def update_frame(x):
global state, score, high_score, last_move, bot_mode, down_press
if bot_mode:
# a = policy(Variable(torch.from_numpy(state).type(torch.FloatTensor)))
# _, ac = a.max(0)
# action = ac.item()
a = policy(Variable(torch.from_numpy(state).type(torch.FloatTensor)))
# a = F.softmax(a, dim=-1)
c = Categorical(a)
action = c.sample()
# action = train.select_action(state).item()
state, reward, done = game.step(action)
last_move = action
else:
state, reward, done = game.step(0)
if down_press:
game.active_piece, game.grid, _ = game.move_down(game.active_piece, game.grid)
last_move = 4
score += reward
if done:
game.reset()
high_score = max(high_score, score)
score = 0
async def stopBJ(ctx):
"""Stop an active game of blackjack & reset everything."""
global game
game.reset()
game.set_game_state("STOPPED")
await ctx.send("Awwww....how sad. If you'd like to start a game, use __!startBJ__")
def init():
global state, speed, last_update
# set the initial time for the first update with the current time
last_update = time.time()
game.score = 0
game.reset()
graphics.drawGame()
state = 1
try:
speed = config.game_speed[parser.args.speed]
except:
speed = config.game_speed['m']
livesIn = parser.args.lives
if livesIn >= 1 and livesIn <= 5:
game.lives = livesIn
game.livesMax = livesIn
elif livesIn > 5:
game.lives = 5
game.livesMax = 5
else:
game.lives = 1
game.livesMax = 1
def setup():
if game.setuplock == 0:
game.setuplock=1
game.movelock=1
game.placelock=1
game.reset()
game.pu()
game.clear()
game.pensize(5)
game.edge=80
game.sety(0)
game.setx(0)
game.title("PyTacToe")
game.speed(0)
game.plansza()
game.speed(2)
game.sety(0)
game.setx(0)
game.x=1
game.y=1
game.last=2
print("x - 1")
print("o - 2")
game.f00=game.f01=game.f02=game.f10=game.f11=game.f12=game.f20=game.f21=game.f22="dummy"
game.setuplock=0
game.movelock=0
game.placelock=0
def main():
viewPort = viewport.ViewPort(WINWIDTH, WINHEIGHT, topLeft=Point(400, 80))
game = CandySeller(viewPort)
while True:
game.run()
# Re-initialised the game state.
game.reset()
def main():
viewPort = viewport.ViewPort(WINWIDTH, WINHEIGHT)
game = SheriffQuest(viewPort)
while True:
game.run()
# Re-initialised the game state.
game.reset()
def main():
print("Starting Jimmy Pixel...")
viewPort = viewport.ViewPort(WINWIDTH, WINHEIGHT, topLeft=Point(400, 80))
game = JimmyPixel(viewPort)
print("Created Jimmy Pixel game...")
while True:
game.run()
# Re-initialised the game state.
game.reset()
def run():
try:
parser.init()
stage.init()
graphics.init()
theme.init()
game.reset()
gameloop.start()
except KeyboardInterrupt:
exit()
def run():
try:
parser.init()
stage.init()
graphics.init()
theme.init()
game.reset()
gameloop.start()
except KeyboardInterrupt:
exit()
def on_key_press(symbol, modifiers):
if symbol == key.LEFT:
game.batE.status = "PRESS"
elif symbol == key.RIGHT:
game.batD.status = "PRESS"
elif symbol == key.SPACE:
game.molaS = 'PRESS'
if game.status == "GAME OVER":
if symbol == key.ENTER:
game.reset()
def init_random_exp_memory(self, size):
if size > self.memory_size:
size = self.memory_size
game = self.get_game()
self.exp_memory.add(game.get_state(), 0, 0, 0)
for i in range(size):
random_action = np.random.randint(0, self.num_actions)
reward, is_terminal = game.execute_action(random_action)
state = game.get_state()
self.exp_memory.add(state, random_action, reward, is_terminal)
if is_terminal:
game.reset()
self.exp_memory.add(game.get_state(), 0, 0, 0)
async def handleGame(data):
if (data['text'] == 'join' and game.game_on == False):
playerNum = game.add_player(data['sender'])
data['text'] = f'join{str(playerNum)}'
await notify_public_message(data)
elif (data['text'] == 'join' and game.game_on == True):
data = game.add_player(data['sender'])
await notify_client(data)
elif (data['text'] == 'ready'):
data['text'] = 'start'
data['sender'] = 'game'
await notify_public_message(data)
cards = game.deal_3(1)
await notify_client(cards)
cards = game.deal_3(2)
await notify_client(cards)
elif (data['text'] == 'move'):
is_bomb = False
if (len(data['data'])>3):
is_bomb = True
data = game.process_message(data)
await notify_public_message(data)
if (not is_bomb):
player = game.players.index(game.whos_turn)+1
cards = game.deal_1(player)
await notify_client(cards)
win_state = game.check_win_state()
if (win_state[0]):
print('win')
data = game.create_win_message(win_state[1])
await notify_public_message(data)
data = game.reset()
await notify_public_message(data)
else:
game.switch_turn()
def on_key_press(symbol, modifiers):
if symbol == key.LEFT:
game.batE.status = "PRESS"
elif symbol == key.RIGHT:
game.batD.status = "PRESS"
elif symbol == key.SPACE:
game.game_start_time = game.time
if game.status == "GAME OVER":
if symbol == key.ENTER:
game.reset()
if game.status == "REINICIAR":
if symbol == key.ENTER:
game.reset()
def init_exp_memory(self, size):
if size > self.memory_size:
size = self.memory_size
game = self.get_game()
self.exp_memory.add(game.get_state(), 0, 0, 0)
for i in range(size):
action = 0
if np.random.rand() < self.epsilon:
action = np.random.randint(0, self.num_actions)
else:
action = self.qlearner.compute_action(game.get_state())[0]
reward, is_terminal = game.execute_action(action)
state = game.get_state()
self.exp_memory.add(state, action, reward, is_terminal)
if is_terminal:
game.reset()
self.exp_memory.add(game.get_state(), 0, 0, 0)
def run():
try:
# Init the game
parser.init()
# Check for editor
if (parser.args.editor):
os.system("/usr/share/make-snake/snake-editor/__main__.py")
sys.exit(0)
graphics.init()
theme.init()
stage.init()
game.reset()
# Start the game
gameloop.start()
except KeyboardInterrupt:
exit()
def run():
try:
# Init the game
parser.init()
# Check for editor
if (parser.args.editor):
os.system("/usr/share/make-snake/snake-editor/__main__.py")
sys.exit(0)
graphics.init()
theme.init()
stage.init()
game.reset()
# Start the game
gameloop.start()
except KeyboardInterrupt:
exit()
async def unregister(cid):
clients.pop(cid, None)
await notify_clients()
if cid in game.players:
data = game.reset()
await notify_public_message(data)
data['tag'] = 'public'
data['text'] = 'a player quit, game reset'
await notify_public_message(data)
def eval(self, num_steps):
game = self.get_game()
total_score = 0.0
current_score = 0.0
num_games = 1.0
max_score = 0.0
for i in range(num_steps):
action = self.qlearner.compute_action(game.get_state())[0]
reward, is_terminal = game.execute_action(action)
reward = self.renormalize_reward(reward)
current_score += reward
total_score += reward
if is_terminal:
game.reset()
if i < (num_steps - 1):
num_games += 1
if current_score > max_score:
max_score = current_score
current_score = 0
average = total_score / num_games
return total_score, num_games, average, max_score
def find_max_games(self, num_steps, path, score_threshold):
image_id = 0
game = self.get_game()
frames = []
frames.append((np.copy(game.get_state()), 0.0))
max_game_score = 0
current_game_score = 0.0
for i in range(num_steps):
if i % (num_steps // 10) == 0:
print("At step {}".format(i))
action = self.qlearner.compute_action(game.get_state())[0]
reward, is_terminal = game.execute_action(action)
reward = self.renormalize_reward(reward)
current_game_score += reward
frames.append((np.copy(game.get_state()), current_game_score))
if is_terminal:
game.reset()
if current_game_score > max_game_score:
max_game_score = current_game_score
if current_game_score > score_threshold:
print("Saving images...")
for frame in frames:
self.save_image(frame[0],
path,
image_id,
0,
0,
0,
score=frame[1])
image_id += 1
frames = []
frames.append((np.copy(game.get_state()), 0.0))
current_game_score = 0.0
print("Max score: {}".format(max_game_score))
def eval_with_images(self, num_steps, path):
image_id = 0
game = self.get_game()
self.save_image(game.get_state(), path, image_id, 0, 0, 0, 0.0)
total_score = 0
games_finished = 0
max_game_score = 0
current_game_score = 0.0
for i in range(num_steps):
image_id += 1
action = self.qlearner.compute_action(game.get_state())[0]
reward, is_terminal = game.execute_action(action)
reward = self.renormalize_reward(reward)
total_score += reward
current_game_score += reward
self.save_image(game.get_state(),
path,
image_id,
action,
reward,
is_terminal,
score=current_game_score)
if is_terminal:
game.reset()
games_finished += 1
if current_game_score > max_game_score:
max_game_score = current_game_score
current_game_score = 0.0
self.save_image(game.get_state(),
path,
image_id,
action,
reward,
is_terminal,
score=current_game_score)
print("Max score: {}".format(max_game_score))
def train(num_episodes, save_rate=0, starting_episode=0):
global f
import time
if starting_episode > 0:
model = 'models/tetris_policy_' + str(starting_episode) + '.pth'
policy.load_state_dict(torch.load(model))
start_time = time.time()
total_time = 0
running_reward = 1
episode = starting_episode
while episode != num_episodes:
state = game.reset() # Reset environment and record the starting state
f = True
game_reward = 0
for _ in range(max_time):
action = select_action(state)
f = False
# Step through environment using chosen action
state, reward, done = game.step(action.item())
# Save reward
policy.reward_episode.append(reward)
game_reward += reward
if done:
break
# Used to determine when the environment is solved.
running_reward = (running_reward * 0.99) + (game_reward * 0.01)
update_policy()
if episode % 50 == 0:
cur_time = time.time()
total_time += cur_time - start_time
start_time = cur_time
print(
'Episode {}\tLast reward: {:5d}\tAverage reward: {:.2f}\tTime: {:.2f}'
.format(episode, game_reward, running_reward, total_time))
if save_rate != 0 and (episode + 1) % save_rate == 0:
PATH = 'models/tetris_policy_' + str(episode + 1) + '.pth'
torch.save(policy.state_dict(), PATH)
episode += 1
while True:
step += 1
x = random()
if (x < explore_rate):
action = rdi(0, game.actions)
else:
current_frames = np.array([
np.concatenate(
(exp.get_last(),
[gp.transform(game.current_state, height, width)]))
])
action = net.choose_action(current_frames, i %
play_interval == play_interval - 1)[0]
for j in range(1): #+(i%play_interval!=play_interval-1)) :
exp.update()
state = game.next_frame(action, False)
exp_batch = exp.get(xp_nb_batch)
if (i % play_interval == play_interval - 1):
print "--"
gp.show_rgb(state[2])
else:
if (exp_batch[0].shape[0] > 0):
net.learn(exp_batch[0], exp_batch[1], (state[0] == 0))
if (state[0] == 0):
game.reset()
exp.reset()
break
print "step =", step
if (i % save_interval == save_interval - 1):
net.save("version01")
print "Model saved"
def reset():
game.reset()
graphics.drawGame()
def task_three():
print("Task Three")
game.file_exists()
game.start()
game.reset()
start_move_time = time.time()
while game.winner is None:
if move_nr % 2 == 1:
move = alpha_beta.rootAlphaBeta(game, 3, player1)
color = player1.color
else:
move = alpha_beta.rootAlphaBeta(game, 2, player2)
color = player2.color
valid_move = game.doMove(color, move)
if valid_move:
move_nr += 1
# player = game.getOtherPlayer(player)
end_move_time = time.time()
print(game.getPlayerString(color), move, " - Time used:", end_move_time - start_move_time)
start_move_time = time.time()
# print(game.getCorrectBoardArray())
end_time = time.time() - start_time
print(game)
print("Moves:", len(game.moves), end_time)
game_nr += 1
if game.winner == game.WHITE:
new_ai_win += 1
else:
new_ai_loose += 1
game.reset()
print(new_ai_win, new_ai_loose)
print(time.time()-super_start_time)
async def startBJ(ctx):
"""Start a game of blackjack (Note: will reset an ongoing game!)"""
global game
game.reset(4)
await ctx.send("Starting Blackjack! Who'd like to play?\nRespond with the __!playing__ command to join.\n__!out__ will get you out of the game.")
print "Playing randomly with prob", epsilon_greedy
ep_index = ep_index + 1
if ep_index > 1000:
if avg_nonzero_reward > -0.1:
print "Min reward over last 500 is", avg_nonzero_reward, "> -0.1, so finished training"
return tf_sess, tf_output_layer
tf_sess, tf_output_layer = qlearning()
# Now observe the game with the learned parameters
game = Game()
game.set_render_or_not(True)
last_nonzero_rewards = []
current_state = game.reset()
print "Obs", current_state
for i in range(1000):
action = compute_action(tf_sess, tf_output_layer, 1.0, current_state, 0.0)
#action = np.random.randint(NUM_ACTIONS)
obs, reward, terminal = game.step_environment(action)
current_state = obs
last_nonzero_rewards.append(reward)
last_nonzero_rewards = last_nonzero_rewards[-500:]
print obs, reward, terminal
print "Average rewards:", np.mean(last_nonzero_rewards)
if terminal:
#print "Resetting"
current_state = game.reset()
#print "Obs", current_state
if __name__ == "__main__":
state_size = cf.stateSize()
print(state_size)
action_size = cf.actionSize()
print(action_size)
playerOne = DQNAgent(state_size, action_size)
playerTwo = DQNAgent(state_size, action_size)
playerOne.load("./save/cfOne2000.h5")
playerTwo.load("./save/cfTwo2000.h5")
done = 0
batch_size = 42
for e in range(EPISODES):
cf.reset()
state = cf.board
state = np.reshape(state, [1, state_size])
time = 0 # time is used just to count frames as a measurement of how long the ai lasted
while True:
sleep(5)
time += 1
actionOne = playerOne.act(state)
moveOne = cf.dropTile(actionOne, 1)
cf.render()
print("/////////////////")
currentBoard = np.reshape(cf.board, [1, state_size])
actionTwo = playerTwo.act(currentBoard)
moveTwo = cf.dropTile(actionTwo, -1)
cf.render()
print("/////////////////")
def post(self):
game.reset()
return jsonify(reset=True)
def run_main():
parser = argparse.ArgumentParser()
parser.add_argument('--train_dir', type=str, help='Training directory')
parser.add_argument(
'--tmp_dir',
type=str,
default='/tmp',
help=
'Temporary directory to store model checkpoint for restoration process'
)
parser.add_argument('--game',
type=str,
default='Breakout-v0',
help='Game name')
parser.add_argument('--dump_model',
action='store_true',
help='Dump model into checkpoint/graph and exit')
parser.add_argument(
'--remote_addr',
default='localhost:5001',
type=str,
help='Remote service address to connect to for inference')
parser.add_argument('--logfile', type=str, help='Logfile')
parser.add_argument('--player_id',
default=0,
type=int,
help='Player ID used to index history entries')
parser.add_argument('--num_episodes',
default=10000,
type=int,
help='Number of episodes to run')
FLAGS = parser.parse_args()
os.environ['TF_CPP_MIN_LOG_LEVEL'] = '3'
os.environ['NVIDIA_VISIBLE_DEVICES'] = ''
os.environ['CUDA_VISIBLE_DEVICES'] = ''
tf.logging.set_verbosity(tf.logging.ERROR)
logging.basicConfig(filename=FLAGS.logfile,
filemode='a',
level=logging.INFO,
format='%(asctime)s.%(msecs)03d: %(message)s',
datefmt='%d/%m/%y %H:%M:%S')
config = {
'game': FLAGS.game,
'tmp_dir': FLAGS.tmp_dir,
'state_stack_size': 1,
'remote_addr': FLAGS.remote_addr,
'train_dir': FLAGS.train_dir,
'input_map_shape': [84, 84, 1],
'input_params_shape': [4],
'owner_id': FLAGS.player_id,
'env_id': 0,
}
if FLAGS.dump_model:
env = gym.make(config['game'])
config['num_actions'] = env.action_space.n
import model
m = model.create_model(config)
m.save_checkpoint()
exit(0)
game = GameWrapper(config)
episode = 0
episode_rewards = []
while FLAGS.num_episodes < 0 or episode < FLAGS.num_episodes:
game.prev_st = game.reset()
game.prev_model_st = halite_model_pb2.State(
state=game.prev_st.state.tobytes(),
params=game.prev_st.params.tobytes())
done = False
rewards = []
while not done:
done = game.loop_body()
rewards.append(game.prev_reward)
er = np.sum(rewards)
episode_rewards.append(er)
if len(episode_rewards) > 100:
episode_rewards = episode_rewards[1:]
logging.info(
'{}: last train_step: {}, steps: {}, episode reward: {}, mean episode reward: {:.1f}, std: {:.1f}'
.format(episode, game.train_step, len(rewards), er,
np.mean(episode_rewards), np.std(episode_rewards)))
episode += 1
def qlearning():
tf.reset_default_graph()
tf_sess = tf.Session()
tf_output_layer, l2_reg = create_network((1 + NUM_PLAYERS) * 2, 20,
NUM_ACTIONS)
tf_action = tf.placeholder("float", [None, NUM_ACTIONS], name='action')
tf_target = tf.placeholder("float", [None], name='target')
tf_q_for_action = tf.reduce_sum(tf.mul(tf_output_layer, tf_action),
reduction_indices=1)
with tf.name_scope('cost'):
#reg_losses = [tf.nn.l2_loss(tf.get_variable('layer1/weights'))]
tf_cost = tf.reduce_mean(tf.square(tf_target - tf_q_for_action)) + \
l2_reg * L2_REG
#+ L2_REG * sum(reg_losses)
tf.scalar_summary('cost', tf_cost)
tf.scalar_summary('l2_reg', l2_reg)
#tf.scalar_summary('reg_loss', sum(reg_losses))
with tf.name_scope('avg_reward'):
tf_rewards = tf.placeholder("float", [None], name='rewards')
tf_avg_reward = tf.reduce_mean(tf_rewards)
tf.scalar_summary('avg_reward', tf_avg_reward)
with tf.name_scope('train_op'):
tf_train_operation = \
tf.train.AdamOptimizer(INITIAL_LEARNING_RATE).minimize(tf_cost)
merged = tf.merge_all_summaries()
# Give this run of the program an identifier
identifier = str(time.gmtime()[0:5])
identifier = identifier.replace('(', '').replace(')', '')
identifier = identifier.replace(' ', '-').replace(',', '')
train_writer = tf.train.SummaryWriter('train-' + identifier, tf_sess.graph)
tf_sess.run(tf.initialize_all_variables())
epsilon_greedy = INITIAL_EPSILON_GREEDY
transitions = deque()
episode_lengths = []
ep_index = 0
loss = None
game = Game()
game.set_render_or_not(False)
current_state = game.reset()
keep_prob = 0.5
last_nonzero_rewards = []
t_step = 0
# Record transitions
while True:
# Run an episode
action = compute_action(tf_sess, tf_output_layer, keep_prob,
current_state, epsilon_greedy)
obs, reward, terminal = game.step_environment(action)
#print "Observation", obs
next_state = obs
last_nonzero_rewards.append(reward)
last_nonzero_rewards = last_nonzero_rewards[-500:]
transitions.append({
'state': current_state,
'next_state': next_state,
'action': action,
'reward': reward,
'terminal': terminal
})
if terminal:
current_state = game.reset()
else:
current_state = next_state
if len(transitions) > MINI_BATCH_SIZE:
summary = train(tf_sess, tf_train_operation, tf_output_layer,
merged, transitions, last_nonzero_rewards[-500:],
KEEP_PROB)
if t_step % 100 == 0:
train_writer.add_summary(summary, t_step)
t_step = t_step + 1
epsilon_greedy = epsilon_greedy - \
(INITIAL_EPSILON_GREEDY-FINAL_EPSILON_GREEDY) / float(EPSILON_STEPS)
epsilon_greedy = max(FINAL_EPSILON_GREEDY, epsilon_greedy)
avg_nonzero_reward = np.mean(last_nonzero_rewards)
if (ep_index % 100) == 0:
print "Average nonzero reward", avg_nonzero_reward
print "Playing randomly with prob", epsilon_greedy
ep_index = ep_index + 1
if ep_index > 1000:
if avg_nonzero_reward > -0.1:
print "Min reward over last 500 is", avg_nonzero_reward, "> -0.1, so finished training"
return tf_sess, tf_output_layer
def train(self):
if self.model_loaded:
self.init_exp_memory(self.exp_memory_start_size)
else:
self.init_random_exp_memory(self.exp_memory_start_size)
total_reward = 0.0
games_played = 1
game = self.get_game()
self.exp_memory.add(game.get_state(), 0, 0, 0)
while self.curr_step < self.max_steps:
#play one game step according to epsilon-greedy policy
action = 0
if np.random.rand() < self.epsilon:
action = np.random.randint(0, self.num_actions)
else:
action = self.qlearner.compute_action(game.get_state())[0]
reward, is_terminal = game.execute_action(action)
self.exp_memory.add(game.get_state(), action, reward, is_terminal)
if is_terminal:
game.reset()
self.exp_memory.add(game.get_state(), 0, 0, 0)
games_played += 1
total_reward += self.renormalize_reward(reward)
#compute next epsilon
self.epsilon = np.maximum(self.epsilon_min,
self.epsilon - self.epsilon_step)
self.memory_beta = np.minimum(
self.memory_beta_end, self.memory_beta + self.memory_beta_step)
if self.curr_step % self.update_freq == 0:
#sample a batch of transitions from experience memory
s, a, r, s2, t, indices, p_values = self.exp_memory.sample(
self.batch_size)
#output tensorboard summaries
write_summary = False
if (self.tensorboard_log_freq > 0) and (
self.curr_step % self.tensorboard_log_freq == 0):
write_summary = True
#beta is divided by 2 here because squared error loss squares beta
_, _, td = self.qlearner.train_step(
s,
a,
r,
s2,
t,
p_values,
self.memory_beta / 2.0,
write_summary=write_summary)
self.exp_memory.update_p(indices, td)
#update target network
if self.target_network_update_mode == "soft":
if self.curr_step % self.update_freq == 0:
self.qlearner.update_target_network()
else:
if self.curr_step % self.target_network_update_freq == 0:
self.qlearner.update_target_network()
#output current training status
if self.curr_step % self.output_freq == 0:
average_reward = total_reward / games_played
total_reward = 0
games_played = 1
print("step: {} epsilon: {} average reward per game: {}".
format(self.curr_step, self.epsilon, average_reward))
#evaluate current target network and save model if average score per game has improved
if (self.curr_step % self.eval_freq == 0):
score, num_games, average, max_score = self.eval(
self.eval_steps)
print("Evaluating model with {} steps:".format(
self.eval_steps))
print(
"Total score: {} Games: {} Average: {} Max: {}".format(
score, num_games, average, max_score))
if average >= self.best_average_score:
print("Improved average score")
print("Saving model...")
self.save()
self.best_average_score = average
#add average score to tensorboard
summary = tf.Summary()
summary.value.add(tag='average_score', simple_value=average)
summary.value.add(tag='max_score', simple_value=max_score)
self.qlearner.summary_writer.add_summary(
summary, self.curr_step)
self.curr_step += 1
# ======================================================================== # # Initialization # # ======================================================================== # which model to run # the full list of models are contained in the models folder # training the network will generate models model = 'models/tetris_policy_470000.pth' # Loading the model and resetting the game state policy = train.Policy() policy.load_state_dict(torch.load(model)) state = game.reset() score = 0 high_score = 0 last_move = 0 # Window constants GAME_WIDTH = 100 UI_WIDTH = 150 GAME_HEIGHT = 180 SQUARE_WIDTH = 10 SQUARE_HEIGHT = 10 SCREEN_TITLE = "Tetris" FONT_SIZE = 11 KEY_SIZE = 15