def _pause(self) -> None:
"""Toggles the pause mode of the game."""
if self._paused:
self._game.ui.pop_menu()
Timer.unpause_timers()
else:
buttons = [{
'action': self._pause,
'text': 'Resume',
'size': 16,
'color': cfg.WHITE
}, {
'action': self.enter,
'text': 'Restart',
'size': 16,
'color': cfg.WHITE
}, {
'action': self._main_menu,
'text': 'Main Menu',
'size': 16,
'color': cfg.WHITE
}]
self._game.ui.make_menu("Game Paused", 24, cfg.WHITE, buttons)
Timer.pause_timers()
self._paused = not self._paused
def update(self, dt: float) -> None:
"""Updates the state of the game world and determines if game is over.
:param dt: Time since last frame.
:return: None
"""
if not self._paused:
self._level.update(dt)
# If game is over, show game-over menu.
if self._is_game_over():
if self._level.is_player_alive():
title = "Victory!"
else:
title = "Defeat"
buttons = [{
'action': self.enter,
'text': 'Play Again',
'size': 16,
'color': cfg.WHITE
}, {
'action': self._main_menu,
'text': 'Main Menu',
'size': 16,
'color': cfg.WHITE
}, {
'action': sys.exit,
'text': 'Exit',
'size': 16,
'color': cfg.WHITE
}]
self._game.ui.make_menu(title, 24, cfg.WHITE, buttons)
Timer.pause_timers()
self._paused = True
def analyze(self, orig_img):
x = Variable(self.val_trainsform(orig_img).unsqueeze(0), volatile=True)
_t = {'im_detect': Timer(), 'misc': Timer()}
_t['im_detect'].tic()
arm_loc, arm_conf, odm_loc, odm_conf = self.net(x=x, test=True)
boxes, scores = self.detector.forward((odm_loc, odm_conf), self.priors, (arm_loc, arm_conf))
detect_time = _t['im_detect'].toc()
print("forward time: %fs" % (detect_time))
boxes = boxes[0]
scores=scores[0]
boxes = boxes.cpu().numpy()
scores = scores.cpu().numpy()
# scale each detection back up to the image
scale = torch.Tensor([orig_img.shape[1], orig_img.shape[0], orig_img.shape[1], orig_img.shape[0]]).cpu().numpy()
boxes *= scale
all_boxes = [[] for _ in range(num_classes)]
for class_id in range(1, num_classes):
inds = np.where(scores[:, class_id] > 0.95)[0]
c_scores = scores[inds, class_id]
c_bboxes = boxes[inds]
c_dets = np.hstack((c_bboxes, c_scores[:, np.newaxis])).astype(np.float32, copy=False)
keep = nms(c_dets, 0.45, force_cpu=True)
all_boxes[class_id] = c_dets[keep, :]
for class_id in range(1, num_classes):
for det in all_boxes[class_id]:
left, top, right, bottom, score = det
orig_img = cv2.rectangle(orig_img, (left, top), (right, bottom), (255, 255, 0), 1)
orig_img = cv2.putText(orig_img, '%d:%.3f'%(class_id, score), (int(left), int(top)+30), cv2.FONT_HERSHEY_SIMPLEX, 1, (0, 0, 255), 1)
# cv2.imwrite("./test_3.png", img_det)
return orig_img
def __init__(self, level_file: str):
"""Creates a map and creates all of the sprites in it.
:param level_file: Filename of level file to load from the configuration file's map folder.
"""
# Create the tiled map surface.
map_loader = TiledMapLoader(level_file)
self.image = map_loader.make_map()
self.rect = self.image.get_rect()
self._groups = {
'all': pg.sprite.LayeredUpdates(),
'tanks': pg.sprite.Group(),
'damageable': pg.sprite.Group(),
'bullets': pg.sprite.Group(),
'obstacles': pg.sprite.Group(),
'items': pg.sprite.Group(),
'item_boxes': pg.sprite.Group()
}
self._player = None
self._camera = None
self._ai_mobs = []
self._item_spawn_positions = []
self._item_spawn_timer = Timer()
# Initialize all sprites in game world.
self._init_sprites(map_loader.tiled_map.objects)
def enter(self) -> None:
"""Creates the game world."""
# Clear the UI.
self._game.ui.clear()
Timer.clear_timers()
self._level = Level('level_1.tmx')
self._paused = False
class Item(BaseSprite, metaclass=abc.ABCMeta):
"""An abstract base class for sprites that represent in-game items."""
# Number of pixels up and down that item will bob.
BOB_RANGE = 15
BOB_SPEED = 0.2
def __init__(self, x: float, y: float, image: str, sound: str,
groups: typing.Dict[str, pg.sprite.Group]):
BaseSprite.__init__(self, image, groups, groups['all'],
groups['items'])
self.rect.center = (x, y)
self._sfx = sound
self._spawn_pos = pg.math.Vector2(x, y)
self._effect_timer = Timer()
# Default duration is 0.
self._duration = 0
# Tween function maps integer steps to values between 0 and 1.
self._tween = tween.easeInOutSine
self._step = 0
self._direction = 1
@property
def spawn_pos(self) -> pg.math.Vector2:
return self._spawn_pos
def update(self, dt: float) -> None:
"""Floating animation for an item that has spawned. Credits to Chris Bradfield from KidsCanCode."""
# Shift bobbing y offset to bob about item's original center.
offset = Item.BOB_RANGE * (self._tween(self._step / Item.BOB_RANGE) -
0.5)
self.rect.centery = self._spawn_pos.y + offset * self._direction
self._step += Item.BOB_SPEED
# Reverse bobbing direction when item returns to center.
if self._step > Item.BOB_RANGE:
self._step = 0
self._direction *= -1
def activate(self, sprite: pg.sprite.Sprite) -> None:
"""Applies the item's effect upon pickup and causes it to be stop being drawn."""
self._apply_effect(sprite)
self._effect_timer.restart()
# Applies to items with non-zero duration.
sfx_loader.play(self._sfx)
# Make sure it doesn't get drawn anymore after the effect has been applied.
super().kill()
def effect_subsided(self) -> bool:
"""Checks if the item's effect should subside."""
return self._effect_timer.elapsed() > self._duration
@abc.abstractmethod
def _apply_effect(self, sprite) -> None:
"""Effect that is applied on item as long as the timer has not subsided."""
pass
def remove_effect(self, sprite) -> None:
"""Causes an item with a non-zero duration to have its effect removed from a sprite at the end."""
pass
def __init__(self, x: float, y: float, rot: float, all_groups):
"""Aligns the MuzzleFlash so that it starts at the tip of the Barrel nozzle."""
self._layer = cfg.EFFECTS_LAYER
BaseSprite.__init__(self, MuzzleFlash.IMAGE, all_groups, all_groups['all'])
RotateMixin.__init__(self)
self.rect.center = (x, y)
self.rot = rot
self.rotate()
self._spawn_timer = Timer()
def __init__(self, x: float, y: float, angle: float, color: str,
category: str, owner,
all_groups: typing.Dict[str, pg.sprite.Group]):
"""Creates a bullet object, rotating it to face the correct direction."""
self._layer = cfg.ITEM_LAYER
BaseSprite.__init__(self, _IMAGES[category][color], all_groups,
all_groups['all'], all_groups['bullets'])
MoveMixin.__init__(self, x, y)
self.vel = pg.math.Vector2(_STATS[category]["speed"], 0).rotate(-angle)
self._damage = _STATS[category]["damage"]
self._lifetime = _STATS[category]["lifetime"]
self._spawn_timer = Timer()
self._owner = owner
RotateMixin.rotate_image(self, self.image, angle - Bullet.IMAGE_ROT)
def text_detect(text_detector, im):
im_small, f, im_height, im_width = resize_im(im, Config.SCALE,
Config.MAX_SCALE)
timer = Timer()
timer.tic()
text_lines = text_detector.detect(im_small)
text_lines = draw_boxes(im_small, text_lines, f, im_height, im_width)
print "Number of the detected text lines: %s" % len(text_lines)
print "Detection Time: %f" % timer.toc()
print "~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~"
return text_lines
def __init__(self, x: float, y: float, image: str, sound: str,
groups: typing.Dict[str, pg.sprite.Group]):
BaseSprite.__init__(self, image, groups, groups['all'],
groups['items'])
self.rect.center = (x, y)
self._sfx = sound
self._spawn_pos = pg.math.Vector2(x, y)
self._effect_timer = Timer()
# Default duration is 0.
self._duration = 0
# Tween function maps integer steps to values between 0 and 1.
self._tween = tween.easeInOutSine
self._step = 0
self._direction = 1
def __init__(self, tank, offset: pg.math.Vector2, image: str, color: str,
category: str, all_groups: typing.Dict[str, pg.sprite.Group]):
"""Fills up the Barrel's ammo and centers its position on its parent."""
self._layer = cfg.BARREL_LAYER
BaseSprite.__init__(self, image, all_groups, all_groups['all'])
RotateMixin.__init__(self)
# Bullet parameters.
self._category = category
self._color = color
self._ammo_count = _STATS[self._category]["max_ammo"]
# Parameters used for barrel position.
self._parent = tank
self.rect.center = tank.rect.center
self._offset = offset
self._fire_delay = _STATS[self._category]["fire_delay"]
self._fire_timer = Timer()
def __init__(self, x: float, y: float, img: str,
all_groups: typing.Dict[str, pg.sprite.Group]):
"""Initializes the tank's sprite with no barrels to shoot from.
:param x: x coordinate for centering the sprite's position.
:param y: y coordinate for centering the sprite's position.
:param img: filename for the sprite's tank image.
:param all_groups: A dictionary of all of the game world's sprite groups.
"""
self._layer = cfg.TANK_LAYER
BaseSprite.__init__(self, img, all_groups, all_groups['all'],
all_groups['tanks'], all_groups['damageable'])
MoveNonlinearMixin.__init__(self, x, y)
RotateMixin.__init__(self)
DamageMixin.__init__(self, self.hit_rect)
self.rect.center = (x, y)
self.MAX_ACCELERATION = 768
self._barrels = []
self._items = []
self._track_timer = Timer()
def text_detect(text_detector, im, img_type):
if img_type == "others":
return [], 0
im_small, f = resize_im(im, Config.SCALE, Config.MAX_SCALE)
timer = Timer()
timer.tic()
text_lines = text_detector.detect(im_small)
text_lines = text_lines / f # project back to size of original image
text_lines = refine_boxes(im, text_lines, expand_pixel_len = Config.DILATE_PIXEL,
pixel_blank = Config.BREATH_PIXEL, binary_thresh=Config.BINARY_THRESH)
text_area_ratio = calc_area_ratio(text_lines, im.shape)
print "Number of the detected text lines: %s" % len(text_lines)
print "Detection Time: %f" % timer.toc()
print "~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~"
if Config.DEBUG_SAVE_BOX_IMG:
im_with_text_lines = draw_boxes(im, text_lines, is_display=False, caption=image_path, wait=False)
if im_with_text_lines is not None:
cv2.imwrite(image_path+'_boxes.jpg', im_with_text_lines)
return text_lines, text_area_ratio
def wrapper(self, *args, **kwargs):
timer = Timer()
# before the method call
timer.start()
# the actual method call
result = method(self, *args, **kwargs)
# after the method call
timer.stop(method.__name__)
return result
class AIReloadState(AITurretCtrlState):
""" State class for AITankCtrl for reloading the AI's turret."""
_RELOAD_TIME = 10000
def __init__(self, ai):
AITurretCtrlState.__init__(self, ai)
self._reload_timer = None
def enter(self) -> None:
"""Initiates the reload timer for the AI's turret."""
self._reload_timer = Timer()
def update(self, dt: float) -> None:
"""Switches back to attack state once it's time to reload."""
if self._reload_timer.elapsed() > AIReloadState._RELOAD_TIME:
self._ai.turret.barrel.reload()
self._ai.state = self._ai.attack_state
class MuzzleFlash(BaseSprite, RotateMixin):
"""Sprite that models the flash (or explosion) at the barrel's nozzle upon firing a bullet."""
FLASH_DURATION = 25
IMAGE = 'shotLarge.png'
def __init__(self, x: float, y: float, rot: float, all_groups):
"""Aligns the MuzzleFlash so that it starts at the tip of the Barrel nozzle."""
self._layer = cfg.EFFECTS_LAYER
BaseSprite.__init__(self, MuzzleFlash.IMAGE, all_groups, all_groups['all'])
RotateMixin.__init__(self)
self.rect.center = (x, y)
self.rot = rot
self.rotate()
self._spawn_timer = Timer()
def update(self, dt: float) -> None:
"""Remove the flash from screen after a short duration."""
if self._spawn_timer.elapsed() > MuzzleFlash.FLASH_DURATION:
self.kill()
class Bullet(BaseSprite, MoveMixin):
"""Sprite class that models a Bullet object."""
IMAGE_ROT = 90 # See sprite sheet.
def __init__(self, x: float, y: float, angle: float, color: str,
category: str, owner,
all_groups: typing.Dict[str, pg.sprite.Group]):
"""Creates a bullet object, rotating it to face the correct direction."""
self._layer = cfg.ITEM_LAYER
BaseSprite.__init__(self, _IMAGES[category][color], all_groups,
all_groups['all'], all_groups['bullets'])
MoveMixin.__init__(self, x, y)
self.vel = pg.math.Vector2(_STATS[category]["speed"], 0).rotate(-angle)
self._damage = _STATS[category]["damage"]
self._lifetime = _STATS[category]["lifetime"]
self._spawn_timer = Timer()
self._owner = owner
RotateMixin.rotate_image(self, self.image, angle - Bullet.IMAGE_ROT)
@property
def owner(self):
"""Returns the owner sprite that triggered the creation of this bullet, i.e., a Tank object.
:return: A sprite that triggered the firing of this bullet.
"""
return self._owner
@classmethod
def range(cls, category: str) -> float:
"""Returns the range that this bullet can travel before it vanishes."""
return _STATS[category]["speed"] * (_STATS[category]["lifetime"] /
1000)
@property
def damage(self) -> int:
"""Returns the damage that this bullet can cause upon collision."""
return self._damage
def update(self, dt) -> None:
"""Moves the bullet until it's time for it to disappear."""
if self._spawn_timer.elapsed() > self._lifetime:
self.kill()
else:
self.move(dt)
def train_epoch(self, scaler, epoch, model, dataset, dataloader, optimizer, prefix="train"):
model.train()
_timer = Timer()
lossLogger = LossLogger()
performanceLogger = build_evaluator(self.cfg, dataset)
num_iters = len(dataloader)
for i, sample in enumerate(dataloader):
self.n_iters_elapsed += 1
_timer.tic()
self.run_step(scaler, model, sample, optimizer, lossLogger, performanceLogger, prefix)
torch.cuda.synchronize()
_timer.toc()
if (i + 1) % self.cfg.N_ITERS_TO_DISPLAY_STATUS == 0:
if self.cfg.local_rank == 0:
template = "[epoch {}/{}, iter {}/{}, lr {}] Total train loss: {:.4f} " "(ips = {:.2f})\n" "{}"
logger.info(
template.format(
epoch, self.cfg.N_MAX_EPOCHS - 1, i, num_iters - 1,
round(get_current_lr(optimizer), 6),
lossLogger.meters["loss"].value,
self.batch_size * self.cfg.N_ITERS_TO_DISPLAY_STATUS / _timer.diff,
"\n".join(
["{}: {:.4f}".format(n, l.value) for n, l in lossLogger.meters.items() if n != "loss"]),
)
)
if self.cfg.TENSORBOARD and self.cfg.local_rank == 0:
# Logging train losses
[self.tb_writer.add_scalar(f"loss/{prefix}_{n}", l.global_avg, epoch) for n, l in lossLogger.meters.items()]
performances = performanceLogger.evaluate()
if performances is not None and len(performances):
[self.tb_writer.add_scalar(f"performance/{prefix}_{k}", v, epoch) for k, v in performances.items()]
if self.cfg.TENSORBOARD_WEIGHT and False:
for name, param in model.named_parameters():
layer, attr = os.path.splitext(name)
attr = attr[1:]
self.tb_writer.add_histogram("{}/{}".format(layer, attr), param, epoch)
def evaluate(cfg,
ckpt_dir=None,
use_gpu=False,
use_mpio=False,
multi_scales=False,
flip=False,
**kwargs):
np.set_printoptions(precision=5, suppress=True)
num_classes = cfg.DATASET.NUM_CLASSES
base_size = cfg.TEST.BASE_SIZE
crop_size = cfg.TEST.CROP_SIZE
startup_prog = fluid.Program()
test_prog = fluid.Program()
dataset = build_dataset(cfg.DATASET.DATASET_NAME,
file_list=cfg.DATASET.VAL_FILE_LIST,
mode=ModelPhase.EVAL,
data_dir=cfg.DATASET.DATA_DIR)
def data_generator():
#TODO: check is batch reader compatitable with Windows
if use_mpio:
data_gen = dataset.multiprocess_generator(
num_processes=cfg.DATALOADER.NUM_WORKERS,
max_queue_size=cfg.DATALOADER.BUF_SIZE)
else:
data_gen = dataset.generator()
for b in data_gen:
yield b[0], b[1], b[2]
py_reader, avg_loss, out, grts, masks = build_model(test_prog,
startup_prog,
phase=ModelPhase.EVAL)
py_reader.decorate_sample_generator(data_generator,
drop_last=False,
batch_size=cfg.EVAL_BATCH_SIZE,
places=fluid.cuda_places())
# Get device environment
places = fluid.cuda_places() if use_gpu else fluid.cpu_places()
place = places[0]
dev_count = len(places)
print("#Device count: {}".format(dev_count))
exe = fluid.Executor(place)
exe.run(startup_prog)
test_prog = test_prog.clone(for_test=True)
ckpt_dir = cfg.TEST.TEST_MODEL if not ckpt_dir else ckpt_dir
if ckpt_dir is not None:
filename = '{}_{}_{}_epoch_{}.pdparams'.format(
str(cfg.MODEL.MODEL_NAME), str(cfg.MODEL.BACKBONE),
str(cfg.DATASET.DATASET_NAME), cfg.SOLVER.NUM_EPOCHS)
print("loading testing model file: {}/{}".format(ckpt_dir, filename))
fluid.io.load_params(exe,
ckpt_dir,
main_program=test_prog,
filename=filename)
# Use streaming confusion matrix to calculate mean_iou
np.set_printoptions(precision=4,
suppress=True,
linewidth=160,
floatmode="fixed")
conf_mat = ConfusionMatrix(cfg.DATASET.NUM_CLASSES, streaming=True)
#fetch_list: return of the model
fetch_list = [avg_loss.name, out.name]
num_images = 0
step = 0
all_step = cfg.DATASET.VAL_TOTAL_IMAGES // cfg.EVAL_BATCH_SIZE
timer = Timer()
timer.start()
for data in py_reader():
mask = np.array(data[0]['mask'])
label = np.array(data[0]['label'])
image_org = np.array(data[0]['image'])
image = np.transpose(image_org, (0, 2, 3, 1)) # BCHW->BHWC
image = np.squeeze(image)
if cfg.TEST.SLIDE_WINDOW:
if not multi_scales:
scales = [1.0]
else:
scales = [0.5, 0.75, 1.0, 1.25, 1.5, 1.75, 2.0, 2.25
] if cfg.DATASET.DATASET_NAME == 'cityscapes' else [
0.5, 0.75, 1.0, 1.25, 1.5, 1.75
]
#scales = [0.75, 1.0, 1.25] # fast multi-scale testing
#strides
stride = int(crop_size * 1.0 /
3) # 1/3 > 2/3 > 1/2 for input_size: 769 x 769
h, w = image.shape[0:2]
scores = np.zeros(shape=[num_classes, h, w], dtype='float32')
for scale in scales:
long_size = int(math.ceil(base_size * scale))
if h > w:
height = long_size
width = int(1.0 * w * long_size / h + 0.5)
short_size = width
else:
width = long_size
height = int(1.0 * h * long_size / w + 0.5)
short_size = height
# print('org_img_size: {}x{}, rescale_img_size: {}x{}'.format(h, w, height, width))
cur_img = image_resize(image, height, width)
# pading
if long_size <= crop_size:
pad_img = pad_single_image(cur_img, crop_size)
label_feed, mask_feed = get_feed(pad_img)
pad_img = mapper_image(pad_img)
loss, pred1 = exe.run(test_prog,
feed={
'image': pad_img,
'label': label_feed,
'mask': mask_feed
},
fetch_list=fetch_list,
return_numpy=True)
pred1 = np.array(pred1)
outputs = pred1[:, :, :height, :width]
if flip:
pad_img_flip = flip_left_right_image(cur_img)
pad_img_flip = pad_single_image(
pad_img_flip, crop_size)
label_feed, mask_feed = get_feed(pad_img_flip)
pad_img_flip = mapper_image(pad_img_flip)
loss, pred1 = exe.run(test_prog,
feed={
'image': pad_img_flip,
'label': label_feed,
'mask': mask_feed
},
fetch_list=fetch_list,
return_numpy=True)
pred1 = np.flip(pred1, 3)
outputs += pred1[:, :, :height, :width]
else:
if short_size < crop_size:
pad_img = pad_single_image(cur_img, crop_size)
else:
pad_img = cur_img
ph, pw = pad_img.shape[0:2]
#slid window
h_grids = int(math.ceil(1.0 *
(ph - crop_size) / stride)) + 1
w_grids = int(math.ceil(1.0 *
(pw - crop_size) / stride)) + 1
outputs = np.zeros(shape=[1, num_classes, ph, pw],
dtype='float32')
count_norm = np.zeros(shape=[1, 1, ph, pw], dtype='int32')
for idh in range(h_grids):
for idw in range(w_grids):
h0 = idh * stride
w0 = idw * stride
h1 = min(h0 + crop_size, ph)
w1 = min(w0 + crop_size, pw)
#print('(h0,w0,h1,w1):({},{},{},{})'.format(h0, w0, h1, w1))
crop_img = crop_image(pad_img, h0, w0, h1, w1)
pad_crop_img = pad_single_image(
crop_img, crop_size)
label_feed, mask_feed = get_feed(pad_crop_img)
pad_crop_img = mapper_image(pad_crop_img)
loss, pred1 = exe.run(test_prog,
feed={
'image': pad_crop_img,
'label': label_feed,
'mask': mask_feed
},
fetch_list=fetch_list,
return_numpy=True)
pred1 = np.array(pred1)
outputs[:, :, h0:h1,
w0:w1] += pred1[:, :, 0:h1 - h0, 0:w1 - w0]
count_norm[:, :, h0:h1, w0:w1] += 1
if flip:
pad_img_flip = flip_left_right_image(crop_img)
pad_img_flip = pad_single_image(
pad_img_flip, crop_size)
label_feed, mask_feed = get_feed(pad_img_flip)
pad_img_flip = mapper_image(pad_img_flip)
loss, pred1 = exe.run(test_prog,
feed={
'image':
pad_img_flip,
'label': label_feed,
'mask': mask_feed
},
fetch_list=fetch_list,
return_numpy=True)
pred1 = np.flip(pred1, 3)
outputs[:, :, h0:h1,
w0:w1] += pred1[:, :, 0:h1 - h0,
0:w1 - w0]
count_norm[:, :, h0:h1, w0:w1] += 1
outputs = 1.0 * outputs / count_norm
outputs = outputs[:, :, :height, :width]
with fluid.dygraph.guard():
outputs = fluid.dygraph.to_variable(outputs)
outputs = fluid.layers.resize_bilinear(outputs,
out_shape=[h, w])
score = outputs.numpy()[0]
scores += score
else:
# taking the original image as the model input
loss, pred = exe.run(test_prog,
feed={
'image': image_org,
'label': label,
'mask': mask
},
fetch_list=fetch_list,
return_numpy=True)
scores = pred[0]
# computing IoU with all scale result
pred = np.argmax(scores, axis=0).astype('int64')
pred = pred[np.newaxis, :, :, np.newaxis]
step += 1
num_images += pred.shape[0]
conf_mat.calculate(pred, label, mask)
_, iou = conf_mat.mean_iou()
_, acc = conf_mat.accuracy()
print("[EVAL] step={}/{} acc={:.4f} IoU={:.4f}".format(
step, all_step, acc, iou))
category_iou, avg_iou = conf_mat.mean_iou()
category_acc, avg_acc = conf_mat.accuracy()
print("[EVAL] #image={} acc={:.4f} IoU={:.4f}".format(
num_images, avg_acc, avg_iou))
print("[EVAL] Category IoU:", category_iou)
print("[EVAL] Category Acc:", category_acc)
print("[EVAL] Kappa:{:.4f}".format(conf_mat.kappa()))
print("flip = ", flip)
print("scales = ", scales)
return category_iou, avg_iou, category_acc, avg_acc
class Tank(BaseSprite, MoveNonlinearMixin, RotateMixin, DamageMixin):
"""Sprite class that models a Tank object."""
KNOCK_BACK = 100
_SPEED_CUTOFF = 100
_TRACK_DELAY = 100
BIG = "big"
LARGE = "large"
HUGE = "huge"
def __init__(self, x: float, y: float, img: str,
all_groups: typing.Dict[str, pg.sprite.Group]):
"""Initializes the tank's sprite with no barrels to shoot from.
:param x: x coordinate for centering the sprite's position.
:param y: y coordinate for centering the sprite's position.
:param img: filename for the sprite's tank image.
:param all_groups: A dictionary of all of the game world's sprite groups.
"""
self._layer = cfg.TANK_LAYER
BaseSprite.__init__(self, img, all_groups, all_groups['all'],
all_groups['tanks'], all_groups['damageable'])
MoveNonlinearMixin.__init__(self, x, y)
RotateMixin.__init__(self)
DamageMixin.__init__(self, self.hit_rect)
self.rect.center = (x, y)
self.MAX_ACCELERATION = 768
self._barrels = []
self._items = []
self._track_timer = Timer()
def update(self, dt: float) -> None:
"""Rotates, moves, and handles any active in-game items that have some effect.
:param dt: Time elapsed since the tank's last update.
:return: None
"""
self.rotate(dt)
self.move(dt)
for item in self._items:
if item.effect_subsided():
item.remove_effect(self)
self._items.remove(item)
if self.vel.length_squared(
) > Tank._SPEED_CUTOFF and self._track_timer.elapsed(
) > Tank._TRACK_DELAY:
self._spawn_tracks()
@property
def range(self) -> float:
"""The shooting distance of the tank, as given by the tank's barrels."""
return self._barrels[0].range
@property
def color(self) -> str:
"""Returns a string representing the color of one of the tank's barrels."""
return self._barrels[0].color
def pickup(self, item) -> None:
"""Activates an item that this Tank object has picked up (collided with) and saves it.
:param item: Item sprite that can be used to apply an effect on the Tank object.
:return: None
"""
item.activate(self)
self._items.append(item)
def equip_barrel(self, barrel: Barrel) -> None:
"""Equips a new barrel to this tank."""
self._barrels.append(barrel)
def _spawn_tracks(self) -> None:
"""Spawns track sprites as the tank object moves around the map."""
Tracks(*self.pos, self.hit_rect.height, self.hit_rect.height, self.rot,
self.all_groups)
self._track_timer.restart()
def rotate_barrel(self, aim_direction: float):
"""Rotates the all of the tank's barrels in a direction indicated by aim_direction."""
for barrel in self._barrels:
barrel.rot = aim_direction
barrel.rotate()
def ammo_count(self) -> int:
"""Returns the ammo count of the tank's barrels."""
return self._barrels[0].ammo_count
def fire(self) -> None:
"""Fires a bullet from the Tank's barrels."""
for barrel in self._barrels:
barrel.fire()
def reload(self) -> None:
"""Reloads bullets for each of the bullets."""
for barrel in self._barrels:
barrel.reload()
def kill(self) -> None:
"""Removes this sprite and its barrels from all sprite groups."""
for barrel in self._barrels:
barrel.kill()
for item in self._items:
item.kill()
super().kill()
@classmethod
def color_tank(cls, x: float, y: float, color: str, category: str,
groups: typing.Dict[str, pg.sprite.Group]):
"""Factory method for creating Tank objects."""
tank = cls(x, y, f"tankBody_{color}_outline.png", groups)
offset = pg.math.Vector2(tank.hit_rect.height // 3, 0)
barrel = Barrel.create_color_barrel(tank, offset, color.capitalize(),
category, groups)
tank.equip_barrel(barrel)
return tank
@classmethod
def enemy(cls, x: float, y: float, size: str,
groups: typing.Dict[str, pg.sprite.Group]) -> 'Tank':
"""Returns a enemy tank class depending on the size parameter."""
if size == cls.BIG:
return cls.big_tank(x, y, groups)
elif size == cls.LARGE:
return cls.large_tank(x, y, groups)
elif size == cls.HUGE:
return cls.huge_tank(x, y, groups)
raise ValueError(f"Invalid size attribute: {size}")
@classmethod
def big_tank(cls, x: float, y: float,
groups: typing.Dict[str, pg.sprite.Group]) -> 'Tank':
"""Returns the a 'big' enemy tank."""
tank = cls(x, y, "tankBody_bigRed.png", groups)
for y_offset in (-10, 10):
barrel = Barrel.create_special(tank,
pg.math.Vector2(0, y_offset),
"Dark",
groups,
special=1)
tank.equip_barrel(barrel)
return tank
@classmethod
def large_tank(cls, x: float, y: float,
groups: typing.Dict[str, pg.sprite.Group]) -> 'Tank':
"""Returns the a 'large' enemy tank."""
tank = cls(x, y, "tankBody_darkLarge.png", groups)
tank.MAX_ACCELERATION *= 0.9
for y_offset in (-10, 10):
barrel = Barrel.create_special(tank,
pg.math.Vector2(0, y_offset),
"Dark",
groups,
special=4)
tank.equip_barrel(barrel)
return tank
@classmethod
def huge_tank(cls, x: float, y: float,
groups: typing.Dict[str, pg.sprite.Group]) -> 'Tank':
"""Returns the a 'huge' enemy tank."""
tank = cls(x, y, "tankBody_huge_outline.png", groups)
tank.MAX_ACCELERATION *= 0.8
for y_offset in (-10, 10):
barrel = Barrel.create_special(tank,
pg.math.Vector2(20, y_offset),
"Dark",
groups,
special=4)
tank.equip_barrel(barrel)
barrel = Barrel.create_special(tank,
pg.math.Vector2(-10, 0),
"Dark",
groups,
special=1)
tank.equip_barrel(barrel)
return tank
def train(cfg):
startup_prog = fluid.Program()
train_prog = fluid.Program()
drop_last = True
dataset = build_dataset(cfg.DATASET.DATASET_NAME,
file_list=cfg.DATASET.TRAIN_FILE_LIST,
mode=ModelPhase.TRAIN,
shuffle=True,
data_dir=cfg.DATASET.DATA_DIR,
base_size= cfg.DATAAUG.BASE_SIZE, crop_size= cfg.DATAAUG.CROP_SIZE, rand_scale=True)
def data_generator():
if args.use_mpio:
data_gen = dataset.multiprocess_generator(
num_processes=cfg.DATALOADER.NUM_WORKERS,
max_queue_size=cfg.DATALOADER.BUF_SIZE)
else:
data_gen = dataset.generator()
batch_data = []
for b in data_gen:
batch_data.append(b)
if len(batch_data) == (cfg.TRAIN_BATCH_SIZE // cfg.NUM_TRAINERS):
for item in batch_data:
yield item[0], item[1], item[2]
batch_data = []
# If use sync batch norm strategy, drop last batch if number of samples
# in batch_data is less then cfg.BATCH_SIZE to avoid NCCL hang issues
if not cfg.TRAIN.SYNC_BATCH_NORM:
for item in batch_data:
yield item[0], item[1], item[2]
# Get device environment
gpu_id = int(os.environ.get('FLAGS_selected_gpus', 0))
place = fluid.CUDAPlace(gpu_id) if args.use_gpu else fluid.CPUPlace()
places = fluid.cuda_places() if args.use_gpu else fluid.cpu_places()
# Get number of GPU
dev_count = cfg.NUM_TRAINERS if cfg.NUM_TRAINERS > 1 else len(places)
print_info("#device count: {}".format(dev_count))
cfg.TRAIN_BATCH_SIZE = dev_count * int(cfg.TRAIN_BATCH_SIZE_PER_GPU)
print_info("#train_batch_size: {}".format(cfg.TRAIN_BATCH_SIZE))
print_info("#batch_size_per_dev: {}".format(cfg.TRAIN_BATCH_SIZE_PER_GPU))
py_reader, avg_loss, lr, pred, grts, masks = build_model(
train_prog, startup_prog, phase=ModelPhase.TRAIN)
py_reader.decorate_sample_generator(
data_generator, batch_size=cfg.TRAIN_BATCH_SIZE_PER_GPU, drop_last=drop_last)
exe = fluid.Executor(place)
exe.run(startup_prog)
exec_strategy = fluid.ExecutionStrategy()
# Clear temporary variables every 100 iteration
if args.use_gpu:
exec_strategy.num_threads = fluid.core.get_cuda_device_count()
exec_strategy.num_iteration_per_drop_scope = 100
build_strategy = fluid.BuildStrategy()
if cfg.NUM_TRAINERS > 1 and args.use_gpu:
dist_utils.prepare_for_multi_process(exe, build_strategy, train_prog)
exec_strategy.num_threads = 1
if cfg.TRAIN.SYNC_BATCH_NORM and args.use_gpu:
if dev_count > 1:
# Apply sync batch norm strategy
print_info("Sync BatchNorm strategy is effective.")
build_strategy.sync_batch_norm = True
else:
print_info(
"Sync BatchNorm strategy will not be effective if GPU device"
" count <= 1")
compiled_train_prog = fluid.CompiledProgram(train_prog).with_data_parallel(
loss_name=avg_loss.name,
exec_strategy=exec_strategy,
build_strategy=build_strategy)
# Resume training
begin_epoch = cfg.SOLVER.BEGIN_EPOCH
if cfg.TRAIN.RESUME_MODEL_DIR:
begin_epoch = load_checkpoint(exe, train_prog)
# Load pretrained model
elif os.path.exists(cfg.TRAIN.PRETRAINED_MODEL_DIR):
print_info('Pretrained model dir: ', cfg.TRAIN.PRETRAINED_MODEL_DIR)
load_vars = []
load_fail_vars = []
def var_shape_matched(var, shape):
"""
Check whehter persitable variable shape is match with current network
"""
var_exist = os.path.exists(
os.path.join(cfg.TRAIN.PRETRAINED_MODEL_DIR, var.name))
if var_exist:
var_shape = parse_shape_from_file(
os.path.join(cfg.TRAIN.PRETRAINED_MODEL_DIR, var.name))
return var_shape == shape
return False
for x in train_prog.list_vars():
if isinstance(x, fluid.framework.Parameter):
shape = tuple(fluid.global_scope().find_var(
x.name).get_tensor().shape())
if var_shape_matched(x, shape):
load_vars.append(x)
else:
load_fail_vars.append(x)
fluid.io.load_vars(
exe, dirname=cfg.TRAIN.PRETRAINED_MODEL_DIR, vars=load_vars)
for var in load_vars:
print_info("Parameter[{}] loaded sucessfully!".format(var.name))
for var in load_fail_vars:
print_info(
"Parameter[{}] don't exist or shape does not match current network, skip"
" to load it.".format(var.name))
print_info("{}/{} pretrained parameters loaded successfully!".format(
len(load_vars),
len(load_vars) + len(load_fail_vars)))
else:
print_info(
'Pretrained model dir {} not exists, training from scratch...'.
format(cfg.TRAIN.PRETRAINED_MODEL_DIR))
fetch_list = [avg_loss.name, lr.name]
if args.debug:
# Fetch more variable info and use streaming confusion matrix to
# calculate IoU results if in debug mode
np.set_printoptions(
precision=4, suppress=True, linewidth=160, floatmode="fixed")
fetch_list.extend([pred.name, grts.name, masks.name])
cm = ConfusionMatrix(cfg.DATASET.NUM_CLASSES, streaming=True)
if args.use_vdl:
if not args.vdl_log_dir:
print_info("Please specify the log directory by --vdl_log_dir.")
exit(1)
from visualdl import LogWriter
log_writer = LogWriter(args.vdl_log_dir)
# trainer_id = int(os.getenv("PADDLE_TRAINER_ID", 0))
# num_trainers = int(os.environ.get('PADDLE_TRAINERS_NUM', 1))
step = 0
all_step = cfg.DATASET.TRAIN_TOTAL_IMAGES // cfg.TRAIN_BATCH_SIZE
if cfg.DATASET.TRAIN_TOTAL_IMAGES % cfg.TRAIN_BATCH_SIZE and drop_last != True:
all_step += 1
all_step *= (cfg.SOLVER.NUM_EPOCHS - begin_epoch + 1)
avg_loss = 0.0
timer = Timer()
timer.start()
if begin_epoch > cfg.SOLVER.NUM_EPOCHS:
raise ValueError(
("begin epoch[{}] is larger than cfg.SOLVER.NUM_EPOCHS[{}]").format(
begin_epoch, cfg.SOLVER.NUM_EPOCHS))
if args.use_mpio:
print_info("Use multiprocess reader")
else:
print_info("Use multi-thread reader")
for epoch in range(begin_epoch, cfg.SOLVER.NUM_EPOCHS + 1):
py_reader.start()
while True:
try:
if args.debug:
# Print category IoU and accuracy to check whether the
# traning process is corresponed to expectation
loss, lr, pred, grts, masks = exe.run(
program=compiled_train_prog,
fetch_list=fetch_list,
return_numpy=True)
cm.calculate(pred, grts, masks)
avg_loss += np.mean(np.array(loss))
step += 1
if step % args.log_steps == 0:
speed = args.log_steps / timer.elapsed_time()
avg_loss /= args.log_steps
category_acc, mean_acc = cm.accuracy()
category_iou, mean_iou = cm.mean_iou()
print_info((
"epoch={}/{} step={}/{} lr={:.5f} loss={:.4f} acc={:.5f} mIoU={:.5f} step/sec={:.3f} | ETA {}"
).format(epoch, cfg.SOLVER.NUM_EPOCHS, step, all_step, lr[0], avg_loss, mean_acc,
mean_iou, speed,
calculate_eta(all_step - step, speed)))
print_info("Category IoU: ", category_iou)
print_info("Category Acc: ", category_acc)
if args.use_vdl:
log_writer.add_scalar('Train/mean_iou', mean_iou,
step)
log_writer.add_scalar('Train/mean_acc', mean_acc,
step)
log_writer.add_scalar('Train/loss', avg_loss,
step)
log_writer.add_scalar('Train/lr', lr[0],
step)
log_writer.add_scalar('Train/step/sec', speed,
step)
sys.stdout.flush()
avg_loss = 0.0
cm.zero_matrix()
timer.restart()
else:
# If not in debug mode, avoid unnessary log and calculate
loss, lr = exe.run(
program=compiled_train_prog,
fetch_list=fetch_list,
return_numpy=True)
avg_loss += np.mean(np.array(loss))
step += 1
if step % args.log_steps == 0 and cfg.TRAINER_ID == 0:
avg_loss /= args.log_steps
speed = args.log_steps / timer.elapsed_time()
print((
"epoch={}/{} step={}/{} lr={:.5f} loss={:.4f} step/sec={:.3f} | ETA {}"
).format(epoch, cfg.SOLVER.NUM_EPOCHS, global_step, all_step, lr[0], avg_loss, speed,
calculate_eta(all_step - global_step, speed)))
if args.use_vdl:
log_writer.add_scalar('Train/loss', avg_loss,
step)
log_writer.add_scalar('Train/lr', lr[0],
step)
log_writer.add_scalar('Train/speed', speed,
step)
sys.stdout.flush()
avg_loss = 0.0
timer.restart()
except fluid.core.EOFException:
py_reader.reset()
break
except Exception as e:
print(e)
if epoch % cfg.TRAIN.SNAPSHOT_EPOCH == 0 and cfg.TRAINER_ID == 0:
ckpt_dir = save_checkpoint(exe, train_prog, epoch)
if args.do_eval:
print("Evaluation start")
_, mean_iou, _, mean_acc = evaluate(
cfg=cfg,
ckpt_dir=ckpt_dir,
use_gpu=args.use_gpu,
use_mpio=args.use_mpio)
if args.use_vdl:
log_writer.add_scalar('Evaluate/mean_iou', mean_iou,
step)
log_writer.add_scalar('Evaluate/mean_acc', mean_acc,
step)
# Use VisualDL to visualize results
if args.use_vdl and cfg.DATASET.VIS_FILE_LIST is not None:
visualize(
cfg=cfg,
use_gpu=args.use_gpu,
vis_file_list=cfg.DATASET.VIS_FILE_LIST,
vis_dir="visual",
ckpt_dir=ckpt_dir,
log_writer=log_writer)
# save final model
if cfg.TRAINER_ID == 0:
save_checkpoint(exe, train_prog, 'final')
if args.use_vdl:
log_writer.close()
NET_DEF_FILE = "models/deploy.prototxt"
MODEL_FILE = "models/ctpn_trained_model.caffemodel"
if len(sys.argv) > 1 and sys.argv[1] == "--no-gpu":
caffe.set_mode_cpu()
else:
caffe.set_mode_gpu()
caffe.set_device(cfg.TEST_GPU_ID)
# initialize the detectors
text_proposals_detector = TextProposalDetector(
CaffeModel(NET_DEF_FILE, MODEL_FILE))
text_detector = TextDetector(text_proposals_detector)
demo_imnames = os.listdir(DEMO_IMAGE_DIR)
timer = Timer()
for im_name in demo_imnames:
print "~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~"
print "Image: %s" % im_name
im_file = osp.join(DEMO_IMAGE_DIR, im_name)
im = cv2.imread(im_file)
timer.tic()
im, f = resize_im(im, cfg.SCALE, cfg.MAX_SCALE)
text_lines = text_detector.detect(im)
print "Number of the detected text lines: %s" % len(text_lines)
print "Time: %f" % timer.toc()
def train_epoch(self,
scaler,
epoch,
model,
dataloader,
optimizer,
prefix="train"):
model.train()
_timer = Timer()
lossLogger = LossLogger()
performanceLogger = MetricLogger(self.dictionary, self.cfg)
for i, sample in enumerate(dataloader):
imgs, targets = sample['image'], sample['target']
_timer.tic()
# zero the parameter gradients
optimizer.zero_grad()
imgs = list(
img.cuda()
for img in imgs) if isinstance(imgs, list) else imgs.cuda()
if isinstance(targets, list):
if isinstance(targets[0], torch.Tensor):
targets = [t.cuda() for t in targets]
else:
targets = [{k: v.cuda()
for k, v in t.items()} for t in targets]
else:
targets = targets.cuda()
# Autocast
with amp.autocast(enabled=True):
out = model(imgs, targets, prefix)
if not isinstance(out, tuple):
losses, predicts = out, None
else:
losses, predicts = out
self.n_iters_elapsed += 1
# Scales loss. Calls backward() on scaled loss to create scaled gradients.
# Backward passes under autocast are not recommended.
# Backward ops run in the same dtype autocast chose for corresponding forward ops.
scaler.scale(losses["loss"]).backward()
# scaler.step() first unscales the gradients of the optimizer's assigned params.
# If these gradients do not contain infs or NaNs, optimizer.step() is then called,
# otherwise, optimizer.step() is skipped.
scaler.step(optimizer)
# Updates the scale for next iteration.
scaler.update()
# torch.cuda.synchronize()
_timer.toc()
if (i + 1) % self.cfg.N_ITERS_TO_DISPLAY_STATUS == 0:
if self.cfg.distributed:
# reduce losses over all GPUs for logging purposes
loss_dict_reduced = reduce_dict(losses)
lossLogger.update(**loss_dict_reduced)
del loss_dict_reduced
else:
lossLogger.update(**losses)
if predicts is not None:
if self.cfg.distributed:
# reduce performances over all GPUs for logging purposes
predicts_dict_reduced = reduce_dict(predicts)
performanceLogger.update(targets,
predicts_dict_reduced)
del predicts_dict_reduced
else:
performanceLogger.update(**predicts)
del predicts
if self.cfg.local_rank == 0:
template = "[epoch {}/{}, iter {}, lr {}] Total train loss: {:.4f} " "(ips = {:.2f})\n" "{}"
logger.info(
template.format(
epoch,
self.cfg.N_MAX_EPOCHS,
i,
round(get_current_lr(optimizer), 6),
lossLogger.meters["loss"].value,
self.batch_size *
self.cfg.N_ITERS_TO_DISPLAY_STATUS / _timer.diff,
"\n".join([
"{}: {:.4f}".format(n, l.value)
for n, l in lossLogger.meters.items()
if n != "loss"
]),
))
del imgs, targets, losses
if self.cfg.TENSORBOARD and self.cfg.local_rank == 0:
# Logging train losses
[
self.tb_writer.add_scalar(f"loss/{prefix}_{n}", l.global_avg,
epoch)
for n, l in lossLogger.meters.items()
]
performances = performanceLogger.compute()
if len(performances):
[
self.tb_writer.add_scalar(f"performance/{prefix}_{k}", v,
epoch)
for k, v in performances.items()
]
if self.cfg.TENSORBOARD_WEIGHT and False:
for name, param in model.named_parameters():
layer, attr = os.path.splitext(name)
attr = attr[1:]
self.tb_writer.add_histogram("{}/{}".format(layer, attr),
param, epoch)
def train_epoch(self,
epoch,
model,
dataloader,
optimizer,
lr_scheduler,
grad_normalizer=None,
prefix="train"):
model.train()
_timer = Timer()
lossMeter = LossMeter()
perfMeter = PerfMeter()
for i, (imgs, labels) in enumerate(dataloader):
_timer.tic()
# zero the parameter gradients
optimizer.zero_grad()
if self.cfg.HALF:
imgs = imgs.half()
if len(self.device) > 1:
out = data_parallel(model, (imgs, labels, prefix),
device_ids=self.device,
output_device=self.device[0])
else:
imgs = imgs.cuda()
labels = [label.cuda() for label in labels] if isinstance(
labels, list) else labels.cuda()
out = model(imgs, labels, prefix)
if not isinstance(out, tuple):
losses, performances = out, None
else:
losses, performances = out
if losses["all_loss"].sum().requires_grad:
if self.cfg.GRADNORM is not None:
grad_normalizer.adjust_losses(losses)
grad_normalizer.adjust_grad(model, losses)
else:
losses["all_loss"].sum().backward()
optimizer.step()
self.n_iters_elapsed += 1
_timer.toc()
lossMeter.__add__(losses)
if performances is not None and all(performances):
perfMeter.put(performances)
if (i + 1) % self.cfg.N_ITERS_TO_DISPLAY_STATUS == 0:
avg_losses = lossMeter.average()
template = "[epoch {}/{}, iter {}, lr {}] Total train loss: {:.4f} " "(ips = {:.2f} )\n" "{}"
self.logger.info(
template.format(
epoch,
self.cfg.N_MAX_EPOCHS,
i,
round(get_current_lr(optimizer), 6),
avg_losses["all_loss"],
self.batch_size * self.cfg.N_ITERS_TO_DISPLAY_STATUS /
_timer.total_time,
"\n".join([
"{}: {:.4f}".format(n, l)
for n, l in avg_losses.items() if n != "all_loss"
]),
))
if self.cfg.TENSORBOARD:
tb_step = int((epoch * self.n_steps_per_epoch + i) /
self.cfg.N_ITERS_TO_DISPLAY_STATUS)
# Logging train losses
[
self.tb_writer.add_scalar(f"loss/{prefix}_{n}", l,
tb_step)
for n, l in avg_losses.items()
]
lossMeter.clear()
del imgs, labels, losses, performances
lr_scheduler.step()
if self.cfg.TENSORBOARD and len(perfMeter):
avg_perf = perfMeter.average()
[
self.tb_writer.add_scalar(f"performance/{prefix}_{k}", v,
epoch) for k, v in avg_perf.items()
]
if self.cfg.TENSORBOARD_WEIGHT and False:
for name, param in model.named_parameters():
layer, attr = os.path.splitext(name)
attr = attr[1:]
self.tb_writer.add_histogram("{}/{}".format(layer, attr),
param, epoch)
def hit_remove(self, json_body, secret_access=None):
self.headers['X-Secret-Access'] = secret_access
with Timer('/remove'):
response = requests.post(self.endpoint, data=json_body, headers=self.headers, timeout=self.timeout)
return response
class Barrel(BaseSprite, RotateMixin):
"""Sprite class that models a Barrel object."""
_FIRE_SFX = 'shoot.wav'
def __init__(self, tank, offset: pg.math.Vector2, image: str, color: str,
category: str, all_groups: typing.Dict[str, pg.sprite.Group]):
"""Fills up the Barrel's ammo and centers its position on its parent."""
self._layer = cfg.BARREL_LAYER
BaseSprite.__init__(self, image, all_groups, all_groups['all'])
RotateMixin.__init__(self)
# Bullet parameters.
self._category = category
self._color = color
self._ammo_count = _STATS[self._category]["max_ammo"]
# Parameters used for barrel position.
self._parent = tank
self.rect.center = tank.rect.center
self._offset = offset
self._fire_delay = _STATS[self._category]["fire_delay"]
self._fire_timer = Timer()
@property
def color(self) -> str:
"""Returns a string representing the barrel's color."""
return self._color
@property
def ammo_count(self) -> int:
"""Returns the current ammo count for this barrel."""
return self._ammo_count
@property
def range(self) -> float:
"""Returns the fire range of the barrel."""
return Bullet.range(self._category)
@property
def fire_delay(self) -> float:
"""Returns the number of milliseconds until barrel can fire again."""
return self._fire_delay
def update(self, dt: float) -> None:
"""Updates the barrel's position by centering on the parent's position (accounting for the offset)."""
vec = self._offset.rotate(-self.rot)
self.rect.centerx = self._parent.rect.centerx + vec.x
self.rect.centery = self._parent.rect.centery + vec.y
def fire(self) -> None:
"""Fires a Bullet if enough time has passed and if there's ammo."""
if self._ammo_count > 0 and self._fire_timer.elapsed() > self._fire_delay:
self._spawn_bullet()
sfx_loader.play(Barrel._FIRE_SFX)
self._fire_timer.restart()
def _spawn_bullet(self) -> None:
"""Spawns a Bullet object from the Barrel's nozzle."""
fire_pos = pg.math.Vector2(self.hit_rect.height, 0).rotate(-self.rot)
fire_pos.xy += self.rect.center
Bullet(fire_pos.x, fire_pos.y, self.rot, self._color, self._category, self._parent, self.all_groups)
MuzzleFlash(*fire_pos, self.rot, self.all_groups)
self._ammo_count -= 1
def reload(self) -> None:
"""Reloads the Barrel to have maximum ammo"""
self._ammo_count = _STATS[self._category]["max_ammo"]
def kill(self) -> None:
self._parent = None
super().kill()
@classmethod
def create_color_barrel(cls, tank, offset: pg.math.Vector2, color: str, category: str,
groups: typing.Dict[str, pg.sprite.Group]) -> 'Barrel':
"""Creates a color barrel object."""
return cls(tank, offset, f"tank{color.capitalize()}_barrel{cfg.CATEGORY[category]}.png", color, category, groups)
@classmethod
def create_special(cls, tank, offset: pg.math.Vector2, color: str,
all_groups: typing.Dict[str, pg.sprite.Group], special) -> 'Barrel':
"""Creates a special barrel object."""
barrel = cls(tank, offset, f"specialBarrel{special}.png", color, "standard", all_groups)
helpers.flip(barrel, orig_image=barrel.image, x_reflect=True, y_reflect=False)
return barrel
def enter(self) -> None:
"""Initiates the reload timer for the AI's turret."""
self._reload_timer = Timer()
class Level:
"""Class that creates, draws, and updates the game world, including the map and all sprites."""
_ITEM_RESPAWN_TIME = 30000 # 1 minute.
def __init__(self, level_file: str):
"""Creates a map and creates all of the sprites in it.
:param level_file: Filename of level file to load from the configuration file's map folder.
"""
# Create the tiled map surface.
map_loader = TiledMapLoader(level_file)
self.image = map_loader.make_map()
self.rect = self.image.get_rect()
self._groups = {
'all': pg.sprite.LayeredUpdates(),
'tanks': pg.sprite.Group(),
'damageable': pg.sprite.Group(),
'bullets': pg.sprite.Group(),
'obstacles': pg.sprite.Group(),
'items': pg.sprite.Group(),
'item_boxes': pg.sprite.Group()
}
self._player = None
self._camera = None
self._ai_mobs = []
self._item_spawn_positions = []
self._item_spawn_timer = Timer()
# Initialize all sprites in game world.
self._init_sprites(map_loader.tiled_map.objects)
def _init_sprites(self, objects: pytmx.TiledObjectGroup) -> None:
"""Initializes all of the pygame sprites in this level's map.
:param objects: Iterator for accessing the properties of all game objects to be created.
:return: None
Expects to find a single 'player' and 'enemy_tank' object, and possible more than one
of any other object. A sprite is created out of each object and added to the appropriate
group. A boundary for the game world is also created to keep the sprites constrained.
"""
game_objects = {}
for t_obj in objects:
# Expect single enemy tank and multiple of other objects.
if t_obj.name == 'enemy_tank' or t_obj.name == "player":
game_objects[t_obj.name] = t_obj
else:
game_objects.setdefault(t_obj.name, []).append(t_obj)
# Create the player and world camera.
p = game_objects.get('player')
tank = Tank.color_tank(p.x, p.y, p.color, p.category,
self._groups) # Make a tank factory.
self._player = PlayerCtrl(tank)
self._camera = Camera(self.rect.width, self.rect.height,
self._player.tank)
# Spawn single enemy tank.
t = game_objects.get('enemy_tank')
tank = Tank.enemy(t.x, t.y, t.size,
self._groups) # Make a tank factory.
ai_patrol_points = game_objects.get('ai_patrol_point')
ai_boss = AITankCtrl(tank, ai_patrol_points, self._player.tank)
self._ai_mobs.append(ai_boss)
# Spawn turrets.
for t in game_objects.get('turret'):
turret = Turret(t.x, t.y, t.category, t.special, self._groups)
self._ai_mobs.append(
AITurretCtrl(turret, ai_boss, self._player.tank))
# Spawn obstacles that one can collide with.
for tree in game_objects.get('small_tree'):
Tree(tree.x, tree.y, self._groups)
# Spawn items boxes that can be destroyed to get an item.
for box in game_objects.get('box_spawn'):
self._item_spawn_positions.append((box.x, box.y))
ItemBox.spawn(box.x, box.y, self._groups)
# Creates the boundaries of the game world.
BoundaryWall(x=0,
y=0,
width=self.rect.width,
height=1,
all_groups=self._groups) # Top
BoundaryWall(x=0,
y=self.rect.height,
width=self.rect.width,
height=1,
all_groups=self._groups) # Bottom
BoundaryWall(x=0,
y=0,
width=1,
height=self.rect.height,
all_groups=self._groups) # Left
BoundaryWall(x=self.rect.width,
y=0,
width=1,
height=self.rect.height,
all_groups=self._groups) # Right
def _can_spawn_item(self) -> bool:
""""Checks if a new item can be spawned."""
return self._item_spawn_timer.elapsed() > Level._ITEM_RESPAWN_TIME and \
len(self._groups['items']) + len(self._groups['item_boxes']) < len(self._item_spawn_positions)
def is_player_alive(self) -> bool:
"""Checks if the player's tank has been defeated."""
return self._player.tank.alive()
def mob_count(self) -> int:
"""Checks if all the AI mobs have been defeated."""
return len(self._ai_mobs)
def process_inputs(self) -> None:
"""Handles keys and clicks that affect the game world."""
self._player.handle_keys()
# Convert mouse coordinates to world coordinates.
mouse_x, mouse_y = pg.mouse.get_pos()
mouse_world_pos = pg.math.Vector2(mouse_x + self._camera.rect.x,
mouse_y + self._camera.rect.y)
self._player.handle_mouse(mouse_world_pos)
def update(self, dt: float) -> None:
"""Updates the game world's AI, sprites, camera, and resolves collisions.
:param dt: time elapsed since the last update of the game world.
:return: None
"""
for ai in self._ai_mobs:
ai.update(dt)
self._groups['all'].update(dt)
# Update list of ai mobs.
self._camera.update()
game_items_count = len(self._groups['items'])
collision_handler.handle_collisions(self._groups)
if game_items_count > 0 and len(
self._groups['items']) < game_items_count:
self._item_spawn_timer.restart()
# See if it's time to spawn a new item.
if self._can_spawn_item():
available_positions = self._item_spawn_positions.copy()
for x, y in self._item_spawn_positions:
for sprite in self._groups['items']:
if sprite.spawn_pos.x == x and sprite.spawn_pos == y and (
x, y) in available_positions:
available_positions.remove((x, y))
for sprite in self._groups['item_boxes']:
if sprite.rect.center == (x, y) and (
x, y) in available_positions:
available_positions.remove((x, y))
if available_positions:
x, y, = random.choice(available_positions)
ItemBox.spawn(x, y, self._groups)
# Filter out any AIs that have been defeated.
self._ai_mobs = [ai for ai in self._ai_mobs if ai.sprite.alive()]
def draw(self, screen: pg.Surface) -> None:
"""Draws every sprite in the game world, as well as heads-up display elements.
:param screen: The screen surface that the world's elements will be drawn to.
:return: None
"""
# Draw the map.
screen.blit(self.image, self._camera.apply(self.rect))
# Draw all sprites.
for sprite in self._groups['all']:
screen.blit(sprite.image, self._camera.apply(sprite.rect))
# pg.draw.rect(screen, (255, 255, 255), self._camera.apply(sprite.hit_rect), 1)
# Draw HUD.
for ai in self._ai_mobs:
ai.sprite.draw_health(screen, self._camera)
self._player.draw_hud(screen, self._camera)
def eval_model(model,
classes,
bm,
last_epoch=True,
verbose=False,
xls_sheet=None):
print('Start evaluation...')
since = time.time()
device = next(model.parameters()).device
was_training = model.training
model.eval()
dataloaders = []
for cls in classes:
image_dataset = GMDataset(cfg.DATASET_FULL_NAME, bm, cfg.EVAL.SAMPLES,
cfg.PROBLEM.TEST_ALL_GRAPHS, cls,
cfg.PROBLEM.TYPE)
torch.manual_seed(cfg.RANDOM_SEED
) # Fix fetched data in test-set to prevent variance
dataloader = get_dataloader(image_dataset, shuffle=True)
dataloaders.append(dataloader)
recalls = []
precisions = []
f1s = []
coverages = []
pred_time = []
objs = torch.zeros(len(classes), device=device)
cluster_acc = []
cluster_purity = []
cluster_ri = []
timer = Timer()
prediction = []
for i, cls in enumerate(classes):
if verbose:
print('Evaluating class {}: {}/{}'.format(cls, i, len(classes)))
running_since = time.time()
iter_num = 0
pred_time_list = []
obj_total_num = torch.zeros(1, device=device)
cluster_acc_list = []
cluster_purity_list = []
cluster_ri_list = []
prediction_cls = []
for inputs in dataloaders[i]:
if iter_num >= cfg.EVAL.SAMPLES / inputs['batch_size']:
break
if model.module.device != torch.device('cpu'):
inputs = data_to_cuda(inputs)
batch_num = inputs['batch_size']
iter_num = iter_num + 1
with torch.set_grad_enabled(False):
timer.tick()
outputs = model(inputs)
pred_time_list.append(
torch.full((batch_num, ),
timer.toc() / batch_num))
# Evaluate matching accuracy
if cfg.PROBLEM.TYPE == '2GM':
assert 'perm_mat' in outputs
for b in range(outputs['perm_mat'].shape[0]):
perm_mat = outputs['perm_mat'][
b, :outputs['ns'][0][b], :outputs['ns'][1][b]].cpu()
perm_mat = perm_mat.numpy()
eval_dict = dict()
id_pair = inputs['id_list'][0][b], inputs['id_list'][1][b]
eval_dict['ids'] = id_pair
eval_dict['cls'] = cls
eval_dict['perm_mat'] = perm_mat
prediction.append(eval_dict)
prediction_cls.append(eval_dict)
if 'aff_mat' in outputs:
pred_obj_score = objective_score(outputs['perm_mat'],
outputs['aff_mat'])
gt_obj_score = objective_score(outputs['gt_perm_mat'],
outputs['aff_mat'])
objs[i] += torch.sum(pred_obj_score / gt_obj_score)
obj_total_num += batch_num
elif cfg.PROBLEM.TYPE in ['MGM', 'MGM3']:
assert 'graph_indices' in outputs
assert 'perm_mat_list' in outputs
ns = outputs['ns']
idx = -1
for x_pred, (idx_src, idx_tgt) in \
zip(outputs['perm_mat_list'], outputs['graph_indices']):
idx += 1
for b in range(x_pred.shape[0]):
perm_mat = x_pred[
b, :ns[idx_src][b], :ns[idx_tgt][b]].cpu()
perm_mat = perm_mat.numpy()
eval_dict = dict()
id_pair = inputs['id_list'][idx_src][b], inputs[
'id_list'][idx_tgt][b]
eval_dict['ids'] = id_pair
if cfg.PROBLEM.TYPE == 'MGM3':
eval_dict['cls'] = bm.data_dict[id_pair[0]]['cls']
else:
eval_dict['cls'] = cls
eval_dict['perm_mat'] = perm_mat
prediction.append(eval_dict)
prediction_cls.append(eval_dict)
else:
raise ValueError('Unknown problem type {}'.format(
cfg.PROBLEM.TYPE))
# Evaluate clustering accuracy
if cfg.PROBLEM.TYPE == 'MGM3':
assert 'pred_cluster' in outputs
assert 'cls' in outputs
pred_cluster = outputs['pred_cluster']
cls_gt_transpose = [[] for _ in range(batch_num)]
for batched_cls in outputs['cls']:
for b, _cls in enumerate(batched_cls):
cls_gt_transpose[b].append(_cls)
cluster_acc_list.append(
clustering_accuracy(pred_cluster, cls_gt_transpose))
cluster_purity_list.append(
clustering_purity(pred_cluster, cls_gt_transpose))
cluster_ri_list.append(
rand_index(pred_cluster, cls_gt_transpose))
if iter_num % cfg.STATISTIC_STEP == 0 and verbose:
running_speed = cfg.STATISTIC_STEP * batch_num / (
time.time() - running_since)
print('Class {:<8} Iteration {:<4} {:>4.2f}sample/s'.format(
cls, iter_num, running_speed))
running_since = time.time()
objs[i] = objs[i] / obj_total_num
pred_time.append(torch.cat(pred_time_list))
if cfg.PROBLEM.TYPE == 'MGM3':
cluster_acc.append(torch.cat(cluster_acc_list))
cluster_purity.append(torch.cat(cluster_purity_list))
cluster_ri.append(torch.cat(cluster_ri_list))
if verbose:
if cfg.PROBLEM.TYPE != 'MGM3':
bm.eval_cls(prediction_cls, cls, verbose=verbose)
print('Class {} norm obj score = {:.4f}'.format(cls, objs[i]))
print('Class {} pred time = {}s'.format(
cls, format_metric(pred_time[i])))
if cfg.PROBLEM.TYPE == 'MGM3':
print('Class {} cluster acc={}'.format(
cls, format_metric(cluster_acc[i])))
print('Class {} cluster purity={}'.format(
cls, format_metric(cluster_purity[i])))
print('Class {} cluster rand index={}'.format(
cls, format_metric(cluster_ri[i])))
if cfg.PROBLEM.TYPE == 'MGM3':
result = bm.eval(prediction, classes[0], verbose=True)
for cls in classes[0]:
precision = result[cls]['precision']
recall = result[cls]['recall']
f1 = result[cls]['f1']
coverage = result[cls]['coverage']
recalls.append(recall)
precisions.append(precision)
f1s.append(f1)
coverages.append(coverage)
else:
result = bm.eval(prediction, classes, verbose=True)
for cls in classes:
precision = result[cls]['precision']
recall = result[cls]['recall']
f1 = result[cls]['f1']
coverage = result[cls]['coverage']
recalls.append(recall)
precisions.append(precision)
f1s.append(f1)
coverages.append(coverage)
time_elapsed = time.time() - since
print('Evaluation complete in {:.0f}m {:.0f}s'.format(
time_elapsed // 60, time_elapsed % 60))
model.train(mode=was_training)
if xls_sheet:
for idx, cls in enumerate(classes):
xls_sheet.write(0, idx + 1, cls)
xls_sheet.write(0, idx + 2, 'mean')
xls_row = 1
# show result
if xls_sheet:
xls_sheet.write(xls_row, 0, 'precision')
xls_sheet.write(xls_row + 1, 0, 'recall')
xls_sheet.write(xls_row + 2, 0, 'f1')
xls_sheet.write(xls_row + 3, 0, 'coverage')
for idx, (cls, cls_p, cls_r, cls_f1, cls_cvg) in enumerate(
zip(classes, precisions, recalls, f1s, coverages)):
if xls_sheet:
xls_sheet.write(
xls_row, idx + 1,
'{:.4f}'.format(cls_p)) #'{:.4f}'.format(torch.mean(cls_p)))
xls_sheet.write(
xls_row + 1, idx + 1,
'{:.4f}'.format(cls_r)) #'{:.4f}'.format(torch.mean(cls_r)))
xls_sheet.write(
xls_row + 2, idx + 1,
'{:.4f}'.format(cls_f1)) #'{:.4f}'.format(torch.mean(cls_f1)))
xls_sheet.write(xls_row + 3, idx + 1, '{:.4f}'.format(cls_cvg))
if xls_sheet:
xls_sheet.write(xls_row, idx + 2,
'{:.4f}'.format(result['mean']['precision'])
) #'{:.4f}'.format(torch.mean(torch.cat(precisions))))
xls_sheet.write(xls_row + 1, idx + 2, '{:.4f}'.format(
result['mean']
['recall'])) #'{:.4f}'.format(torch.mean(torch.cat(recalls))))
xls_sheet.write(xls_row + 2, idx + 2, '{:.4f}'.format(
result['mean']
['f1'])) #'{:.4f}'.format(torch.mean(torch.cat(f1s))))
xls_row += 4
if not torch.any(torch.isnan(objs)):
print('Normalized objective score')
if xls_sheet: xls_sheet.write(xls_row, 0, 'norm objscore')
for idx, (cls, cls_obj) in enumerate(zip(classes, objs)):
print('{} = {:.4f}'.format(cls, cls_obj))
if xls_sheet:
xls_sheet.write(xls_row, idx + 1,
cls_obj.item()) #'{:.4f}'.format(cls_obj))
print('average objscore = {:.4f}'.format(torch.mean(objs)))
if xls_sheet:
xls_sheet.write(
xls_row, idx + 2,
torch.mean(objs).item()) #'{:.4f}'.format(torch.mean(objs)))
xls_row += 1
if cfg.PROBLEM.TYPE == 'MGM3':
print('Clustering accuracy')
if xls_sheet: xls_sheet.write(xls_row, 0, 'cluster acc')
for idx, (cls, cls_acc) in enumerate(zip(classes, cluster_acc)):
print('{} = {}'.format(cls, format_metric(cls_acc)))
if xls_sheet:
xls_sheet.write(xls_row, idx + 1,
torch.mean(cls_acc).item()
) #'{:.4f}'.format(torch.mean(cls_acc)))
print('average clustering accuracy = {}'.format(
format_metric(torch.cat(cluster_acc))))
if xls_sheet:
xls_sheet.write(
xls_row, idx + 2,
torch.mean(torch.cat(cluster_acc)).item(
)) #'{:.4f}'.format(torch.mean(torch.cat(cluster_acc))))
xls_row += 1
print('Clustering purity')
if xls_sheet: xls_sheet.write(xls_row, 0, 'cluster purity')
for idx, (cls, cls_acc) in enumerate(zip(classes, cluster_purity)):
print('{} = {}'.format(cls, format_metric(cls_acc)))
if xls_sheet:
xls_sheet.write(xls_row, idx + 1,
torch.mean(cls_acc).item()
) #'{:.4f}'.format(torch.mean(cls_acc)))
print('average clustering purity = {}'.format(
format_metric(torch.cat(cluster_purity))))
if xls_sheet:
xls_sheet.write(
xls_row, idx + 2,
torch.mean(torch.cat(cluster_purity)).item(
)) #'{:.4f}'.format(torch.mean(torch.cat(cluster_purity))))
xls_row += 1
print('Clustering rand index')
if xls_sheet: xls_sheet.write(xls_row, 0, 'rand index')
for idx, (cls, cls_acc) in enumerate(zip(classes, cluster_ri)):
print('{} = {}'.format(cls, format_metric(cls_acc)))
if xls_sheet:
xls_sheet.write(xls_row, idx + 1,
torch.mean(cls_acc).item()
) #'{:.4f}'.format(torch.mean(cls_acc)))
print('average rand index = {}'.format(
format_metric(torch.cat(cluster_ri))))
if xls_sheet:
xls_sheet.write(
xls_row, idx + 2,
torch.mean(torch.cat(cluster_ri)).item(
)) #'{:.4f}'.format(torch.mean(torch.cat(cluster_ri))))
xls_row += 1
print('Predict time')
if xls_sheet: xls_sheet.write(xls_row, 0, 'time')
for idx, (cls, cls_time) in enumerate(zip(classes, pred_time)):
print('{} = {}'.format(cls, format_metric(cls_time)))
if xls_sheet:
xls_sheet.write(
xls_row, idx + 1,
torch.mean(
cls_time).item()) #'{:.4f}'.format(torch.mean(cls_time)))
print('average time = {}'.format(format_metric(torch.cat(pred_time))))
if xls_sheet:
xls_sheet.write(xls_row, idx + 2,
torch.mean(torch.cat(pred_time)).item()
) #'{:.4f}'.format(torch.mean(torch.cat(pred_time))))
xls_row += 1
bm.rm_gt_cache(last_epoch=last_epoch)
return torch.Tensor(recalls)
def post():
"""
Main function for /remove endpoint.
:return: JSON response.
"""
correlation_id = str(uuid.uuid4())
image_path = output_image_path = None
try:
body = request.form
with Timer('Validate input data'):
if request.headers.get(
'X-Secret-Access') != env.get_secret_access():
return make_response(correlation_id, True, error_id='003')
if bool('image_url' in body) == bool('image_base64' in body):
return make_response(correlation_id, True, error_id='003')
output_format = body.get('output_format', 'url')
to_remove = body.get('to_remove', 'background')
color_removal = body.get('color_removal', 'transparent')
with Timer('Download image'):
if 'image_url' in body:
image_path = image.download(correlation_id, body['image_url'])
elif 'image_base64' in body:
image_path = image.decode(correlation_id, body['image_base64'])
else:
image_path = None
if not image_path:
return make_response(correlation_id, True, error_id='002')
with Timer('Hit inference module'):
json_body = dict(img=image_path,
to_remove=to_remove,
color_removal=color_removal,
secret_access=env.get_secret_access())
request_headers = dict(Host='inference')
for attempt in range(3):
try:
response = requests.post('http://traefik/predict',
json=json_body,
headers=request_headers)
if response.ok:
response = response.json()
if not response.get('error'):
output_image_path = response.get('img')
break
else:
log.error(
'Error hitting inference module: [{}]'.format(
response.get('message')))
raise ValueError
else:
log.error(
'Error hitting inference module: Status code [{}]'.
format(response.status_code))
raise ValueError
except ValueError:
time.sleep(attempt + 1)
if attempt >= 2:
return make_response(correlation_id,
True,
error_id='001')
with Timer('Prepare response'):
image_url = image_base64 = None
if output_format == 'url':
image_url = image.upload(correlation_id, output_image_path)
else:
image_base64 = image.encode(output_image_path)
if not any([image_url, image_base64]):
return make_response(correlation_id, True, error_id='001')
return make_response(correlation_id,
False,
image_url=image_url,
image_base64=image_base64)
except Exception as e:
log.error('Generic error: [{}]'.format(e))
log.exception(e)
return make_response(correlation_id, True, '001')
finally:
with Timer('Remove input and output images'):
if image_path and os.path.exists(image_path):
os.remove(image_path)
if output_image_path and os.path.exists(output_image_path):
os.remove(output_image_path)
