def preprocess(self, gamePacket: GameTickPacket):
"""Calculates a set of values that may be useful.
This function runs every tick, so it should not contain any operations that are slow. Additionally, the operations
should be limited to what is necessary to have on every tick.
Args:
gamePacket (GameTickPacket): set of current information about the game
Returns:
This function updates the attributes of the class and therefore has no return type.
"""
#load data about self
self.me.location = Vec3(gamePacket.game_cars[self.index].physics.location)
self.me.velocity = Vec3(gamePacket.game_cars[self.index].physics.velocity)
self.me.rotation = Orientation(gamePacket.game_cars[self.index].physics.rotation)
self.me.rvelocity = Vec3(gamePacket.game_cars[self.index].physics.angular_velocity)
self.me.boost = gamePacket.game_cars[self.index].boost
#load data about the ball
self.ball.location = Vec3(gamePacket.game_ball.physics.location)
self.ball.velocity = Vec3(gamePacket.game_ball.physics.velocity)
self.ball.rotation = Orientation(gamePacket.game_ball.physics.rotation)
self.ball.rvelocity = Vec3(gamePacket.game_ball.physics.angular_velocity)
self.ball.local_location = relative_location(self.me.location, self.me.rotation, self.ball.location)
def brake_and_orient(self, my_car, goal, ball):
# Make car break
self.controller_state.boost = False
self.controller_state.hand_brake = True
self.controller_state.throttle = 0.0
# Calculate car reorientation
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
car_yaw = my_car.physics.rotation.yaw
ball_future_location = get_ball_predicted_pos(self, 30)
car_to_ball = ball_future_location - my_car.physics.location
steer_correction_radians = find_correction(car_direction, car_to_ball,
car_yaw)
if my_car.physics.velocity.x <= 30.0 and my_car.physics.velocity.y <= 30.0:
if steer_correction_radians < math.radians(-10):
# If the target is more than 10 degrees right from the centre, steer left
turn = -1
elif steer_correction_radians > math.radians(10):
# If the target is more than 10 degrees left from the centre, steer right
turn = 1
else:
# If the target is less than 10 degrees from the centre, steer straight
turn = 0
self.controller_state.hand_brake = False
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
def get_output(self, packet: GameTickPacket) -> SimpleControllerState:
ball_location = Vec3(packet.game_ball.physics.location)
my_car = packet.game_cars[self.index]
car_location = Vec3(my_car.physics.location)
car_to_ball = ball_location - car_location
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(car_direction, car_to_ball)
if steer_correction_radians > 0:
# Positive radians in the unit circle is a turn to the left.
turn = -1.0 # Negative value for a turn to the left.
action_display = "turn left"
else:
turn = 1.0
action_display = "turn right"
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
draw_debug(self.renderer, my_car, packet.game_ball, action_display)
return self.controller_state
def tick(self, info: MyInfo):
print("first {}".format(self.done))
target = Vec3(self.info.ball_path[0].physics.location)
relative = relative_location(Vec3(self.info.car.loc),
Orientation(self.car.rot), target)
if self.start_time + FLIP_TIME > info.seconds_elapsed:
print("first jump")
self.controls.jump = True
#self.start_time = self.info.seconds_elapsed
elif self.start_time + 2 * FLIP_TIME > self.info.seconds_elapsed:
print("not jump")
self.controls.jump = False
self.controls.yaw = cos(relative.y / relative.x)
elif self.start_time + 3 * FLIP_TIME > info.seconds_elapsed:
print("second jump")
if relative.x > 0:
self.controls.pitch = -1
else:
self.controls.pitch = 1
self.controls.yaw = cos(relative.y / relative.x)
self.controls.jump = True
if self.new_touch: # or self.start_time + 1.1 < info.seconds_elapsed:
#print("start time: {}, current time: {}".format(self.start_time, info.seconds_elapsed))
self.done = True
print(self.done)
return self.controls
def get_output(self, packet: GameTickPacket) -> SimpleControllerState:
ball_location = Vec3(packet.game_ball.physics.location)
goal_location = Vec3(
self.get_field_info().goals[not self.team].location)
my_car = packet.game_cars[self.index]
car_location = Vec3(my_car.physics.location)
push_vec = (ball_location - goal_location).rescale(-70)
car_to_ball = ball_location - car_location # - push_vec
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(car_direction, car_to_ball)
self.controller_state.throttle = 1.0
self.controller_state.steer = clamp1(steer_correction_radians * -3)
self.controller_state.handbrake = abs(
steer_correction_radians) > math.pi * 0.5
self.controller_state.boost = abs(steer_correction_radians) < 0.15
draw_debug(self.renderer, my_car, packet.game_ball)
return self.controller_state
def stuck_on_ground(
physics: SimPhysics,
controls: SimpleControllerState,
dt: float,
collision,
renderer=None,
):
# just keep it above ground and slight start rotating
height = 36.16 / 2
normal = rlu_to_Vec3(collision.direction)
normal_base = rlu_to_Vec3(collision.start)
physics.velocity += Vec3(0, 0, -650 * dt)
remove_velocity_against_normal(physics.velocity, normal)
physics.location += physics.velocity * dt
if (physics.location - normal_base).length() < height * 0.95:
physics.location = normal_base + normal * height * 0.99
# update orientation so that in 0.5 seconds we have correct orientation
orientation = Orientation(physics.rotation)
physics.rotation = rotate_by_axis(orientation, orientation.up, normal,
dt / 0.5)
clamp(physics)
return physics
def block_shot(self, my_car, goal, ball):
# Calculate car reorientation
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
goal_direction = Vec3(goal.direction)
angle_to_goal = car_direction.ang_to(goal_direction)
ball_future_location = get_ball_predicted_pos(self, 30)
my_car_location = Vec3(my_car.physics.location)
car_to_ball = my_car_location.dist(ball_future_location)
if angle_to_goal < math.pi / 2 and angle_to_goal > 0:
print("< pi/2 and > 0 jumpin left")
self.controller_state.jump = True
self.controller_state.steer = -1
elif angle_to_goal > math.pi / 2 and angle_to_goal < math.pi:
print("< pi and > pi/2 jumpin right")
self.controller_state.jump = True
self.controller_state.steer = 1
else:
self.controller_state.jump = False
if car_to_ball < 100:
print("less than 100")
self.controller_state.jump = True
else:
self.controller_state.jump = False
def get_output(self, packet: GameTickPacket) -> SimpleControllerState:
secondsElapsed = packet.game_info.seconds_elapsed
myCar = packet.game_cars[self.index]
loc = packet.game_cars[0].physics.location
curve = [loc]
for i in range(0, 200):
curve += []
car_location = Vec3(my_car.physics.location)
car_to_target = self.target - car_location
if car_location.dist(self.target) < 30:
pick_random_target(self, self.get_field_info().boost_pads)
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(car_direction,
car_to_target)
if steer_correction_radians > 1:
turn = -1
elif steer_correction_radians < -1:
turn = 1
else:
turn = -1 * steer_correction_radians
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
# path = predictBallPath(packet.game_ball)
# draw_debug(self.renderer, my_car, packet.game_ball, "", self.target, path)
return self.controller_state
def go_to_position(self, packet: GameTickPacket, ideal: Vec3):
my_car = packet.game_cars[self.index]
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(
car_direction,
Vec3(ideal) - Vec3(my_car.physics.location))
# Turn left if steer correction is positive in radians
turn_direction_multiplier = -1.0 if steer_correction_radians > 0 else 1.0
abs_correction = abs(steer_correction_radians)
if abs_correction >= .5:
turn = 1 * turn_direction_multiplier
else:
turn = abs_correction * 2 * turn_direction_multiplier
# Powerslide if the angle of correction is more than 1 radian
if abs_correction > 1.3:
self.controller_state.handbrake = True
else:
self.controller_state.handbrake = False
# TODO: change. always boost
self.controller_state.boost = not self.controller_state.handbrake
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
def drive_toward(self, my_car, car_to_desired_location) -> str:
self.controller_state.boost = False
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
car_yaw = my_car.physics.rotation.yaw
steer_correction_radians = find_correction(car_direction,
car_to_desired_location,
car_yaw)
if steer_correction_radians < math.radians(-10):
# If the target is more than 10 degrees right from the centre, steer left
turn = -1
action_display = "turn left"
elif steer_correction_radians > math.radians(10):
# If the target is more than 10 degrees left from the centre, steer right
turn = 1
action_display = "turn right"
else:
# If the target is less than 10 degrees from the centre, steer straight
turn = 0
action_display = "drive straight"
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
return action_display
def action_goto(self, my_car, car_location, target_location):
controller = SimpleControllerState()
if target_location is None:
return controller
car_to_target = target_location - car_location
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(car_direction,
car_to_target)
if steer_correction_radians > 0:
# Positive radians in the unit circle is a turn to the left.
turn = -1.0 # Negative value for a turn to the left.
self.action_display = "turn left"
else:
turn = 1.0
self.action_display = "turn right"
controller.throttle = 1.0
controller.steer = turn
controller.boost = True
return controller
def simpleballChase(self, packet):
ball_location = Vec3(packet.game_ball.physics.location)
ball_velocity = Vec3(packet.game_ball.physics.velocity)
main_car = packet.game_cars[self.index]
car_location = Vec3(main_car.physics.location)
car_to_ball = car_location - ball_location
# Find the direction of our car using the Orientation class
car_orientation = Orientation(main_car.physics.rotation)
car_direction = car_orientation.forward
distFromBall = self.Distance3D(car_location, ball_location)
mirrorBall = Vec3(ball_location.x, ball_location.y, 0)
mirrorCar = Vec3(car_location.x, car_location.y, 0)
leg = self.Distance3D(mirrorBall, ball_location)
legCar = self.Distance3D(mirrorBall, mirrorCar)
distFromGround = self.Distance3D(car_location, mirrorCar)
hypotenuse = self.Distance3D(mirrorCar, ball_location)
theta = math.asin(leg / hypotenuse)
if(legCar < 400):
self.boost = 0
self.throttle = self.map(legCar, 400, 0, 1, 0)
else:
self.turn = self.find_correction(car_direction, car_to_ball)
self.drift = self.determineDrift(self.find_correction_normal(car_direction, car_to_ball))
self.boost = self.manageBoost(self.find_correction_normal(car_direction, car_to_ball))
self.throttle = 1
def __init__(self):
"""Creates a new GameObject with zeroed data."""
self.location = Vec3(0,0,0)
self.velocity = Vec3(0,0,0)
self.orientation = Orientation(0,0,0)
self.rvelocity = Vec3(0,0,0)
self.local_location = Vec3(0,0,0)
def make_obb(physics: SimPhysics):
fixed_size = rlu_vec3(118.0 / 2, 84.2 / 2, 36.16 / 2) # octane
orientation = Orientation(physics.rotation).to_rot_mat()
box = obb()
box.center = to_rlu_vec(physics.location)
box.half_width = fixed_size
box.orientation = orientation
return box
def car_location_angle_flattened(car, loc: Vec3):
car_orientation = Orientation(car.rotation)
relative_target = relative_location(car.location, car_orientation,
loc).flat()
# car_orientation_flat = car_orientation.forward.flat()
car_direction = Vec3(10, 0, 0)
angle_cos = (relative_target.dot(car_direction)) / (
car_direction.length() * relative_target.length())
return math.acos(
angle_cos) if relative_target.y < 0 else -math.acos(angle_cos)
def game_tick_packet_to_rl_state(self, game_tick): my_car = game_tick.game_cars[0] car_location = Vec3(my_car.physics.location) car_rotation = Orientation(my_car.physics.rotation) car_velocity = Vec3(my_car.physics.velocity) ball_location = Vec3(game_tick.game_ball.physics.location) ball_location_rel = relative_location(car_location, car_rotation, ball_location) goal_location = Vec3(0, GameValues.GOAL_CENTER_Y, GameValues.GOAL_CENTER_Z) car_location_rel = relative_location(goal_location, car_rotation, car_location) dist = car_location.dist(ball_location)
def align_car_to(controller: SimpleControllerState, angular_velocity: Vec3,
rotation: Orientation, forward: Vec3, up: Vec3):
local_forward = rotation.cast_local(forward)
ang_vel_local = rotation.cast_local(angular_velocity)
pitch_angle = math.atan2(-local_forward.z, local_forward.x)
yaw_angle = math.atan2(-local_forward.y, local_forward.x)
pitch_angular_velocity = ang_vel_local.y
yaw_angular_velocity = ang_vel_local.z
p = 4
d = 0.9
controller.pitch = clamp(-pitch_angle * p + pitch_angular_velocity * d, -1,
1)
controller.yaw = clamp(-yaw_angle * p - yaw_angular_velocity * d, -1, 1)
def compare(
human_physics_last: SimPhysics,
controls_last: SimpleControllerState,
human_physics_cur: SimPhysics,
dt,
):
# assume ground for now
full_step(human_physics_last, controls_last, dt)
# compare cur and last
cur = human_physics_cur
last = human_physics_last
velo = cur.velocity - last.velocity
loc = cur.location - last.location
rot = Orientation(cur.rotation).up - Orientation(last.rotation).up
print(
f"Off by: v: {velo}:{velo.length():3f}, p: {loc}:{loc.length():3f}, rot: {rot}:{rot.length():3f}"
)
def get_info(self, packet):
self.location: location = Vec3(
packet.game_cars[self.my_car].physics.location)
self.velocity: velocity = Vec3(
packet.game_cars[self.my_car].physics.velocity)
self.rotation: rotation = packet.game_cars[
self.my_car].physics.rotation
self.angular_V: angular_V = Vec3(
packet.game_cars[self.my_car].physics.angular_velocity)
self.orientation: orientation = Orientation(self.rotation)
def get_rpy_input_to_target(self, target_orientation: Orientation):
co = self.orientation
to = target_orientation
w0 = self.ang_velocity
w1 = co.rotation_diff_to(to)
rpy = Orientation.get_rpy(w0, w1)
angle = rpy.length()
rpy = rpy.normalized()
max_scalable = min(w1.length() / 5.5,
1 / max(abs(rpy.x), abs(rpy.y), abs(rpy.z)))
return rpy * min(angle / np.pi, max_scalable)
def groundTouch(self, packet):
timeChange = self.findBallGround()[1] - packet.game_info.seconds_elapsed
fballLoc = self.findBallGround()[0]
#original Code:
ball_location = Vec3(packet.game_ball.physics.location)
ball_velocity = Vec3(packet.game_ball.physics.velocity)
main_car = packet.game_cars[self.index]
car_velocity = Vec3(main_car.physics.velocity)
car_location = Vec3(main_car.physics.location)
ballHeight = ball_location.z
carSpeed = 1410
carSpeedBoost = 2300
carMagnitude = self.findMagnitude(car_velocity.x, car_velocity.y)
fcarToBall = self.Distance3D(car_location, fballLoc)
if(ball_location.z < 94):
requiredSpeed = 2300
else:
requiredSpeed = fcarToBall/timeChange
#end new
mirrorBall = Vec3(ball_location.x, ball_location.y, 0)
mirrorCar = Vec3(car_location.x, car_location.y, 0)
car_to_ball = car_location - ball_location
# Find the direction of our car using the Orientation class
car_orientation = Orientation(main_car.physics.rotation)
car_direction = car_orientation.forward
if(self.index == 0 ):
print(car_direction)
distFromBall = self.Distance3D(car_location, ball_location)
mirrorBall = Vec3(ball_location.x, ball_location.y, 0)
mirrorCar = Vec3(car_location.x, car_location.y, 0)
leg = self.Distance3D(mirrorBall, ball_location)
legCar = self.Distance3D(mirrorBall, mirrorCar)
distFromGround = self.Distance3D(car_location, mirrorCar)
hypotenuse = self.Distance3D(mirrorCar, ball_location)
theta = math.asin(leg / hypotenuse)
self.turn = self.find_correction(car_direction, car_to_ball)
self.drift = self.determineDrift(self.find_correction_normal(car_direction, car_to_ball))
if(self.manageBoost(self.find_correction_normal(car_direction, car_to_ball)) == 1): #Allowed to boost
self.defaultThrottleDribble(requiredSpeed, carMagnitude)
else:
self.boost = 0
self.throttle = 1
def update(self, packet: GameTickPacket):
packet_car = packet.game_cars[self.index]
self.location = Vec3(packet_car.physics.location)
self.velocity = Vec3(packet_car.physics.velocity)
self.orientation = Orientation(packet_car.physics.rotation)
self.angular_velocity = Vec3(packet_car.physics.angular_velocity)
self.dead = packet_car.is_demolished
self.flying = not packet_car.has_wheel_contact
self.supersonic = packet_car.is_super_sonic
self.jumped = packet_car.jumped
self.double_jumped = packet_car.double_jumped
self.boost = packet_car.boost
def tick(self, info : MyInfo) -> SimpleControllerState:
self.new_touch(info)
target = Vec3(self.info.ball_path[0].physics.location)
offset = (Vec3(target) - self.info.their_goal.center).rescale(OFFSET_LEN)
#print("in tick: target = {}".format(target))
relative = relative_location(Vec3(self.car.loc), Orientation(self.car.rot), target + offset)
angle = atan2(relative.y, relative.x)
other_ang = self.car.vel.ang_to(target)
#print("relative: {}".format(relative))
#print("angle to ball: {}, other angle: {}".format(angle * 180 / pi, other_ang * 180 / pi))
self.controls.steer = self.steeringMagic(angle * 5)
self.controls.throttle = 1
return self.controls
def _set_rlu_car(self):
c = self.rlu_car
c.position = to_rlu_vec(self.physics.location)
c.velocity = to_rlu_vec(self.physics.velocity)
c.angular_velocity = to_rlu_vec(self.physics.angular_velocity)
c.orientation = Orientation(self.physics.rotation).to_rot_mat()
c.boost = self.boost
c.jumped = False
c.double_jumped = False
c.on_ground = True
c.team = 0
c.time = 0
self.is_rlu_updated = True
def update(self, packet):
self.location = Vec3(packet.game_cars[self.index].physics.location)
self.velocity = Vec3(packet.game_cars[self.index].physics.velocity)
self.rotation = packet.game_cars[self.index].physics.rotation
self.angular_velocity = Vec3(
packet.game_cars[self.index].physics.angular_velocity)
self.orientation = Orientation(self.rotation)
self.yaw_velocity = self.orientation.up.dot(self.angular_velocity)
self.pitch_velocity = self.orientation.right.dot(self.angular_velocity)
self.roll_velocity = self.orientation.forward.dot(
self.angular_velocity)
self.grounded = packet.game_cars[self.index].has_wheel_contact
self.supersonic = packet.game_cars[self.index].is_super_sonic
self.team = packet.game_cars[self.index].team
self.vec_to_ball = Vec3(
packet.game_ball.physics.location) - self.location
self.boost = packet.game_cars[self.index].boost
#deal with instability of velocity-facing deficiet or jumping
if self.velocity.length() != 0:
if self.velocity.ang_to(
self.orientation.forward) > 0.2 or not self.grounded:
self.last_unstable = packet.game_info.seconds_elapsed
self.stable = False
elif packet.game_info.seconds_elapsed - self.last_unstable > 0.2:
self.stable = True
#logic for on_wall
self.on_wall = self.grounded and self.orientation.up.z < 0.1
#logic for guessing what they are doing, out of BALL, ROTATE, SUPPORT
self.assumed_maneuver = None
if -2 < self.velocity.flat().signed_ang_to(
self.vec_to_ball
) < -0.3 and self.yaw_velocity < 0 or 0.3 < self.velocity.flat(
).signed_ang_to(
self.vec_to_ball
) < 2 and self.yaw_velocity > 0 or -0.3 < self.velocity.flat(
).signed_ang_to(self.vec_to_ball) < 0.3:
self.assumed_maneuver = "BALL"
if self.location.y > packet.game_ball.physics.location.y + 100 and self.team == 0 or self.location.y < packet.game_ball.physics.location.y - 100 and self.team == 1:
self.assumed_maneuver = "OFFSIDE"
if self.velocity.length() != 0:
if self.velocity.normalized(
).y < -0.8 and self.team == 0 or self.velocity.normalized(
).y > 0.8 and self.team == 1:
self.assumed_maneuver = "ROTATE"
if self.assumed_maneuver is None:
self.assumed_maneuver = "SUPPORT"
def tick(self, info: MyInfo):
self.new_touch(info)
if self.can_challenge():
self.done = True
#print("last touch: {}".format(self.last_touch))
ball = self.info.ball_path[0].physics
target = Vec3(self.info.my_goal.center) - ball.location
relative = relative_location(Vec3(self.car.loc),
Orientation(self.car.rot),
Vec3(ball.location))
angle = atan2(relative.y, relative.x)
self.controls.steer = self.steeringMagic(angle)
boost, throttle = self.match_speed(self.car, ball)
self.controls.boost = boost
self.controls.throttle = throttle
return self.controls
def __init__(self, packet: GameTickPacket, index: int):
self.index = index
this_car = packet.game_cars[self.index]
self.jump_time = -1
self.is_bot = this_car.is_bot
self.name = this_car.name
self.team = this_car.team
self.team_string = "blue" if self.team == 0 else "red"
self.hitbox: RectHitbox = RectHitbox(this_car.hitbox,
offset=Vec3(
this_car.hitbox_offset))
self.score_info = this_car.score_info # score, goals, own_goals, assists, saves, shots, demolitions
self.double_jumped = this_car.double_jumped
self.orientation = Orientation(this_car.physics.rotation)
self.update(packet)
def _rlu_step(self, controls, dt, on_ground):
# we think RLU sims this situation better
# print(f"{self.count}: rlusim")
if not self.is_rlu_updated:
self._set_rlu_car()
self.rlu_car.on_ground = on_ground
inputs = self._make_input(controls)
self.rlu_car.step(inputs, dt)
self.physics.location = rlu_to_Vec3(self.rlu_car.position)
self.physics.velocity = rlu_to_Vec3(self.rlu_car.velocity)
self.physics.angular_velocity = rlu_to_Vec3(
self.rlu_car.angular_velocity)
self.physics.rotation = Orientation.from_rot_mat(
self.rlu_car.orientation)
def get_output(self, packet: GameTickPacket) -> SimpleControllerState:
self.delta_time = packet.game_info.seconds_elapsed-self.time
self.time = packet.game_info.seconds_elapsed
self.ball_predictions = self.get_ball_prediction_struct()
predicted_goal = find_future_goal(self.ball_predictions)
goal_text = "No Goal Threats"
if predicted_goal:
goal_text = f"Goal in {'%.4s' % str(predicted_goal[1]-packet.game_info.seconds_elapsed)}s"
ball_location = Vec3(packet.game_ball.physics.location)
my_car = packet.game_cars[self.index]
car_location = Vec3(my_car.physics.location)
car_to_ball = ball_location - car_location
# Find the direction of our car using the Orientation class
car_orientation = Orientation(my_car.physics.rotation)
car_direction = car_orientation.forward
steer_correction_radians = find_correction(car_direction, car_to_ball)
if steer_correction_radians > 0:
# Positive radians in the unit circle is a turn to the left.
turn = -1.0 # Negative value for a turn to the left.
action_display = "turn left"
else:
turn = 1.0
action_display = "turn right"
self.controller_state.throttle = 1.0
self.controller_state.steer = turn
draw_debug(self.renderer, my_car, packet.game_ball, action_display,goal_text)
if self.current_action_chain != None:
if not self.current_action_chain.complete:
self.controller_state = self.current_action_chain.update(self.delta_time)
else:
self.current_action_chain = None
else:
if int(self.time) % 5 == 0:
self.current_action_chain = simple_front_flip_chain()
return self.controller_state
def update(self, packet: GameTickPacket):
my_car = packet.game_cars[self.car_id]
self.location = Vec3(my_car.physics.location)
self.orientation = Orientation(my_car.physics.rotation)
self.velocity = Vec3(my_car.physics.velocity)
self.angular_velocity = Vec3(my_car.physics.angular_velocity)
self.is_demolished = my_car.is_demolished
self.has_wheel_contact = my_car.has_wheel_contact
self.is_super_sonic = my_car.is_super_sonic
self.is_bot = my_car.is_bot
self.jumped = my_car.jumped
self.double_jumped = my_car.double_jumped
self.name = my_car.name
self.team = my_car.team
self.boost = my_car.boost
self.hitbox = my_car.hitbox
self.hitbox_offset = Vec3(my_car.hitbox_offset)
