def calculate_moves(self, dices: Die, board) -> [(int, int)]:
print("throw", dices)
moves_options = generate_moves(self, Die(dices.first, dices.second), board)
moves = []
if len(moves_options) > 0:
moves = choice(moves_options)
self.slow(board)
return moves
def test_parallel_move_dark_checker_from_bar_in(self):
self.game.board.board = self.game.board.clear_board()
self.game.board.place_at(0, self.black.color, 1)
print(self.game.board)
moves = generate_moves(self.black, Die(2, 3), self.game.board)
expected_moves = [[(0, 22), (22, 20)], [(0, 23), (23, 20)]]
pprint.pprint(moves)
self.assertEqual(moves, expected_moves)
def test_two_out_can_move_only_one(self):
self.game.board.board = self.game.board.clear_board()
self.game.board.place_at(0, self.black.color, 1)
self.game.board.place_at(0, self.black.color, 1)
self.game.board.place_at(19, self.white.color, 1)
self.game.board.place_at(19, self.white.color, 1)
moves = generate_moves_serial(self.black, Die(2, 6), self.game.board)
expected_moves = [[(0, 23)]]
self.assertEqual(moves, expected_moves)
def test_black_move_out(self):
rand_black = RandomPlayer(Checker.BLACK)
human_white = RandomPlayer(Checker.WHITE)
game = Game(player_1=human_white,
player_2=rand_black,
create_protocol=False)
game.board.board = game.board.clear_board()
game.current_player = rand_black
game.current_dice = Die(4, 6)
game.board.place_at(19, Checker.BLACK, 1)
game.board.place_at(22, Checker.BLACK, 1)
game.board.place_at(18, Checker.WHITE, 4)
game.run()
moves = generate_moves_serial(self.black, Die(4, 6),
game.board.get_view(True))
print(moves)
def test_black_move_out_4(self):
self.game.board.board = self.game.board.clear_board()
self.game.board.place_at(22, self.black.color, 4)
self.game.board.place_at(21, self.black.color, 2)
self.game.current_player = self.black
self.game.board.place_at(23, self.white.color, 6)
moves = generate_moves_serial(self.black, Die(4, 4),
self.game.board.get_view(True))
moves = gui.HumanPlayer.map_out_moves([(3, 0), (4, 0), (3, 0), (4, 0)],
moves)
expected_moves = [(3, -1), (3, -1), (4, 0), (4, 0)]
self.assertEqual(sorted(moves), expected_moves)
def calculate_moves(self, dices: Die, board) -> [(int, int)]:
print("throw", dices)
moves_options = generate_moves(self, Die(dices.first, dices.second), board)
if len(moves_options) == 0:
return moves_options
future_boards = self.get_future_boards(moves_options, board)
node_data = [self.mapper.to_nodes(b, self.color) for b in future_boards]
win_chance_white: [float] = self.ai.predict(node_data)
extreme = max(win_chance_white)
if self.color == Checker.BLACK:
extreme = min(win_chance_white)
return moves_options[win_chance_white.index(extreme)]
def readProtocol(self):
lines = self.protocol_file.readlines()
count = 0
# Strips the newline character
for line in lines:
count += 1
line = line.strip()
if len(line) < 4: # to short for further checks
continue
# if line[0] == ';' or not line[0].isdigit() or 'match' in line:
# continue
if not (line[0].isdigit() and line[1] == ')') \
and not (line[0].isdigit() and line[1].isdigit() and line[2] == ')') \
and not (line[0].isdigit() and line[1].isdigit() and line[2].isdigit() and line[3] == ')'):
continue
protocol_logger.debug("Line{}: {}".format(count, line.strip()))
# delete turn number
# print(line)
line = (line.split(")")[1]).strip()
# split by space
# example line : 63: 25/22 22/16 64: 21/15 15/11
lineElements = line.split(" ")
die = None
turn = []
moves = []
got_dices = False
for element in lineElements:
if ":" in element:
if len(moves) != 0 or got_dices:
tempturn = Turn(die, moves)
self.game_proto.append(tempturn)
moves = []
die = None
got_dices = False
element = element.replace(":", "").strip()
die = Die(element[0], element[1])
got_dices = True
elif "/" in element:
# print(str(element.split("/")[0]))
src = int(((element.split("/"))[0]).replace('*', '').strip())
trg = int(((element.split("/"))[1]).replace('*', '').strip())
moves.append(Move(src, trg))
if len(moves) != 0 or got_dices:
self.game_proto.append(Turn(die, moves))
def calculate_moves(self, dices: Die, board) -> [(int, int)]:
self.items[Items.CURRENT_PLAYER_NAME].set(self.name)
self.items[Items.CURRENT_PLAYER] = self
self.items[Items.CURRENT_DIE].set(str(dices.get_roll()))
self.uiBoard.draw_game_state(board)
possible_moves = generate_moves(self, dices, board)
moves = []
if possible_moves:
for i in range(len(possible_moves[0])):
self.items[Items.NEXT_PLAYER_BUTTON].wait_variable(
self.items[Items.PLACED_CHECKER])
moves.append(self.items[Items.LATEST_MOVE])
print(self.items[Items.LATEST_MOVE])
self.items[Items.PLACED_CHECKER].set(0)
print(moves)
if any(t < 0 for _, t in moves):
moves = self.map_out_moves(moves, possible_moves)
return moves
def verify_moves(player: Player, moves: [(int, int)], die: Die, board: Board):
dice = list(die.get_move_options())
out = board[0][player.color]
for src, target in moves:
logging.debug(f"verify move: from {src} to {target}")
# check out
if len(out) != 0:
if src != 0:
logging.debug(
"checker in out and move does not place it into game")
raise ValueError(
"checker in out and move does not place it into game")
out.pop()
logging.debug(f"out is okay")
dif = abs(src - target)
if src == 0:
dif = 25 - target
if dif not in dice and 0 != src and target != 0:
logging.debug(
f"distance {dif} of {src},{target} dose not match with any die"
)
raise ValueError(
f"distance {dif} of {src},{target} dose not match with any die"
)
dice.remove(dif)
logging.debug(f"distance is present as die")
# move in right direction
if abs(player.home.out_bound - target) > abs(
player.home.out_bound - src) and 0 < target <= 24 and (
player.home.out_bound != 1 and src == 0):
logging.debug(f"wrong direction")
raise ValueError("wrong direction")
local_src = board[src]
if player.color not in local_src:
logging.debug(f"src location does not contain checker for player")
raise ValueError(
"src location does not contain checker for player")
logging.debug(f"player moves its checker")
remove_from_game = target <= 0 or target >= 24
# player can only move checker to to positions with 1 or less checkers present or one then he already owns
target_field = None
if not remove_from_game:
target_field = board[target]
if len(target_field.content
) > 1 and player.color not in target_field:
logging.debug(
f"target location {target_field.content} is not available")
raise ValueError(
f"target location {target_field.content} is not available")
logging.debug(f"target location is available")
if remove_from_game:
pos = board.get_checkers_position_of(player)
in_base = 1 <= min(pos) <= 6 and 1 <= max(pos) <= 6
if not in_base:
logging.debug(f"not all checkers in base")
raise ValueError("not all checkers in base")
logging.debug(f"can remove checker from game")
else:
target_field.place(player.color)
local_src.remove(player.color)
logging.debug(f"move is okay")
def test_move_white_checker_from_bar_in(self):
self.game.board.board = self.game.board.clear_board()
self.game.board.place_at(0, self.white.color, 1)
moves = generate_moves(self.white, Die(2, 3), self.game.board)
expected_moves = [[(0, 22), (22, 20)], [(0, 23), (23, 20)]]
self.assertEqual(moves, expected_moves)
def test_move_checkers_invalid_checker_fail(self):
self.game.current_dice = Die(1, 4)
pprint(self.game.board.board)
self.assertRaises(ValueError, lambda: game_moves_are_valid(self.white, [(13, 14), (12, 8)], self.game))
def test_move_generator_double_six(self):
pprint.pprint(generate_moves(self.white, Die(6, 6), self.game.board))
def test_move_checkers_from_valid_to_valid_with_no_items_out_and_not_in_home_success(self):
self.game.current_dice = Die(3, 4)
print(self.game.board)
self.assertIsNone(game_moves_are_valid(self.black, [(13, 9), (13, 10)], self.game))
def test_move_checkers_from_valid_to_invalid_target_location_with_no_items_out_and_not_in_home_fail(self):
self.game.current_dice = Die(1, 4)
self.assertRaises(ValueError, lambda: game_moves_are_valid(self.black, [(13, 12), (13, 9)], self.game))
def test_move_generator_double_three(self):
pprint.pprint(generate_moves(self.white, Die(3, 3), self.game.board))
def test_move_generator_double_two(self):
pprint.pprint(generate_moves(self.white, Die(2, 2), self.game.board))
def test_move_generator_one_and_two(self):
pprint.pprint(generate_moves(self.white, Die(2, 3), self.game.board))
def __possible_move_options_permutations(die: Die) -> [[int]]:
move_option = list(die.get_roll())
if die.is_double():
return [list(repeat(move_option[0], 4))]
return [move_option, [move_option[1], move_option[0]]]
def test_move_generator_one_and_two_one_not_in_home(self):
self.fill_home()
self.game.board.place_at(7, self.white.color)
pprint.pprint(self.game.board)
pprint.pprint(generate_moves(self.white, Die(5, 6), self.game.board))
def test_move_generator_five_six_in_home_one_out(self):
self.fill_home()
self.game.board.place_at(0, self.white.color)
moves = generate_moves(self.white, Die(5, 6), self.game.board)
pprint.pprint(moves)
self.assertEqual(len(moves), 3)
def test_move_generator(self):
self.game.board.board = self.game.board.clear_board()
self.game.board.place_at(23, self.white.color, 2)
pprint.pprint(generate_moves(self.white, Die(4, 6), self.game.board))
def test_move_generator_one_and_two_and_one_out_black(self):
self.game.board.remove_from(19)
self.game.board.place_at(0, self.black.color)
pprint.pprint(generate_moves(self.black, Die(1, 2), self.game.board))
def test_move_generator_double_six_black(self):
pprint.pprint(generate_moves(self.black, Die(6, 6), self.game.board))
