def mvup(self):
if (globally.matrix[self.x - 2][self.y] == ' '):
self.x -= 2
Movement.move('\u001b[0;32mB\u001b[0m', self.x, self.y)
if (globally.matrix[self.x +
2][self.y] == '\u001b[0;32mB\u001b[0m'):
Clear.clear(self.x + 2, self.y)
def get_manhattan_distance(start_move, instructions, waypoint=False):
northness = 0
eastness = 0
for instruction in instructions:
command = instruction[0]
amount = int(instruction[1:])
if command in ['L', 'R']:
curr_move.rotate(command, amount)
else:
if command == 'F':
change_to_position = curr_move.apply(amount)
else:
if waypoint:
curr_move.modify(Movement.specify(command).apply(amount))
change_to_position = None
else:
change_to_position = Movement.specify(command).apply(
amount)
if change_to_position:
eastness += change_to_position.eastwards
northness += change_to_position.northwards
return abs(eastness) + abs(northness)
def __init__(self):
self.__arena = Arena()
self.__wall = Wall(self.__arena)
self.__snake = Snake(self.__arena)
self.__movement = Movement(self.__arena, self.__snake)
self.cls()
self.gameloop()
class Ghost(Sprite):
def __init__(self, posx, posy):
Sprite.__init__(self)
self.move = Movement(self, thrust_strength = 1000,
accelx = 1000,
accely = 1000,
maxspeedx = 153,
maxspeedy = 153,
gravity = 0,
posx = posx,
posy = posy)
if random.randint(0, 2) == 1:
self.image = media.load_image('Cone.png')
self.rect = self.image.get_rect()
self.image = pygame.transform.scale(self.image, (int(self.rect.width*1.5), int(self.rect.height*1.5)))
else:
self.image = media.load_image('Trou.png')
self.rect = self.image.get_rect()
self.image = pygame.transform.scale(self.image, (self.rect.width*2, self.rect.height*2))
self.rect = self.image.get_rect()
def update(self, tick):
self.move.moveleft(tick)
self.move.calculate_movement(tick)
self.rect.x = self.move.posx
self.rect.y = self.move.posy
class Ghost(Sprite):
def __init__(self, posx, posy):
Sprite.__init__(self)
self.move = Movement(self, thrust_strength = 1000,
accelx = 1000,
accely = 1000,
maxspeedx = 60,
maxspeedy = 60,
gravity = 0,
posx = posx,
posy = posy)
self.ghost1 = media.load_image('ghost1.png')
self.ghost2 = media.load_image('ghost2.png')
self.image = self.ghost1
self.rect = self.image.get_rect()
self.currentframe = 1
def update(self, tick):
if self.currentframe >= 1 and self.currentframe <= 4:
self.image = self.ghost2
elif self.currentframe >= 5 and self.currentframe <= 8:
self.image = self.ghost1
self.currentframe += 1
if self.currentframe == 9:
self.currentframe = 1
self.brain.update(tick)
self.move.calculate_movement(tick)
self.rect.x = self.move.posx
self.rect.y = self.move.posy
class Fairy(Sprite):
def __init__(self, posx, posy):
Sprite.__init__(self)
self.move = Movement(self, thrust_strength = 15000,
accelx = 3800,
maxspeedx = 2000,
maxspeedy = 2500,
posx=posx,
posy=posy)
self.brain = None
self.fairy_wingup = media.load_image('fairy_wingup.png')
self.fairy_wingmid = media.load_image('fairy_wingmid.png')
self.fairy_wingdown = media.load_image('fairy_wingdown.png')
self.image = self.fairy_wingup
self.rect = self.image.get_rect()
self.currentframe = 1
def update(self, tick):
if self.currentframe == 1:
self.image = self.fairy_wingup
elif self.currentframe == 2:
self.image = self.fairy_wingmid
elif self.currentframe == 3:
self.image = self.fairy_wingdown
self.currentframe += 1
if self.currentframe == 4:
self.currentframe = 1
self.brain.update(tick)
self.move.calculate_movement(tick)
self.rect.x = self.move.posx
self.rect.y = self.move.posy
def mvleft(self):
if (globally.matrix[self.x][self.y - 4] == ' '):
self.y -= 4
Movement.move('\u001b[0;32mB\u001b[0m', self.x, self.y)
if (globally.matrix[self.x][self.y +
4] == '\u001b[0;32mB\u001b[0m'):
Clear.clear(self.x, self.y + 4)
def __init__(self):
coordList = []
self.currLocation = [0, 0, 90]
self.nSteps = len(coordList)
self.mov = Movement()
self.rad = 180 / 3.14
def __init__(self, character):
pygame.sprite.Sprite.__init__(self)
self.character = character
self.image = pygame.image.load(IMG + character).convert()
self.image.set_colorkey(WHITE)
self.rect = self.image.get_rect()
self.movement = Movement(self)
self.pos = VEC(WIDTH / 2 + 10, HEIGHT / 2)
self.rect.midbottom = self.pos
class MyBot():
def __init__(self):
self.movement = Movement(self)
def machin(self):
a = 1
print str(a) + "\n"
self.movement.add()
print str(a) + "\n"
class MyBot(): def __init__(self): self.movement = Movement(self) def machin(self): a = 1 print str(a)+"\n" self.movement.add() print str(a)+"\n"
class Client:
def __init__(self, x, y):
self.location_api = Movement()
def next_time(self, unit=1):
self.location_api.next_time(unit)
def location(self):
return self.location_api.location()
def speedAnalysis():
speedList = [10, 20, 30, 40, 50, 60, 70, 80, 90, 100]
timeList = [30, 30, 20, 20, 10, 10, 5, 5, 4, 4]
mov = Movement()
for speed, time in zip(speedList, timeList):
print("Speed: ", speed, "\t Time: ", time, "\n")
mov.setSpeed(speed)
mov.moveForward(time)
mov.pause(15)
mov.stop()
del mov
class Animation:
def __init__(
self,
visual: Visual,
parameters: Parameters,
history: History,
controllers,
plotting,
result,
):
self.visual = visual
self.parameters = parameters
self.history = history
self.movement = Movement(parameters, history)
self.controllers = controllers
self.plotting = plotting
self.result = result
def run(self):
"""Run the game"""
self.animation_func = animation.FuncAnimation(
self.plotting.fig,
self.update,
init_func=self.initialise,
interval=self.visual.frame_interval_ms,
)
plt.show()
def initialise(self):
return self.plotting.plots
def _ntimesteps_per_frame_refresh(self):
return int(self.visual.frame_interval_ms /
(1000 * self.parameters.time.timestep))
def update(self, _):
for _ in range(self._ntimesteps_per_frame_refresh()):
if not self.result.winner:
self.controllers.process_inputs()
self.result.check_controllers()
if not self.result.winner:
self.movement.move_objects()
self.result.check_win_conditions()
self.plotting.plot_board()
return self.plotting.plots
def __init__(self, width, height, title):
super().__init__()
self.screen = Window(width, height, title)
self.ball = Ball(20, (0, 0, 255), 2)
self.ball.position = (math.ceil(width / 2), math.ceil(height / 2))
self.movementObj = Movement(self.ball.x, self.ball.y, self.ball.radius)
self.speed = 1
self.createObjects([self.ball])
self.run()
def mv(self):
if self.direction == 1:
if globally.matrix[self.x][self.y + 4] == ' ' or globally.matrix[self.x][self.y + 4] == '\u001b[0;32mB\u001b[0m' or globally.matrix[self.x][self.y + 4] == '\u001b[0;36m0\u001b[0m':
self.y += 4
Movement.move('\u001b[0;31mE\u001b[0m', self.x, self.y)
Clear.clear(self.x, self.y - 4)
else:
Enemy.rmv(self)
elif self.direction == 2:
if globally.matrix[self.x][self.y - 4] == ' ' or globally.matrix[self.x][self.y - 4] == '\u001b[0;32mB\u001b[0m' or globally.matrix[self.x][self.y - 4] == '\u001b[0;36m0\u001b[0m':
self.y -= 4
Movement.move('\u001b[0;31mE\u001b[0m', self.x, self.y)
Clear.clear(self.x, self.y + 4)
else:
Enemy.rmv(self)
elif self.direction == 3:
if globally.matrix[self.x - 2][self.y] == ' ' or globally.matrix[self.x - 2][self.y] == '\u001b[0;32mB\u001b[0m' or globally.matrix[self.x - 2][self.y] == '\u001b[0;36m0\u001b[0m':
self.x -= 2
Movement.move('\u001b[0;31mE\u001b[0m', self.x, self.y)
Clear.clear(self.x + 2, self.y)
else:
Enemy.rmv(self)
else:
if globally.matrix[self.x + 2][self.y] == ' ' or globally.matrix[self.x + 2][self.y] == '\u001b[0;32mB\u001b[0m' or globally.matrix[self.x + 2][self.y] == '\u001b[0;36m0\u001b[0m':
self.x += 2
Movement.move('\u001b[0;31mE\u001b[0m', self.x, self.y)
Clear.clear(self.x - 2, self.y)
else:
Enemy.rmv(self)
def main():
# setup the static classes
ap.init()
#try to handle the Ctrl-C and then clean the app
try:
#ServGrap.hook(ServGrap.UP)
#time.sleep(1)
#ServGrap.hook(ServGrap.DOWN)
#time.sleep(1)
Movement.snake()
except KeyboardInterrupt:
print('Ctrl C')
finally:
ap.cleanup()
def __init__(self):
self.config = PepperConfiguration(_ROBOT_NAME)
if(not self.config.isAvailable()):
Logger.err("ControlFlow", "checkAvailability", "name: " + self.config.Name + ", ip: " + self.config.Ip + " not reachable!")
sys.exit(1) #Abort since robot is not available...
self.robot = Robot(self.config)
Speech(self.robot) #Initialize Speech (static class, no reference needed)
DoorChecker(self.robot) #Initialize DoorChecker (static class, no reference needed)
TabletHandler(self.robot) #Initialize TabletHandler (static class, no reference needed)
Filetransfer(self.config) #Initialize Filetransfer (static class, no reference needed)
#self.tracer = Tracer(self.robot) # enable to gather sensor data
self.sensorhandler = SensorHandler(self.robot)
self.planner = Planner()
self.movement = Movement(self.robot)
self.poscalib = PositionCalibrator(self.robot)
self.currentpos = _START_COORDINATE
def generate_individuals(num, bench_press_fitness_mean,
bench_press_fitness_variance):
"""
Generates individuals to be used in the simulator
:param num: Number of individuals to generate.
:param bench_press_fitness_mean: The mean of the 1RM in bench press for the individuals
:param bench_press_fitness_variance: The variance in the 1RM for the individuals for a normal
distribution
:return: A list of individuals generated
"""
# Holds all individuals
individuals = []
# Normally distributed bench press fitnesses used to create bench press movementss
bench_press_performances = np.random.normal(bench_press_fitness_mean,
bench_press_fitness_variance,
num).astype("int")
for i in tqdm(range(num)):
banister_params = random_banister_parameters()
name = names.get_full_name()
bench_press_movement = Movement(0, 0, bench_press_performances[i],
banister_params["fitness_gain"],
banister_params["fatigue_gain"],
banister_params["fitness_decay"],
banister_params["fatigue_decay"])
individual = Individual(i, datetime.datetime.now(), name,
bench_press_movement)
individuals.append(individual)
return individuals
def __init__(self, world, sprite, pos, power, timer=3000):
"""."""
self.sprite = sprite
self.sprite.position = pos
self.sprite.depth = 1
self.bombdata = BombData(power, timer)
self.movement = Movement(pos)
def __init__(
self,
visual: Visual,
parameters: Parameters,
history: History,
controllers,
plotting,
result,
):
self.visual = visual
self.parameters = parameters
self.history = history
self.movement = Movement(parameters, history)
self.controllers = controllers
self.plotting = plotting
self.result = result
def update(self, entities_by_filter):
start_balls = base.mouseWatcherNode.is_button_down(
KeyboardButton.space(), )
if start_balls:
for entity in set(entities_by_filter['ball']):
entity.remove_component(Resting)
entity.add_component(Movement(value=Vec3(-1, 0, 0)))
def __init__(self):
self.move = Movement(self, thrust_strength = 100000,
accelx = 100000,
accely = 100000,
maxspeedx = 120,
maxspeedy = 120,
gravity = 0,
posx=200,
posy=200)
self.hunter = media.load_image('hunter.png').convert_alpha()
self.firstupdate = False
self.image = self.hunter
self.rect = self.image.get_rect()
self.imgflip = False
self.dir = 1
self.fuel = 10000
self.lives = 3
self.score = 0
self.caught_fairies = Group()
self.fairies_to_catch = Group()
self.out_of_fuel_event = None
self.no_more_life_event = None
self.all_fairies_caught_event = None
self.moveright(1000)
def generate_data(game, winner):
board = CheckersBoard()
movement = Movement()
board.set_pieces_on_board_for_a_new_game()
game_states = ''
for move in game[:-1]:
board = movement.make_move(board, move)
board_state = board.get_wooden_board()
reduced_board_state = reduce_board(board_state)
reduced_board_state = [piece[item] for item in reduced_board_state]
game_states += ''.join(str(x) for x in reduced_board_state) + '\n'
timestamp = str(int(time.time() * 1000000))
file = open('games/' + winner + '/' + winner + timestamp, 'w+')
file.write(game_states)
file.close()
def load_from_series(self, series):
"""Loads an individual from a given one-dimentional array (series).
:param series: The one-dimentional array (series) that the individual will be initialized from.
"""
self.id = series['ID']
self.name = series['Name']
self.bench_press_movement = Movement(
series["bench_press_fitness"],
series["bench_press_fatigue"],
series["bench_press_basic_performance"],
series["bench_press_fitness_gain"],
series["bench_press_fatigue_gain"],
series["bench_press_fitness_decay"],
series["bench_press_fatigue_decay"],
)
self.timestamp = pd.to_datetime(series["Timestamp"])
def __init__(self):
rospy.init_node('controller', anonymous=True)
navigation = actionlib.SimpleActionClient("move_base", MoveBaseAction)
navigation.wait_for_server()
self.poses = Poses()
self.movement = Movement(navigation, "/map", self.poses)
self.move = self.movement.move
self.object_detector = ObjectDetector("/object_detection/coordinates")
self.find_red_object = self.object_detector.find_red_object
self.arm = Arm()
print("I'm up")
def update(self, entities_by_filter):
# Should resting balls be started?
start_key = KeyboardButton.space()
start_balls = base.mouseWatcherNode.is_button_down(start_key)
if start_balls:
for entity in set(entities_by_filter['ball']):
del entity[Resting]
entity[Movement] = Movement(value=Vec3(-1, 0, 0))
def bench_press():
"""Fixture for sample bench press movement with set parameters"""
return Movement(fitness=0,
fatigue=0,
basic_performance=300,
fitness_gain=1,
fatigue_gain=1,
fitness_decay=1,
fatigue_decay=0.99)
def __init__(self, graphics, root):
# global variables
self.k = K()
# piece - piece identifier. px, py - piece position(472x472). mx, my - mouse position(472x472)
self.data = {"piece": None, "px": 0, "py": 0, "mx": 0, "my": 0}
# keeps track of current turn
self.color = "token"
# true when menu is displayed, else false
self.menuOn = False
# tkinter root
self.root = root
# creates window and all images
self.graphics = graphics
# Canvas from graphics class. Tkinter object, draws images
self.canvas = graphics.canvas
# functions for special moves.
self.specialMoves = SpecialMoves(self.canvas)
# contains board and functions pertaining to position
self.position = Position(self.canvas, self.specialMoves)
self.position.updateBoard()
# contains functions for moving pieces
self.movement = Movement(self.canvas, self.position)
# handles menues
self.interface = Interface(graphics)
# creates highlights around boxes
self.highlight = Highlight(self.canvas, self.position)
# finds move for computer player
self.cpu = CPU(self.position, self.canvas)
# brings up main menu, starts game
self.showMain(0)
def load_from_series(self, series):
"""Loads an individual from a given one-dimentional array (series).
:param series: The one-dimentional array (series) that the individual will be initialized from.
"""
self.id = series['ID']
self.birth = datetime.strptime(series['Birth'], '%Y-%m-%d').date()
self.gender = series['Gender']
self.name = series['Name']
self.weight = series['Weight']
self.bench_press_movement = Movement(
series["bench_press_fitness"],
series["bench_press_fatigue"],
series["bench_press_basic_performance"],
series["bench_press_fitness_gain"],
series["bench_press_fatigue_gain"],
series["bench_press_fitness_decay"],
series["bench_press_fatigue_decay"],
)
def update(self):
# atack
if self.time_to_atack == -1 and self.in_range(
) and self.atack_is_ready(): # ready to atack
self.time_to_atack = self.reaction # time to atack
elif self.time_to_atack > 0: # wait to atack
self.time_to_atack -= 1
elif self.time_to_atack == 0: # atack
Atack.atack(self)
Fade.fadein(self)
self.time_to_atack -= 1 # goes back to ready
# movement
x_speed, y_speed = self.calc_direction()
Movement.accelerate(self, x_speed, y_speed)
Movement.update(self)
# fade
Fade.update(self)
def __init__(self):
"""Creates all the modules"""
print("class: Controller created.")
self.stances = ["default", "arm", "build", "dance", "battle_stance", ""]
self.stance = "default"
self.args = "|"
self.using_joysticks = False
self.speed1_x = 0
self.speed1_y = 0
self.speed2_x = 0
self.speed2_y = 0
self.arm = Arm()
self.builder = Builder()
self.dancing = Dancing()
self.direction = ObjectDetection()
self.movement = Movement()
self.sound = SoundRecognition()
self.reset = False
self.drive = False
# initialize bluetooth_connection connection
self.host = connect.Connect(1, "host", 'B8:27:EB:36:3E:F8', 4, self)
self.host.start()
time.sleep(20)
self.client = send.Send(2, "client", 'B8:27:EB:DE:5F:36', 5)
self.client.start()
time.sleep(10)
self.msg_received = False
# Add controller as observer to classes
self.arm.addObserver(self)
self.builder.addObserver(self)
self.dancing.addObserver(self)
self.direction.addObserver(self)
self.movement.addObserver(self)
self.sound.addObserver(self)
self.robot = robot.Robot(6, 3)
self.list = [self.arm, self.builder, self.dancing, self.direction, self.movement, self.sound]
def __init__(self, x, y, color, size, lifes, atack_time, sec_div10,
temporary_list, enemy_list):
self.size = size
self.type = -1 # just to atack function work
self.sec_div10 = sec_div10
self.lifes = lifes
self.msgs_list = [] # damage and kill text displays
# statistics
self.type_list = [] # types of dead enemies
self.kills = 0
self.bombs = 0
# self.temporary_list = temporary_list
# self.enemy_list = enemy_list
# Movement(x, y, max_speed, acceleration, decelerate)
Movement.__init__(self, x, y, 1.8, 0.105, 0.955)
#Fade(color, time_fade, start_fadein)
Fade.__init__(self, color, 0, True)
#Atack(x, y, atack_time, range, color, fadeout_time, sec_div10, temporary_list, enemy_list)
Atack.__init__(self, x, y, atack_time, size * 5, color, 40, sec_div10,
temporary_list, enemy_list)
def __init__(self, angular_speed, linear_speed):
Movement.__init__(self, angular_speed, linear_speed)
self.left_distance_to_obstacle_sensor = 90
self.right_distance_to_obstacle_sensor = 270
self.left_distance_sensor = 45 #ustawienie na 45 stopni z lewej
self.forward_distance_sensor = 0 #wykrycie przeszkody na wprost
self.right_distance_sensor = 315 #ustawienie na 45 stopni z prawej (360-45)
self.forward_distance_threshold = 0.4
self.distance_threshold = 0.35
self.wall_distance_threshold = 0.3
self.obstacle_location = None
self.previous_distance_to_obstacle = 0
self.distance_to_obstacle = 0
self.set_PID_params()
def __init__(self, x, y, type, color, size, time_fade, sec_div10,
temporary_list, sub):
self.type = type
self.size = size
self.sec_div10 = sec_div10
self.sub = sub
self.time_to_atack = -1
# move
max_speed, accel, decel, self.lifes = self.movem_attributes(type)
# Movement(x, y, max_speed, acceleration, decelerate)
Movement.__init__(self, x, y, max_speed, accel, decel)
# fade
#Fade(color, time_fade, start_fadein)
Fade.__init__(self, color, time_fade, False)
# atack
atack_time, self.reaction, range, fadeout_time_atack = self.atack_attributes(
type)
#Atack(x, y, atack_time, range, color, fadeout_time, sec_div10, temporary_list, enemy_list)
Atack.__init__(self, x, y, atack_time, range, color,
fadeout_time_atack, sec_div10, temporary_list, [sub])
def move(direction, seconds):
"""generic move method"""
if direction in ['forward', 'backward']:
exec_move = Move()
if direction == 'forward':
exec_move.forward(seconds)
else:
exec_move.backward(seconds)
result = 'done move'
elif direction in ['left', 'right']:
exec_move = Turn()
if direction == 'left':
exec_move.left(seconds)
else:
exec_move.right(seconds)
result = 'done turn'
else:
result = '{0} is no valid direction, choose between forward, backward, left, right.'.format(
direction)
return jsonify({'result': result, 'direction': direction, 'seconds':
seconds})
def __init__(self, posx, posy):
Sprite.__init__(self)
self.move = Movement(self, thrust_strength = 15000,
accelx = 3800,
maxspeedx = 2000,
maxspeedy = 2500,
posx=posx,
posy=posy)
self.brain = None
self.fairy_wingup = media.load_image('fairy_wingup.png')
self.fairy_wingmid = media.load_image('fairy_wingmid.png')
self.fairy_wingdown = media.load_image('fairy_wingdown.png')
self.image = self.fairy_wingup
self.rect = self.image.get_rect()
self.currentframe = 1
def __init__(self, posx, posy):
Sprite.__init__(self)
self.move = Movement(self, thrust_strength = 1000,
accelx = 1000,
accely = 1000,
maxspeedx = 60,
maxspeedy = 60,
gravity = 0,
posx = posx,
posy = posy)
self.ghost1 = media.load_image('ghost1.png')
self.ghost2 = media.load_image('ghost2.png')
self.image = self.ghost1
self.rect = self.image.get_rect()
self.currentframe = 1
def __init__(self, server=False, dispatch_proj=None, id=False):
super(Player, self).__init__()
self.state = state(vec2(100, 130), vec2(0, 0), 100)
self.move = Movement(*self.state.pos)
self.dispatch_proj = dispatch_proj
# spawning player at 0,0, width 32 = 1280 / 40. and height 72 = 720/10.
if not server:
self.Rect = Rect
else:
self.Rect = AABB
if id:
self.id = id
self.weapons = WeaponsManager(self.dispatch_proj, self.id)
#self.color = Options()['color'] #(0, 204, 255)
self.set_color(Options()['color'])
self.rect = self.Rect(0, 0, 32, 72, self.color, isplayer=True)
#input will be assigned by windowmanager class
self.input = proto.Input()
self.listeners = {}
self.ready = False
def calculate_movements(self): self.movements = [] t = self.arrival for i in range(len(self.path) - 1): m = Movement() m.time = t m.start = self.path[i] m.end = self.path[i+1] m.speed = self.speed duration = distance(m.start, m.end) / m.speed t += duration if t > 0: if m.time < 0: # Interpolate position at t = 0 ratio = -m.time / duration m.start = interpolate(m.start, m.end, ratio) self.arrival = m.time = 0.0 self.movements.append(m) self.leave = t
class MainChar(Sprite):
def __init__(self):
self.move = Movement(self, thrust_strength = 1800,
accelx = 900,
maxspeedx = 1000,
maxspeedy = 1000,
posx=50,
posy=50)
self.hunter = media.load_image('hunter.png').convert_alpha()
self.hunter_boost = media.load_image('hunter_boost.png').convert_alpha()
self.firstupdate = False
self.image = self.hunter
self.rect = self.image.get_rect()
self.imgflip = False
self.dir = 1
self.fuel = 10000
self.lives = 3
self.caught_fairies = Group()
self.fairies_to_catch = Group()
self.out_of_fuel_event = None
self.no_more_life_event = None
self.all_fairies_caught_event = None
def set_init_pos(self):
self.move.posx = 33
self.move.posy = 50
self.move.speedx = 0
self.move.speedy = 0
self.dir = 1
self.flip()
def flip(self):
if not self.imgflip and self.dir == -1:
self.image = pygame.transform.flip(self.image, True, False)
self.imgflip = True
elif self.imgflip and self.dir == 1:
self.image = pygame.transform.flip(self.image, True, False)
self.imgflip = False
def moveleft(self, tick):
self.dir = -1
self.flip()
if self.move.speedy == 0:
self.move.moveleft(tick)
def moveright(self, tick):
self.dir = 1
self.flip()
if self.move.speedy == 0:
self.move.moveright(tick)
def thrust(self, tick):
if self.fuel > 0:
self.image = self.hunter_boost
self.imgflip = False
self.flip()
self.firstupdate = True
if self.imgflip:
self.move.moveleft(tick / 2)
else:
self.move.moveright(tick / 2)
self.move.thrust(tick)
self.fuel -= tick / 8
else:
self.fuel = 0
self.out_of_fuel_event()
def update(self, tick):
if not self.firstupdate:
self.image = self.hunter
self.imgflip = False
self.flip()
self.firstupdate = False
self.move.calculate_movement(tick)
if self.move.speedx > 0:
self.move.speedx -= 1
elif self.move.speedx < 0:
self.move.speedx += 1
self.rect.x = self.move.posx
self.rect.y = self.move.posy
self.catch_fairies()
def raise_out_of_fuel_event(self):
self.out_of_fuel_event()
def raise_no_more_life_event(self):
self.no_more_life_event()
def raise_all_fairies_caught_event(self):
self.all_fairies_caught_event()
def remove_life(self):
self.lives -= 1
if self.lives == 0:
self.raise_no_more_life_event()
def catch_fairies(self):
for f in self.fairies_to_catch:
dist = math.sqrt((f.rect.centerx - self.rect.centerx)**2 + (f.rect.centery - self.rect.centery)**2)
if dist < 20:
f.kill()
self.caught_fairies.add(f)
if len(self.fairies_to_catch) == 0:
self.raise_all_fairies_caught_event()
class Player(Events):
"""docstring for player"""
def __init__(self, server=False, dispatch_proj=None, id=False, batch=None,
renderhook=None):
super(Player, self).__init__()
self.state = state(vec2(100, 130), vec2(0, 0), 100)
self.move = Movement(*self.state.pos)
self.dispatch_proj = dispatch_proj
# spawning player at 0,0, width 32 = 1280 / 40. and height 72 = 720/10.
self.Rect = Rect
if id:
self.id = id
self.weapons = WeaponsManager(self.dispatch_proj, self.id)
# self.color = Options()['color'] #(0, 204, 255)
self.set_color(Options()['color'])
self.rect = self.Rect(0, 0, pext.x, pext.y, self.color, isplayer=True,
batch=batch)
# input will be assigned by windowmanager class
self.input = proto.Input()
self.listeners = {}
self.ready = False
self.renderhook = renderhook
self.state.conds.direction = proto.down
def update(self, dt, rectgen, state=False, input=False):
if not state:
state = self.state
if not input:
input = self.input
self.rect.vel = self.move.get_vel(dt, state, input)
self.rect.update(*state.pos)
state = self.collide(dt, rectgen, state)
self.weapons.update(dt, state, input)
self.state.update(dt, state)
def predict_step(self, dt, rectgen, state, input):
newrect = self.rect.copy()
newrect.vel = self.move.get_vel(dt, state, input)
newrect.update(*state.pos)
state = self.collide(dt, rectgen, state, newrect)
state.mpos = vec2(self.input.mx, self.input.my)
state.id = self.id
if self.renderhook:
self.renderhook(state, update=True)
def specupdate(self, dt):
if self.input.up:
self.state.pos.y += 1000 * dt
if self.input.right:
self.state.pos.x += 1000 * dt
if self.input.left:
self.state.pos.x -= 1000 * dt
if self.input.down:
self.state.pos.y -= 1000 * dt
def client_update(self, s_state):
easing = .3
snapping_distance = 20
diff = vec2(s_state.pos.x - self.state.pos[0],
s_state.pos.y - self.state.pos[1])
len_diff = diff.mag()
if len_diff > snapping_distance:
self.state.pos = s_state.pos
elif len_diff > .1:
self.state.pos += diff * easing
self.state.vel = s_state.vel
self.rect.update(*self.state.pos)
self.state.update(0, s_state)
self.state.conds = s_state.conds
self.state.id = self.id
self.state.mpos = vec2(self.input.mx, self.input.my)
if self.renderhook:
self.renderhook(self.state, update=True)
def predict(self, dt, rectgen):
self.rect.vel = self.move.get_vel(dt, self.state, self.input)
self.rect.update(*self.state.pos)
self.collide(dt, rectgen, self.state)
self.weapons.update(dt, self.state, self.input)
self.state.id = self.id
self.state.mpos = vec2(self.input.mx, self.input.my)
if self.renderhook:
self.renderhook(self.state, update=True)
def draw(self):
self.rect.draw()
def collide(self, dt, rectgen, state, external_rect=None):
if not external_rect:
all_cols = [self.rect.sweep(obj, dt) for obj in rectgen]
else:
all_cols = [external_rect.sweep(obj, dt) for obj in rectgen]
cols = [coldata for coldata in all_cols if coldata]
try:
xt = min(col[1] for col in cols if col[0].x != 0)
xnorm, yt_ent = [(col[0].x, col[2]) for col in cols
if col[1] == xt and col[0].x != 0][0]
except ValueError:
xt = dt
xnorm = 0.
try:
yt = min(col[1] for col in cols if col[0].y != 0)
ynorm, xt_ent = [(col[0].y, col[2]) for col in cols
if col[1] == yt and col[0].y != 0][0]
except ValueError:
yt = dt
ynorm = 0.
"""if xnorm:
# check for stair
stairoffset = 10
testr = self.rect.copy()
testr.update(testr.pos.x, testr.pos.y + stairoffset)
first = testr.sweep(rct, dt)
if not first:
testr.update(testr.pos.x + testr.sign_of(testr.vel.x) * 30,
testr.pos.y)
testr.vel.x = 0
second = testr.sweep(rct, float('Inf'))
if second and testr.vel.y != 0:
s1 = testr.vel.y * second[1]
s = stairoffset + s1
t = s / testr.vel.y
if not abs(t) == float('Inf'):
yt = t
xnorm = 0
ynorm = -1"""
if xnorm and ynorm:
if yt_ent == yt and xt > yt:
xnorm = 0
xt = dt
elif xt_ent == xt and yt > xt:
ynorm = 0
yt = dt
dt = vec2(xt, yt)
norm = vec2(xnorm, ynorm)
return self.resolve_sweep(norm, dt, state)
def resolve_sweep(self, normal, dt, state):
state.pos, state.vel = self.move.step(dt, state.pos)
state.vel.x *= normal.x == 0.
state.vel.y *= normal.y == 0.
"""if normal.y < 0:
state.set_cond('onGround')
elif normal.x > 0:
state.set_cond('onRightWall')
elif normal.x < 0:
state.set_cond('onLeftWall')
elif normal.y == 0.:# and normal.y == 0.:
self.determine_state(state)"""
self.determine_state(state, normal)
return state
def determine_state(self, state, normal):
dir = state.conds.direction
mult_sign = (-1 if dir % 2 else 1)
vert = dir < 2
if normal[vert] * mult_sign < 0:
state.set_cond('onGround')
elif state.vel[vert] * mult_sign < 0:
state.set_cond('descending')
def spawn(self, x, y, other=False):
self.state.pos = vec2(x, y)
self.state.vel = vec2(0, 0)
self.state.hp = 100
self.state.armor = 0
self.state.isDead = False
self.state.frozen = False
self.weapons.reset()
def get_id(self, id, name):
self.id = id
self.name = name
self.weapons = WeaponsManager(self.dispatch_proj, self.id)
self.renderhook(self, add=True)
def die(self):
self.state.isDead = 5
def freeze(self):
self.state.frozen = True
def set_color(self, cstr):
self.color = colors[cstr]
def remove_from_view(self):
self.renderhook(self, remove=True)
def add_to_view(self):
self.renderhook(self, add=True)
class MainChar(Sprite):
def __init__(self):
self.move = Movement(self, thrust_strength = 100000,
accelx = 100000,
accely = 100000,
maxspeedx = 120,
maxspeedy = 120,
gravity = 0,
posx=200,
posy=200)
self.hunter = media.load_image('hunter.png').convert_alpha()
self.firstupdate = False
self.image = self.hunter
self.rect = self.image.get_rect()
self.imgflip = False
self.dir = 1
self.fuel = 10000
self.lives = 3
self.score = 0
self.caught_fairies = Group()
self.fairies_to_catch = Group()
self.out_of_fuel_event = None
self.no_more_life_event = None
self.all_fairies_caught_event = None
self.moveright(1000)
def set_init_pos(self):
self.move.posx = 200
self.move.posy = 200
self.move.speedx = 0
self.move.speedy = 0
self.dir = 1
self.flip()
def flip(self):
if not self.imgflip and self.dir == -1:
self.image = pygame.transform.flip(self.image, True, False)
self.imgflip = True
elif self.imgflip and self.dir == 1:
self.image = pygame.transform.flip(self.image, True, False)
self.imgflip = False
def moveright(self, tick):
self.dir = 1
self.flip()
self.move.moveright(tick)
def moveup(self, tick):
self.move.thrust(tick)
def movedown(self, tick):
self.move.movedown(tick)
def update(self, tick):
if not self.firstupdate:
self.image = self.hunter
self.imgflip = False
self.flip()
self.firstupdate = False
self.move.calculate_movement(tick)
self.rect.x = self.move.posx
self.rect.y = self.move.posy
def raise_no_more_life_event(self):
self.no_more_life_event()
def remove_life(self):
self.lives -= 1
if self.lives == 0:
self.raise_no_more_life_event()
def __init__(self): self.movement = Movement(self)
action="store_true")
PARSER.add_argument(
'--direction', help='Set to 1 for clockwise and -1 for anti-clockwise', type=int, default=1)
PARSER.add_argument(
'--seconds', help='How long must the car drive', type=int, default=1)
PARSER.add_argument(
'--speed', help='How fast must the car drive', type=int, default=1)
ARGS = PARSER.parse_args()
# LOGLEVEL = ARGS.loglevel
DIRECTION = ARGS.direction
DIRECTION = -1 # backward
DRIVE_TIME = ARGS.seconds
WAIT_TIME = ARGS.speed / float(1000)
# set log level
if ARGS.verbose:
logging.getLogger().setLevel(logging.DEBUG)
AMOVE = Move()
AMOVE.drive_time = 2
AMOVE.run()
ATURN = Turn()
ATURN.drive_time = 2
ATURN.direction = -1
ATURN.run()
AMOVE = Move()
AMOVE.wait_time = 5
AMOVE.run()
class Player(Events):
"""docstring for player"""
def __init__(self, server=False, dispatch_proj=None, id=False):
super(Player, self).__init__()
self.state = state(vec2(100, 130), vec2(0, 0), 100)
self.move = Movement(*self.state.pos)
self.dispatch_proj = dispatch_proj
# spawning player at 0,0, width 32 = 1280 / 40. and height 72 = 720/10.
if not server:
self.Rect = Rect
else:
self.Rect = AABB
if id:
self.id = id
self.weapons = WeaponsManager(self.dispatch_proj, self.id)
#self.color = Options()['color'] #(0, 204, 255)
self.set_color(Options()['color'])
self.rect = self.Rect(0, 0, 32, 72, self.color, isplayer=True)
#input will be assigned by windowmanager class
self.input = proto.Input()
self.listeners = {}
self.ready = False
def update(self, dt, rectgen, state=False, input=False):
if not state:
state = self.state
if not input:
input = self.input
self.rect.vel = self.move.get_vel(dt, state, input)
self.rect.update(*state.pos)
self.collide(dt, rectgen, state)
self.weapons.update(dt, state, input)
self.state.update(dt, state)
def specupdate(self, dt):
if self.input.up:
self.state.pos.y += 1000 * dt
if self.input.right:
self.state.pos.x += 1000 * dt
if self.input.left:
self.state.pos.x -= 1000 * dt
if self.input.down:
self.state.pos.y -= 1000 * dt
def client_update(self, s_state):
easing = .8
snapping_distance = 20
diff = vec2(s_state.pos.x - self.state.pos[0],
s_state.pos.y - self.state.pos[1])
len_diff = diff.mag()
if len_diff > snapping_distance:
self.state.pos = s_state.pos
elif len_diff > .1:
self.state.pos += diff * easing
self.state.vel = s_state.vel
self.rect.update(*self.state.pos)
def draw(self):
self.rect.draw()
def collide(self, dt, rectgen, state):
all_collisions = (self.rect.sweep(obj, dt) for obj in rectgen)
collisions = [coldata for coldata in all_collisions if coldata]
try:
xt = min(col[1] for col in collisions if col[0].x != 0)
xnorm = [col[0].x for col in collisions if col[1] == xt][0]
except ValueError:
xt = dt
xnorm = 0.
try:
yt = min(col[1] for col in collisions if col[0].y != 0)
ynorm = [col[0].y for col in collisions if col[1] == yt][0]
except ValueError:
yt = dt
ynorm = 0.
dt = vec2(xt, yt)
norm = vec2(xnorm, ynorm)
self.resolve_sweep(norm, dt, state)
def resolve_sweep(self, normal, dt, state):
self.state.pos, self.state.vel = self.move.step(dt, state.pos)
self.rect.update(*self.state.pos)
self.state.vel.x *= normal.x == 0.
self.state.vel.y *= normal.y == 0.
self.move.resolve_coll(self.state.pos, self.state.vel)
if normal.y < 0:
self.state.set_cond('onGround')
elif normal.x > 0:
self.state.set_cond('onRightWall')
elif normal.x < 0:
self.state.set_cond('onLeftWall')
elif normal.x == 0. and normal.y == 0.:
self.determine_state()
def resolve_collision(self, ovrlap, axis, angle):
self.state.pos[0] = self.rect.x1 - ovrlap * axis[0]
self.state.pos[1] = self.rect.y1 - ovrlap * axis[1]
self.state.vel[0] *= axis[1] > 0
self.state.vel[1] *= axis[0] > 0
self.rect.update(*self.state.pos)
self.move.resolve_coll(self.state.pos, self.state.vel)
if axis[1] > 0 and ovrlap < 0:
#self.move.conds['on_ground'] = True
self.state.set_cond('onGround')
#self.move.angle = angle
elif axis[0] > 0:
if ovrlap > 0:
self.state.set_cond('onRightWall')
elif ovrlap < 0:
self.state.set_cond('onLeftWall')
def determine_state(self):
if self.state.vel.y < 0:
self.state.set_cond('descending')
def spawn(self, x, y, other=False):
self.state.pos = vec2(x, y)
self.state.vel = vec2(0, 0)
self.state.hp = 100
self.state.armor = 0
self.state.isDead = False
self.state.frozen = False
if isinstance(self.rect, Rect):
self.rect.update_color(self.color)
if not other:
self.weapons.reset()
def get_id(self, id, name):
self.id = id
self.name = name
self.weapons = WeaponsManager(self.dispatch_proj, self.id)
def die(self):
self.state.isDead = 5
if isinstance(self.rect, Rect):
self.rect.update_color([128] * 3)
def freeze(self):
self.state.frozen = True
def set_color(self, cstr):
self.color = colors[cstr]
def forward(seconds):
"""forward method"""
move_fwd = Move()
move_fwd.forward(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})
def backward(seconds):
"""backward method"""
move_bwd = Move()
move_bwd.backward(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})