def UCT_play_game(n_iter=1000,
prune1=False,
zero_sum1=False,
epsilon1=0.,
prune2=False,
zero_sum2=False,
epsilon2=0.,
verbose=False):
""" Play a sample game between two UCT players where each player gets a different number
of UCT iterations (= simulations = tree nodes).
"""
_verbose = verbose
state1 = game_state.GameState(prune1, zero_sum1, epsilon1)
state2 = game_state.GameState(prune2, zero_sum2, epsilon2)
while ((state1.player_just_moved == 2 and len(state1.get_all_moves()) > 1
and not (state1.py_pachi_board.is_terminal)) or
(state2.player_just_moved == 1 and len(state2.get_all_moves()) > 1
and not (state2.py_pachi_board.is_terminal))):
if state1.player_just_moved == 1:
m = UCT(rootstate=state2, itermax=n_iter, verbose=_verbose)
else:
m = UCT(rootstate=state1, itermax=n_iter, verbose=_verbose)
print "Best Move: " + str(m) + "\n"
state1.do_move(m)
state2.do_move(m)
if _verbose:
print(state1.py_pachi_board)
if state1.get_result(state1.player_just_moved) > 0:
print "Player " + str(state1.player_just_moved) + " wins!"
elif state1.get_result(state1.player_just_moved) < 0:
print "Player " + str(3 - state1.player_just_moved) + " wins!"
else:
print "Nobody wins!"
def main():
os.environ["SDL_VIDEO_CENTERED"] = '1' # center screen
pygame.init()
clock = pygame.time.Clock()
screen = set_screen()
ct.common_tiles.initiate_tiles()
GS = game_state.GameState(screen, clock)
clock_counter = dt.FPSClock(screen)
while True:
# update game state
GS.update()
# render game state
GS.render_all()
pygame.display.update()
GS.clock.tick(FPS)
clock_counter.show_time(GS.clock.get_fps())
# get input
GS.handle_input()
def __init__(self,
player_names,
randomize_play_order=True,
outfile="history.txt",
move_history_file=None):
self.num_players = len(player_names)
if not self.is_valid_num_players(self.num_players):
print("Invalid number of players. Cannot create game instance...")
raise ValueError("Invalid number of players")
self.outfile = outfile
self.move_history_file = move_history_file
self.player_names = player_names
if self.move_history_file is not None:
with open(self.move_history_file, "r") as f:
self.player_names = [
name.rstrip() for name in f.readline().split(" ")
]
elif randomize_play_order:
random.shuffle(self.player_names)
self.game_state = gs.GameState(self.player_names)
self.MAX_ACTION_ATTEMPTS = 10 # max num times we try to get an action
def __init__(self, xm, ym):
self.game_xm = xm
self.game_ym = ym
cursor = (0, 0)
grid = game_map.get_grid(xm, ym)
cursor = grid.player_cells[0].position
self.game_state = game_state.GameState(cursor, grid)
def test_game_state_localized(self):
settings.change('language', 'Spanish')
game_state_test = game_state.GameState(self.log)
game_state_test.force_zero_map_time = True
game_state_test.set_bulk(
(False, 'ctf_mexico_b4', 'Engineer', '', 'Not queued', True))
self.assertTrue(game_state_test.update_rpc)
self.assertEqual(
str(game_state_test),
'Engineer on ctf_mexico_b4, gamemode=ctf, hosting=True, queued="Not queued", server='
)
self.assertEqual(
fix_activity_dict(game_state_test.activity()), {
'details': 'Mapa: ctf_mexico_b4 (alojamiento)',
'state': 'El tiempo en el mapa: 0:00',
'timestamps': {
'start': 0
},
'assets': {
'large_image': 'ctf',
'large_text':
'Capturar la Bandera - TF2 Presencia Rica {tf2rpvnum}',
'small_image': 'engineer',
'small_text': 'Engineer'
}
})
self.assertTrue(game_state_test.update_rpc)
def test_get_match_info(self):
test_game_state = game_state.GameState(self.log)
test_addresses = (
'162.254.192.155:27053', # valve
'dal-1.us.uncletopia.com:27025',
'chi.servers.creators.tf:27015',
'192.223.26.238:27017', # lazypurple
'45.35.1.186:27065') # blackwonder
for test_address in test_addresses:
try:
server_data = test_game_state.get_match_data(
test_address, ['Server name', 'Player count', 'Kills'],
allow_network_errors=False)
self.assertTrue(
server_data['player_count'].startswith("Players: "))
self.assertIn(server_data['player_count'].split('/')[1],
('24', '26', '30', '32'))
self.assertEqual(server_data['kills'], "Kills: 0")
if "Valve" in server_data['server_name']:
self.assertEqual(server_data['server_name'],
"Valve Matchmaking Server (Virginia)")
except Exception as error:
raise AssertionError(f'{test_address}, {repr(error)}')
settings.change('request_timeout', 0.001)
self.assertEqual(
test_game_state.get_match_data(
test_addresses[-1], ['Server name', 'Player count', 'Kills']),
server_data)
self.assertEqual(test_game_state.get_match_data('', ['Player count']),
{'player_count': 'Players: ?/?'})
def test_square_graph(self):
g = game_state.GameState()
g.pathfinding_grid = graph_2d.SquareGraph(3, 3)
path = g.pathfinding_grid.shortest_path((0, 0), (2, 2))
self.assertEqual(path[0], (0, 0))
self.assertEqual(path[-1], (2, 2))
self.assertNotEqual(len(path), 2)
def test_move_character_impossible(self):
g = game_state.GameState()
g.pathfinding_grid = graph_2d.SquareGraph(3, 3)
c = character.Character("Bob")
g.characters[0] = c
r = g.move_character(0, (2, 3))
self.assertFalse(r.is_success)
def test_add_remove_auction_tiles(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) max_index = gi.NUM_AUCTIONABLE_TILE_TYPES - 1 max_auction_tiles = g_state.get_max_auction_tiles() # test add and remove for _i in range(self.num_iterations): tiles_added = [] # check that adding auction tiles works for _j in range(max_auction_tiles): rand_tile = random.randint(0, max_index - 1) tiles_added.append(rand_tile) g_state.add_tile_to_auction_tiles(rand_tile) self.assertEqual(tiles_added, g_state.get_auction_tiles()) # check that adding too many auction tiles doesn't work try: rand_tile = random.randint(0, max_index - 1) g_state.add_tile_to_auction_tiles(rand_tile) self.assertTrue(False) except Exception: self.assertTrue(True) # check that removing auction tiles works for _j in range(len(tiles_added)): indx_to_remove = random.randint(0, len(tiles_added) - 1) tiles_added.pop(indx_to_remove) g_state.remove_auction_tile(indx_to_remove) self.assertEqual(tiles_added, g_state.get_auction_tiles())
def test_give_tiles_to_player(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) for _i in range(self.num_iterations): auction_tiles = [] # add a random number of collectible tiles to a list num_auction_tiles = random.randint(1, g_state.get_max_auction_tiles() - 1) for _j in range(num_auction_tiles): t = g_state.draw_tile(log = False) if t is None: break if gi.index_is_collectible(t): auction_tiles.append(t) player_index = random.randint(0, 1) old_player_collection = g_state.get_player_collection(player_index) g_state.give_tiles_to_player(player_index, auction_tiles) new_player_collection = g_state.get_player_collection(player_index) # check that new player collection has 1 more of each auction tile for tile in auction_tiles: self.assertEqual( old_player_collection[tile] + auction_tiles.count(tile), new_player_collection[tile] )
def __init__(self, player1, player2):
board = Board()
self._game_state = game_state.GameState(board, WHITE, None)
self._players = {WHITE: player1, BLACK: player2}
player1.side = WHITE
player2.side = BLACK
def setup(self):
print('setup_started')
self.state = game_state.GameState()
print('Game State created')
self.state.create_new_game('F**k', 100)
print('Game created')
arcade.set_background_color(arcade.color.DARK_BROWN)
print('setup_done')
def initialise(self):
"""
Initialise the state of the challenge
"""
print("Establishing initial position...")
self.state = gs.GameState()
state_man = gsm.StateManager(self.conn, self.state)
state_man.start()
return state_man
def test_mark_player_passed(self): for _i in range(self.num_iterations): g_state = gs.GameState(["Test Player 1", "Test Player 2", "Test Player 3"]) player_indexes = [0, 1, 2] random.shuffle(player_indexes) # mark players passed and make sure they are properly marked for index in player_indexes: g_state.mark_player_passed(index) self.assertTrue(not g_state.is_player_active(index))
def test_service_move_long(self):
s = service.Service()
s.state = game_state.GameState()
s.state.pathfinding_grid = graph_2d.SquareGraph(3, 3)
s.state.characters = {0: character.Character("Bob")}
# character id, destination coordinate
r = s.move(0, (2, 2))
for _ in xrange(200):
s.inc_tick()
self.assertEqual(s.character_location(0), (2, 2))
def __init__(self, player_num, block_size, activate_gui, activate_terminal,
height, width):
self.player_num = player_num
self.height = height
self.width = width
self.activate_terminal = activate_terminal
self.activate_gui = activate_gui
self.block_size = block_size
self.AIs = list()
self.state = game_state.GameState(player_num, height, width)
def test_board(all_result, states, max_time):
counter = 1
for state in states:
print("running state: ", counter)
counter += 1
result = []
result_expectimax = []
result_monte_carlo = []
i = 0
while i < 50:
print(i)
start = time.time()
ga = game_state.GameState(state[0], copy.deepcopy(state[1]),
copy.deepcopy(state[2]), state[3],
state[4], state[5],
copy.deepcopy(state[6]))
agent = multi_agents.ExpectimaxAgent(2)
t = game.Game(agent)
res = t.run(ga, max_time)
end = time.time()
i += 1
result_expectimax.append([res[0], end - start, res[1]])
result.append(result_expectimax)
i = 0
while i < 50:
print(i)
start = time.time()
ga = game_state.GameState(state[0], copy.deepcopy(state[1]),
copy.deepcopy(state[2]), state[3],
state[4], state[5],
copy.deepcopy(state[6]))
agent = multi_agents.MonteCarloTreeSearchAgent(150)
t = game.Game(agent)
res = t.run(ga, max_time)
end = time.time()
i += 1
result_monte_carlo.append([res[0], end - start, res[1]])
result.append(result_monte_carlo)
all_result.append(result)
def __init__(self, display_game=True):
pygame.init()
#self.font = pygame.font.Font(None, 60)
self.playing = False
self.display_game = display_game
if self.display_game:
self.screen = pygame.display.set_mode(SC.screen_size)
player = Player(SC.player_start_pos, SC.initial_player_accel, 0)
platforms = deque()
hammers = deque()
self.game_state = game_state.GameState(player, platforms, hammers, 0, False)
def __init__(self):
super(App, self).__init__()
self._running = True
self._display_surf = None
self._image_surf = None
self.background = None
self.game_ui = None
self.state_dict = None
self.state_name = None
self.state = None
self.clock = pygame.time.Clock()
self.current_game = game_state.GameState()
def test_drawing_all(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) # test that drawing all the tiles results in an empty tile bag starting_num_tiles = g_state.get_num_tiles_left() for _i in range(starting_num_tiles): _ = g_state.draw_tile() self.assertEqual(0, g_state.get_num_tiles_left()) self.assertEqual( [0] * gi.NUM_TILE_TYPES, g_state.get_tile_bag().get_bag_contents() ) # test that trying to draw a tile after none are left returns none self.assertEqual(None, g_state.draw_tile(log = False))
def test_increase_round_number(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) max_rounds = g_state.get_total_rounds() starting_round = g_state.get_current_round() # check that increasing rounds works properly for i in range(max_rounds - starting_round): g_state.increase_round_number() self.assertEqual(g_state.get_current_round(), starting_round + i + 1) # check that increasing rounds when ur on the last round throws an error try: g_state.increase_round_number() self.assertTrue(False) except Exception: self.assertTrue(True)
def send_response(data, ip):
print('Calculating response...')
json_d = json.loads(data)
preview_map(json_d)
print('-- GAME STATE --')
#print(json.dumps(json_d, indent=2))
gs = game_state.GameState(json_d)
for p in gs.perceptions:
#print('\t' + p.to_string(gs.unit_ids))
if p.item_id == 1:
game_state.GameState.wall[p.pos_y][p.pos_x] = 1
print('--- END GAME ---')
print('Sending response')
ret = gs.handle_response(ip)
print('-- CURRENT LOOP DONE --')
return ret
def new_game(args):
first_player_args = args[0]
second_player_args = args[1]
first_agent, first_name = create_agent(first_player_args[0],
first_player_args[1],
first_player_args[2],
first_player_args[3], 1)
second_agent, second_name = create_agent(second_player_args[0],
second_player_args[1],
second_player_args[2],
second_player_args[3], 2)
initial_state = game_state.GameState(init=False)
game = Game(first_agent, second_agent, first_name, second_name)
return game.run(initial_state)
def test_reset_active_players(self): for _i in range(self.num_iterations): g_state = gs.GameState(["Test Player 1", "Test Player 2", "Test Player 3"]) # mark some players passed player_indexes = [0, 1, 2] random.shuffle(player_indexes) player_indexes = player_indexes[:(random.randint(0, 3))] for index in player_indexes: g_state.mark_player_passed(index) # mark all players active g_state.reset_active_players() # make sure all players active for j in range(3): self.assertTrue(g_state.is_player_active(j))
def test_reset_num_ras_this_round(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) max_ras = g_state.get_num_ras_per_round() starting_num_ras = g_state.get_current_num_ras() # sanity check that game starts with 0 ras self.assertEqual(starting_num_ras, 0) # test that ras are reset properly for i in range(self.num_iterations): num_ras_to_add = random.randint(1, max_ras) for j in range(num_ras_to_add): g_state.increase_num_ras_this_round() self.assertEqual(num_ras_to_add, g_state.get_current_num_ras()) g_state.reset_num_ras_this_round() self.assertEqual(0, g_state.get_current_num_ras())
def play_game (inference):
# Initialize memory
actions = []
policies = []
indices = []
moves = []
# Set up search tree
state = game_state.GameState()
tree = mcts.MCTS(inference, state, num_threads=8)
# Play game
while not tree.state.done():
print(tree.state.state.unicode())
# Perform search
node = tree.search(128)
# Calculate move probabilities and get action index
probs = mcts.policy(node, T=1.0)
index = np.random.choice(len(node.actions), p=probs)
# Get action and update tree
action = node.actions[index]
value = node.Q[index]
move = tree.state.parse_action(action)
print(tree.state.state.san(move), value)
tree.act(index)
# Store stats
actions.append(action)
policies.append(probs)
indices.append(node.actions)
moves.append(move)
# Get game outcome and last player to move
outcome = -tree.state.reward()
winner = not tree.state.turn()
print(tree.state.state.unicode())
print(' '.join([chess.Board().variation_san(moves), state.state.result()]))
return actions, policies, indices, outcome, winner
def get_action_sequence(self, tetris_game):
"""
Given a Tetris object that represents the current state of the game, return a list of Event objects that
represents a course of action.
"""
self.expanded_nodes = 0
best_score = -np.inf
best_action_sequence = []
tetris_game_state = game_state.GameState(tetris_game.field, tetris_game.figure.type)
successors_dict = tetris_game_state.generate_agent_successors_dict() # maps a game state to an event list.
for successor in successors_dict.keys():
value = self.expected_value(successor, 1)
if value >= best_score:
best_score = value
best_action_sequence = successors_dict[successor]
return best_action_sequence
def get_action_sequence(self, tetris_game):
"""
Returns the minimax action
"""
self.expanded_nodes = 0
best_score = -np.inf
alpha = -np.inf
beta = np.inf
best_action_sequence = []
tetris_game_state = game_state.GameState(tetris_game.field, tetris_game.figure.type)
successors_dict = tetris_game_state.generate_agent_successors_dict() # maps a game state to an event list.
for successor in successors_dict.keys():
value = self.max_value(successor, 1, alpha, beta)
if value >= best_score:
best_score = value
best_action_sequence = successors_dict[successor]
return best_action_sequence
def preview_map(json_data):
gamestate = game_state.GameState(json_data)
mat = np.zeros(
(game_state.GameState.width, game_state.GameState.height, 3),
dtype="uint8")
cv2.bitwise_not(mat, mat, mask=game_state.GameState.wall)
red_mat = np.full(
(game_state.GameState.width, game_state.GameState.height, 3),
(0, 0, 255),
dtype="uint8")
cv2.bitwise_or(red_mat, mat, mat, mask=game_state.GameState.movement)
for p in gamestate.perceptions:
color = (0, 0, 0)
if p.item_id == 1: # This is a wall
color = (255, 255, 255)
if p.item_id == 2:
color = (255, 165, 0)
if p.item_id == 2:
color = (165, 42, 42)
mat[p.pos_y, p.pos_x, :] = color
for unit in gamestate.get_units():
cv2.rectangle(mat, (unit.pos_x - game_state.GameState.range_num,
unit.pos_y - game_state.GameState.range_num),
(unit.pos_x + game_state.GameState.range_num,
unit.pos_y + game_state.GameState.range_num),
(0, 0, 255),
thickness=-1)
cv2.drawMarker(mat, (unit.pos_x, unit.pos_y), (0, 255, 0),
markerType=cv2.MARKER_CROSS)
cv2.putText(mat, str(unit.hp), (unit.pos_x, unit.pos_y),
cv2.FONT_HERSHEY_SIMPLEX, 0.5, (0, 0, 255), 1)
cv2.putText(mat, str(unit.ammo), (unit.pos_x, unit.pos_y - 10),
cv2.FONT_HERSHEY_SIMPLEX, 0.5, (255, 0, 0), 1)
for unit in gamestate.get_enemies():
cv2.drawMarker(mat, (unit.pos_x, unit.pos_y), (255, 0, 0),
markerType=cv2.MARKER_CROSS)
for unit in gamestate.get_ammos():
cv2.drawMarker(mat, (unit.pos_x, unit.pos_y), (255, 255, 0),
markerType=cv2.MARKER_DIAMOND)
for unit in gamestate.get_healths():
cv2.drawMarker(mat, (unit.pos_x, unit.pos_y), (255, 0, 255),
markerType=cv2.MARKER_DIAMOND)
cv2.imshow('[OE Kockanap] - Perception preview', mat)
cv2.waitKey(1)
def test_clear_auction_tiles(self): g_state = gs.GameState(["Test Player 1", "Test Player 2"]) max_index = gi.NUM_AUCTIONABLE_TILE_TYPES max_auction_tiles = g_state.get_max_auction_tiles() for _i in range(self.num_iterations): num_to_add = random.randint(0, max_auction_tiles) tiles_added = [] # check that adding auction tiles works for _j in range(num_to_add): rand_tile = random.randint(0, max_index - 1) tiles_added.append(rand_tile) g_state.add_tile_to_auction_tiles(rand_tile) self.assertEqual(tiles_added, g_state.get_auction_tiles()) # check that clearing auction tiles works g_state.clear_auction_tiles() self.assertEqual(g_state.get_auction_tiles(), [])
