_best_move_for(game1)
if can_opponent_win:
output_data_for_this_game[action] = 0
else:
output_data_for_this_game[action] = 1
input_data.append(game.toArray())
output_data.append(output_data_for_this_game)
return any(output_data)
def test_clone_game(self):
game = Game()
game.starting_player = game.player_2
two = game.player_1.get_piece_by_type(PieceType.two)
two.set_movement_direction(Direction.east)
game.board.get_tile(2, 2).place_piece(two)
three = game.player_2.get_piece_by_type(PieceType.three)
three.set_movement_direction(Direction.north)
game.board.get_tile(1, 0).place_piece(three)
game_clone = game.clone()
center_piece_clone = game_clone.board.get_tile(2, 2).piece
assert center_piece_clone is not None
assert center_piece_clone.type == PieceType.two
assert center_piece_clone.owner_id == game_clone.player_1.id
center_piece_clone = game_clone.board.get_tile(1, 0).piece
assert center_piece_clone is not None
assert center_piece_clone.type == PieceType.three
assert center_piece_clone.owner_id == game_clone.player_2.id
assert game_clone.starting_player == game_clone.player_2
game_clone.switch_starting_player()
assert game_clone.starting_player.id != game.starting_player.id
def basic_game(tmpdir):
g = Game()
g.gamedir = tmpdir.mkdir("test_game")
with open('{}/gm_passwords.json'.format(g.gamedir), 'w') as outfile:
json.dump({'passwords': ['gmpass1', 'gmpass2']}, outfile)
temp1 = ItemTemplate('backpack', 'Backpack', "It's a backpack", True)
temp2 = ItemTemplate('key', 'Blue Key', 'This is a key', False)
g.player_manager.load_gm_passwords(g.gamedir)
room1 = Room('room1', 'Room #1', 'First room.')
room2 = Room('room2', 'Room #2', 'Second room.')
room3 = Room('room3', 'Room #3', 'Third room.')
room1.adjacent_rooms.add(room2)
room2.adjacent_rooms.add(room1)
room2.adjacent_rooms.add(room3)
room3.adjacent_rooms.add(room2)
room3.adjacent_rooms.add(room1)
char1 = Character('char1', 'First Character', '1234', room1)
char2 = Character('char2', 'Second Character', 'qwerty', room3)
g.room_manager.rooms['room1'] = room1
g.room_manager.rooms['room2'] = room2
g.room_manager.rooms['room3'] = room3
g.char_manager.characters['char1'] = char1
g.char_manager.characters['char2'] = char2
g.item_manager.item_templates[temp1.short_name] = temp1
g.item_manager.item_templates[temp2.short_name] = temp2
backpack1 = g.item_manager.new_item(temp1.short_name)
key1 = g.item_manager.new_item(temp2.short_name)
backpack2 = g.item_manager.new_item(temp1.short_name)
key2 = g.item_manager.new_item(temp2.short_name)
backpack1.add_item(key1)
char1.items.add_item(backpack1)
room1.items.add_item(backpack2)
room1.items.add_item(key2)
return g
def __init__(self):
# init row, col
max_row = 5
max_col = 12
# init Game
self.game = Game(max_row, max_col)
def main():
running = True
playing = False
pg.init()
pg.mixer.init()
#screen = pg.display.set_mode((0, 0), pg.FULLSCREEN)
screen = pg.display.set_mode((1200, 800), pg.SRCALPHA)
clock = pg.time.Clock()
start_menu = StartMenu(screen, clock)
game_menu = GameMenu(screen, clock)
while running:
start_menu = StartMenu(screen, clock)
start_timer = pg.time.get_ticks()
game_menu = GameMenu(screen, clock)
game = Game(screen, clock)
playing = start_menu.run()
while playing:
complete, lost = game.run()
if complete:
end_game_menu = EndGameMenu(screen, clock, start_timer)
end_game_menu.run()
running = False
elif lost:
playing = False
else:
playing = game_menu.run()
def test_player_must_use_four_piece(self, clean_tree_search_caches_before_tests):
game = Game()
game.starting_player = game.player_2
five = game.player_2.get_piece_by_type(PieceType.five)
five.set_movement_direction(Direction.south)
game.board.get_tile(2, 3).place_piece(five)
two = game.player_2.get_piece_by_type(PieceType.two)
two.set_movement_direction(Direction.south)
game.board.get_tile(3, 3).place_piece(two)
three = game.player_2.get_piece_by_type(PieceType.three)
three.set_movement_direction(Direction.north)
game.board.get_tile(1, 1).place_piece(three)
player_two = game.player_1.get_piece_by_type(PieceType.two)
player_two.set_movement_direction(Direction.west)
game.board.get_tile(1, 3).place_piece(player_two)
# Player 1 can only avoid losing this turn by player the four piece on either
# the (2, 0) or the (2, 4) tile or on the (0, 3) tile
best_move = get_best_move(game.player_1, game.player_2, is_first_move=False, depth=1)
assert (best_move.x == 2 and best_move.y == 0) or\
(best_move.x == 2 and best_move.y == 4) or\
(best_move.x == 0 and best_move.y == 3)
assert best_move.piece_type == PieceType.four
def test_player_must_use_last_piece(self, clean_tree_search_caches_before_tests):
# Here we set up a scenario where player 1 can win by playing his last available piece
# If he plays a 3 at (2, 4), he wins
game = Game()
game.starting_player = game.player_2
one = game.player_1.get_piece_by_type(PieceType.one)
one.set_movement_direction(Direction.north)
game.board.get_tile(3, 3).place_piece(one)
two = game.player_1.get_piece_by_type(PieceType.two)
two.set_movement_direction(Direction.east)
game.board.get_tile(3, 2).place_piece(two)
four = game.player_1.get_piece_by_type(PieceType.four)
four.set_movement_direction(Direction.north)
game.board.get_tile(2, 0).place_piece(four)
five = game.player_1.get_piece_by_type(PieceType.five)
five.set_movement_direction(Direction.south)
game.board.get_tile(2, 2).place_piece(five)
enemy_two = game.player_2.get_piece_by_type(PieceType.two)
enemy_two.set_movement_direction(Direction.west)
game.board.get_tile(4, 1).place_piece(enemy_two)
best_move = get_best_move(game.player_1, game.player_2, is_first_move=False, depth=1)
assert best_move is not None
assert best_move.piece_type == PieceType.three
assert best_move.x == 2
assert best_move.y == 4
def do_menu(prefManager, scoresFile):
menuUtil.send_menu(MENU_OPTIONS)
option = menuUtil.receive_option(
len(MENU_OPTIONS)) # Receive validated menu option.
print()
if option == 1:
# Play the Game
game = Game(prefManager, scoresFile)
game.play()
elif option == 2:
# See instructions
instructions.send_instructions()
elif option == 3:
# Edit your preferences
preferencesFrontend.do_menu(prefManager)
elif option == 4:
# View scores data
scoresMenu.do_menu(scoresFile)
elif option == 5:
# Exit
print('Bye!')
exit()
print()
def create_game():
game_room.remove(request.sid)
game = Game()
games.append(game)
game.add_player(request.sid, player_names[request.sid])
player_games[request.sid] = game
update_game_room()
def render_loop(stdscr, game: Game, keystroke: int, cursor: Cursor):
# Initialization
stdscr.clear()
height, width = stdscr.getmaxyx()
max_cursor = calc_max_cursor(game)
cursor = cursor.move(keystroke, max_cursor)
# Draw Title
draw_centred_title(stdscr, "PENTAGO", width)
# Draw Menu
menu_string = f"Press 'q' to quit | row: {cursor.get_y()}, col: {cursor.get_x()} | stage: {game.get_stage()}"
draw_menu(stdscr, menu_string, width, height)
if not game.is_over():
# Handle moves
game, cursor = handle_move(keystroke, game, cursor)
# Rotate String
if game.get_stage() == 1:
draw_rotate_string(stdscr, game, width)
if game.is_over():
draw_winner_string(stdscr, game, width)
# Draw Board
draw_centred_board(stdscr, game, width, cursor)
# Wait for input
return stdscr.getch(), game, cursor
class TestBoard(unittest.TestCase):
def setUp(self):
self.basic_game = Game(board=None, rnd=random.Random(1))
def test_constructor(self):
self.assertEqual(self.basic_game.score(), 0)
game = Game(rnd=random.Random(1))
self.assertEqual(game.board(), self.basic_game.board())
def test_smash(self):
# This doesn't comprehensively test smashing because
# the tests for Board mostly did that already.
for direction in DIRECTIONS:
board = Board()
board = board.update((1, 1), 2)
game = Game(rnd=random.Random(1), board=board)
self.assertTrue(game.smash(direction))
self.assertEqual(game.board()[1, 1], 0)
for direction in DIRECTIONS:
board = Board()
board = board.update((0, 0), 2)
game = Game(rnd=random.Random(1), board=board)
if direction in {UP, LEFT}:
self.assertFalse(game.smash(direction))
else:
self.assertTrue(game.smash(direction))
self.assertEqual(game.board()[0, 0], 0)
def render(self, screen, width, height):
if self.network is None:
try:
self.network = Network(self.host, self.port, self.pw, self)
except:
self.event = None
self.network = None
if self.event is None and self.network is None:
NoServer.render(screen, width, height)
return
if self.event is None:
NoServer.render_pw_error(screen, width, height)
return
if "gamestate" in self.event:
self.last_score = self.event["gamestate"]["ranking"]
Game.render(screen, width, height, self.event["gamestate"],
self.selected_player, self.host, self.port)
elif "lobby" in self.event:
Lobby.render(screen, width, height, self.event["lobby"], self.host,
self.port, self.last_score)
else:
print("unknown state")
print(self.event)
def joinGame(self, game_id=None, password=None):
if password:
password = self._generatePassword(password)
self._refreshSeriesState()
if not game_id:
game = Game.getPlayerLastGame(series_id=self._seriesState['id'],
player_id=self._playerState['id'])
if not game or game['status'] == Base_Game.STATUS_ENDED:
game = Game.getLastGameInSeries(
series_id=self._seriesState['id'])
if not game:
raise GameWasNotCreateError
else:
game = Game.get(game_id=game_id)
if not game:
raise GameWasNotCreateError
self._isPlayerHasAccessToGame(game['id'], password)
if self._playerState['game_id'] != game['id']:
Player.joinGame(player_id=self._playerState['id'],
role=Game.PLAYER_ROLE_MEMBER,
game_id=game['id'])
if password:
Player.setGamePassword(player_id=self._playerState['id'],
game_id=game['id'],
password=password)
# self._refreshGameState(password=password, game_id=game['id'], checkGameStatus=False)
return game, "Иииха! Ты присовокупился к игре с ID %d серии игр с ID %d" % (
game['id'], self._seriesState['id'])
def main():
""" Reversi game with human player vs AI player.
"""
parser = argparse.ArgumentParser()
parser.add_argument('--timeout', help="Number of seconds the brain is allowed to think before making its move.",
type=int, default=20)
parser.add_argument('--display-moves', help="Whether legal moves should be displayed or not.", action='store_true')
parser.add_argument('--colour', help="Display the game in 256 colours.", action='store_true')
parser.add_argument('--player', help="If you want to play against the ai", action='store_true')
parser.add_argument('--ai', help="If you want the ais to play against each other", action='store_true')
args = parser.parse_args()
if args.timeout < 0:
exit()
players=[]
if args.player:
players = ['player', 'ai']
if args.ai:
players = ['ai', 'ai']
if not players:
players = ['player', 'ai']
game = Game(timeout=args.timeout,
display_moves=args.display_moves,
colour=args.colour,
players=players)
game.run()
async def _start(ctx):
global GAME
GAME = Game(player_x_id=ctx.author.id, player_o_id='bot')
GAME.new_game()
await ctx.send("----! Добро пожаловать в КРЕСТИКИ НОЛИКИ " + version + " !----\n"
" Напишите ***._rules*** чтобы получит список правил игры. Напишите ***._help кн***"
" или ***._help крестики-нолики*** чтобы получить список команд в крестиках ноликах!")
def run(self):
if len(self.argv) == 1:
self.help()
return
command = self.argv[1]
if command == "play":
self.game = Game(0, 10, "random", 20)
self.game.run()
elif command == "graph":
nb_npc = int(self.argv[2])
stack_size = int(self.argv[3])
min_pop = int(self.argv[4])
max_pop = int(self.argv[5])
self.game = Game(0, nb_npc, "random", stack_size, min_pop, max_pop)
self.grapher = Grapher(self.game)
self.graph = self.grapher.all_paths()
file_name = str(nb_npc) + "." + str(stack_size) + "." + str(
min_pop) + "." + str(max_pop) + ".pdf"
Grapher.draw_pdf(self.graph, file_name)
def test_obvious_first_movement(self, clean_tree_search_caches_before_tests):
# Here we are going to set up a game where player 1 is about to win the game, except if
# player 2 (who goes first) prevents it by placing a piece on the square player 1 needs to use
# to win
game = Game()
game.starting_player = game.player_2
five = game.player_1.get_piece_by_type(PieceType.five)
five.set_movement_direction(Direction.east)
game.board.get_tile(1, 1).place_piece(five)
four = game.player_1.get_piece_by_type(PieceType.four)
four.set_movement_direction(Direction.west)
game.board.get_tile(3, 2).place_piece(four)
opponent_four = game.player_2.get_piece_by_type(PieceType.four)
opponent_four.set_movement_direction(Direction.west)
game.board.get_tile(1, 3).place_piece(opponent_four)
best_moves, _, eval_type = get_best_moves(game.player_2, game.player_1, is_first_move=True, depth=1)
assert len(best_moves) == 1
assert eval_type == EvaluationType.exact
# Player 2 can only avoid losing this turn by playing anything on tile (2, 4)
best_move = get_best_move(game.player_2, game.player_1, is_first_move=True, depth=1)
assert best_move.x == 2
assert best_move.y == 4
# Should be true for any depth level (using 2 for test speed reasons)
best_move_depth_2 = get_best_move(game.player_2, game.player_1, is_first_move=True, depth=2)
assert best_move_depth_2.x == 2
assert best_move_depth_2.y == 4
def test_populate():
zombies = 30
victims = 29
hunters = 33
map_x = 20
map_y = 20
testgame = Game(zombies, victims, hunters, 1, map_x, map_y)
testgame.populate()
zomb_count, vic_count, hunt_count = 0, 0, 0
tile_list = testgame.get_map().get_list()
blanks = 0
for list in tile_list:
for tile in list:
if tile.get_occupier() == "Zombie":
zomb_count+=1
elif tile.get_occupier() == "Victim":
vic_count+=1
elif tile.get_occupier() == "Hunter":
hunt_count+=1
else:
blanks+=1
assert_equal(zomb_count, zombies)
assert_equal(vic_count, victims)
assert_equal(hunt_count, hunters)
total_tiles = map_x*map_y
total_blanks = total_tiles - (zombies+victims+hunters)
assert_equal(blanks, total_blanks)
def __init__(self,
interactive=False,
max_actions_per_turn=None,
max_proposed_trades_per_turn=4,
validate_actions=True,
debug_mode=False,
win_reward=500,
vp_reward=True,
policies=None):
if max_actions_per_turn is None:
self.max_actions_per_turn = np.inf
else:
self.max_actions_per_turn = max_actions_per_turn
self.max_proposed_trades_per_turn = max_proposed_trades_per_turn
"""
can turn validate actions off to increase speed slightly. But if you send invalid
actions it will probably f**k everything up.
"""
self.validate_actions = validate_actions
self.game = Game(interactive=interactive,
debug_mode=debug_mode,
policies=policies)
self.win_reward = win_reward
self.vp_reward = vp_reward
def test_black_win(self):
game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
self.assertTrue(not game.is_over())
self.play_game_sequence(game, ['b1', 'a1', 'c3', 'c1'])
self.assertTrue(game.is_over())
self.assertEqual(game.BLACK_MSG, game.get_winner_message())
def train(self,
n_episodes=5000,
n_validation=500,
n_checkpoint=500,
n_tests=1000):
"""Trains the model.
Arguments:
n_episodes -- number of episodes to train (default 5000)
n_validation -- number of episodes between testing the model
(default 500)
n_checkpoint -- number of episodes between saving the model
(default 500)
n_tests -- number of episodes to test (default 1000)
"""
logging.info("training model [n_episodes = %d]", n_episodes)
for episode in range(1, n_episodes + 1):
logging.info("running episode [episode = %d]", episode)
if episode % n_validation == 0:
self.test(n_tests)
if episode > 1 and episode % n_checkpoint == 0:
self.save()
player = random.randint(0, 1)
game = Game(TDGammonAgent(self, player),
TDGammonAgent(self, 1 - player))
game.play()
self._reset_trace()
self.save()
def test_repeat_player_move(self):
game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
player = next(game.players)
self.assertEqual(player.colour, s.WHITE)
game.repeat_player_move()
self.assertEqual(next(game.players), player)
def init_training_environment(self, activation_function, loss_function,
optimizer_function):
"""
Initialize the reinforcement learning environment
:param activation_function:
activation function used in RL environment.
:param loss_function:
loss function used in RL environment
:param optimizer_function:
optimizer function used in RL environment
"""
env = Game(action_space=self.action_space)
self.RL = DeepQNetwork(
len(env.get_possible_actions(1)),
len(env.get_state_space()), # total action, total features/states
learning_rate=self.learning_rate,
reward_decay=self.reward_decay,
e_greedy=self.e_greedy,
replace_target_iter=self.replace_target_iter,
memory_size=self.memory_size,
softmax_choice=self.softmax_choice,
batch_size=self.batch_size,
list_num_neurons=self.list_num_neurons,
output_graph=self.output_graph,
activation_function=activation_function,
loss_function=loss_function,
optimizer_function=optimizer_function,
with_bias=self.with_bias,
replace_soft_target=self.replace_soft_target)
def find_best_move(self, game: Game, evaluator, depth: int):
legal_moves = game.get_legal_moves()
shuffle(legal_moves)
if len(legal_moves) == 0:
return None, None, float("-inf"), legal_moves
elif depth > 0:
# try all move and find max score
best_move = None
best_tile = None
best_score = None
for move in legal_moves:
playable_tiles = list(range(game.active_size))
shuffle(playable_tiles)
for tile in playable_tiles:
hist_move = game.play(move, tile)
_, _, cur_score, _ = self.find_best_move(
game, evaluator, depth - 1)
if cur_score is not None and (best_score is None
or cur_score > best_score):
best_move = move
best_tile = tile
best_score = cur_score
game.undo(hist_move)
return best_move, best_tile, best_score, legal_moves
else:
return None, None, evaluator.eval(game), legal_moves
def test_devvic():
g = Game(random_init=False)
g.dev_cards_discovered[0, defines.DEV_VICTORYPOINT] = 2
g.dev_cards_discovered[2, defines.DEV_VICTORYPOINT] = 3
print(g.dev_cards_discovered)
print(g.get_victory_points())
def test_player_has_no_legal_moves(self, clean_tree_search_caches_before_tests):
game = Game()
game.starting_player = game.player_2
one = game.player_1.get_piece_by_type(PieceType.one)
one.set_movement_direction(Direction.north)
game.board.get_tile(3, 3).place_piece(one)
two = game.player_1.get_piece_by_type(PieceType.two)
two.set_movement_direction(Direction.east)
game.board.get_tile(3, 2).place_piece(two)
three = game.player_1.get_piece_by_type(PieceType.three)
three.set_movement_direction(Direction.north)
game.board.get_tile(1, 3).place_piece(three)
four = game.player_1.get_piece_by_type(PieceType.four)
four.set_movement_direction(Direction.north)
game.board.get_tile(2, 0).place_piece(four)
five = game.player_1.get_piece_by_type(PieceType.five)
five.set_movement_direction(Direction.south)
game.board.get_tile(2, 2).place_piece(five)
best_move = get_best_move(game.player_1, game.player_2, is_first_move=False, depth=1)
assert best_move.to_placement_move(game.player_1) is None
assert best_move.score > 0
def main():
"""Program főkontrollere ami elindítja a játékot"""
# Alap inicializáció
pygame.mouse.set_visible(False)
menu = Menu()
while True:
# Menü kezelő
start_menu(menu)
# Játék indul ha nem kilépést választottunk
if menu.full_exit:
break
# Player lista elkésztése a menü adatai és a MenuData class alapértékei alapján
players = player_init(menu)
# Játék elindítása
game = Game(players)
if game.start(
): # Visszatér True értékkel ha a felhasználó megnyomta az X-et
break
# Amint vége a játéknak az EndScreen következik
endscreen = EndScreen(game.players)
endscreen.draw()
# Folyamatosan várunk az enter billenytu lenyomására majd visszatérünk a menübe
if enter_listener(
): # Visszatér True értékkel ha a felhasználó megnyomta az X-et
break
def play_game(args):
assert isinstance(args.field_paths, list) or isinstance(
args.field_paths, str)
if isinstance(args.field_paths, str):
args.field_paths = [args.field_paths]
fields = read_fields(args.field_paths)
if args.players is None:
args.players = int(input('How many players will play? — '))
positions = []
if args.start_positions is not None:
for position in args.start_positions:
x, y = map(int, position[1:-1].split(','))
positions.append(Position(x, y))
if not args.random_positions:
if args.players - len(positions) > 0:
print('Field size: {}x{}'.format(fields[0].x_size,
fields[0].y_size))
for i in range(len(positions), args.players):
position = input(
'Start position as x,y or "random" for Player {}: '.format(
i))
if position == 'random':
positions.append(random_position_on_field(fields[0]))
else:
x, y = position.split(',')
positions.append(Position(int(x), int(y)))
game = Game(fields, args.players, positions)
game.start_game()
def run(self):
while True:
if self.state == -1:
self.draw_background()
self.draw_footer()
self.window.getch()
# start main menu
m = Menu()
if m.selection < 0:
break
self.state = m.selection
elif self.state == 0:
self.window.erase()
self.draw_footer(main=False)
self.window.getch()
# get game difficulty
m = Menu(main=False)
if m.selection < 0:
# go back to main menu
self.state = -1
continue
# start game
game = Game(self.height, self.width, difficulty=m.selection)
game.start()
# If quit game back to main menu
self.state = -1
elif self.state == 2:
# TODO Controls State
break
elif self.state == 4:
# TODO Exit State (Message for exiting)
break
def __init__(self, pos, offline=False):
states = ['base']
components = Spec.formatter.get_components(
'ui/data/script_analyser.json')
super().__init__(states, components, pos)
self.offline = offline
self.client = None
self.n_tb_lines = 12
self.script_status = False
# create game object -> test script
self.game = Game(None, connected=False)
# store script module -> know if need to load or reload module
self.script_module = None
self.set_states_components(
None,
['cadre', 'title', 'b analyse', 'b load', 'b save', 't status'])
self.add_button_logic('b analyse', self.b_analyse)
self.add_button_logic('b save', self.b_save)
self.add_button_logic('b load', self.b_load)
def run(self):
if self.readFile:
print("** Reading population from file **")
self.agent.population = self.loadData()
elif not self.collectWholeGameData:
self.agent.initPopulation(NUMBER_OF_STARTING_TOWERS)
for generation in range(MAX_GENERATIONS):
self.gameRecords = []
self.correctNumberOfTowers = generation + 1
if self.collectWholeGameData:
self.agent.initPopulation(self.correctNumberOfTowers)
# play all of the games for each member of the population
for i in range(POPULATION_SIZE):
self.agent.setTowers(self.agent.population[i])
# bool: visualMode, Towers: Agent.currentTowers, blank GameRecord, returns a record of the game stats,
# None for the deepQagent the game now expects
game = Game(self.visualMode, self.agent.currentTowers,
GameRecord(), self.collectInnerGameData, None)
# collects stats for the whole game
record = game.run()
# print(len(record.randomChoicesRecord))
# print('\nList Size: ' + str(len(record.randomChoicesMade)))
self.gameRecords.append(record)
self.postGameProcessing()
return
def main():
""" Reversi game with human player vs AI player.
"""
parser = argparse.ArgumentParser()
parser.add_argument(
'--timeout',
help=
"Number of seconds the brain is allowed to think before making its move",
type=int,
default=1)
parser.add_argument('--text',
help="Display the game in text mode",
action='store_false')
parser.add_argument('--player', help="Player first", action='store_true')
parser.add_argument('--ai', help="AI first", action='store_true')
parser.add_argument('--verify',
help="Verify AI using a random player",
action='store_true')
args = parser.parse_args()
if args.timeout < 0:
exit()
players = ['player', 'player']
if args.player:
players = ['player', 'ai']
if args.ai:
players = ['ai', 'player']
elif args.verify:
players = ['ai', 'random']
game = Game(timeout=args.timeout, colour=args.text, players=players)
game.run()
def start_new_game(player_name: str, enemy_name: str, terrain: str,
sams: bool, midgame: bool, multiplier: float):
if terrain == "persiangulf":
conflicttheater = theater.persiangulf.PersianGulfTheater()
elif terrain == "nevada":
conflicttheater = theater.nevada.NevadaTheater()
else:
conflicttheater = theater.caucasus.CaucasusTheater()
if midgame:
for i in range(0, int(len(conflicttheater.controlpoints) / 2)):
conflicttheater.controlpoints[i].captured = True
start_generator.generate_inital_units(conflicttheater, enemy_name,
sams, multiplier)
start_generator.generate_groundobjects(conflicttheater)
game = Game(player_name=player_name,
enemy_name=enemy_name,
theater=conflicttheater)
game.budget = int(game.budget * multiplier)
game.settings.multiplier = multiplier
game.settings.sams = sams
game.settings.version = VERSION_STRING
if midgame:
game.budget = game.budget * 4 * len(
list(conflicttheater.conflicts()))
proceed_to_main_menu(game)
class GameController(object):
"""
This abstract class contains the shared logic for all game controllers. It is not meant to be used in itself, but
works as a back-bone for all types of game controller.
"""
def __init__(self):
"""
Ctor - Initialises game controller.
"""
pass
def set_up_game(self):
"""
This method sets up the game to be played by this controller.
"""
self._game = Game()
def get_game(self):
"""
This method retrieves the game currently being played by the game controller.
@return The game currently being played.
"""
return self._game
def play_next_turn(self):
"""
This method plays a single turn of the game.
"""
self._game.next_turn()
def main():
running = True
pg.init()
pg.mixer.init()
screen = pg.display.set_mode((0, 0), pg.FULLSCREEN)
clock = pg.time.Clock()
# implement menus
start_menu = StartMenu(screen, clock)
game_menu = GameMenu(screen, clock)
# implement game
game = Game(screen, clock)
while running:
# start menu goes here
playing = start_menu.run()
while playing:
# game loop here
game.run()
# pause loop here
playing = game_menu.run()
def test_next_turn(self):
'''
Tests whether the Game.next_turn() method functions correctly.
'''
g = Game()
g.next_turn()
assert g._turn_count == 1
def test_game_is_over(self):
game1 = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
self.play_game_sequence(game1, ['b1', 'a1', 'c1', 'c3'])
self.assertTrue(game1.is_over())
game2 = Game(2, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
self.assertTrue(game2.is_over())
def test_white_win(self):
game = Game(4, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
self.assertTrue(not game.is_over())
self.play_game_sequence(game, ['d2', 'd3', 'd4', 'b1', 'a3', 'b4',
'a4', 'a2', 'c4'])
self.assertTrue(game.is_over())
self.assertEqual(game.WHITE_MSG, game.get_winner_message())
def test_get_turn_count(self):
'''
Tests whether the get_turn_count() method functions correctly.
'''
g = Game()
g.next_turn()
assert g.get_turn_count() == 1
def test_get_next_state(self):
game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
state = (game.mover.board, s.WHITE)
self.assertEqual(game.mover.board, state[0])
next_state = game.get_next_state(state, (2, 1))
self.assertNotEqual(game.mover.board, next_state[0])
game.mover.board.make_move((2, 1), s.WHITE)
self.assertEqual(game.mover.board, next_state[0])
def setUp(self):
self.game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
first_move = (1, 2)
first_state = Game.get_next_state(
(self.game.mover.board, WHITE), first_move)
self.root_possible_moves = self.game.mover.board.get_moves(WHITE)
self.root = Node(first_state, first_move,
len(self.root_possible_moves))
def test_get_previous_state(self):
game = Game(4, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
state = (game.mover.board, s.WHITE)
my_state = game.get_next_state(state, (1, 0))
game.next_move('a3')
self.assertEqual(game.get_current_state(), my_state)
opp_state = game.get_next_state(my_state, (2, 0))
game.next_move('a2')
self.assertEqual(game.get_current_state(), opp_state)
my_prev_state = game.get_previous_state(opp_state, (2, 0))
self.assertEqual(my_state, my_prev_state)
def __init__(self, rule_set, initial_input):
"""
Ctor - Initialises the Game of Life with a rule set and an initial
pattern, both defined by the user. Also initialises a calculator.
"""
Game.__init__(self)
# Initialise the rule set
self._rule_set = rule_set
# Initialise the grid objects to be used by the engine
self._current_generation = initial_input
# Give the game engine a calculator to use.
self._calculator = Calculator(rule_set)
def init_ui(self, board_size, game_mode, game_difficulty_level,
game_time_for_move):
self.game = Game(board_size, mode=game_mode,
difficulty_level=game_difficulty_level,
is_console_game=False,
time_for_move=game_time_for_move)
self.game_was_saved = False
self.time_for_move = game_time_for_move
self.count = self.time_for_move
self.timer = QBasicTimer()
self.move_timer = QTimer()
self.ai_thread = AIThread(self)
self.ai_thread.finished.connect(self.ai_finish)
self.ai_finished = True
self.load_images()
self.add_toolbar()
self.font_size = 10
self.resize(board_size * s.IMG_SIZE,
(board_size * s.IMG_SIZE + self.toolbar.height() + 10 +
self.font_size))
self.center()
self.setWindowTitle('Reversi')
self.show()
self.timer.start(1, self)
self.move_timer.timeout.connect(self.count_down)
self.move_timer.start(1000)
class TestMonteCarloAI(unittest.TestCase):
def setUp(self):
self.game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.hard,
True, 5)
self.ai = MonteCarloAI(self.game, WHITE, Game.DifficultyLevels.hard)
first_move = (1, 2)
first_state = Game.get_next_state((self.game.mover.board, WHITE),
first_move)
self.root_possible_moves = self.game.mover.board.get_moves(WHITE)
self.root = Node(first_state, first_move,
len(self.root_possible_moves))
def test_get_best_move(self):
node = Node(self.root.state, (1, 2), 2)
children = [Node(node.state, (2, 3), 1), Node(node.state, (2, 1), 2)]
children[0].plays, children[0].wins = 3, 2
children[1].plays, children[1].wins = 2, 2
for child in children:
node.add_child(child)
self.assertEqual(self.ai.get_best_move(node), children[0].move)
node.children[0].plays, node.children[0].wins = 2, 1
self.assertEqual(self.ai.get_best_move(node), children[1].move)
def test_back_propagate(self):
node = Node(self.root.state, (1, 2), 2)
child = Node(node.state, (2, 3), 1)
child.plays, child.wins = 2, 1
node.add_child(child)
self.assertTrue(node.plays == 0)
self.assertTrue(node.wins == 0)
self.ai.back_propagate(child, 1)
self.assertTrue(child.plays == 3)
self.assertTrue(child.wins == 2)
self.assertTrue(node.plays == 1)
self.assertTrue(node.wins == 1)
def test_get_best_child(self):
children = [Node(self.game.get_next_state(self.root.state, (1, 2)),
(1, 2), 3),
Node(self.game.get_next_state(self.root.state, (2, 1)),
(2, 1), 3)]
children[0].plays, children[0].wins = 2, 1
children[1].plays, children[1].wins = 1, 0
self.root.plays = 3
for child in children:
self.root.add_child(child)
self.assertEqual(self.ai.get_best_child(self.root), children[1])
def __init__(self):
threading.Thread.__init__(self)
self.players = []
self.players_sockets = []
self.started = False
self.controller = controller.Controller(self)
self.game = Game(self)
self.killed = False
def next_turn(self):
"""
Runs the next turn in the Game of life.
"""
# Takes the current generation and passes to calculator
cur_gen = self.get_current_generation()
nex_gen = self._calculate_next_generation(cur_gen)
# Stores next generation in self._next_generation
self._set_next_generation(nex_gen)
# The state in of the next generation is stored as the current
# generation
self._current_generation.set_cells(nex_gen.get_cells())
# Increment turn count
Game.next_turn(self)
def main(width=4, height=4, goal=2048, intial_value=2):
game = Game(int(width), int(height), int(goal), int(intial_value))
game.start()
while True:
try:
pretty_print(game.grid)
line = raw_input("> ").strip().lower()
if line == "q" or line == "quit":
print "bye"
return
dir_ = get_dir(line)
if dir_ is None:
print "options: %s, q" % (", ".join(sorted(dirs.keys())))
continue
game.slam(dir_)
if game.is_over():
pretty_print(game.grid)
if game.goal_met():
print "You won! Yay!"
else:
print "Game over! You suck!"
return
except KeyboardInterrupt:
print
return
def test_skip_player(self):
game = Game(4, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
game.next_move('c1')
self.assertEqual(game.current_player.colour, s.WHITE)
game.skip_player()
game.next_move('a2')
self.assertEqual(game.current_player.colour, s.WHITE)
def checknn(params):
#create a network
nn = buildNetwork(16, 5, 5, 4)
#assign the parameters to be what we are testing
i = 0
for m in nn.connections.values():
for c in m:
for j in xrange(len(c.params)):
c._params[j] = params[i]
i += 1
map = {
0: Game.Direction.left,
1: Game.Direction.right,
2: Game.Direction.up,
3: Game.Direction.down,
}
# run here
game = Game()
while not game.over:
if random.random() < 0.95:
inputs = np.hstack(game.state).tolist()
outputs = nn.activate(inputs).tolist()
#print outputs
m = max(outputs)
i = outputs.index(m)
move = map[i]
#print move
game.move(move)
else:
move = map[random.randint(0, 3)]
game.move(move)
error = np.log2(2048 - game.max_block)
print 'score', game.score
print 'max block', game.max_block
print 'error', error
print
return error
def __init__(self, *args, **kwargs):
self.game = Game(60)
self.game_thread = threading.Thread(target=self.game.main)
self.game_thread.daemon = True
self.game_thread.start()
if SINGLE_PLAYER:
self.client_thread = threading.Thread(target=basic_client)
self.client_thread.daemon = True
self.client_thread.start()
def play(self):
"""Plays labels game
Then afterwards forwards the button
and set 0 balance player to out
Save game state"""
game = Game(self)
game.play()
while True:
self.button += 1
if self.button > len(self.players):
self.button = 1
if self.players[self.button]['status']:
break
for s, p in self.players.items():
if not p['balance']:
p['status'] = 0
self.persist_table()
def next_turn(self):
'''
Runs the next turn in the Game of life.
'''
# Takes the current generation and passes to calculator
cur_gen = self.get_current_generation()
nex_gen = self._calculate_next_generation(cur_gen)
# Stores next generation in self._next_generation
self._set_next_generation(nex_gen)
# Passes current generation back to Game Control to be shown on
# the GUI.
pass
# The state in of the next generation is stored as the current
# generation
self._current_generation.set_cells(nex_gen.get_cells())
# Increment turn count
Game.next_turn(self)
class GameApp(object):
def __init__(self, *args, **kwargs):
self.game = Game(60)
self.game_thread = threading.Thread(target=self.game.main)
self.game_thread.daemon = True
self.game_thread.start()
def __call__(self, environ, start_response):
websocket = environ['wsgi.websocket']
player_id = self.game.on_client_connect(websocket)
while True:
recv_data = websocket.receive()
if recv_data is None:
break
message_dict = json.loads(recv_data)
message_dict['player_id'] = player_id
self.game.on_message_received(message_dict)
self.game.on_client_disconnect(player_id)
def test_basic_path_correct_4(self):
# create the game with the know player cards
players = [("white", 4), ("plum", 4), ("scarlett", 5), ("green", 5)]
test_game = Game(players)
test_game.set_controlled_player(0)
test_game.set_player_cards_held(0, ["rope","wrench","kitchen","white"])
self.update_unseen_cards(test_game.incorrect_cards)
#keep playing guess until the game is not complete
while not test_game.is_complete():
possible_cards = []
#get three unknown cards from the unknown cards
if self.unseen_actors:
actor = str(random.sample(self.unseen_actors, 1)[0])
possible_cards.append(actor)
else:
actor = "green"
if self.unseen_rooms:
room = str(random.sample(self.unseen_rooms, 1)[0])
possible_cards.append(room)
else:
room = "kitchen"
if self.unseen_weapons:
weapon = str(random.sample(self.unseen_weapons, 1)[0])
possible_cards.append(weapon)
else:
weapon = "rope"
responder_index = self.decide_responder_index(test_game)
card_seen = random.sample(possible_cards, 1)
print("current turn: " + actor + ", " + room + ", " + weapon + ' responder index: ' + str(responder_index) + " cards seen: " + str(card_seen))
#create a guess from above cards
test_game.turn(0, actor, weapon, room, responder_index, card_seen)
print(test_game.incorrect_cards)
self.update_unseen_cards(test_game.incorrect_cards)
#complete the game
self.assertTrue(test_game.is_complete(), "game complete")
def test_move_is_repeated(self):
game = Game(3, Game.Modes.human_human, Game.DifficultyLevels.easy,
True, 5)
self.assertIsNone(game.current_player)
game.next_move('b1')
self.assertIsNotNone(game.current_player)
self.assertEqual(game.current_player.colour, s.WHITE)
game.next_move('a1')
self.assertEqual(game.current_player.colour, s.BLACK)
game.next_move('c3')
self.assertEqual(game.current_player.colour, s.BLACK)
def render(self, screen, width, height):
if self.network is None:
try:
self.network = Network(self.host, self.port, self.pw, self)
except:
self.event = None
self.network = None
if self.event is None and self.network is None:
NoServer.render(screen, width, height)
return
if self.event is None:
NoServer.render_pw_error(screen, width, height)
return
if "gamestate" in self.event:
self.last_score = self.event["gamestate"]["ranking"]
Game.render(screen, width, height, self.event["gamestate"], self.selected_player, self.host, self.port)
elif "lobby" in self.event:
Lobby.render(screen, width, height, self.event["lobby"], self.host, self.port, self.last_score)
else:
print("unknown state")
print(self.event)
def add_n_examples(self, strategy, rnd, n,
starting_positions_dataset=None):
"""Runs games and adds them to the dataset until at least @p n
examples have been added. Returns the number of examples added.
If @p starting_positions_dataset is set, games will be started from
a randomly selected position from that dataset rather than from a
blank board."""
print("Adding", n, "examples to dataset.")
added = 0
while added < n:
starting_game = None
if starting_positions_dataset:
random_position = starting_positions_dataset.nth_example(
rnd.randint(0,
starting_positions_dataset.num_examples() - 1))
starting_game = Game(Board.from_vector(random_position))
if not starting_game.board().can_move():
continue
num_added = self.add_game(strategy, rnd, starting_game)
if (added // 10000) != ((num_added + added) // 10000):
print("Added %d so far..." % (num_added + added))
added += num_added
return added
class GameController(object):
'''
This class represents a skeleton from which game controls
can inherit. It contains all the shared functionality of
all game controls.
'''
def __init__(self, time):
'''
Ctor - Initialises game controller.
'''
self._timer = Timer(time)
def set_up_game(self):
'''
Sets up the game to be played by this controller.
'''
self._game = Game()
def get_game(self):
'''
Returns the game currently being played.
'''
return self._game
def get_time_remaining(self):
'''
Returns the timer being used on this game controller.
'''
return self._timer.get_time_remaining()
def play_next_turn(self):
'''
Plays a single turn of the game.
'''
self._game.next_turn()