def rotation_vector(self):
if self.rotation == "left":
return utils.Vector(-1, 0)
elif self.rotation == "right":
return utils.Vector(1, 0)
elif self.rotation == "up":
return utils.Vector(0, -1)
elif self.rotation == "down":
return utils.Vector(0, 1)
def __init__(self, starting_pos, velocity, filename, direction):
Thing.__init__(self)
self.image, self.rect = mediahandler.load_image(
filename, "projectiles", -1)
self.rect.topleft = starting_pos
self.position = pygame.rect.Rect(self.rect)
self.desired_position = pygame.rect.Rect(self.position)
self.velocity = utils.Vector(
velocity if direction != "down" else 0,
abs(velocity * 1.5) if direction == "down" else 0)
self.acceleration = utils.Vector(
0, constants.GRAVITY if direction == "down" else 0)
def positions_to_dig(self, coords):
center = utils.Vector(coords.x, coords.y - 1, coords.z)
for x in xrange(-5, 6):
for y in xrange(-5, 6):
for z in xrange(-5, 6):
spow = x**2 + y**2 + z**2
if spow > 25:
continue
state = self.get_state(center.x + x, center.y + y,
center.z + z)
if state.can_stand:
yield utils.Vector(center.x + x, center.y + y,
center.z + z)
def flow_vector(self):
v = utils.Vector(0, 0, 0)
this_efd = self.effective_flow_decay
for i, j in utils.cross:
blk = self.grid.get_block(self.x + i, self.y, self.z + j)
efd = blk.effective_flow_decay
if efd < 0:
if not blk.material.blocks_movement:
blk = self.grid.get_block(self.x + i, self.y - 1,
self.z + j)
efd = blk.effective_flow_decay
if efd >= 0:
va = efd - (this_efd - 8)
v = utils.Vector(i * va, 0, j * va)
elif efd >= 0:
va = efd - this_efd
v = utils.Vector(i * va, 0, j * va)
if self.meta >= 8:
t = False
if t or self.is_solid_block(
self.grid.get_block(self.x, self.y, self.z - 1), 2):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x, self.y, self.z + 1), 3):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x - 1, self.y, self.z), 4):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x + 1, self.y, self.z), 5):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x, self.y + 1, self.z - 1), 2):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x, self.y + 1, self.z + 1), 3):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x - 1, self.y + 1, self.z), 4):
t = True
if t or self.is_solid_block(
self.grid.get_block(self.x + 1, self.y + 1, self.z), 5):
t = True
if t:
v.normalize()
v.y = v.y - 6.0
v.normalize()
return v
def update(self):
if self.moving:
self.xbuf += self.velx
self.ybuf += self.vely
self.rect.x, self.rect.y = self.xbuf, self.ybuf
else:
self.simple_deal_damage()
if self.reason is None:
if self.charged and random.uniform(
0, 1) <= self.charged_particle_chance:
p = particles.Particle.from_sprite(self, 3,
utils.Vector.uniform(1),
50, Color.lBlue)
self.level.particles.append(p)
elif random.uniform(0, 1) <= self.particle_chance:
norm = self.norm_vector
spread = self.particle_spread
source_sprite = self
if self.reason == projectiles.DestroyReason.Collision:
vel = utils.Vector.random_spread(
norm, spread).opposite() * self.particle_speed
elif self.reason == projectiles.DestroyReason.DamageDeal:
vel = utils.Vector.uniform(self.particle_speed)
source_sprite = self.last_attacked_sprite
else:
vel = utils.Vector(0, 0)
p = particles.Particle.from_sprite(source_sprite, 4, vel, 40,
Color.lBlue)
self.level.particles.append(p)
def __init__(self, grid, x, y, z, meta):
self.grid = grid
self.x = x
self.y = y
self.z = z
self.meta = meta
self.coords = utils.Vector(self.x, self.y, self.z)
def new_location(self, x, y, z, stance, grounded, yaw, pitch):
self.bot_object.set_xyz(x, y, z)
self.bot_object.stance_diff = stance - y
self.bot_object.on_ground = grounded
self.bot_object.yaw = yaw
self.bot_object.pitch = pitch
self.bot_object.velocities = utils.Vector(0.0, 0.0, 0.0)
self.check_location_received = True
if self.location_received is False:
self.location_received = True
if not self.in_complete_chunks(self.bot_object):
log.msg(
"Server sent me into incomplete chunks, will wait until they load up."
)
self.ready = False
def __init__(self):
self.velocities = utils.Vector(0.0, 0.0, 0.0)
self.direction = utils.Vector2D(0, 0)
self._x = 0
self._y = 0
self._z = 0
self.stance_diff = config.PLAYER_EYELEVEL
self.pitch = None
self.yaw = None
self.on_ground = False
self.is_collided_horizontally = False
self.horizontally_blocked = False
self.action = 2 # normal
self._action = self.action
self.is_jumping = False
self.hold_position_flag = True
def handle_water_movement(self, b_obj):
is_in_water = False
water_current = utils.Vector(0, 0, 0)
bb = b_obj.aabb.expand(-0.001, -0.401, -0.001)
top_y = utils.grid_shift(bb.max_y + 1)
for blk in self.world.grid.blocks_in_aabb(bb):
if isinstance(blk, blocks.BlockWater):
if top_y >= (blk.y + 1 - blk.height_percent):
is_in_water = True
water_current = blk.add_velocity_to(water_current)
if water_current.size > 0:
water_current.normalize()
wconst = 0.014
water_current = water_current * wconst
b_obj.velocities = b_obj.velocities + water_current
return is_in_water
def __init__(self, grid, x=None, y=None, z=None, vector=None):
self.grid = grid
self.x = x
self.y = y
self.z = z
self.coords = utils.Vector(self.x, self.y, self.z)
self.block_0 = grid.get_block(self.x, self.y - 1, self.z)
self.block_1 = grid.get_block(self.x, self.y, self.z)
self.block_2 = grid.get_block(self.x, self.y + 1, self.z)
self.can_be = self.block_1.can_fall_through and self.block_2.can_fall_through
self.can_stand = self.block_0.can_stand_on and self.can_be
self.can_jump = self.can_stand and self.block_1.is_free and self.block_2.is_free
self.can_fall = self.can_be and self.block_0.can_fall_through
self.can_climb = self.can_be and self.block_1.is_climbable
self.in_fire = self.block_1.is_burning or self.block_2.is_burning
self.in_water = self.block_1.is_water or self.block_2.is_water
self.can_hold = self.in_water or self.block_1.is_ladder or (
self.block_1.is_vine and self.block_1.is_climbable)
self.platform_y = self.y
self.center_x = self.x + 0.5
self.center_z = self.z + 0.5
def __init__(self, level, pos, *, centerpos=True, source_sprite, target):
super().__init__(level,
pos,
centerpos=centerpos,
norm_vector=utils.Vector(0, 0))
self.source_sprite = source_sprite # It always comes back!
self.target = target
self.dist = utils.dist(self.pos, self.target)
self.surface = self.base_image
self.length = self.base_length
self.curve_points = None
self.curve = self.new_curve()
self.time_trans = lambda t: utils.translate_to_zero_to_one_bounds(
t, (0, self.length))
self.time = 0
self.rotation = 0
self.coming_back = False
self.coming_back_curve = False
self.hit = set()
self.act_damage = self.max_damage
self.last_source_sprite_pos = self.source_sprite.rect.topleft
self.last_adist = self.dist
def update_sign(self, x, y, z, line1, line2, line3, line4):
sign = Sign(utils.Vector(x, y, z), line1, line2, line3, line4)
if sign.is_waypoint:
self.new(sign)
def render_image(args: Namespace, msg_send: bool = False) -> Tuple[Union[None, str], dict, list, utils.Vector]:
size = utils.Vector(args.width, args.height)
starting_point = args.starting_point
if starting_point is not None:
# For the user to use the coordinate indexing starting at one
starting_point = utils.Vector(*[x - 1 for x in args.starting_point])
color_background = tuple(args.color_background)
nebula = Nebula(
size,
args.max_count,
args.reproduce_chance,
quadratic=args.quadratic,
starting_point=starting_point
)
nebula.develop(min_percent=args.min_percent, max_percent=args.max_percent)
colors = config_colors()
if args.random_colors:
colors = utils.random_colors(args.colors_number)
gradient = utils.gradient(nebula.current_generation, colors)
elif len(colors) > 1:
gradient = utils.gradient(nebula.current_generation, colors)
if args.opaque:
for color in colors:
color[3] = 255
print(c.NOTIFICATION_MSG_BEFORE_RENDERING)
sleep(1)
image = Image.new('RGBA', (size.x, size.y))
draw = ImageDraw.Draw(image)
for x in range(size.x + 1):
print(f'[{datetime.now().time()}]', 'Image drawing:', '{:.5f}'.format(x / size.x * 100) + ' %', sep='\t')
for y in range(size.y + 1):
if nebula.squares[x][y]:
if len(colors) == 1:
max_gen = nebula.current_generation
gen = nebula.squares[x][y].gen
alpha = round((1 - gen / max_gen) * 255)
if args.fade_in:
alpha = round(gen / max_gen * 255)
colors[0][3] = alpha
draw.point([x, y], fill=tuple(colors[0]))
else:
gen = nebula.squares[x][y].gen - 1
draw.point([x, y], fill=gradient[gen])
else:
draw.point([x, y], fill=color_background)
image_name = f'{size.x}x{size.y}_{args.reproduce_chance}_{utils.generate_filename()}.png'
image_path = None
if args.save or msg_send:
if args.path:
image.save(args.path + image_name, format='PNG', optimize=True, quality=1)
image_path = args.path + image_name
elif msg_send:
image.save(c.TELEGRAM_IMAGES_SAVE_PATH + c.TELERGAM_IMAGE_PREFIX + image_name, 'PNG')
image_path = c.TELEGRAM_IMAGES_SAVE_PATH + c.TELERGAM_IMAGE_PREFIX + image_name
else:
image.save(image_name, 'PNG')
image_path = image_name
if args.dont_show_image:
image.show()
return image_path, vars(args), colors, nebula.starting_point
def position_eyelevel(self):
return utils.Vector(self.x, self.y_eyelevel, self.z)
def position_grid(self):
return utils.Vector(self.grid_x, self.grid_y, self.grid_z)
def position(self):
return utils.Vector(self.x, self.y, self.z)
def position_eyelevel(self):
return utils.Vector(self.x / 32.0, self.y / 32.0 + config.PLAYER_EYELEVEL, self.z / 32.0)
