def grab_frames(width, height, x_offset, y_offset, pipeline_string=None):
from serpent.frame_grabber import FrameGrabber
frame_grabber = FrameGrabber(width=int(width),
height=int(height),
x_offset=int(x_offset),
y_offset=int(y_offset),
pipeline_string=pipeline_string)
frame_grabber.start()
def grab_frames(width, height, x_offset, y_offset):
from serpent.frame_grabber import FrameGrabber
frame_grabber = FrameGrabber(
width=int(width),
height=int(height),
x_offset=int(x_offset),
y_offset=int(y_offset)
)
frame_grabber.start()
def setup_play(self):
self.last_frame_had_position = False
self.fill_count = 0
self.working_trade = False
self.episode_count = 0
self.current_action = None
self.last_action = None
self.repeat_count = 0
self.sell_point = (743, 406)
self.buy_point = (743, 429)
self.pull_point = (5, 117)
self.held = False
self.scraper = T4Scraper(self.game, self.visual_debugger)
self.frame_buffer = None
self.scraper.current_frame = FrameGrabber.get_frames([0]).frames[0]
self.pl = self.scraper.get_pl()
self.fill_count = self.scraper.get_position_and_fill_count()[1]
game_inputs = {"Buy": 1, "Sell": 2, "Hold": 3}
self.ppo_agent = SerpentPPO(frame_shape=(164, 264, 4),
game_inputs=game_inputs)
try:
self.ppo_agent.agent.restore(
directory=os.path.join(os.getcwd(), "datasets", "t4dowmodel"))
# self.ppo_agent.agent.restore(directory=os.path.join(os.getcwd(), "datasets", "t4simmodel"))
except Exception:
pass
def setup_play(self):
self.game_frame_buffer = FrameGrabber.get_frames([0, 1, 2, 3],
frame_type="PIPELINE")
print("game_frame_buffer:", self.game_frame_buffer)
#self.ppo_agent.generate_action(game_frame_buffer)
self.window_dim = (self.game.window_geometry['height'],
self.game.window_geometry['width'], 3)
self.model = KerasDeepKingdom(
time_dim=(self.memory_timeframe, ),
game_frame_dim=self.window_dim) # (600, 960, 3))#(360, 627, 3))
print("Screen_regions:", self.game.screen_regions)
for region in self.game.screen_regions:
print("Region is", region)
# TODO: Fix this absolut pointer
path = "C:\\SerpentAI\datasets\collect_frames"
classes = [
name for name in os.listdir(path)
if os.path.isdir(os.path.join(path, name))
and name.__contains__(region + "_")
]
print("directory contains: ", classes)
if os.path.isfile(region + "_trained_model.h5"):
print("Loading model", region, "from file")
self.game.api_class.SpriteLocator.load_model(model_name=region,
classes=classes)
else:
print("Building and training", region, "network from scratch")
self.game.api_class.SpriteLocator.construct_sprite_locator_network(
model_name=region,
screen_region=self.game.screen_regions[region],
classes=classes)
self.game.api_class.SpriteLocator.train_model(
classes=classes, model_name=region)
def handle_play(self, game_frame):
self.game_frame_buffer = FrameGrabber.get_frames([0, 1, 2, 3],
frame_type="PIPELINE")
frame_buffer = self.game_frame_buffer.frames
for model_name in self.game.api_class.SpriteLocator.sprite_models:
print("model is", model_name)
print(
self.game.api_class.SpriteLocator.sprite_recognized(
game_frame=game_frame,
screen_region=self.game.screen_regions[model_name],
model_name=model_name, #screen_region_frame,
classes=self.game.api_class.SpriteLocator.
sprite_models[model_name]["classes"]))
print(game_frame.frame.shape)
for i, game_frame in enumerate(frame_buffer):
self.visual_debugger.store_image_data(game_frame.frame,
game_frame.frame.shape,
str(i))
#self.game_frame_buffer.append(game_frame.frame)
#print("game_frame_buffer:", frame_buffer)
#if len(frame_buffer) >= self.memory_timeframe:
# there is enough frames stored to train the network
move_per_timestep = self.model.decide(frame_buffer)
score = self.model.evaluate_move(move_per_timestep)
self.model.update_weights(frame_buffer, score)
def handle_play(self, game_frame, game_frame_pipeline):
valid_game_state = self.environment.update_game_state(game_frame)
if not valid_game_state:
return None
reward = self.reward_aisaac(self.environment.game_state, game_frame)
terminal = (
not self.environment.game_state["isaac_alive"] or
self.environment.game_state["boss_dead"] or
self.environment.episode_over
)
self.agent.observe(reward=reward, terminal=terminal)
if not terminal:
frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6], frame_type="PIPELINE")
agent_actions = self.agent.generate_actions(frame_buffer)
self.environment.perform_input(agent_actions)
else:
self.environment.clear_input()
self.agent.reset()
if self.environment.game_state["boss_dead"]:
self.analytics_client.track(event_key="BOSS_KILL", data={"foo": "bar"})
self.environment.end_episode()
self.environment.new_episode(maximum_steps=960, reset=self.agent.mode.name != "TRAIN")
def setup_play(self):
self.fill_count = 0
self.working_trade = False
self.episode_count = 0
self.buy_point = (326, 334)
self.sell_point = (647, 634)
self.scraper = T4Scraper(self.game, self.visual_debugger)
self.frame_buffer = None
self.scraper.current_frame = FrameGrabber.get_frames([0]).frames[0]
self.pl = self.scraper.get_pl()
self.fill_count = self.scraper.get_position_and_fill_count()[1]
game_inputs = {
"Buy": 1,
"Sell": 2
}
self.ppo_agent = SerpentPPO(
frame_shape=(248, 510, 2),
game_inputs=game_inputs
)
try:
self.ppo_agent.agent.restore(directory=os.path.join(os.getcwd(), "datasets", "t4androidmodel"))
except Exception:
pass
def handle_play(self, game_frame, game_frame_pipeline):
self.paused_at = None
valid_game_state = self.environment.update_game_state(game_frame)
if not valid_game_state:
return None
reward = self.reward(self.environment.game_state)
terminal = (
self.environment.game_state["is_too_slow"] or
self.environment.game_state["is_out_of_fuel"] or
self.environment.game_state["is_race_over"] or
self.environment.episode_over
)
self.agent.observe(reward=reward, terminal=terminal)
if not terminal:
game_frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6], frame_type="PIPELINE")
agent_actions = self.agent.generate_actions(game_frame_buffer)
self.environment.perform_input(agent_actions)
else:
self.environment.clear_input()
self.agent.reset()
if self.environment.game_state["is_race_over"]:
time.sleep(5)
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(11)
if (self.environment.episode + 1) % self.environment.episodes_per_race_track == 0:
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
time.sleep(8)
self.game.api.select_random_region_track(self.input_controller)
else:
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
time.sleep(1)
if (self.environment.episode + 1) % self.environment.episodes_per_race_track == 0:
for _ in range(3):
self.input_controller.tap_key(KeyboardKey.KEY_S)
time.sleep(0.1)
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(8)
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
time.sleep(1)
self.game.api.select_random_region_track(self.input_controller)
self.environment.end_episode()
self.environment.new_episode(maximum_steps=2400)
def handle_play(self, game_frame):
self.move_time_start = time.time()
self.game_frame_buffer = FrameGrabber.get_frames([0, 1, 2, 3],
frame_type="PIPELINE")
frame_buffer = self.game_frame_buffer.frames
context_frame = FrameGrabber.get_frames([0],
frame_type="FULL").frames[0]
context = self.machine_learning_models["context_classifier"].predict(
frame_buffer[0].frame) # context_frame.frame)
self.game_state.current_context = context
self.game_state.not_playing_context_counter += 1
self.move_time = time.time() - self.move_time_start
#print(context)
if (context is None or context in ["ofdp_playing", "ofdp_game"
]) and self.game_state.health > 0:
# If we are currently playing an episode
if self.game_state.read_kill_count() > 10000:
# If kill_count gets really large during the episode we should ignore the episode
# This happens if the memory address for kill count changes for this episode
# and we should just ignore the episode
self.agent.printer.print_error()
return
self.make_a_move(frame_buffer, context_frame)
self.game_state.not_playing_context_counter = 0
return
else:
# This is a hack to avoid runs being ended early due to
# context classifier getting the wrong context while playing
if self.game_state.not_playing_context_counter < 5:
return
# Navigate context menu if identified
self.do_splash_screen_action(context)
self.do_main_menu_actions(context)
self.do_mode_menu_action(context)
self.do_survival_menu_action(context)
self.do_survival_pre_game_action(context)
self.do_game_paused_action(context)
self.do_game_end_highscore_action(context)
self.do_game_end_score_action(context)
def handle_play(self, game_frame):
# for i, game_frame in enumerate(self.game_frame_buffer.frames):
# self.visual_debugger.store_image_data(
# game_frame.frame,
# game_frame.frame.shape,
# str(i)
# )
#
self.scraper.current_frame = game_frame
if not self.held and self.has_open_positions():
self.last_frame_had_position = True
return
if self.last_frame_had_position:
self.last_frame_had_position = False
return
self.episode_count += 1
reward = self.reward_agent()
self.ppo_agent.observe(reward, terminal=False)
self.frame_buffer = game_frame
self.frame_buffer = FrameGrabber.get_frames([0, 1, 2, 3],
frame_type="PIPELINE")
self.frame_buffer = self.extract_game_area(self.frame_buffer)
self.visual_debugger.store_image_data(self.frame_buffer[0],
self.frame_buffer[0].shape, 2)
self.visual_debugger.store_image_data(self.frame_buffer[3],
self.frame_buffer[3].shape, 3)
action, label, game_input = self.ppo_agent.generate_action(
self.frame_buffer)
print(label)
self.current_action = label
if game_input == 1:
# perform buy
self.working_trade = True
self.input_controller.move(x=self.buy_point[0],
y=self.buy_point[1])
self.input_controller.click()
elif game_input == 2:
# perform sell
self.working_trade = True
self.input_controller.move(x=self.sell_point[0],
y=self.sell_point[1])
self.input_controller.click()
elif game_input == 3:
self.held = True
def reset(self):
self.frame_buffer = FrameGrabber.get_frames([0], frame_type="PIPELINE")
self.frame_buffer = self.extract_game_area(self.frame_buffer)
# states = np.stack(
# self.frame_buffer,
# axis=2
# )
print('GETTING STATES')
print(self.frame_buffer[0])
print(self.frame_buffer[0].shape)
return self.frame_buffer[0], 0, False, {}
def setup_play(self):
self.run_count = 0
self.run_reward = 0
self.observation_count = 0
self.delay_fuzzing_durations = [0.05, 0.1, 0.2]
self.delay_fuzzing_observation_cap = 100000
self.performed_inputs = collections.deque(list(), maxlen=8)
self.reward_10 = collections.deque(list(), maxlen=10)
self.reward_100 = collections.deque(list(), maxlen=100)
self.reward_1000 = collections.deque(list(), maxlen=1000)
self.average_reward_10 = 0
self.average_reward_100 = 0
self.average_reward_1000 = 0
self.score_10 = collections.deque(list(), maxlen=10)
self.score_100 = collections.deque(list(), maxlen=100)
self.score_1000 = collections.deque(list(), maxlen=1000)
self.average_score_10 = 0
self.average_score_100 = 0
self.average_score_1000 = 0
self.top_score = 0
self.top_score_run = 0
self.previous_score = 0
# Measured on the Serpent.AI Lab Stream (Feb 12 2018)
self.random_average_score = 67.51
self.random_top_score = 5351
self.random_runs = 2700
self.death_check = False
self.just_relaunched = False
self.frame_buffer = None
self.ppo_agent = SerpentPPO(frame_shape=(100, 100, 4),
game_inputs=self.game_inputs)
# Warm Agent?
game_frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6],
frame_type="PIPELINE")
self.ppo_agent.generate_action(game_frame_buffer)
self.started_at = datetime.utcnow().isoformat()
def handle_play(self, game_frame, game_frame_pipeline):
self.paused_at = None
with mss() as sct:
monitor_var = sct.monitors[1]
monitor = sct.grab(monitor_var)
valid_game_state = self.environment.update_startregions_state(monitor)
if not valid_game_state:
return None
reward, over_boolean = self.reward(self.environment.startregions_state, 1.0)
terminal = over_boolean
self.agent.observe(reward=reward, terminal=terminal)
if not terminal:
game_frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6], frame_type="PIPELINE")
agent_actions = self.agent.generate_actions(game_frame_buffer)
print("Current Action: ")
print(agent_actions)
str_agent_actions = str(agent_actions)
if "MOVE MOUSE X" in str_agent_actions:
set_pos(200, 0)
if "MOVE MOUSE Y" in str_agent_actions:
set_pos(0, 200)
if "MOVE MOUSE XY" in str_agent_actions:
set_pos(100, 100)
if "MOVE MOUSE X2" in str_agent_actions:
set_pos(-200, 0)
if "MOVE MOUSE Y2" in str_agent_actions:
set_pos(0, -200)
if "MOVE MOUSE XY2" in str_agent_actions:
set_pos(-100, -100)
if "MOVE MOUSE XY3" in str_agent_actions:
set_pos(-100, 100)
if "MOVE MOUSE XY4" in str_agent_actions:
set_pos(100, -100)
if "LETHAL" in str_agent_actions:
self.input_non_lethal = True
self.human()
self.environment.perform_input(agent_actions)
else:
self.environment.clear_input()
self.agent.reset()
time.sleep(30)
#To Do
#Choose Loadout (Meduim Range)
self.environment.end_episode()
self.environment.new_episode(maximum_steps=350)
print("New Episode")
def step(self, action):
if action == 1:
# perform buy
self.working_trade = True
self.input_controller.move(x=self.buy_point[0],
y=self.buy_point[1])
self.input_controller.click()
elif action == 2:
# perform sell
self.working_trade = True
self.input_controller.move(x=self.sell_point[0],
y=self.sell_point[1])
self.input_controller.click()
while self.has_open_positions():
sleep(0.1)
frame = FrameGrabber.get_frames([0]).frames[0]
self.scraper.current_frame = frame
pass
reward = self.reward_agent()
self.frame_buffer = FrameGrabber.get_frames([0], frame_type="PIPELINE")
self.frame_buffer = self.extract_game_area(self.frame_buffer)
# states = np.stack(
# self.frame_buffer,
# axis=2
# )
print('GETTING STATES')
# print(states.shape)
return self.frame_buffer[0], reward, False, {}
def setup(self, ppo_agent, model_name, metadata_key):
self.keys = RedisKeys(metadata_key)
self.redis = redis.Redis(port=6001)
self.ppo_agent = ppo_agent
self.history = list()
self.m_k = metadata_key
self.buys = 0
self.sells = 0
self.last_frame_had_position = False
self.fill_count = 0
self.working_trade = False
self.episode_count = 0
self.number_of_trades = 0
self.number_of_wins = 0
self.current_action = None
self.last_action = None
self.repeat_count = 0
self.sell_point = (671, 447)
self.buy_point = (669, 476)
self.pull_point = (562, 173)
self.held = False
self.scraper = T4Scraper(self.s.game, self.s.visual_debugger)
self.frame_buffer = None
self.scraper.current_frame = FrameGrabber.get_frames([0]).frames[0]
self.pl = self.scraper.get_pl()
self.fill_count = self.scraper.get_position_and_fill_count()[1]
self.model_name = model_name
print('AFTER INIT AGENT')
try:
self.ppo_agent.agent.restore(directory=os.path.join(
os.getcwd(), "datasets", self.model_name))
# self.ppo_agent.agent.restore(directory=os.path.join(os.getcwd(), "datasets", "t4simmodel"))
except Exception:
pass
print('AFTER RESTORE')
self.get_metadata()
def handle_play(self, game_frame):
# append memory data into game state
(self.game_state["com_x"], self.game_state["com_y"], self.ai_x, self.ai_y, self.ball_x, self.ball_y, self.com_sc, self.ai_sc, self.col_size, self.game_state["col_x"], self.game_state["col_y"]) = readInfo()
self.game_state["ai_x"].appendleft(self.ai_x)
self.game_state["ai_y"].appendleft(self.ai_y)
self.game_state["ball_x"].appendleft(self.ball_x)
self.game_state["ball_y"].appendleft(self.ball_y)
self.game_state["ai_score"].appendleft(self.ai_sc)
self.game_state["com_score"].appendleft(self.com_sc)
self.game_state["col_size"].appendleft(self.col_size)
# judge is-in-game by read pixel value (tricky)
self.game_frame_img = FrameGrabber.get_frames([0], frame_type="PIPELINE").frames[0].frame
if self.game_frame_img[91, 49] != 0.3607843137254902:
self.handle_notInGame()
else:
self.game_state["playing"] = True
self.handle_fight(game_frame)
def handle_data(self, game_frame, game_frame_pipeline):
hp_int = self._measure_actor_hp()
try:
if hp_int < 10:
terminal = {1: False}
else:
terminal = {0: True}
except:
terminal = terminal = {1: False}
self.reward_observe = self.reward_ai()
self.agent.observe(reward=self.reward_observe, terminal=terminal)
frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6],
frame_type="PIPELINE")
self.game_input = self.agent.generate_actions(frame_buffer)
self.game_input = str(self.game_input)
print(self.game_input)
return self.game_input
def handle_play(self, game_frame):
# locate sprite position and existence
'''
logo_locator = sprite_locator.locate(sprite=self.game.sprites['SPRITE_LOGO'], game_frame=game_frame)
menu_locator = sprite_locator.locate(sprite=self.game.sprites['SPRITE_MENU'], game_frame=game_frame)
game_set_locator = sprite_locator.locate(sprite=self.game.sprites['SPRITE_GAME_SET'], game_frame=game_frame)
'''
# append memory data into game state
(self.game_state["com_x"], self.game_state["com_y"], self.ai_x,
self.ai_y, self.ball_x, self.ball_y, self.com_sc, self.ai_sc,
self.col_size, self.game_state["col_x"],
self.game_state["col_y"]) = readInfo()
self.game_state["ai_x"].appendleft(self.ai_x)
self.game_state["ai_y"].appendleft(self.ai_y)
self.game_state["ball_x"].appendleft(self.ball_x)
self.game_state["ball_y"].appendleft(self.ball_y)
self.game_state["ai_score"].appendleft(self.ai_sc)
self.game_state["com_score"].appendleft(self.com_sc)
self.game_state["col_size"].appendleft(self.col_size)
self.handle_frame_process(game_frame)
'''
if(logo_locator):
print('Entering Logo...')
self.game_state["playing"] = False
self.handle_menu()
elif (menu_locator):
print('Entering Menu...')
self.game_state["playing"] = False
self.handle_menu()
elif (game_set_locator):
print('Game Set!')
self.handle_fight_end(game_frame)
'''
# judge is-in-game by read pixel value (tricky)
self.game_frame_img = FrameGrabber.get_frames(
[0], frame_type="PIPELINE").frames[0].frame
if self.game_frame_img[100, 81] != 0.7137254901960784:
self.handle_notInGame()
else:
self.game_state["playing"] = True
self.handle_fight(game_frame)
def select_random_track(self, input_controller):
input_controller.handle_keys([])
start_world_region = None
while start_world_region is None:
game_frame_buffer = FrameGrabber.get_frames([0])
game_frame = game_frame_buffer.frames[0]
start_world_region = self.identify_world_region(game_frame)
end_world_region = random.choice(range(0, 9))
self.go_to_world_region(start_world_region, end_world_region,
input_controller)
input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
possible_keys = [
KeyboardKey.KEY_W, KeyboardKey.KEY_A, KeyboardKey.KEY_S,
KeyboardKey.KEY_D
]
for _ in range(30):
input_controller.tap_key(random.choice(possible_keys))
time.sleep(0.05)
input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
possible_keys = [KeyboardKey.KEY_A, KeyboardKey.KEY_D]
for _ in range(30):
input_controller.tap_key(random.choice(possible_keys))
time.sleep(0.05)
input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
def handle_play(self, game_frame, game_frame_pipeline):
valid_game_state = self.environment.update_game_state(game_frame)
if not valid_game_state:
return None
move_reward, attack_reward = self.reward_aisaac(
self.environment.game_state, game_frame)
terminal = (not self.environment.game_state["isaac_alive"]
or self.environment.game_state["boss_dead"]
or self.environment.episode_over)
self.agent.observe(move_reward=move_reward,
attack_reward=attack_reward,
terminal=terminal,
boss_hp=self.environment.game_state["boss_hp"],
isaac_hp=self.environment.game_state["isaac_hp"])
if not terminal:
#[0, 2, 4, 6] to [0, 2]
# 30fps, look at current frame and frame from 1/30 s/f * 4 = 0.13 seconds ago
frame_buffer = FrameGrabber.get_frames([0, 2, 4, 6],
frame_type="PIPELINE")
agent_actions = self.agent.generate_actions(frame_buffer)
#print(agent_actions)
self.environment.perform_input(agent_actions)
else:
self.environment.clear_input()
self.agent.reset()
if self.environment.game_state["boss_dead"]:
self.analytics_client.track(event_key="BOSS_KILL",
data={"foo": "bar"})
self.environment.end_episode()
self.environment.new_episode(maximum_steps=3840, reset=False)
def handle_record(self, game_frame, game_frame_pipeline, **kwargs):
game_frame_buffer = FrameGrabber.get_frames(self.frame_offsets,
frame_type="PIPELINE")
self.game_frame_buffers.append(game_frame_buffer)
def grab_latest_frame(self):
game_frame_buffer, game_frame_buffer_pipeline = FrameGrabber.get_frames_with_pipeline(
[0])
return game_frame_buffer.frames[0], game_frame_buffer_pipeline.frames[
0]
def handle_fight(self, game_frame):
gc.disable()
if self.dqn_action.first_run:
self.dqn_action.first_run = False
return
if self.dqn_action.frame_stack is None:
game_frame_buffer = FrameGrabber.get_frames(
[0], frame_type="PIPELINE").frames[0]
self.dqn_action.build_frame_stack(game_frame_buffer.frame)
else:
# saving frame pic to analyze
#self.cid = self.cid + 1
#game_frame_img = FrameGrabber.get_frames([0], frame_type="PIPELINE").frames[0]
#skimage.io.imsave(f"frame{self.cid}.png", game_frame_img.frame)
game_frame_buffer = FrameGrabber.get_frames([0, 1, 2, 3],
frame_type="PIPELINE")
if self.dqn_action.mode == "TRAIN":
reward = self._calculate_reward()
self.game_state["reward"] += reward
self.dqn_action.append_to_replay_memory(
game_frame_buffer,
reward,
terminal=self.game_state["ai_score"][0] == 15)
# Every 2000 steps, save latest weights to disk
if self.dqn_action.current_step % 1000 == 0:
self.dqn_action.save_model_weights(
file_path_prefix=f"model/fighting_movement")
# Every 20000 steps, save weights checkpoint to disk
if self.dqn_action.current_step % 10000 == 0:
self.dqn_action.save_model_weights(
file_path_prefix=f"model/fighting_movement",
is_checkpoint=True)
elif self.dqn_action.mode == "RUN":
self.dqn_action.update_frame_stack(game_frame_buffer)
run_time = datetime.now() - self.started_at
serpent.utilities.clear_terminal()
print('')
print(Fore.YELLOW)
print(Style.BRIGHT)
print(f"STARTED AT:{self.started_at_str}")
print(
f"RUN TIME: {run_time.days} days, {run_time.seconds // 3600} hours, {(run_time.seconds // 60) % 60} minutes, {run_time.seconds % 60} s"
)
print(Style.RESET_ALL)
#print("")
print(Fore.GREEN)
print(Style.BRIGHT)
print("MOVEMENT NEURAL NETWORK:\n")
self.dqn_action.output_step_data()
print(Style.RESET_ALL)
print(Style.BRIGHT)
print(f"CURRENT RUN: {self.game_state['current_run'] }")
print("")
print(
f"CURRENT RUN REWARD: {round(self.game_state['reward'], 4)}")
print(f"CURRENT AI SCORE: {self.game_state['ai_score'][0]}")
print(f"CURRENT ENEMY SCORE: {self.game_state['com_score'][0]}")
print("")
print(
f"PREDICTED ACTIONS: {self.game_state['run_predicted_actions']}"
)
print(Style.RESET_ALL)
self.dqn_action.pick_action()
self.dqn_action.generate_action()
movement_keys = self.dqn_action.get_input_values()
print("")
print(Fore.GREEN)
print(Style.BRIGHT)
#print(movement_keys)
print("" + " + ".join(
list(map(lambda k: self.key_mapping.get(k), movement_keys))))
print(Style.RESET_ALL)
print("")
print(
f"AI: ({self.game_state['ai_x'][0]}, {self.game_state['ai_y'][0]})"
)
print(
f"COM: ({self.game_state['com_x']}, {self.game_state['com_y']})"
)
print(
f"BALL: ({self.game_state['ball_x'][0]}, {self.game_state['ball_y'][0]})"
)
print(
f"Collision: ({self.game_state['col_x']}, {self.game_state['col_y']}, {self.game_state['col_size'][0]})"
)
print(f"Distance: {self.game_state['distance'][0]}")
self.input_controller.handle_keys(movement_keys)
if self.dqn_action.current_action_type == "PREDICTED":
self.game_state["run_predicted_actions"] += 1
self.dqn_action.erode_epsilon(factor=2)
self.dqn_action.next_step()
self.game_state["current_run"] += 1
if self.game_state['ai_score'][0] == 15 or self.game_state[
'com_score'][0] == 15:
# Game over
self.game_state["ai_score"].appendleft(0)
self.game_state["com_score"].appendleft(0)
self.handle_fight_end(game_frame)
def train_ddqn(self, game_frame):
if self.dqn_movement.first_run:
self.dqn_movement.first_run = False
self.dqn_projectile.first_run = False
return None
heart = frame_to_hearts(game_frame.frame, self.game)
score = self._process_ocr(game_frame)
self.get_reward_state(heart, score)
if self.dqn_movement.frame_stack is None:
pipline_game_frame = FrameGrabber.get_frames(
[0],
frame_shape=(self.game.frame_height, self.game.frame_width),
frame_type="PIPELINE",
dtype="float64"
).frames[0]
print(np.shape(pipline_game_frame.frame))
# self.dqn_movement.build_frame_stack(pipline_game_frame.frame)
self.dqn_movement.frame_stack = self._build_frame_stack(pipline_game_frame.frame)
self.dqn_projectile.frame_stack = self.dqn_movement.frame_stack
else:
game_frame_buffer = FrameGrabber.get_frames(
# [0, 4, 8, 12],
[0],
frame_shape=(self.game.frame_height, self.game.frame_width),
frame_type="PIPELINE",
dtype="float64"
)
if self.dqn_movement.mode == "TRAIN":
self.game_state["run_reward_movement"] += self.reward
self.game_state["run_reward_projectile"] += self.reward
self._movement_append_to_replay_memory(
game_frame_buffer,
self.reward,
terminal=self.game_over
)
self._projectile_append_to_replay_memory(
game_frame_buffer,
self.reward,
terminal=self.game_over
)
#Every 2000 steps, save latest weights to disk
if self.dqn_movement.current_step % 2000 == 0:
self.dqn_movement.save_model_weights(
file_path_prefix=f"datasets/binding_of_isacc_movement"
)
self.dqn_projectile.save_model_weights(
file_path_prefix=f"datasets/binding_of_isaac_projectile"
)
#Every 20000 steps, save weights checkpoint to disk
if self.dqn_movement.current_step % 20000 == 0:
self.dqn_movement.save_model_weights(
file_path_prefix=f"datasets/c_binding_of_isaac_movement",
is_checkpoint=True
)
self.dqn_projectile.save_model_weights(
file_path_prefix=f"datasets/c_binding_of_isaac_projectile",
is_checkpoint=True
)
elif self.dqn_movement.mode == "RUN":
game_frames = [game_frame.frame for game_frame in game_frame_buffer.frames]
self.dqn_movement.frame_stack = np.array(game_frames)
self.dqn_projectile.frame_stack = np.array(game_frames)
run_time = datetime.now() - self.started_at
serpent.utilities.clear_terminal()
print(f"SESSION RUN TIME: {run_time.days} days, {run_time.seconds // 3600} hours,"
f" {(run_time.seconds // 60) % 60} minutes, {run_time.seconds % 60} seconds")
print("MOVEMENT NEURAL NETWORK:\n")
self.dqn_movement.output_step_data()
print(f"reward:{self.reward}")
print("PROJECTILE NEURAL NETWORK:\n")
self.dqn_projectile.output_step_data()
print(f"CURRENT RUN: {self.game_state['current_run']}")
print(f"CURRENT RUN REWARD: "
f"{round(self.reward + self.reward, 2)}")
print(f"CURRENT RUN PREDICTED ACTIONS: {self.game_state['run_predicted_actions']}")
print(f"CURRENT HEALTH: {heart}")
print(f"LAST RUN DURATION: {self.game_state['last_run_duration']} seconds")
print(f"RECORD TIME ALIVE: {self.game_state['record_time_alive'].get('value')} seconds "
f"(Run {self.game_state['record_time_alive'].get('run')}, "
f"{'Predicted' if self.game_state['record_time_alive'].get('predicted') else 'Training'}")
print(f"RANDOM AVERAGE TIME ALIVE: {self.game_state['random_time_alive']} seconds")
if self.game_over == True:
serpent.utilities.clear_terminal()
timestamp = datetime.utcnow()
gc.enable()
gc.collect()
gc.disable()
timestamp_delta = timestamp - self.game_state["run_timestamp"]
self.game_state["last_run_duration"] = timestamp_delta.seconds
if self.dqn_movement.mode in ["TRAIN", "RUN"]:
#Check for Records
if self.game_state["last_run_duration"] > self.game_state["record_time_alive"].get("value", 0):
self.game_state["record_time_alive"] = {
"value": self.game_state["last_run_duration"],
"run": self.game_state["current_run"],
"predicted": self.dqn_movement.mode == "RUN"
}
else:
self.game_state["random_time_alives"].append(self.game_state["last_run_duration"])
self.game_state["random_time_alive"] = np.mean(self.game_state["random_time_alives"])
self.game_state["current_run_state"] = 0
self.input_controller.handle_keys([])
if self.dqn_movement.mode == "TRAIN":
for i in range(16):
serpent.utilities.clear_terminal()
print(f"TRAINING ON MINI-BATCHES: {i + 1}/16")
print(f"NEXT RUN: {self.game_state['current_run'] + 1} "
f"{'- AI RUN' if (self.game_state['current_run'] + 1) % 20 == 0 else ''}")
self.dqn_movement.train_on_mini_batch()
self.dqn_projectile.train_on_mini_batch()
self.game_state["run_timestamp"] = datetime.utcnow()
self.game_state["current_run"] += 1
self.game_state["run_reward_movement"] = 0
self.game_state["run_reward_projectile"] = 0
self.game_state["run_predicted_actions"] = 0
self.s_p1 = 16
self.game_over = False
self.reward = 0
if self.dqn_movement.mode in ["TRAIN", "RUN"]:
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 100 == 0:
self.dqn_movement.update_target_model()
self.dqn_projectile.update_target_model()
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 20 == 0:
self.dqn_movement.enter_run_mode()
self.dqn_projectile.enter_run_mode()
else:
self.dqn_movement.enter_train_mode()
self.dqn_projectile.enter_train_mode()
return None
self.dqn_movement.pick_action()
self.dqn_movement.generate_action()
self.dqn_projectile.pick_action(action_type=self.dqn_movement.current_action_type)
self.dqn_projectile.generate_action()
try:
_thread.start_new_thread(self._execute_action, ("Thread", ))
except Exception as e:
print(e)
if self.dqn_movement.current_action_type == "PREDICTED":
self.game_state["run_predicted_actions"] += 1
self.dqn_movement.erode_epsilon(factor=2)
self.dqn_projectile.erode_epsilon(factor=2)
self.dqn_movement.next_step()
self.dqn_projectile.next_step()
self.game_state["current_run_steps"] += 1
def grab_latest_frame(self):
game_frame_buffer = FrameGrabber.get_frames(
[0], (self.window_geometry.get("height"),
self.window_geometry.get("width"), 3))
return game_frame_buffer.frames[0]
def setup_play(self):
self.game_inputs = {
"MOVE UP": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_W)
],
"MOVE LEFT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_A)
],
"MOVE DOWN": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_S)
],
"MOVE RIGHT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_D)
],
"MOVE TOP-LEFT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_W),
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_A)
],
"MOVE TOP-RIGHT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_W),
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_D)
],
"MOVE DOWN-LEFT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_S),
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_A)
],
"MOVE DOWN-RIGHT": [
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_S),
KeyboardEvent(KeyboardEvents.DOWN, KeyboardKey.KEY_D)
],
"SHOOT UP": [
MouseEvent(MouseEvents.CLICK, MouseButton.LEFT)
],
"SHOOT LEFT": [
MouseEvent(MouseEvents.CLICK, MouseButton.RIGHT)
],
"DON'T MOVE": []
}
self.ppo_agent = SerpentPPO(
frame_shape=(125, 112, 4),
game_inputs=self.game_inputs
)
self.first_run = True
self.game_over = False
self.run_count = 0
self.run_reward = 0
self.observation_count = 0
self.episode_observation_count = 0
self.performed_inputs = collections.deque(list(), maxlen=8)
self.reward_10 = collections.deque(list(), maxlen=10)
self.reward_100 = collections.deque(list(), maxlen=100)
self.reward_1000 = collections.deque(list(), maxlen=1000)
self.rewards = list()
self.average_reward_10 = 0
self.average_reward_100 = 0
self.average_reward_1000 = 0
self.top_reward = 0
self.top_reward_run = 0
self.previous_score = 0
self.score_10 = collections.deque(list(), maxlen=10)
self.score_100 = collections.deque(list(), maxlen=100)
self.score_1000 = collections.deque(list(), maxlen=1000)
self.average_score_10 = 0
self.average_score_100 = 0
self.average_score_1000 = 0
self.best_score = 0
self.best_score_run = 0
self.just_relaunched = False
self.frame_buffer = None
try:
self.ppo_agent.agent.restore_model(
directory=os.path.join(
os.getcwd(), "datasets", "pacai"))
self.restore_metadata()
except Exception:
pass
self.analytics_client.track(
event_key="INITIALIZE", data=dict(
episode_rewards=[]))
for reward in self.rewards:
self.analytics_client.track(
event_key="EPISODE_REWARD", data=dict(
reward=reward))
time.sleep(0.01)
# Warm Agent?
game_frame_buffer = FrameGrabber.get_frames(
[0, 1, 2, 3], frame_type="PIPELINE")
game_frame_buffer = self.extract_game_area(game_frame_buffer)
self.ppo_agent.generate_action(game_frame_buffer)
self.score = collections.deque(np.full((16,), 0), maxlen=16)
self.lives = collections.deque(np.full((16,), 3), maxlen=16)
self.continuity_bonus = 0
self.started_at = datetime.utcnow().isoformat()
self.episode_started_at = None
self.paused_at = None
print("Enter - Auto Save")
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(2)
print("Enter - Menu")
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
print("Enter - Start game")
self.input_controller.tap_key(KeyboardKey.KEY_ENTER)
time.sleep(1)
# Make sure to initialize Game() after passing the Start game menu,
# otherwise the pointers may not be fully loaded.
self.game_data = Game()
return
def handle_play(self, game_frame):
if self.first_run:
self.run_count += 1
self.first_run = False
self.episode_started_at = time.time()
return None
self.printer.add("")
self.printer.add("Log234 - Pac-AI")
self.printer.add("Reinforcement Learning: Training a PPO Agent")
self.printer.add("")
self.printer.add(f"Stage Started At: {self.started_at}")
self.printer.add(f"Current Run: #{self.run_count}")
self.printer.add("")
if self.game_data.IsPaused():
if self.paused_at is None:
self.paused_at = time.time()
# Give ourselves 30 seconds to work with
if time.time() - self.paused_at >= 30:
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
time.sleep(1)
return
self.printer.add("The game is paused.")
self.printer.flush()
return
else:
self.paused_at = None
self.score.appendleft(self.game_data.GetScore())
self.printer.add(f"Score: {self.score[0]}")
self.lives.appendleft(self.game_data.GetLives())
self.printer.add(f"Lives: {self.lives[0]}")
reward = self.reward_agent()
self.printer.add(f"Current Reward: {round(reward, 2)}")
self.printer.add(f"Run Reward: {round(self.run_reward, 2)}")
self.printer.add("")
if self.frame_buffer is not None:
self.run_reward += reward
self.observation_count += 1
self.episode_observation_count += 1
self.analytics_client.track(
event_key="RUN_REWARD", data=dict(
reward=reward))
if self.ppo_agent.agent.batch_count == self.ppo_agent.agent.batch_size - 1:
self.printer.flush()
self.printer.add("")
self.printer.add("Updating Pac-AI Model With New Data... ")
self.printer.flush()
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
self.ppo_agent.observe(
reward, terminal=(
self.game_data.IsOver()))
self.input_controller.tap_key(KeyboardKey.KEY_ESCAPE)
self.frame_buffer = None
if not self.game_data.IsOver():
time.sleep(1)
return None
else:
self.ppo_agent.observe(
reward, terminal=(
self.game_data.IsOver()))
self.printer.add(f"Observation Count: {self.observation_count}")
self.printer.add(
f"Episode Observation Count: {self.episode_observation_count}")
self.printer.add(
f"Current Batch Size: {self.ppo_agent.agent.batch_count}")
self.printer.add("")
if not self.game_data.IsOver():
self.death_check = False
self.printer.add(
f"Continuity Bonus: {round(self.continuity_bonus, 2)}")
self.printer.add("")
self.printer.add(
f"Average Rewards (Last 10 Runs): {round(self.average_reward_10, 2)}")
self.printer.add(
f"Average Rewards (Last 100 Runs): {round(self.average_reward_100, 2)}")
self.printer.add(
f"Average Rewards (Last 1000 Runs): {round(self.average_reward_1000, 2)}")
self.printer.add("")
self.printer.add(
f"Top Run Reward: {round(self.top_reward, 2)} (Run #{self.top_reward_run})")
self.printer.add("")
self.printer.add(
f"Previous Run Score: {round(self.previous_score, 2)}")
self.printer.add("")
self.printer.add(
f"Average Score (Last 10 Runs): {round(self.average_score_10, 2)}")
self.printer.add(
f"Average Score (Last 100 Runs): {round(self.average_score_100, 2)}")
self.printer.add(
f"Average Score (Last 1000 Runs): {round(self.average_score_1000, 2)}")
self.printer.add("")
self.printer.add(
f"Best Score: {round(self.best_score, 2)} (Run #{self.best_score_run})")
self.printer.add("")
self.printer.add("Latest Inputs:")
self.printer.add("")
for i in self.performed_inputs:
self.printer.add(i)
self.printer.flush()
self.frame_buffer = FrameGrabber.get_frames(
[0, 1, 2, 3], frame_type="PIPELINE")
self.frame_buffer = self.extract_game_area(self.frame_buffer)
action, label, game_input = self.ppo_agent.generate_action(
self.frame_buffer)
self.performed_inputs.appendleft(label)
self.input_controller.handle_keys(game_input)
else:
self.input_controller.handle_keys([])
self.analytics_client.track(
event_key="RUN_END", data=dict(
run=self.run_count))
self.printer.add("Game Over.")
self.printer.flush()
self.run_count += 1
self.reward_10.appendleft(self.run_reward)
self.reward_100.appendleft(self.run_reward)
self.reward_1000.appendleft(self.run_reward)
self.rewards.append(self.run_reward)
self.average_reward_10 = float(np.mean(self.reward_10))
self.average_reward_100 = float(np.mean(self.reward_100))
self.average_reward_1000 = float(np.mean(self.reward_1000))
if self.run_reward > self.top_reward:
self.top_reward = self.run_reward
self.top_reward_run = self.run_count - 1
self.analytics_client.track(
event_key="NEW_RECORD",
data=dict(
type="REWARD",
value=self.run_reward,
run=self.run_count - 1))
self.analytics_client.track(
event_key="EPISODE_REWARD", data=dict(
reward=self.run_reward))
self.previous_score = max(list(self.score)[:4])
self.run_reward = 0
self.score_10.appendleft(self.previous_score)
self.score_100.appendleft(self.previous_score)
self.score_1000.appendleft(self.previous_score)
self.average_score_10 = float(np.mean(self.score_10))
self.average_score_100 = float(np.mean(self.score_100))
self.average_score_1000 = float(np.mean(self.score_1000))
if self.previous_score > self.best_score:
self.best_score = self.previous_score
self.best_score_run = self.run_count - 1
self.analytics_client.track(
event_key="NEW_RECORD",
data=dict(
type="score",
value=self.previous_score,
run=self.run_count - 1))
if not self.run_count % 10:
self.ppo_agent.agent.save_model(
directory=os.path.join(
os.getcwd(),
"datasets",
"pacai",
"ppo_model"),
append_timestep=False)
self.dump_metadata()
self.lives = collections.deque(np.full((16,), 3), maxlen=16)
self.score = collections.deque(np.full((16,), 0), maxlen=16)
self.multiplier_damage = 0
self.performed_inputs.clear()
self.frame_buffer = None
self.input_controller.tap_key(KeyboardKey.KEY_ENTER, duration=1.5)
self.episode_started_at = time.time()
self.episode_observation_count = 0
def handle_play_ddqn(self, game_frame):
gc.disable()
if self.dqn_movement.first_run:
self.input_controller.tap_key(KeyboardKey.KEY_W)
self.dqn_movement.first_run = False
time.sleep(5)
return None
dragon_alive = self._measure_dragon_alive(game_frame)
# dragon_coins = self._measure_dragon_coins(game_frame)
self.game_state["alive"].appendleft(dragon_alive)
# self.game_state["coins"].appendleft(dragon_coins)
if self.dqn_movement.frame_stack is None:
# pipeline_game_frame = FrameGrabber.get_frames(
# [0],
# frame_shape=game_frame.frame.shape,
# frame_type="MINI"
# ).frames[0]
self.dqn_movement.build_frame_stack(game_frame.ssim_frame)
else:
game_frame_buffer = FrameGrabber.get_frames(
[0, 4, 8, 12],
frame_shape=game_frame.frame.shape,
frame_type="MINI"
)
if self.dqn_movement.mode == "TRAIN":
reward = self._calculate_reward()
self.game_state["run_reward"] += reward
self.dqn_movement.append_to_replay_memory(
game_frame_buffer,
reward,
terminal=self.game_state["alive"] == 0
)
# Every 2000 steps, save latest weights to disk
if self.dqn_movement.current_step % 2000 == 0:
self.dqn_movement.save_model_weights(
file_path_prefix=f"datasets/cloney_movement"
)
# Every 20000 steps, save weights checkpoint to disk
if self.dqn_movement.current_step % 20000 == 0:
self.dqn_movement.save_model_weights(
file_path_prefix=f"datasets/cloney_movement",
is_checkpoint=True
)
elif self.dqn_movement.mode == "RUN":
self.dqn_movement.update_frame_stack(self.game_frame_buffer)
run_time = datetime.now() - self.started_at
print("\033c" + f"SESSION RUN TIME: {run_time.days} days, {run_time.seconds // 3600} hours, {(run_time.seconds // 60) % 60} minutes, {run_time.seconds % 60} seconds")
print("")
print("MOVEMENT NEURAL NETWORK:\n")
self.dqn_movement.output_step_data()
print("")
print(f"CURRENT RUN: {self.game_state['current_run']}")
print(f"CURRENT RUN REWARD: {round(self.game_state['run_reward'], 2)}")
print(f"CURRENT RUN PREDICTED ACTIONS: {self.game_state['run_predicted_actions']}")
print(f"CURRENT DRAGON ALIVE: {self.game_state['alive'][0]}")
# print(f"CURRENT DRAGON COINS: {self.game_state['coins'][0]})
print("")
# print(f"AVERAGE ACTIONS PER SECOND: {round(self.game_state['average_aps'], 2)}")
print("")
print(f"LAST RUN DURATION: {self.game_state['last_run_duration']} seconds")
# print(f"LAST RUN COINS: {self.game_state['last_run_coins'][0]})
print("")
print(f"RECORD TIME ALIVE: {self.game_state['record_time_alive'].get('value')} seconds (Run {self.game_state['record_time_alive'].get('run')}, {'Predicted' if self.game_state['record_time_alive'].get('predicted') else 'Training'})")
# print(f"RECORD COINS COLLECTED: {self.game_state['record_coins_collected'].get('value')} coins (Run {self.game_state['record_coins_collected'].get('run')}, {'Predicted' if self.game_state['record_coins_collected'].get('predicted') else 'Training'})")
print("")
print(f"RANDOM AVERAGE TIME ALIVE: {self.game_state['random_time_alive']} seconds")
if self.game_state["alive"][1] <= 0:
serpent.utilities.clear_terminal()
timestamp = datetime.utcnow()
gc.enable()
gc.collect()
gc.disable()
# Set display stuff TODO
timestamp_delta = timestamp - self.game_state["run_timestamp"]
self.game_state["last_run_duration"] = timestamp_delta.seconds
if self.dqn_movement.mode in ["TRAIN", "RUN"]:
# Check for Records
if self.game_state["last_run_duration"] > self.game_state["record_time_alive"].get("value", 0):
self.game_state["record_time_alive"] = {
"value": self.game_state["last_run_duration"],
"run": self.game_state["current_run"],
"predicted": self.dqn_movement.mode == "RUN"
}
# if self.game_state["coins"][0] < self.game_state["record_coins_collected"].get("value", 1000):
# self.game_state["record_coins_collected"] = {
# "value": self.game_state["coins"][0],
# "run": self.game_state["current_run"],
# "predicted": self.dqn_movement.mode == "RUN"
# }
else:
self.game_state["random_time_alives"].append(self.game_state["last_run_duration"])
self.game_state["random_time_alive"] = np.mean(self.game_state["random_time_alives"])
self.game_state["current_run_steps"] = 0
self.input_controller.release_key(KeyboardKey.KEY_SPACE)
if self.dqn_movement.mode == "TRAIN":
for i in range(8):
serpent.utilities.clear_terminal()
print(f"TRAINING ON MINI-BATCHES: {i + 1}/8")
print(f"NEXT RUN: {self.game_state['current_run'] + 1} {'- AI RUN' if (self.game_state['current_run'] + 1) % 20 == 0 else ''}")
self.dqn_movement.train_on_mini_batch()
self.game_state["run_timestamp"] = datetime.utcnow()
self.game_state["current_run"] += 1
self.game_state["run_reward_movement"] = 0
self.game_state["run_predicted_actions"] = 0
self.game_state["alive"] = collections.deque(np.full((8,), 4), maxlen=8)
# self.game_state["coins"] = collections.deque(np.full((8,), 0), maxlen=8)
if self.dqn_movement.mode in ["TRAIN", "RUN"]:
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 100 == 0:
if self.dqn_movement.type == "DDQN":
self.dqn_movement.update_target_model()
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 20 == 0:
self.dqn_movement.enter_run_mode()
else:
self.dqn_movement.enter_train_mode()
self.input_controller.tap_key(KeyboardKey.KEY_SPACE)
time.sleep(5)
return None
self.dqn_movement.pick_action()
self.dqn_movement.generate_action()
keys = self.dqn_movement.get_input_values()
print("")
print(" + ".join(list(map(lambda k: self.key_mapping.get(k.name), keys))))
self.input_controller.handle_keys(keys)
if self.dqn_movement.current_action_type == "PREDICTED":
self.game_state["run_predicted_actions"] += 1
self.dqn_movement.erode_epsilon(factor=2)
self.dqn_movement.next_step()
self.game_state["current_run_steps"] += 1
def update_game_frame(self, frame_type="FULL"):
game_frame_buffer = FrameGrabber.get_frames([0], frame_type=frame_type)
return game_frame_buffer.frames[0]
def handle_play(self, game_frame):
self.isDescending = self.ascendDescend(game_frame)
self.currentHP = self.computeActualHP(game_frame)
self.falling(game_frame)
for i, game_frame in enumerate(self.game_frame_buffer.frames):
self.visual_debugger.store_image_data(
game_frame.frame,
game_frame.frame.shape,
str(i)
)
if self.dqn_main_player.frame_stack is None:
pipeline_game_frame = FrameGrabber.get_frames(
[0],
frame_shape=(100, 100),
frame_type="PIPELINE",
dtype="float64"
).frames[0]
self.dqn_main_player.build_frame_stack(pipeline_game_frame.frame)
self.dqn_buddy_player.frame_stack = self.dqn_main_player.frame_stack
else:
game_frame_buffer = FrameGrabber.get_frames(
[0, 4, 8, 12],
frame_shape=(100, 100),
frame_type="PIPELINE",
dtype="float64"
)
reward = self.calculate_reward()
if self.dqn_main_player.mode == "TRAIN":
self.game_state["run_reward_main"] += reward
self.game_state["run_reward_buddy"] += reward
self.dqn_main_player.append_to_replay_memory(
game_frame_buffer,
reward,
terminal= self.currentHP == 0
)
self.dqn_buddy_player.append_to_replay_memory(
game_frame_buffer,
reward,
terminal= self.currentHP == 0
)
# Every 2000 steps, save latest weights to disk
if self.dqn_main_player.current_step % 2000 == 0:
self.dqn_main_player.save_model_weights(
file_path_prefix= "datasets/dqn/dqn_main/"
)
self.dqn_buddy_player.save_model_weights(
file_path_prefix=f"datasets/dqn/dqn_buddy/"
)
# Every 20000 steps, save weights checkpoint to disk
if self.dqn_main_player.current_step % 20000 == 0:
self.dqn_main_player.save_model_weights(
file_path_prefix= "datasets/dqn/dqn_main/",
is_checkpoint=True
)
self.dqn_buddy_player.save_model_weights(
file_path_prefix= "datasets/dqn/dqn_buddy/",
is_checkpoint=True
)
elif self.dqn_main_player.mode == "RUN":
self.dqn_main_player.update_frame_stack(game_frame_buffer)
self.dqn_buddy_player.update_frame_stack(game_frame_buffer)
run_time = datetime.now() - self.started_at
serpent.utilities.clear_terminal()
print(f"SESSION RUN TIME: {run_time.days} days, {run_time.seconds // 3600} hours, {(run_time.seconds // 60) % 60} minutes, {run_time.seconds % 60} seconds")
print("")
print("MAIN NEURAL NETWORK:\n")
self.dqn_main_player.output_step_data()
print("")
print("BUDDY NEURAL NETWORK:\n")
self.dqn_buddy_player.output_step_data()
print("")
print(f"CURRENT RUN: {self.game_state['current_run']}")
print(f"CURRENT RUN REWARD: {round(self.game_state['run_reward_main'] + self.game_state['run_reward_buddy'] , 2)}")
print(f"CURRENT RUN PREDICTED ACTIONS: {self.game_state['run_predicted_actions']}")
print(f"CURRENT HEALTH: {self.currentHP}")
print("")
print(f"LAST RUN DURATION: {self.game_state['last_run_duration']} seconds")
print("")
print(f"RECORD TIME ALIVE: {self.game_state['record_time_alive'].get('value')} seconds (Run {self.game_state['record_time_alive'].get('run')}, {'Predicted' if self.game_state['record_time_alive'].get('predicted') else 'Training'} ")
print("")
print(f"RANDOM AVERAGE TIME ALIVE: {self.game_state['random_time_alive']} seconds")
if self.currentHP <= 0:
serpent.utilities.clear_terminal()
timestamp = datetime.utcnow()
gc.enable()
gc.collect()
gc.disable()
timestamp_delta = timestamp - self.game_state["run_timestamp"]
self.game_state["last_run_duration"] = timestamp_delta.seconds
if self.dqn_main_player.mode in ["TRAIN","RUN"]:
#Check for Records
if self.game_state["last_run_duration"] > self.game_state["record_time_alive"].get("value", 0):
self.game_state["record_time_alive"] = {
"value": self.game_state["last_run_duration"],
"run": self.game_state["current_run"],
"predicted": self.dqn_main_player.mode == "RUN"
}
self.game_state["current_run_steps"] = 0
self.input_controller.handle_keys([])
if self.dqn_main_player.mode == "TRAIN":
for i in range(16):
serpent.utilities.clear_terminal()
print(f"TRAINING ON MINI-BATCHES: {i + 1}/16")
print(f"NEXT RUN: {self.game_state['current_run'] + 1} {'- AI RUN' if (self.game_state['current_run'] + 1) % 20 == 0 else ''}")
self.dqn_main_player.train_on_mini_batch()
self.dqn_buddy_player.train_on_mini_batch()
self.game_state["run_timestamp"] = datetime.utcnow()
self.game_state["current_run"] += 1
self.game_state["run_reward_main"] = 0
self.game_state["run_reward_buddy"] = 0
self.game_state["run_predicted_actions"] = 0
self.restartLevel()
if self.dqn_main_player.mode in ["TRAIN", "RUN"]:
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 100 == 0:
self.dqn_main_player.update_target_model()
self.dqn_buddy_player.update_target_model()
if self.game_state["current_run"] > 0 and self.game_state["current_run"] % 20 == 0:
self.dqn_main_player.enter_run_mode()
self.dqn_buddy_player.enter_run_mode()
else:
self.dqn_main_player.enter_train_mode()
self.dqn_buddy_player.enter_train_mode()
return None
if(self.actualStep%2 == 0):
self.dqn_main_player.pick_action()
self.dqn_main_player.generate_action()
movement_keys = self.dqn_main_player.get_input_values()
print("")
print(" + ".join(list(map(lambda k: self.key_mapping.get(k.name), movement_keys))))
self.input_controller.handle_keys(movement_keys)
self.dqn_main_player.erode_epsilon(factor=2)
self.dqn_main_player.next_step()
#time.sleep(1)
else:
self.dqn_buddy_player.pick_action()
self.dqn_buddy_player.generate_action()
movement_keys_buddy = self.dqn_buddy_player.get_input_values()
print("")
print(" + ".join(list(map(lambda k: self.key_mapping.get(k.name),movement_keys_buddy))))
self.input_controller.handle_keys(movement_keys_buddy)
self.dqn_buddy_player.erode_epsilon(factor=2)
self.dqn_buddy_player.next_step()
#time.sleep(1)
#movement_keys = self.dqn_main_player.get_input_values()
#movement_keys_buddy = self.dqn_buddy_player.get_input_values()
#print("")
#print(" + ".join(list(map(lambda k: self.key_mapping.get(k.name), movement_keys + movement_keys_buddy))))
#self.input_controller.handle_keys(movement_keys + movement_keys_buddy)
if self.dqn_main_player.current_action_type == "PREDICTED":
self.game_state["run_predicted_actions"] += 1
self.game_state["current_run_steps"] += 1
self.actualStep += 1
