def onGameStarted(self, goingFirst=True):
self.isFirstPlayer = goingFirst
# Set up game state information
if goingFirst:
self.game = Game(self.faction, self.enemyFaction)
self.player, self.enemy = self.game.players
else:
self.game = Game(self.enemyFaction, self.faction)
self.enemy, self.player = self.game.players
self.hasMulliganed = False
self.bothPlayersMulliganed = False
self.toMulligan = []
# Set up the game UI
if isinstance(self.player, templars.Templar):
self.guiScene = templarHud.TemplarHud()
elif isinstance(self.player, mariners.Mariner):
self.guiScene = marinerHud.MarinerHud()
elif isinstance(self.player, thieves.Thief):
self.guiScene = thiefHud.ThiefHud()
elif isinstance(self.player, fae.Faerie):
self.guiScene = faerieHud.FaerieHud()
else:
self.guiScene = hud.GameHud()
self.zoneMaker = ZoneMaker()
self.hasFirstPlayerPenalty = goingFirst
def main():
game = Game("Game", 320, 240, 3)
game.assets_manager.load_images({
"bg": "assets/background.png",
"player": "assets/player.png",
"wall": "assets/wall.png"
})
level = Level("wall", GRID_SIZE)
player = Player(game, "player", 150, 50)
player.keyboard = game.keyboard
player.level_colliders = level.get_colliders()
def update(delta_time):
player.update(delta_time)
draw()
def draw():
for bg_x in range(int(game.width / GRID_SIZE)):
for bg_y in range(int(game.height / GRID_SIZE)):
game.display.draw("bg", bg_x * GRID_SIZE, bg_y * GRID_SIZE)
game.draw(level)
game.draw(player)
game.update = update
game.run()
def run_game(self):
"""
Run the game.
Will run the game this program is all about. After the game it will
collect results and possibly list the player in the Highscores list.
"""
g = Game(self.args.level, self.args.questions)
start_time = time()
try:
g.run()
except StopGame:
print '\nbye!'
exit()
endtime = time() - start_time
r = Results(self.args.level, self.args.questions,
g.mistakes, endtime)
r.print_results()
Highscores().new(r)
def main():
"""
Entry part of game
"""
game = Game()
game.start()
def test_game_result(self):
'''
This test will simulate n games between a computer and a human where
n is determing by the NUMBER_OF_GAMES settings and make sure that the computer never loses
'''
for i in xrange(NUMBER_OF_GAMES):
board = [0] * 9
game = Game(board)
while True:
available_moves = game.get_blank_boxes()
# Make a random player move
box = choice(available_moves)
game.make_move(box, PLAYER)
result, winning_combination = game.check_game_over()
if result:
break
# Make computer's move
box = game.best_next_move(COMPUTER)
game.make_move(box, COMPUTER)
result, winning_combination = game.check_game_over()
if result:
break
self.assertIsNot(result, PLAYER)
def test_policy2(self):
game = Game()
game.make_move((6, 2), (4, 2))
move = ((1, 2), (3, 2))
self.assertEqual(
NNet._get_policy(NNet._to_policy_vector(move, 'black'),
game.state)[move], 1)
def start_game(self, player, first_turn, **kwargs):
""" starts a new game """
self.game = Game(human=player)
if first_turn:
self.status = self.GAME_STATUS_HUMAN_MOVE_REQUIRED
return self.check_status(self.game.human, {'status': True, 'info': ''})
else:
self.status = self.GAME_STATUS_COMP_MOVE_REQUIRED
return self._play_comp_move()
def test_007(self):
"""Test game evaluation - minimax."""
Game.reset()
self.board.take('human', 0)
self.board.take('human', 4)
self.board.take('machine', 8)
move = self.board.next_move()
self.assertTrue(move == 2 or move == 6, 'Expected to choose position 2 or 6 to lead to a draw')
def test_006(self):
"""Test game evaluation -- Blocking move"""
Game.reset()
self.board.take('human', 4)
self.board.take('human', 2)
self.board.take('machine', 0)
self.board.take('machine', 1)
move = self.board.eval_tree('machine')
self.assertTrue(move == 6, 'Expected to choose position 6 for the block')
def test_game_result(self):
'''
This test will simulate n games between a computer and a human where
n is determing by the NUMBER_OF_GAMES settings and make sure that the computer never loses
'''
for i in xrange(NUMBER_OF_GAMES):
board = [0] * 9
game = Game(board)
while True:
available_moves = game.get_blank_boxes()
# Make a random player move
box = choice(available_moves)
game.make_move(box, PLAYER)
result, winning_combination = game.check_game_over()
if result:
break
# Make computer's move
box = game.best_next_move(COMPUTER)
game.make_move(box, COMPUTER)
result, winning_combination = game.check_game_over()
if result:
break
self.assertIsNot(result, PLAYER)
def _do_new_game(self, move_tree=None, analyze_fast=False):
self.engine.on_new_game() # clear queries
self.game = Game(self,
self.engine,
self.config("game"),
move_tree=move_tree,
analyze_fast=analyze_fast)
self.controls.select_mode("analyze" if move_tree and
len(move_tree.nodes_in_tree) > 1 else "play")
self.controls.graph.initialize_from_game(self.game.root)
self.update_state(redraw_board=True)
def run_game(self, game: Game) -> str:
game_result = ''
# Wait a second for startup
time.sleep(1)
while not game_result:
time.sleep(1) # Give other threads a chance
with self.lock:
game.take_turn()
game_result = game.result
if self.kill == True:
return self, game.game_id
return self, game.game_id
def setUp(self):
self.game = Game()
self.state = State(c.EMPTY_BOARD)
self.state.board[1][2] = 'white_knight'
self.state.board[5][7] = 'black_knight'
self.state.board[3][3] = 'white_pawn'
self.state.board[3][4] = 'black_king'
self.state.pieces['white_knight'].add((1, 2))
self.state.pieces['black_knight'].add((5, 7))
self.state.pieces['white_pawn'].add((3, 3))
self.state.pieces['black_king'].add((3, 4))
def main():
juego = Game(WIN)
clock = pygame.time.Clock()
run = True
WIN.blit(OPENING, (0, 0))
print(OPENING.get_width())
pygame.display.flip()
sleep(5)
while run:
clock.tick(FPS)
for event in pygame.event.get():
if event.type == pygame.MOUSEBUTTONDOWN and event.button == 1:
col, row = piece_position(event.pos)
juego.select(col, row)
if event.type == pygame.MOUSEBUTTONDOWN and event.button == 3:
juego.restart()
if event.type == pygame.QUIT:
run = False
juego.draw()
def _onCreateButtonClicked(self):
if self.state == MainWindow.STATE_GAME_HALL_GAME_LIST or \
self.state == MainWindow.STATE_GAME_HALL_GAME_SELECTED:
self._setState(MainWindow.STATE_GAME_HALL_MAP_LIST)
elif self.state == MainWindow.STATE_GAME_HALL_MAP_SELECTED:
self.selectedGame = Game(
-1, Game.randomGameName(), self.selectedMap,
self.leftPanel.gameHallPanel.playerName.text())
self.selectedGame.addPlayer(
Player(-1, self.leftPanel.gameHallPanel.playerName.text()))
self.selectedGame.createGame()
self._setState(MainWindow.STATE_GAME_ROOM_WAITING)
else:
qFatal('Invalid state %d when create button clicked' % self.state)
def standard(request, **kwargs):
"""The "standard" unwinnable game control."""
# Get the move from the GET args, if any
move = kwargs.get('move', None)
if move:
try:
# Start the game and initialize some useful variables
g = Game()
over = False
result = {'result': ''}
context = dict()
# Take the position indicated by <move>
g.take('human', int(move))
if len(g.available) != 0:
# There are still moves available, so just make it feel like the computer is thinking a bit.
# Response is otherwise pretty much instantaneous and doesn't "feel" very real.
sleep(2)
# Normally, I would expect this next operation to be necessary. Since there is no actual session being
# started, any game state would be lost when the request completes so any subsequent requests would
# have no memory of what moves had previously been made. It appears, however, that the Django runserver
# preserves the game state between requests, so this isn't necessary if using the runserver. In the
# real world, this would take all the moves that have been made so far, which are submitted from the UI,
# and reconstruct the game state from them.
# x = request.GET.get('x', None)
# if x:
# g.x = [int(i) for i in x.strip(',').split(',')]
# o = request.GET.get('o', None)
# if o:
# g.o = [int(i) for i in o.strip(',').split(',')]
take = g.next_move()
g.take('machine', take)
winner = g.winner('machine')
# If the machine has won, set game over and the winning vector for return to UI
if winner:
over = True
result = {'result': list(winner)}
else:
take = 9999 # No other moves are taken
over = True
result = {'result': 'draw'}
if over:
# The game is over, so reset the game--this actually doesn't seem to work with the runserver though for
# some reason. You actually have to stop and restart the runserver to reset the game. Not sure why.
Game.reset()
# Set up the response dictionary and resturn as JSON for handling by the UI
context['move'] = take
context['over'] = over
context['result'] = result
return HttpResponse(json.dumps(context), content_type="application/json")
except Exception:
print traceback.format_exc()
raise Http404
return render(request, 'standard.html')
def test_too_many_players(self):
player_names = [
"Watson", "Walace", "Profet", "Grant", "Buss", "Lenski",
"Dobzhansky"
]
self.assertRaises(ValueError, lambda: Game(player_names))
def play_games(black: AI, white: AI):
players = {"B": black, "W": white}
engines = {"B": black.get_engine(), "W": white.get_engine()}
tag = f"{black.name} vs {white.name}"
try:
game = Game(Logger(), engines, {"init_size": BOARDSIZE})
game.root.add_list_property("PW", [white.name])
game.root.add_list_property("PB", [black.name])
start_time = time.time()
while not game.ended:
p = game.current_node.next_player
move = ai_move(game, players[p].strategy, players[p].ai_settings)
while not game.current_node.analysis_ready:
time.sleep(0.001)
game.game_id += f"_{game.current_node.format_score()}"
print(
f"{tag}\tGame finished in {time.time()-start_time:.1f}s {game.current_node.format_score()} -> {game.write_sgf('sgf_selfplay/')}",
file=sys.stderr)
score = game.current_node.score
if score > 0.3:
black.elo_comp.beat(white.elo_comp)
elif score > -0.3:
black.elo_comp.tied(white.elo_comp)
results[tag].append(score)
all_results.append((black.name, white.name, score))
except Exception as e:
print(f"Exception in playing {tag}: {e}")
print(f"Exception in playing {tag}: {e}", file=sys.stderr)
traceback.print_exc()
traceback.print_exc(file=sys.stderr)
def test_snapback(self):
b = Game(MockKaTrain(), MockEngine(), {}, board_size=9)
for move in ["C1", "D1", "E1", "C2", "D3", "E4", "F2", "F3", "F4"]:
b.play(Move.from_gtp(move, player="B"))
for move in ["D2", "E2", "C3", "D4", "C4"]:
b.play(Move.from_gtp(move, player="W"))
assert 5 == len(self.nonempty_chains(b))
assert 14 == len(b.stones)
assert 0 == len(b.prisoners)
b.play(Move.from_gtp("E3", player="W"))
assert 4 == len(self.nonempty_chains(b))
assert 14 == len(b.stones)
assert 1 == len(b.prisoners)
b.play(Move.from_gtp("D3", player="B"))
assert 4 == len(self.nonempty_chains(b))
assert 12 == len(b.stones)
assert 4 == len(b.prisoners)
def run():
game = Game("Pong")
game.start()
# create and start the controller
controller = Controller(game)
controller.start()
# keep looping the game
while True:
# tell the controller to get the next frame
controller.go()
# add a little render delay
# 60 fps
game.delay(.016)
def main():
logging.basicConfig(
format='%(asctime)s - %(name)s - %(levelname)s - %(message)s',
level=logging.DEBUG,
datefmt='%Y/%m/%d %H:%M:%S')
#filename=... # logging.config.fileConfig(fname, defaults=None, disable_existing_loggers=True)
# https://docs.python.org/3/library/logging.config.html#module-logging.config
log.info("Game started")
Game().run()
log.info("Game finished")
def test_play_runs_the_correct_methods(self):
board_state = [[None]]
board_state_after_ship_placed = [['AC', 'AC', 'AC', 'AC', 'AC']]
user_shot_choice = 'A1'
ship_orientation = 'row'
shot_result = 'Hit'
current_ship = {
'name': 'Aircraft Carrier',
'size': 5,
'hit_locations': [[0, 0]]
}
self.comp_board = MagicMock()
self.comp_board.state = MagicMock(return_value=board_state)
self.comp_board.add_to_board = MagicMock(
return_value=board_state_after_ship_placed)
self.comp_board.update = MagicMock()
self.comp_board.all_ships = MagicMock(
return_value=self.board_helper.all_ships)
self.validate = MagicMock()
self.validate.shot_result = MagicMock(return_value=('Hit',
current_ship))
self.validate.all_ships_sunk = MagicMock(side_effect=[False, True])
self.ai.shoot_at_board = MagicMock(return_value=('Hit', current_ship))
self.ui.get_input = MagicMock(return_value=user_shot_choice)
self.ui.display = MagicMock()
self.ui.game_board = MagicMock()
self.ui.ship_messages = MagicMock()
new_game = Game(self.comp_board, self.human_board, self.ai, self.ui,
self.validate, self.place)
new_game.play()
self.comp_board.add_to_board.assert_called_with(
self.place, ship_orientation)
self.ui.display.assert_called()
self.comp_board.update.assert_called_with(user_shot_choice,
shot_result)
self.validate.all_ships_sunk.assert_called()
self.ai.shoot_at_board.assert_called_with(self.human_board)
self.ui.game_board.assert_called()
self.ui.ship_messages.assert_called()
class TestGetLegalMoves(unittest.TestCase):
def setUp(self):
self.game = Game()
self.state = State(c.EMPTY_BOARD)
self.state.board[1][2] = 'white_knight'
self.state.board[5][7] = 'black_knight'
self.state.board[3][3] = 'white_pawn'
self.state.board[3][4] = 'black_king'
self.state.pieces['white_knight'].add((1, 2))
self.state.pieces['black_knight'].add((5, 7))
self.state.pieces['white_pawn'].add((3, 3))
self.state.pieces['black_king'].add((3, 4))
def test_knight(self):
self.assertSetEqual(
self.game._get_normal_moves('white_knight', (1, 2), self.state),
{((1, 2), (0, 0)), ((1, 2), (0, 4)), ((1, 2), (2, 0)),
((1, 2), (2, 4)), ((1, 2), (3, 1))})
def test__is_attacked(self):
self.assertTrue(self.game._is_attacked(self.state, (3, 3)))
self.assertFalse(self.game._is_attacked(self.state, (3, 4)))
def test_pseudo_move(self):
self.state.player = 'black'
self.assertIn(((3, 4), (2, 4)),
self.game._get_pseudolegal_moves(self.state))
self.assertNotIn(((3, 4), (2, 4)),
self.game.get_legal_moves(self.state))
def test_repetition(self):
old_state = State(c.DEFAULT_POSITION)
new_state = State(c.DEFAULT_POSITION)
Game._add_repetition(new_state, old_state)
old_state = copy.deepcopy(new_state)
Game._add_repetition(new_state, old_state)
old_state = copy.deepcopy(new_state)
Game._add_repetition(new_state, old_state)
print(new_state.repetition_counter)
self.assertEqual(new_state.winner, 'draw')
def main(): print "Welcome to digital Snap!\n" # Get any command line arguments supplied commandLineArguments = getCommandLineArguments() # Request number of packs numberOfPacks = commandLineArguments.numberOfPacks \ if cardService.isValidNumberOfPacks(commandLineArguments.numberOfPacks) else getNumberOfPacks() # Request number of players numberOfPlayers = commandLineArguments.numberOfPlayers \ if playerService.isValidNumberOfPlayers(commandLineArguments.numberOfPlayers) else getNumberOfPlayers() # Request game rules gameRules = commandLineArguments.gameRules if commandLineArguments.gameRules is not None else getGameRules() # Start the simulation game = Game(numberOfPacks, playerService.getNPCs(numberOfPlayers), gameRules) game.run()
def __init__(self, m):
self.screen = pygame.display.set_mode((width, height),
pygame.DOUBLEBUF)
self.manager = m
self.bg = Base().isurf(pygame.Surface(self.screen.get_size()),
(0, 0)).render((0, 0, 0))
self.ms = [
Game(),
]
self.fps = fps
self.clock = pygame.time.Clock()
self.stat = Stat(self.clock, (0, 255, 0))
def nsa(request, **kwargs):
"""The NSA game.
They're always listening...
Basically, the "NSA" listens to every event, so even a hover by the human triggers a move by the NSA. With each
move, the occupied positions are sent to the view to determine when there is a win. Ironically, in this game, only
NSA moves are recorded, so naturally, the human can't win against the NSA. (Just like life, man)"""
move = kwargs.get('move', None)
if move:
try:
g = Game()
over = False
result = {'result': ''}
context = dict()
g.take('machine', int(move))
winner = g.winner('machine')
if winner:
over = True
result = {'result': list(winner)}
context['move'] = 999
context['over'] = over
context['result'] = result
return HttpResponse(json.dumps(context), content_type="application/json")
except:
raise Http404
Game.reset()
return render(request, 'nsa.html')
def test_merge(self):
b = Game(MockKaTrain(), MockEngine(), {}, board_size=9)
b.play(Move.from_gtp("B9", player="B"))
b.play(Move.from_gtp("A3", player="B"))
b.play(Move.from_gtp("A9", player="B"))
assert 2 == len(self.nonempty_chains(b))
assert 3 == len(b.stones)
assert 0 == len(b.prisoners)
def test_collide(self):
b = Game(MockKaTrain(), MockEngine(), {}, board_size=9)
b.play(Move.from_gtp("B9", player="B"))
with pytest.raises(IllegalMoveException):
b.play(Move.from_gtp("B9", player="W"))
assert 1 == len(self.nonempty_chains(b))
assert 1 == len(b.stones)
assert 0 == len(b.prisoners)
def testTemplarAbility():
game = Game(templars.Templar, templars.Templar)
p0 = game.players[0]
p1 = game.players[1]
game.start()
# empty mulligans
p0.mulligan()
p1.mulligan()
p0.endTurn(p0.hand[0])
assert len(p0.hand) == 4 # First player penalty
assert p0.manaCap == 3
p1.endTurn(None)
assert len(p1.hand) == 6
assert p1.manaCap == 2
# Try discarding something not in your hand
p0.endTurn(p1.hand[0])
assert len(p1.hand) == 6
assert p0.manaCap == 4
def setUp(self):
self.game = Game()
self.state = State(c.EMPTY_BOARD)
self.state.castle_rights = {
'white_king_side': True,
'white_queen_side': True,
'black_king_side': True,
'black_queen_side': True
}
self.state.board[1][3] = 'white_pawn'
self.state.board[7][6] = 'white_pawn'
self.state.board[2][3] = 'black_queen'
self.state.board[7][7] = 'white_rook'
self.state.board[1][2] = 'black_pawn'
self.state.board[7][4] = 'white_king'
self.state.pieces['white_pawn'].add((1, 3))
self.state.pieces['white_pawn'].add((7, 6))
self.state.pieces['black_queen'].add((2, 3))
self.state.pieces['white_rook'].add((7, 7))
self.state.pieces['black_pawn'].add((1, 2))
self.state.pieces['white_king'].add((7, 4))
def make_move(request):
"""
Make the human player's move and then calculate and make computer's move
"""
# Load board and move information
board = json.loads(request.GET['board'])
box = int(request.GET['box'].replace("box_", ""))
game_history_id = request.GET['game_history_id']
# Make player's move and check game result
game = Game(board)
game.make_move(box, PLAYER)
game_over, winning_combination = game.check_game_over()
computer_played = False
# If game is still on calculate computer's move and make it
if not game_over:
box = game.best_next_move(COMPUTER)
game.make_move(box, COMPUTER)
computer_played = True
game_over, winning_combination = game.check_game_over()
# If game is over save game history
if game_over:
game_history = GameHistory.objects.get(pk=game_history_id)
game_history.finish_game(game_over)
result = {}
result['computer_played'] = computer_played
result['box'] = str(box)
result['game_over'] = game_over
result['board'] = json.dumps(game.get_board())
# set winning combinations for highlighting
result['winning_combination'] = winning_combination
return HttpResponse(json.dumps(result), mimetype='application/json')
def run_game(self):
"""
Run the game.
Will run the game this program is all about. After the game it will
collect results and possibly list the player in the Highscores list.
"""
g = Game(self.args.level, self.args.questions)
start_time = time()
try:
g.run()
except StopGame:
print '\nbye!'
exit()
endtime = time() - start_time
r = Results(self.args.level, self.args.questions, g.mistakes, endtime)
r.print_results()
Highscores().new(r)
def start():
pygame.init()
pygame.display.set_caption('PyDungeon')
size = width, height = (640, 480)
game = Game()
game.setup_default_components(size)
scene = game.scene
tilemap = Entity()
scene.add_entity(tilemap)
tilemap.add_component(NameComponent("tilemap"))
tilemap.add_component(TransformComponent(Vector2(0, 0)))
ts = TileSet()
ts.load("assets/tileset.png", "assets/tileinfo.info")
tm = TileMap(ts, size)
mp = [[["floor_" + str(random.randrange(1, 8))] for _ in range(24)]
for _ in range(24)]
PyDungeons.build_wall_rect(mp, pygame.Rect(2, 2, 10, 10))
tm.load_letters(mp)
tilemap.add_component(tm)
tilemap.add_component(
TileMapCollider(
tm, ["wall_mid", "wall_side_mid_right", "wall_side_mid_left"]))
tilemap.add_component(RendererComponent(TileMapRenderer(), size))
player = Entity()
scene.add_entity(player)
player.add_component(NameComponent("player"))
key_bindings = [[pygame.K_a], [pygame.K_d], [pygame.K_w], [pygame.K_s]]
player.add_component(MoveComponent(1, 2))
player.add_component(KeyControlComponent(key_bindings))
#player.add_component(ScreenBoundsCollisionHandler(pygame.Rect(0, 0, width, height)))
player.add_component(TransformComponent(Vector2(100, 100)))
player.add_component(BoxCollider((16 * 2, 22 * 2), Vector2(0, 12)))
player.add_component(
RendererComponent(TileRenderer(ts.tiles["knight_f_idle_anim"], ts),
(16 * 2, 28 * 2)))
#player.add_component(RendererComponent(ImageRenderer("assets/tileset.png"), (1000, 1000)))
game.add_component(ExitOnEscape())
game.run()
def jerk(request, **kwargs):
"""The Jerk Computer game.
This is the opponent that accomplishes exactly what the instructions say--never lose--but
he's kind of a jerk about it. He doesn't follow the official tic-tac-toe rules (it's not explicitly required by
the instructions)."""
move = kwargs.get('move', None)
if move:
winners = []
sleep(1) # Again, just make it feel like a bit of thinking, just for "realism" of the game play.
for v in WIN_VECTORS:
# Iterate over the possible wins. Store all vectors that do not include the human's move.
if int(move) not in v:
winners.append(list(v))
# Just to make it a bit more interesting, return a randomly selected win vector from the matches so it's not
# the same one every time you play.
winner = winners[random.randint(0, len(winners) - 1)]
context = dict(
winner=winner
)
Game.reset()
return HttpResponse(json.dumps(context), content_type="application/json")
return render(request, 'jerk.html')
def main():
logging.basicConfig()
client1 = c.Client(g.MUSTARD, 'www.mocky.io/v2', '')
client2 = c.Client(g.SCARLET, 'www.mocky.io/v2', '')
client3 = c.Client(g.WHITE, 'www.mocky.io/v2', '')
game = Game([client1, client2, client3])
game.take_turn()
game.take_turn()
game.take_turn()
print('Done!')
def test_repetition(self):
old_state = State(c.DEFAULT_POSITION)
new_state = State(c.DEFAULT_POSITION)
Game._add_repetition(new_state, old_state)
old_state = copy.deepcopy(new_state)
Game._add_repetition(new_state, old_state)
old_state = copy.deepcopy(new_state)
Game._add_repetition(new_state, old_state)
print(new_state.repetition_counter)
self.assertEqual(new_state.winner, 'draw')
def drawMainMenu(self):
x = self.win.getXSize()
y = self.win.getYSize()
self.background = OnscreenImage(image='textures/main_menu.png')
self.background.setSx(x / y)
clickNewGameButton = lambda: self.push(Game())
clickOptionsButton = lambda: self.push('Options')
clickExitButton = lambda: sys.exit()
def setButtonAttributes(button):
button.setSx(.60)
button.setSz(.26)
button.setTransparency(TransparencyAttrib.MAlpha)
maps = loader.loadModel('textures/continue_maps.egg')
geom = (maps.find('**/continue'),
maps.find('**/continue_click'),
maps.find('**/continue_hover'))
self.newGameButton = DirectButton(geom=geom, relief=None,
command=clickNewGameButton)
setButtonAttributes(self.newGameButton)
self.newGameButton.setPos(0, 0, .6)
maps = loader.loadModel('textures/options_maps.egg')
geom = (maps.find('**/options'),
maps.find('**/options_click'),
maps.find('**/options_hover'))
self.optionsButton = DirectButton(geom=geom, relief=None,
command=clickOptionsButton)
setButtonAttributes(self.optionsButton)
self.optionsButton.setPos(0, 0, .36)
maps = loader.loadModel('textures/exit_maps.egg')
geom = (maps.find('**/exit'),
maps.find('**/exit_click'),
maps.find('**/exit_hover'))
self.exitButton = DirectButton(geom=geom, relief=None,
command=clickExitButton)
setButtonAttributes(self.exitButton)
self.exitButton.setPos(0, 0, .12)
self.hasDrawnMainMenu = True
def make_move(request):
"""
Make the human player's move and then calculate and make computer's move
"""
# Load board and move information
board = json.loads(request.GET['board'])
box = int(request.GET['box'].replace("box_",""))
game_history_id = request.GET['game_history_id']
# Make player's move and check game result
game = Game(board)
game.make_move(box, PLAYER)
game_over, winning_combination = game.check_game_over()
computer_played = False
# If game is still on calculate computer's move and make it
if not game_over:
box = game.best_next_move(COMPUTER)
game.make_move(box, COMPUTER)
computer_played = True
game_over, winning_combination = game.check_game_over()
# If game is over save game history
if game_over:
game_history = GameHistory.objects.get(pk=game_history_id)
game_history.finish_game(game_over)
result = {}
result['computer_played'] = computer_played
result['box'] = str(box)
result['game_over'] = game_over
result['board'] = json.dumps(game.get_board())
# set winning combinations for highlighting
result['winning_combination'] = winning_combination
return HttpResponse(json.dumps(result), mimetype='application/json')
def _parse_map_symbol(self, symbol: str, x: int, y: int,
game: Game) -> None:
"""
Creates entities corresponding to the symbol.
"""
if symbol == "#": # Destructible wall
tile = DestructibleWall(x=x * constants.TILE_SIZE,
y=y * constants.TILE_SIZE,
batch=game.background_batch)
self.map[x, y] = tile
if symbol == "$": # Indestructible wall
tile = Wall(x=x * constants.TILE_SIZE,
y=y * constants.TILE_SIZE,
batch=game.background_batch)
self.map[x, y] = tile
if symbol == "+": # Bush
tile = Bush(x=x * constants.TILE_SIZE,
y=y * constants.TILE_SIZE,
batch=game.foreground_batch)
self.map[x, y] = tile
if symbol == "F": # The flag
tile = Flag(x=x * constants.TILE_SIZE,
y=y * constants.TILE_SIZE,
batch=game.batch)
self.map[x, y] = tile
game.game_director.flag = tile
if symbol == "P": # The player (not saved into the map array)
player = Player(
x=x // 2 * constants.TANK_SIZE + constants.TANK_SIZE // 2,
y=y // 2 * constants.TANK_SIZE + constants.TANK_SIZE // 2,
batch=game.batch)
game.entity_manager.add_entity(game.register_player(player))
game.game_director.player = player
game.game_director.player_spawn_point = (x, y)
else:
pass
def request_game():
start_request = StartGameRequest.from_dict(dict(request.args))
player_count = len(APP.waiting_clients)
if player_count < MIN_PLAYERS:
response = StartGameResponse(client_id=start_request.client_id,
game_id='')
return jsonify(response.to_dict())
if player_count > MAX_PLAYERS:
game_clients = APP.waiting_clients[:MAX_PLAYERS - 2]
game_clients.append(APP.get_client(start_request.client_id))
else:
game_clients = APP.waiting_clients
game = Game(game_clients)
APP.games.append(game)
APP.start_game(game.game_id)
response = StartGameResponse(client_id=start_request.client_id,
game_id=game.game_id)
return jsonify(response.to_dict())
def startGame(self):
"""Perform final player checks and start game."""
users = self.getUsers()
sock = users[0] # Need to get reference to the namespace
# Prevent game from restarting if a full room empties and refills
if self.started:
sock[SOCKETIO_NS].emit_to_room(
'chat',
['System',
"This game already started, so I won't start a new one."])
return
# Ensure all seats filled
if len(self.getAvailableSeats()) > 0:
# Something has gone wrong
log.error("bad seating error in startGame()")
sock[SOCKETIO_NS].emit_to_room('err', 'Problem starting game')
return
# Send out the final seat chart
sock[SOCKETIO_NS].emit_to_room('seatChart', self.getSeatingChart())
self.game = Game()
initData = self.game.start_game(self.getUsernamesInRoom())
# Send initial game data to players
log.debug("Sending initial game data in room %s", self.num)
sock[SOCKETIO_NS].emit_to_target_room(LOBBY, 'gameStarted', self.num)
target_sock_map = {s.session['seat']: s[SOCKETIO_NS]
for s in users}
for msg in initData:
target_sock_map[msg['tgt']].emit('startData', msg)
self.started = True
class TicTacToeTest(unittest.TestCase):
def setUp(self):
self.board = Game()
def tearDown(self):
self.board.reset()
def test_001(self):
"""Test the available move checker"""
moves = self.board.available
# Make sure all moves are available
self.assertTrue(len(moves) == 9, 'Not all moves are available')
self.assertTrue(moves == [0, 1, 2, 3, 4, 5, 6, 7, 8], 'Available moves do not match')
def test_002(self):
"""Test position setter"""
self.board.take('machine', 4) # Machine takes center position
moves = self.board.available
self.assertTrue(len(moves) == 8, 'Position not taken')
self.assertTrue(moves == [0, 1, 2, 3, 5, 6, 7, 8], 'Available moves do not match')
def test_003(self):
"""Test win detection"""
self.board.take('machine', 1)
# At this point we shoulnd't have a winner yet
self.assertFalse(self.board.winner('machine'), 'We have a winner')
self.board.take('machine', 7)
# Now the machine player should have won
self.assertTrue(self.board.winner('machine'), '{0} is not the winner'.format(PLAYERS['machine']))
self.assertTrue(self.board.winner('machine') == (1, 4, 7), 'Unexpected winning vector')
def test_004(self):
"""Test win detection"""
self.board.clear('machine', 1)
# Now the machine player should have a winning move available
self.assertTrue(self.board.winnable('machine') == 1, 'Exptected to be able to win')
def test_005(self):
"""Test game evaulation -- Winning move"""
self.board.take('human', 0)
self.board.take('human', 3)
move = self.board.eval_tree('machine')
self.assertTrue(move == 1, 'Expected to choose position 1 for the win')
def test_006(self):
"""Test game evaluation -- Blocking move"""
Game.reset()
self.board.take('human', 4)
self.board.take('human', 2)
self.board.take('machine', 0)
self.board.take('machine', 1)
move = self.board.eval_tree('machine')
self.assertTrue(move == 6, 'Expected to choose position 6 for the block')
def test_007(self):
"""Test game evaluation - minimax."""
Game.reset()
self.board.take('human', 0)
self.board.take('human', 4)
self.board.take('machine', 8)
move = self.board.next_move()
self.assertTrue(move == 2 or move == 6, 'Expected to choose position 2 or 6 to lead to a draw')
def setUp(self):
self.board = Game()
class Room(object):
"""Container class for a game and users.
To improve data management, a Room does not directly reference players.
Instead, each player (socket connection) keeps their room number in their
session and the Room object is located on-demand. This normalizes the data
relationship and keeps the Room from maintaining an internal player list
that could get out of sync with reality.
Attributes:
server (Server): Pointer to active server object.
num (int): The room ID number.
game (core.game Game): Game object.
users (list of sockets): The users in the room.
started (boolean): If a game has been started in this room.
"""
server = None
def __init__(self, roomNum):
"""Create a new Room with a given room number.
Args:
roomNum (int): The specified room number for identification purposes.
"""
self.num = roomNum
self.game = None
self.started = False
def __str__(self):
"""Return a label for the room, with special handling for the Lobby."""
if self.num == LOBBY:
return "Lobby"
else:
return "Room %i" % self.num
def __del__(self):
"""Safely delete the Room."""
log.debug("TODO: safely end game.")
def getUsers(self):
"""Return list of sockets for clients in this room."""
return [x for x in self.server.sockets.values()
if 'roomNum' in x.session and x.session['roomNum'] == self.num]
def getUsernamesInRoom(self):
"""Return list of all users' nicknames in this room.
This method ensures the names are in seat order. If we implement
username listing for the lobby, this will have to be modified.
"""
names = [''] * NUM_PLAYERS
for sock in self.getUsers():
names[sock.session['seat']] = sock.session['nickname']
return names
def isFull(self):
"""Check if the room is full and return a boolean.
Lobby cannot fill up.
"""
if self.num == LOBBY: # Lobby never fills
return False
elif len(self.getUsers()) == MAX_ROOM_SIZE:
return True
else:
return False
def getAvailableSeats(self):
"""Return list of unoccupied seat numbers in the room.
FUTURE: The seat `-1` is the non-seat/observer seat and
is always available.
"""
allSeats = list(range(0, MAX_ROOM_SIZE)) # + [-1]
if self.num == LOBBY:
return allSeats
else:
usedSeats = [x.session['seat'] for x in self.getUsers()]
availableSeats = [x for x in allSeats if x not in usedSeats]
return availableSeats
def getSeatingChart(self):
"""Return a seating chart for the room.
If a user does not have a seat, they are given seat = -1.
Returns:
list: (username, seat number) pairs for users in the room.
"""
seatChart = []
for sock in self.getUsers():
name = sock.session['nickname']
if sock.session['seat'] is None:
seat = -1
else:
seat = sock.session['seat']
seatChart.append((name, seat))
return seatChart
def startGame(self):
"""Perform final player checks and start game."""
users = self.getUsers()
sock = users[0] # Need to get reference to the namespace
# Prevent game from restarting if a full room empties and refills
if self.started:
sock[SOCKETIO_NS].emit_to_room(
'chat',
['System',
"This game already started, so I won't start a new one."])
return
# Ensure all seats filled
if len(self.getAvailableSeats()) > 0:
# Something has gone wrong
log.error("bad seating error in startGame()")
sock[SOCKETIO_NS].emit_to_room('err', 'Problem starting game')
return
# Send out the final seat chart
sock[SOCKETIO_NS].emit_to_room('seatChart', self.getSeatingChart())
self.game = Game()
initData = self.game.start_game(self.getUsernamesInRoom())
# Send initial game data to players
log.debug("Sending initial game data in room %s", self.num)
sock[SOCKETIO_NS].emit_to_target_room(LOBBY, 'gameStarted', self.num)
target_sock_map = {s.session['seat']: s[SOCKETIO_NS]
for s in users}
for msg in initData:
target_sock_map[msg['tgt']].emit('startData', msg)
self.started = True
def setUp(self): self.stdout = sys.stdout sys.stdout = TestStdout() self.game = Game(1, getNPCs(2), ValueAndSuitRules())
class TestGame(unittest.TestCase):
def setUp(self):
self.stdout = sys.stdout
sys.stdout = TestStdout()
self.game = Game(1, getNPCs(2), ValueAndSuitRules())
def tearDown(self):
sys.stdout = self.stdout
def testInit(self):
self.failUnlessEqual(len(self.game.deck), 52)
self.failUnlessEqual(len(self.game.pot), 0)
def testRun(self):
self.game._run(lambda: "")
self.failUnlessEqual(len(self.game.deck), 0)
def testProcessSnap(self):
pot = [Card("2", "h"), Card("j", "c")]
self.game.players[0].snapResponseTime = 1
self.game.players[1].snapResponseTime = 2
self.game.pot = pot[:]
self.game.processSnap()
self.failUnlessEqual(self.game.players[0]._cards, pot)
self.failUnlessEqual(self.game.players[1]._cards, [])
self.failUnlessEqual(len(self.game.pot), 0)
def testProcessNoSnap(self):
cards = [Card("2", "h"), Card("j", "c"), Card("a", "s")]
self.game.players[0].snapResponseTime = 1
self.game.players[0]._cards = cards
self.game.processNoSnap()
self.failUnlessEqual(self.game.players[0]._cards, cards[0:1])
def testAnnounceWinner(self):
cards = [Card("2", "h")]
self.game.players[0]._cards = cards
self.game._announceWinner(lambda: "")
self.failUnless("%s won the game with %i cards!" % (self.game.players[0].name, len(cards)) in TestStdout.written)
def testAnnounceWinnerDraw(self):
cards = [Card("2", "h")]
self.game.players[0]._cards = cards
self.game.players[1]._cards = cards
self.game._announceWinner(lambda: "")
self.failUnless("%s drew the game with %i cards each!"
% (' & '.join([player.name for player in self.game.players]), len(cards)) in TestStdout.written)
def testCheckRematch(self):
cards = [Card("2", "h")]
cards2 = [Card("a", "s")]
self.game.players[0]._cards = cards[:]
self.game.players[1]._cards = cards2[:]
self.game._checkRematch(lambda: True, lambda: "")
self.failUnlessEqual(self.game.players[0]._cards, [])
self.failUnlessEqual(self.game.players[1]._cards, [])
self.failUnlessEqual(len(self.game.deck), 52)
self.failUnlessEqual(self.game.pot, [])
def main():
i = Game()
i.play()