def run_one_episode(arguments):
neural_network, environment, num_episodes, instance_id \
= arguments
# Create a Agent list using the neural network
agent_list = [
sa.RandomAgent(),
sa.RandomAgent(),
sa.RandomAgent(),
sa.RandomAgent()
]
env = pommerman.make(environment, agent_list)
# Run the episodes just like OpenAI Gym
for i_episode in range(int(num_episodes)):
state = env.reset()
done = False
while not done:
# env.render()
actions = env.act(state)
state, reward, done, info = env.step(actions)
print('Episode {} finished'.format(i_episode))
env.close()
return
def agent_vs_random(eval_agent, player, variant="TicTacToe"):
""" Executes one game between eval_agent and a random player.
Args:
eval_agent: The AlphaZeroAgent instance.
player: If player=-1, the agent plays as player two. Otherwise,
the agent begins the game as player one.
variant: The game variant. Either "TicTacToe" or "Connect4".
"""
if variant == "TicTacToe":
game_environment = game.TicTacToeOptimized()
max_length = 9
if variant == "Connect4":
game_environment = game.Connect4Optimized()
max_length = 42
player_one = eval_agent
player_two = agent.RandomAgent(eval_agent)
if player == -1:
player_two = eval_agent
player_one = agent.RandomAgent(eval_agent)
# reset game
game_environment.reset_game()
player_one.join_game(game_environment)
player_two.join_game(game_environment)
current_player = game_environment.current_player
winning = 0
turn = 0
num_simulations = config.EVALUATION['num_simulations']
while winning is 0 and turn < max_length:
if current_player == 0:
winning, _, _ = player_one.play_move(num_simulations, temperature=0)
if current_player == 1:
winning, _, _ = player_two.play_move(num_simulations, temperature=0)
current_player = game_environment.current_player
turn += 1
if current_player == 0:
winner = -1*winning
else:
winner = winning
return winner
def create_agent(agent_type, *args, **kwargs):
if agent_type.startswith('stationary'):
pi = None
if agent_type.endswith(']'):
pi = agent_type.lstrip('stationary[').rstrip(']').split(',')
pi = [float(p) for p in pi]
return agent.StationaryAgent(*args, **kwargs, pi=pi)
elif agent_type == 'random':
return agent.RandomAgent(*args, **kwargs)
elif agent_type == 'q':
return agent.QAgent(*args, **kwargs)
elif agent_type == 'phc':
return agent.PHCAgent(*args, **kwargs)
elif agent_type == 'wolf':
return agent.WoLFAgent(*args, **kwargs)
elif agent_type == 'minimaxq':
return agent.MinimaxQAgent(*args, **kwargs)
elif agent_type == 'metacontrol':
return agent.MetaControlAgent(*args, **kwargs)
elif agent_type == 'littmansoccerhandcoded':
return littmansoccer.HandCodedAgent(*args, **kwargs)
elif agent_type.endswith('pickle'):
return load_agent(agent_type)
else:
print('no such agent: {}'.format(agent_type))
return None
def getAgent(agentType, playerNum):
if agentType == 'human':
return agt.HumanAgent(playerNum)
elif agentType == 'random':
return agt.RandomAgent()
elif agentType == 'simple':
return agt.SimpleAgent()
elif agentType == 'reflex':
return agt.ReflexAgent(playerNum)
elif agentType == 'simple++':
return agt.SimpleEnhancedAgent(playerNum)
def main():
# Print all possible environments in the Pommerman registry
print(pommerman.registry)
# Create a set of agents (exactly four)
agent_list = [
# agents.SimpleAgent(),
# agents.SimpleAgent(),
# agents.SimpleAgent(),
# agents.SimpleAgent(),
sa.RandomAgent(),
sa.RandomAgent(),
sa.RandomAgent(),
sa.RandomAgent()
# agents.DockerAgent("pommerman/simple-agent", port=12345),
]
# Make the "Free-For-All" environment using the agent list
# ['PommeFFACompetition-v0', 'PommeFFACompetitionFast-v0', 'PommeFFAFast-v0', 'PommeFFA-v1', 'PommeRadio-v2', 'PommeTeamCompetition-v0', 'PommeTeam-v0', 'PommeTeamFast-v0']
# env = pommerman.make('PommeFFACompetitionFast-v0', agent_list)
env = pommerman.make('PommeFFACompetition-v0', agent_list)
# env = pommerman.make('PommeTeamCompetition-v0', agent_list)
# Run the episodes just like OpenAI Gym
for i_episode in range(1):
state = env.reset()
done = False
while not done:
# env.render()
actions = env.act(state)
print("Actions every step ", actions)
state, reward, done, info = env.step(actions)
print("One step ")
# print("State ", state) # Array of 4 states
print("Reward ", reward) # -1, 0 ,1
# print("Done ", done) # False/True
# print("Info ", info) # {'result': <Result.Win: 0>, 'winners': [3]}
print('Episode {} finished'.format(i_episode))
# for i, al in enumerate(agent_list):
# print("Agent Idx ", i, al.get_state_timline())
env.close()
def main():
#read configure file or parse arguments
args = parser.ParseArgs()
cfg = {
"learning_rate": 0.1,
"activiation": None,
}
#save configure parameter #args:env,multiprocess,hyperparameter
cpu = args.cpu # Bool type
env_id = args.env_id # name-version
#create envirnonment and recorder
env = vector.make(env_id, 1, asynchronous=False, wrappers=None)
env = wrappers.Monitor(env,
directory='/tmp/results',
video_callble=None,
force=False,
resume=False,
write_upon_reset=False,
uid=None,
mode=None)
env.seed(0)
#create policy/agent
agent = ag.RandomAgent(env.action_space)
#create optimizer and set hyperparameters
model = model.MultiLayerPerc(cfg, env.ob_space, env.action_space)
optimizer = op.ces(cfg)
#set level of log information
logger.set_level(logger.INFO)
#initialize
episode_count = 100
reward = 0
render = False
done = False
# rollout
for i in range(episode_count):
ob = env.reset()
while True:
action = agent.act(ob, reward, done)
ob, reward, done = env.step(action)
cum_reward += reward
if render and i % 10 == 0:
env.render()
if done:
break
env.close()
def run_test_suite(ABPlayer, depth, time, x, y, n):
seed = 1234
random.seed(seed)
max = 25
AlphaBetaVictories = 0
for i in range(0, 25):
#
# Random vs. AlphaBeta
#
goSecond = game.Game(
x, # width
y, # height
n, # tokens in a row to win
agent.RandomAgent("random"), # player 1
aba.AlphaBetaAgent("alphabeta", depth)) # player 2
# AlphaBeta vs Random
#
goFirst = game.Game(
x, # width
y, # height
n, # tokens in a row to win
aba.AlphaBetaAgent("alphabeta", depth), # player 1
agent.RandomAgent("random")) # player 2
if ABPlayer == 1:
outcome = goFirst.timed_go(time)
if outcome == 1:
AlphaBetaVictories += 1
else:
outcome = goSecond.timed_go(time)
if outcome == 2:
AlphaBetaVictories += 1
seed += random.randint(1, 100)
#print("RANDOM SEED: " + str(seed))
random.seed(seed)
print("Game " + str(i) + " complete")
print("AlphaBeta won " + str(AlphaBetaVictories) + " out of " + str(max))
def create_player_list(args):
# Only need board_params and players in args
board_params = args["board_params"]
list_players = []
for i, player_args in enumerate(args["players"]):
kwargs = removekey(player_args, "agent")
if player_args["agent"] == "RandomAgent":
list_players.append(agent.RandomAgent(f"Random_{i}"))
elif player_args["agent"] == "PeacefulAgent":
list_players.append(agent.PeacefulAgent(f"Peaceful_{i}"))
elif player_args["agent"] == "FlatMCPlayer":
list_players.append(
agent.FlatMCPlayer(name=f'flatMC_{i}', **kwargs))
elif player_args["agent"] == "UCTPlayer":
list_players.append(agent.UCTPlayer(name=f'UCT_{i}', **kwargs))
elif player_args["agent"] == "PUCTPlayer":
world = World(board_params["path_board"])
board = Board(
world,
[agent.RandomAgent('Random1'),
agent.RandomAgent('Random2')])
board.setPreferences(board_params)
puct = load_puct(board, player_args)
list_players.append(puct)
elif player_args["agent"] == "NetPlayer":
world = World(board_params["path_board"])
board = Board(
world,
[agent.RandomAgent('Random1'),
agent.RandomAgent('Random2')])
board.setPreferences(board_params)
netPlayer = load_NetPlayer(board, player_args)
list_players.append(netPlayer)
elif player_args["agent"] == "Human":
hp_name = player_args["name"] if "name" in player_args else "human"
hp = agent.HumanAgent(name=hp_name)
list_players.append(hp)
return list_players
def __battle_random_agent(self):
executor = concurrent.futures.ProcessPoolExecutor()
for index in range(0, self.__NUMBER_INDIVIDUALS):
waiting_queue = []
for times in range(0, self.__NUMBER_BATTLES):
first = self.__now_generation[index][0].copy()
second = agent.RandomAgent()
game = game_board.GameBoard(first, second)
waiting_queue.append(executor.submit(game.game_start))
for end_task in concurrent.futures.as_completed(waiting_queue):
self.__progress_bar.update(1)
if end_task.result() == -1:
self.__now_generation[index][1] += 2
elif end_task.result() == 2:
self.__now_generation[index][1] += 1
executor.shutdown()
def test_cost(layout, circle, dices=None):
C_th, _ = value_iteration.markovDecision(layout, circle, actions=dices)
if dices == None:
pi = agent.OptimalAgent(layout, circle)
else:
pi = agent.RandomAgent(dices)
C_sim = simulation.estimate_cost(layout, circle, pi, n_episodes=int(1e3))
passed = np.allclose(C_th, C_sim, atol=0.1)
if not passed:
print("Not the same expected cost:")
print("Th: ", *["{:.2f}".format(c) for c in C_th])
print("Sim:", *["{:.2f}".format(c) for c in C_sim])
else:
print("OK")
return passed
def playGames(agent_b, agnet_w=agent.RandomAgent(), max_epochs):
w_win =0
b_win =0
scores = []
for i_episode in range(args.max_epochs):
observation = env.reset()
While True:
################### 黑棋 B ############################### 0表示黑棋
# 这部分 黑棋
action = [65,0]
enables = env.possible_actions
if len(enables) == 0:
action[0] = env.board_size**2 + 1
else:
action[0] = agent_b.place(observation, enables, 0)# 0 表示黑棋
observation, reward, done, info = env.step(action)
################### 白棋 W ############################### 1表示白棋
# 这部分 白棋
action = [65,1]
enables = env.possible_actions
# if nothing to do ,select pass
if len(enables) == 0:
action[0] = env.board_size ** 2 + 1 # pass
else:
action[0] = agent_w.place(observation, enables, 1)
observation, reward, done, info = env.step(action)
################## GAME OVER ###########################
if done: # 游戏 结束
# env.render()
black_score = len(np.where(env.state[0,:,:]==1)[0]) ############## 这里猪脚的程序有问题，因为可以棋盘下不满
white_score = len(np.where(env.state[1,:,:]==1)[0])
if black_score > white_score:
b_win += 1
else:
w_win += 1
scores.append((black_score,white_score))
break
def test_experiment_shoebox():
"""
Testing a run with ShoeBox room
TODO
"""
# Shoebox Room
room = room_types.ShoeBox(x_length=10, y_length=10)
agent_loc = np.array([3, 8])
# Set up the gym environment
env = gym.make(
"audio-room-v0",
room_config=room.generate(),
agent_loc=agent_loc,
corners=room.corners,
max_order=10,
step_size=1.0,
acceptable_radius=0.8,
)
# create buffer data folders
utils.create_buffer_data_folders()
tfm = nussl.datasets.transforms.Compose([
nussl.datasets.transforms.GetAudio(mix_key='new_state'),
nussl.datasets.transforms.ToSeparationModel(),
nussl.datasets.transforms.GetExcerpt(excerpt_length=32000, tf_keys=['mix_audio'], time_dim=1),
])
# create dataset object (subclass of nussl.datasets.BaseDataset)
dataset = BufferData(folder=constants.DIR_DATASET_ITEMS, to_disk=True, transform=tfm)
# Load the agent class
a = agent.RandomAgent(env=env, dataset=dataset, episodes=2, max_steps=10, plot_reward_vs_steps=False)
a.fit()
def main(args=None):
from optparse import OptionParser
usage = "usage: %prog [options]"
parser = OptionParser(usage=usage)
parser.add_option("-p",
"--player1",
dest="player1",
default="random",
help="Choose type of first player")
(opts, args) = parser.parse_args(args)
evalArgs = load_weights()
evalFn = aiAgents.nnetEval
p1 = None
if opts.player1 == 'random':
p1 = agent.RandomAgent(game.Game.TOKENS[0])
elif opts.player1 == 'reflex':
p1 = aiAgents.TDAgent(game.Game.TOKENS[0], evalArgs)
elif opts.player1 == 'expectiminimax':
p1 = aiAgents.ExpectiMiniMaxAgent(game.Game.TOKENS[0], evalFn,
evalArgs)
elif opts.player1 == 'human':
p1 = agent.HumanAgent(game.Game.TOKENS[0])
# p2 = agent.RandomAgent(game.Game.TOKENS[1])
p2 = aiAgents.ExpectiMiniMaxAgent(game.Game.TOKENS[1], evalFn, evalArgs)
if p1 is None:
print "Please specify legitimate player"
import sys
sys.exit(1)
play([p1, p2])
def main(args):
if not os.path.isdir(args.log_dir):
os.makedirs(args.log_dir)
if args.save_dir and not os.path.isdir(args.save_dir):
os.makedirs(args.save_dir)
if args.seed:
random.seed(args.seed)
np.random.seed(args.seed)
basename = envs.BASENAMES[args.environment]
env_name = '{basename}-{scenario}-{dataset}-v0'.format(
basename=basename, scenario=args.scenario, dataset=args.dataset)
env = gym.make(env_name)
print("Environment {}".format(args.environment))
print(env.observation_space)
print(env.action_space)
if args.features == 'net':
extractor = feature_extractor.NetFeatureExtractor()
elif args.features == 'hash':
extractor = feature_extractor.ImageHashExtractor()
else:
raise NotImplementedError(
"Unknown feature extraction method '{}'".format(args.features))
if args.agent == "baseline":
# Special case -> handled somewhere else
baseline(env, args)
return
elif args.agent == "bandit":
actor = agent.BanditAgent(env, extractor) # VW
elif args.agent == "random":
actor = agent.RandomAgent(env)
obs = env.reset()
print(obs)
original_score = 0.0
modified_score = 0.0
totalreward = 0.0
totalsuccess = 0.0
iter_duration = 0.0
statistics = {}
for idx in range(env.action_space.n):
statistics[env.actions[idx][0]] = {
'action': env.actions[idx][0],
'count': 0,
'reward': 0.0,
'success': 0
}
if env.is_hierarchical_action(idx):
params = env.actions[idx][1]
for param_idx in range(env.hierarchical_actions[idx]['space'].n):
statistics[params[param_idx][0]] = {
'action': params[param_idx][0],
'count': 0,
'reward': 0.0,
'success': 0
}
log_file = '{timestamp}-{env}-{sc}-{agent}.json'.format(
timestamp=datetime.now().strftime("%Y%m%d%H%M%S"),
env=args.environment,
sc=args.scenario,
agent=args.agent)
log_file = os.path.join(args.log_dir, log_file)
for iteration in range(1, args.iterations + 1):
start = time.time()
act = actor.act(obs)
obs, reward, done, info = env.step(act)
actor.update(reward, done=done)
iter_duration += time.time() - start
action_name, param_name = env.get_action_name(act[0], act[1])
statistics[action_name]['count'] += 1
statistics[action_name]['reward'] += reward[0]
statistics[action_name]['success'] += reward[0] > 0
if param_name:
statistics[param_name]['count'] += 1
statistics[param_name]['reward'] += reward[1]
statistics[param_name]['success'] += reward[1] > 0
original_score += info['original_score']
modified_score += info['modified_score']
totalreward += reward[0]
totalsuccess += reward[0] > 0
if done:
obs = env.reset()
if (iteration % args.log_interval
== 0) or iteration == args.iterations:
stat_string = ' | '.join([
"{:.2f} ({:.2f}/{:d})".format(
v['success'] / (v['count'] + 1e-10), v['success'],
v['count']) for v in statistics.values()
])
print("i = {}".format(iteration), round(totalsuccess / iteration,
2),
round(original_score / iteration, 2),
round(modified_score / iteration, 2), '\t', stat_string)
log_dict = {
'env': args.environment,
'scenario': args.scenario,
'agent': args.agent,
'iteration': iteration,
'totalreward': totalreward,
'success': totalsuccess,
'statistics': statistics,
'original_accuracy': float(original_score) / iteration,
'modified_accuracy': float(modified_score) / iteration,
'duration': iter_duration / iteration
}
open(log_file, 'a').write(json.dumps(log_dict) + os.linesep)
def search(self, state, depth, use_val=False):
# print("\n\n-------- SEARCH --------")
# print(f"depth: {depth}")
# state.report()
# Is terminal? return vector of score per player
if isTerminal(state) or depth > self.max_depth:
# print("\n\n-------- TERMINAL --------")
return score_players(state), score_players(state)
# Active player is dead, then end turn
while not state.activePlayer.is_alive:
state.endTurn()
if state.gameOver:
return score_players(state), score_players(state)
s = hash(state)
# Is leaf?
if not s in self.Ps:
canon, map_to_orig = state.toCanonical(state.activePlayer.code)
batch = torch_geometric.data.Batch.from_data_list(
[boardToData(canon)])
mask, moves = maskAndMoves(canon, canon.gamePhase,
batch.edge_index)
if not self.apprentice is None:
policy, value = self.apprentice.play(canon)
else:
# No bias, just uniform sampling for the moment
policy, value = torch.ones_like(mask) / max(
mask.shape), torch.zeros((1, 6))
policy = policy * mask
self.Vs[s], self.As[s] = mask.squeeze(), moves
self.Ps[s] = policy.squeeze()
self.Ns[s] = 1
# Return an evaluation
v = np.zeros(6)
for _ in range(self.sims_per_eval):
sim = copy.deepcopy(state)
sim.simulate(agent.RandomAgent())
v += score_players(sim)
v /= self.sims_per_eval
# Fix order of value returned by net
value = value.squeeze()
# Apprentice already does this
# cor_value = torch.FloatTensor([value[map_to_orig.get(i)] if not map_to_orig.get(i) is None else 0.0 for i in range(6)])
cor_value = value
return v, cor_value
# Not a leaf, keep going down. Use values for the current player
p = state.activePlayer.code
action = -1
bestScore = -float('inf')
# print("Valid:")
# print(self.Vs[s])
for i, act in enumerate(self.As[s]):
a = hash(act)
# print(i, act)
if self.Vs[s][i] > 0.0:
if (s, a) in self.Rsa:
# PUCT formula
uct = self.Rsa[(s, a)][p] + self.cb * np.sqrt(
np.log(self.Ns[s]) / max(self.Nsa[(s, a)], self.eps))
val = self.wb * self.Qsa[(s, a)] * (use_val)
pol = self.wa * self.Ps[s][i] / (self.Nsa[(s, a)] + 1)
sc = uct + pol + val[p]
else:
# Unseen action, take it
action = act
break
if sc > bestScore:
bestScore = sc
action = act
if isinstance(action, int) and action == -1:
print("**** No move?? *****")
state.report()
print(self.As[s])
print(self.Vs[s])
# print('best: ', action)
a = hash(action) # Best action in simplified way
move = buildMove(state, action)
# Play action, continue search
# TODO: For now, armies are placed on one country only to simplify the game
# print(move)
state.playMove(move)
v, net_v = self.search(state, depth + 1, use_val)
if isinstance(net_v, torch.Tensor):
net_v = net_v.detach().numpy()
if isinstance(v, torch.Tensor):
v = v.detach().numpy()
if (s, a) in self.Rsa:
rsa, qsa, nsa = self.Rsa[(s, a)], self.Qsa[(s, a)], self.Nsa[(s,
a)]
self.Rsa[(s, a)] = (nsa * rsa + v) / (nsa + 1)
self.Qsa[(s, a)] = (nsa * qsa + net_v) / (nsa + 1)
self.Nsa[(s, a)] += 1
else:
self.Rsa[(s, a)] = v
self.Qsa[(s, a)] = net_v
self.Nsa[(s, a)] = 1
self.Ns[s] += 1
return v, net_v
# Calculate and print scores
sscores = sorted(((v, k.name) for k, v in scores.items()), reverse=True)
print("\nSCORES:")
for v, k in sscores:
print(v, k)
#######################
# Run the tournament! #
#######################
# Set random seed for reproducibility
random.seed(1)
# Construct list of agents in the tournament
agents = [
# aba.AlphaBetaAgent("aba", 4),
agent.RandomAgent("random1"),
agent.RandomAgent("random2"),
agent.RandomAgent("random3"),
agent.RandomAgent("random4")
]
# Run!
play_tournament(
7, # board width
6, # board height
4, # tokens in a row to win
15, # time limit in seconds
agents) # player list
# GET THE AGENT
###########################
import agent
a = None
if opts.agent == 'value':
a = agent.ValueIterationAgent(mdp, opts.discount, opts.iters)
elif opts.agent == 'q':
a = agent.QLearningAgent(env.getPossibleActions, opts.discount,
opts.learningRate, opts.epsilon)
elif opts.agent == 'random':
# No reason to use the random agent without episodes
if opts.episodes == 0:
opts.episodes = 1
a = agent.RandomAgent(mdp.getPossibleActions)
else:
raise 'Unknown agent type: ' + opts.agent
###########################
# RUN EPISODES
###########################
print(opts.agent)
# DISPLAY Q/V VALUES BEFORE SIMULATION OF EPISODES
if opts.agent == 'value':
display.displayValues(a,
message="VALUES AFTER " + str(opts.iters) +
" ITERATIONS")
display.pause()
display.displayQValues(a,
message="Q-VALUES AFTER " + str(opts.iters) +
def main(args=None):
import sys
print("Please choose the type of agent human or TDagent or random")
line = sys.stdin.readline()
from optparse import OptionParser
usage = "usage: %prog [options]"
parser = OptionParser(usage=usage)
parser.add_option("-d",
"--draw",
dest="draw",
action="store_true",
default=False,
help="Draw game")
parser.add_option("-n",
"--num",
dest="numgames",
default=1,
help="Num games to play")
parser.add_option("-p",
"--player1",
dest="player1",
default=str(line.strip()),
help="Choose type of first player")
parser.add_option("-e",
"--eval",
dest="eval",
action="store_true",
default=True,
help="Play with the better eval function for player")
(opts, args) = parser.parse_args(args)
weights = None
weights1 = None
if opts.eval:
weights, weights1 = load_weights(weights, weights1)
evalArgs = weights
evalArgs1 = weights1
evalFn = aiAgents.nnetEval
print("The choosen agent is: " + str(opts.player1))
p1 = None
if str(opts.player1) == 'random':
p1 = agent.RandomAgent(game.Game.TOKENS[0])
#print p1
elif opts.player1 == 'TDagent':
p1 = aiAgents.TDAgent(game.Game.TOKENS[0], evalArgs1)
elif opts.player1 == 'expectimax':
p1 = aiAgents.ExpectimaxAgent(game.Game.TOKENS[0], evalFn, evalArgs)
elif opts.player1 == 'expectiminimax':
p1 = aiAgents.ExpectiMiniMaxAsgent(game.Game.TOKENS[0], evalFn,
evalArgs)
elif opts.player1 == 'human':
p1 = agent.HumanAgent(game.Game.TOKENS[0])
p2 = aiAgents.TDAgent(game.Game.TOKENS[1], evalArgs)
# p2 = aiAgents.ExpectiMiniMaxAgent(game.Game.TOKENS[1],evalFn,evalArgs)
if opts.player1 == 'random':
test([p1, p2], numGames=int(opts.numgames), draw=opts.draw)
print("o is random")
print("x is the agent")
if opts.player1 == 'TDagent':
#test([p1,p2],numGames=int(opts.numgames),draw=opts.draw)
play([p1, p2])
if opts.player1 == 'human':
play([p1, p2])
print("o is td(0)")
print("x is the agent td(0.5)")
if p1 is None:
print "Please specify legitimate player"
import sys
sys.exit(1)
expert_mcts_sims = inputs["expert_mcts_sims"]
path_data = inputs["path_data"]
path_model = inputs["path_model"]
batch_size = inputs["batch_size"]
model_args = read_json(inputs["model_parameters"])
path_board = inputs["path_board"]
# ---------------- Model -------------------------
#%%% Create Board
world = World(path_board)
# Set players
pR1, pR2, pR3 = agent.RandomAgent('Red'), agent.RandomAgent(
'Blue'), agent.RandomAgent('Green')
players = [pR1, pR2, pR3]
# Set board
# TODO: Send to inputs
prefs = {
'initialPhase': True,
'useCards': True,
'transferCards': True,
'immediateCash': True,
'continentIncrease': 0.05,
'pickInitialCountries': True,
'armiesPerTurnInitial': 4,
'console_debug': False
}
def testRandomAgent(self):
rs = np.random.RandomState(seed=1)
env = gw.Grid2D(np.array([[1, 2, 3], [2, 3, 4], [3, 4, 5]]), r=rs)
ra = a.RandomAgent(env, start=[1, 1], r=rs)
PLOT_FREQUENCY = 500
BATCH_SIZE = 1024 # for faster training take a smaller batch size, not too small as batchnorm will not work otherwise
GAMMA = 0.9 # already favors reaching goal faster, no need for reward_step, the lower GAMMA the faster
EPS_START = 0.9 # for unstable models take higher randomness first
EPS_END = 0.01
EPS_DECAY = 2000
N_SMOOTH = 500 # plotting scores averaged over this number of episodes
VERBOSE = 1 # level of printed output verbosity:
# 1: plot averaged episode stats
# 2: also print actions taken and rewards
# 3: every 100 episodes run_env()
# also helpful sometimes: printing probabilities in "select_action" function of agent
num_episodes = 100000 # training for how many episodes
agent0 = agent.Stratego(0)
agent1 = agent.RandomAgent(1)
# agent1 = agent.Random(1)
# agent1.model = agent0.model # if want to train by self-play
env__ = teacher.Trainer(agent0, agent1, False, "custom", [0, 1])
env_name = "stratego"
model = env__.agents[0].model # optimize model of agent0
model = model.to(device)
optimizer = optim.Adam(model.parameters())
memory = utils.ReplayMemory(10000)
# model.load_state_dict(torch.load('./saved_models/{}_current.pkl'.format(env_name))) # trained against Random
train(env__, num_episodes)
# model.load_state_dict(torch.load('./saved_models/{}.pkl'.format(env_name))) # trained against Random
run_env(env__, 10000)
import random
import game
import agent
import alpha_beta_agent as aba
# Set random seed for reproducibility
random.seed(1)
#
# Random vs. Random
#
g = game.Game(
7, # width
6, # height
4, # tokens in a row to win
agent.RandomAgent("random1"), # player 1
agent.RandomAgent("random2")) # player 2
#
# Human vs. Random
#
# g = game.Game(7, # width
# 6, # height
# 4, # tokens in a row to win
# agent.InteractiveAgent("human"), # player 1
# agent.RandomAgent("random")) # player 2
#
# Random vs. AlphaBeta
#
# g = game.Game(7, # width
def __getattr__(self, name):
return self[name]
args = dotdict({
'max_epochs': 100,
'play_turns': 100,
'checkpoint': './checkpoint/',
'load_model': False,
'load_folder': '',
})
if __name__ == "__main__":
w_win = 0
b_win = 0
agent_b = agent.RandomAgent()
agent_w = agent.GreedyAgent()
for i_episode in range(args.max_epochs):
observation = env.reset()
# observation 是 3 x 8 x 8 的 list,表示当前的棋局，具体定义在 reversi.py 中的 state
for t in range(args.play_turns):
action = [65, 0]
# action 包含 两个整型数字，action[0]表示下棋的位置，action[1] 表示下棋的颜色（黑棋0或者白棋1）
################### 黑棋 B ############################### 0表示黑棋
# 这部分 黑棋
#env.render() # 打印当前棋局
enables = env.possible_actions
if len(enables) == 0:
action[0] = env.board_size**2 + 1
# def _convert_point_coord_to_move(self, pointx: int, pointy: int) -> None:
# ''' Converts canvas point to a move that can be inputted in the othello game '''
# row = int(pointy // self._board.get_cell_height())
# if row == self._board.get_rows():
# row -= 1
# col = int(pointx // self._board.get_cell_width())
# if col == self._board.get_columns():
# col -= 1
# return (row, col)
def _on_board_resized(self, event: tkinter.Event) -> None:
''' Called whenever the canvas is resized '''
self._board.redraw_board()
if __name__ == '__main__':
black_wins = 0
white_wins = 0
for i in range(20):
gui = OthelloGUI(agent.AlphaBetaAgent(), agent.RandomAgent())
gui.start()
winner = gui.findWinner()
if winner == 'B':
black_wins = black_wins + 1
if winner == 'W':
white_wins = white_wins + 1
print("black wins:")
print(black_wins)
print("white wins:")
print(white_wins)
path_board = board_params["path_board"]
epochs = inputs["epochs"]
eval_every = inputs["eval_every"]
# ---------------- Load model -------------------------
move_types = [
'initialPick', 'initialFortify', 'startTurn', 'attack', 'fortify'
]
#%%% Create Board
world = World(path_board)
# Set players
pR1, pR2 = agent.RandomAgent('Red'), agent.RandomAgent('Blue')
players = [pR1, pR2]
# Set board
# TODO: Send to inputs
prefs = board_params
board_orig = Board(world, players)
board_orig.setPreferences(prefs)
num_nodes = board_orig.world.map_graph.number_of_nodes()
num_edges = board_orig.world.map_graph.number_of_edges()
if verbose: print("\t\ttrain_model: Creating model")
net = GCN_risk(
num_nodes, num_edges, model_args['board_input_dim'],
model_args['global_input_dim'], model_args['hidden_global_dim'],
#
# g = game.Game(7, # width
# 6, # height
# 4, # tokens in a row to win
# agent.InteractiveAgent("human"), # player 1
# agent.RandomAgent("random")) # player 2
#
# Random vs. AlphaBeta
g = game.Game(
10, # width
8, # height
5, # tokens in a row to win
agent.RandomAgent("random"), # player 1
aba.AlphaBetaAgent("alphabeta", 4)) # player 2
#
# Human vs. AlphaBeta
#
# g = game.Game(7, # width
# 6, # height
# 4, # tokens in a row to win
# agent.InteractiveAgent("human"), # player 1
# aba.AlphaBetaAgent("alphabeta", 4)) # player 2
#
# Human vs. Human
#
# g = game.Game(7, # width
def train(args):
w_atk = np.random.normal(0, 1e-2, (util.NUM_FEATURES, ))
w_def = np.random.normal(0, 1e-2, (util.NUM_FEATURES, ))
w_atk[-1] = 0
w_def[-1] = 0
agents = [getAgent(args.agent, 0), getAgent(args.agent, 1)]
for agent in agents:
agent.setAttackWeights(w_atk)
agent.setDefendWeights(w_def)
g = dk.Durak()
for i in range(args.numGames):
attacker = g.getFirstAttacker()
defender = int(not attacker)
while True:
preAttack = None
preDefend = None
while True:
preAttack = g.getState(attacker)
attack(g, attacker, agents[attacker])
postAttack = g.getState(defender)
if g.roundOver():
break
elif preDefend is not None:
w_def = TDUpdate(preDefend, postAttack, 0, w_def)
for agent in agents:
agent.setDefendWeights(w_def)
preDefend = postAttack
defend(g, defender, agents[defender])
postDefend = g.getState(attacker)
if g.roundOver():
break
else:
w_atk = TDUpdate(preAttack, postDefend, 0, w_atk)
for agent in agents:
agent.setAttackWeights(w_atk)
if g.gameOver():
if g.isWinner(attacker):
w_atk = TDUpdate(g.getState(attacker), None, 1, w_atk)
w_def = TDUpdate(g.getState(defender), None, 0, w_def)
else:
w_def = TDUpdate(g.getState(defender), None, 1, w_def)
w_atk = TDUpdate(g.getState(attacker), None, 0, w_atk)
for agent in agents:
agent.setAttackWeights(w_atk)
agent.setDefendWeights(w_def)
break
g.endRound()
# Edge case, the defender from the last round won
if g.gameOver():
w_def = TDUpdate(g.getState(defender), None, 1, w_def)
w_atk = TDUpdate(g.getState(attacker), None, 0, w_atk)
for agent in agents:
agent.setDefendWeights(w_def)
agent.setAttackWeights(w_atk)
break
else:
w_def = TDUpdate(preDefend, g.getState(defender), 0, w_def)
w_atk = TDUpdate(preAttack, g.getState(attacker), 0, w_atk)
for agent in agents:
agent.setDefendWeights(w_def)
agent.setAttackWeights(w_atk)
attacker = g.attacker
defender = int(not attacker)
if i % 50 == 0:
print(('Training iteration: %d / %d' % (i, args.numGames)))
randomAgent = agt.RandomAgent()
simpleAgent = agt.SimpleAgent()
winCounts = {'random': 0, 'simple': 0}
for _ in range(500):
winVsRandom = play(dk.Durak(), [randomAgent, agents[0]])
winVsSimple = play(dk.Durak(), [simpleAgent, agents[0]])
winCounts['random'] += winVsRandom
winCounts['simple'] += winVsSimple
with open('results.csv', 'a') as f:
row = [i, winCounts['random'], winCounts['simple']]
row.extend(w_atk)
row.extend(w_def)
np.savetxt(f,
np.array(row)[:, None].T,
delimiter=',',
fmt='%.4e')
# save weights
with open('%s_attack_%d.bin' % (args.agent, i), 'w') as f_atk:
pickle.dump(w_atk, f_atk)
with open('%s_defend_%d.bin' % (args.agent, i), 'w') as f_def:
pickle.dump(w_def, f_def)
g.newGame()
with open('%s_attack.bin' % args.agent, 'w') as f_atk:
pickle.dump(w_atk, f_atk)
with open('%s_defend.bin' % args.agent, 'w') as f_def:
pickle.dump(w_def, f_def)
return w_atk, w_def
#######################
# Run the tournament! #
#######################
# Set random seed for reproducibility
random.seed(1)
# GAME CONFIGURATION
depth = 4
tokens_to_win = 4
time_limit = 15
for i in range(1):
random.seed(i)
# Run!
play_tournament(
7, # board width
6, # board height
tokens_to_win, # tokens in a row to win
time_limit, # time limit in seconds
[
aba.AlphaBetaAgent("New AI", depth, tokens_to_win),
oaba.OldAlphaBetaAgent("Old AI", depth, tokens_to_win),
agent.RandomAgent("random1"),
# agent.RandomAgent("random2"),
# agent.RandomAgent("random3"),
# agent.RandomAgent("random4"),
]) # player list
if __name__ == "__main__":
import argparse
parser = argparse.ArgumentParser(description='2048 Game w/ AI')
parser.add_argument('-a', '--agent', type=str, help='name of agent (Random or Expectimax)')
parser.add_argument('-d', '--depth', type=int, default=2, help='depth')
parser.add_argument('-g', '--goal', type=int, default=4086, help='Goal end of game, Default: 2048')
parser.add_argument('--no-graphics', action='store_true', help='no graphics (only works when AI specified)')
args = parser.parse_args()
Agent = None
graphics = True
if args.agent == 'RandomAgent':
Agent = agent.RandomAgent()
elif args.agent == 'Depth_limited_Expectimax_Agent':
Agent = agent.Depth_limited_Expectimax_Agent(depth=args.depth)
elif args.agent == 'Customized_Expectimax_Agent':
Agent = agent.Customized_Expectimax_Agent(depth=args.depth)
# =============================================================================
# DEMO
# =============================================================================
#Agent = agent.RandomAgent()
#Agent = agent.Basic_Expectimax_Agent()
Agent = agent.Depth_limited_Expectimax_Agent(depth=2)
#Agent = agent.Customized_Expectimax_Agent(depth = 2)
# =============================================================================
def main(args=None):
from optparse import OptionParser
usage = "usage: %prog [options]"
parser = OptionParser(usage=usage)
parser.add_option("-t",
"--train",
dest="train",
action="store_true",
default=False,
help="Train TD Player")
parser.add_option("-d",
"--draw",
dest="draw",
action="store_true",
default=False,
help="Draw game")
parser.add_option("-n",
"--num",
dest="numgames",
default=1,
help="Num games to play")
parser.add_option("-p",
"--player1",
dest="player1",
default="random",
help="Choose type of first player")
parser.add_option("-e",
"--eval",
dest="eval",
action="store_true",
default=False,
help="Play with the better eval function for player")
(opts, args) = parser.parse_args(args)
weights = None
if opts.train:
weights = train()
if opts.eval:
weights = load_weights(weights)
evalFn = submission.logLinearEvaluation
evalArgs = weights
else:
evalFn = submission.simpleEvaluation
evalArgs = None
p1 = None
if opts.player1 == 'random':
p1 = agent.RandomAgent(game.Game.TOKENS[0])
elif opts.player1 == 'reflex':
p1 = submission.ReflexAgent(game.Game.TOKENS[0], evalFn, evalArgs)
elif opts.player1 == 'expectimax':
p1 = submission.ExpectimaxAgent(game.Game.TOKENS[0], evalFn, evalArgs)
elif opts.player1 == 'human':
p1 = agent.HumanAgent(game.Game.TOKENS[0])
p2 = agent.RandomAgent(game.Game.TOKENS[1])
if p1 is None:
print "Please specify legitimate player"
import sys
sys.exit(1)
test([p1, p2], numGames=int(opts.numgames), draw=opts.draw)
