class MainWorld (World):
def __init__(self, window, player_ship_data = None, use_pygame = False, **kwargs):
super( MainWorld, self ).__init__( **kwargs)
self.window = window
resolution = (self.window.width, self.window.height )
self.setup_graphics( resolution )
self.setup_game( player_ship_data = player_ship_data )
self.setup_input()
self.setup_hud()
self.camera.following = self.player
self.main_layer.camera = self.camera
if use_pygame:
self.setup_pygame( resolution )
self.display.add_anonymous_hook( self.update_pygame )
self.pre_display.add_anonymous_hook( self.update_psys_managed_objects )
self.pre_physics.add_anonymous_hook( self.update_camera )
self.display.add_anonymous_hook( self.scene.update )
self.player.body.velocity_limit = 800.0 # experiment with this for actually chasing fleeing ships
self.pre_physics.add_hook( self.player, self.player.update )
self.pre_physics.add_hook( self.enemy, lambda dt : ai.ai_seek_target( dt, self.enemy, self.player, partial( self.shoot_volley, self.enemy ) ) )
# self.pre_physics.add_hook( self.enemy, lambda dt : ai.ai_flee_target( dt, self.enemy, self.player ) )
self.pre_physics.add_hook( self.enemy, self.enemy.update )
self.pre_physics.add_hook( self.enemy2, lambda dt : ai.ai_seek_target( dt, self.enemy2, self.player, partial( self.shoot_volley, self.enemy2 ) ) )
# self.pre_physics.add_hook( self.enemy2, lambda dt : ai.ai_flee_target( dt, self.enemy2, self.player ) )
self.pre_physics.add_hook( self.enemy2, self.enemy2.update )
for x in (self.player, self.enemy, self.enemy2):
self.post_physics.add_hook( x, x.tick )
x.add_to_minimap( self.minimap, "solid_white_5x5.png", (0,255,0) if x == self.player else (255,0,0) )
# for x in self.things:
# x.add_to_minimap( self.minimap, "solid_white_5x5.png", (128,128,128) )
self.physics.add_anonymous_hook( self.sim.tick )
self.scene.schedule( self.update_everything )
def on_save_ship(self, *args):
import sys
s = self.player.dump_string()
print >> sys.stderr, s
self.player.dump_file( "dumped_ship.yaml" )
def update_everything(self, dt):
self.tick( dt )
self.display_update()
def update_camera(self, dt):
self.camera.update( dt )
def setup_pygame(self, resolution):
pygame.init()
self.screen = pygame.display.set_mode( resolution )
def setup_graphics(self, resolution):
self.camera = graphics.Camera( self.window )
self.scene = graphics.Scene( self.window )
graphics.Layer( self.scene, cocos.layer.ColorLayer( 0, 0, 0, 1 ) )
for i in range(8):
graphics.Layer( self.scene, graphics.BackgroundCocosLayer( self.camera, 10.0 + 0.5 * i, "starfield{0}.png".format(i) ) )
self.hud_width = 170
self.main_layer = graphics.Layer( self.scene )
self.main_layer.cocos_layer.position = self.camera.offset()
self.main_layer.size = (self.window.width-self.hud_width,self.window.height)
self.hud_cocos_layer = graphics.BlankingCocosLayer()
self.hud_cocos_layer.clear_colour = (0,40,40,255)
self.hud_cocos_layer.clear_rect = ((self.window.width-self.hud_width,0),(self.window.width,0),(self.window.width,self.window.height),(self.window.width-self.hud_width,self.window.height))
self.hud_layer = graphics.Layer( self.scene, cocos_layer = self.hud_cocos_layer )
self.hud_layer.cocos_layer.position = 0,0
self.gem_images = pyglet.image.ImageGrid( pyglet.image.load("gems3.png"), 4, 4 )
self.atlas = Atlas( "atlas.generated" )
self.object_psys = bsgl.System( texture_id = self.atlas.sheet.get_texture().id )
self.hud_psys = bsgl.System( texture_id = self.atlas.sheet.get_texture().id )
def setup_hud(self):
def update_hp_display():
undamaged = 255,255,255
undamaged_cockpit = 0,255,0
damaged = damaged_cockpit = 255,0,0
# for block, sprite in self.hud_sprite.subcomponent.items():
# rel = float(block.hp) / block.max_hp
# a = damaged_cockpit if block.cockpit else damaged
# b = undamaged_cockpit if block.cockpit else undamaged
# sprite.color = vector_lerp( rel, a, b )
# cockpit = False
def create_hp_display():
self.hud_sprite = self.player.block_structure.create_sys_structure( self.hud_psys, self.atlas, self.player, sync_to_thing = False )
expected_size = self.hud_width
update_hp_display()
def recreate_hp_display():
self.hud_sprite.kill()
create_hp_display()
bar = graphics.VerticalBar( 8, 256, (0,64,0), (128,0,0) )
bar.position = (self.window.width - self.hud_width + 16), (self.window.height - self.hud_width - bar.height)
x, y = self.window.width - self.hud_width + 32, self.window.height - self.hud_width
speed_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
power_supply_size_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
power_production_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
thrust_power_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
turn_power_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
brake_power_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
number_of_engines_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
number_of_guns_label = last_element = graphics.create_label( x, y, layer = self.hud_cocos_layer )
y -= last_element.height + 8
x, y = self.window.width - self.hud_width + 16, self.window.height - self.hud_width - bar.height - 16
position_label = graphics.create_label( x, y, layer = self.hud_cocos_layer )
def update_labels():
x, y = self.player.position
position_label.element.text = "({0},{1})".format( int(x*0.1), int(y*0.1) )
speed_label.element.text = "S: {0:.1f}".format( self.player.speed )
power_production_label.element.text = "PP: {0}".format( int(sum( self.player.psu.production.values() ) ) )
power_supply_size_label.element.text = "MP: {0}".format( int(self.player.psu.max_storage) )
thrust_power_label.element.text = "T: {0}".format( self.player.thrust_power )
turn_power_label.element.text = "R: {0}".format( self.player.turn_power )
brake_power_label.element.text = "B: {0}".format( self.player.brake_power )
number_of_engines_label.element.text = "#E: {}".format( len( self.player.all_engines() ) )
number_of_guns_label.element.text = "#G: {0}/{1}".format( len( self.player.ready_guns() ), len( self.player.all_guns() ) )
def update_power_display():
bar.fill = self.player.psu.charge_rate()
self.hud_cocos_layer.add( bar )
self.minimap = graphics.Minimap( self.hud_width - 32, self.hud_width - 32, 5000, 5000, self.player )
self.minimap.position = (self.window.width - self.hud_width + 16), (self.window.height - self.hud_width - bar.height - self.hud_width - 16)
self.hud_cocos_layer.add( self.minimap )
def update_hud():
update_labels()
update_hp_display()
update_power_display()
self.minimap.update()
create_hp_display()
self.post_physics.add_anonymous_hook( ignore_arguments( update_hud ) )
self.player.reshape_hooks.add_anonymous_hook( recreate_hp_display )
def setup_game(self, player_ship_data = None):
self.sim = physics.PhysicsSimulator( timestep = None )
# self.player = create_ship_thing( self, self.main_layer, (500,500), shape = "small", hp = 5 )
if not player_ship_data:
self.player = Ship.load_file( "current_garage_ship.yaml", self )
else:
self.player = Ship.load_data( player_ship_data, self )
self.player.position = (300,300)
self.player.invulnerable = False
self.enemy = create_ship_thing( self, (500,500), shape = "small", hp = 10 )
self.enemy.invulnerable = False
self.enemy.body.angular_velocity_limit = degrees_to_radians(144*2)
self.enemy2 = create_ship_thing( self, (0,500), shape = "small", hp = 10 )
self.enemy2.invulnerable = False
self.enemy2.body.angular_velocity_limit = degrees_to_radians(144*2)
self.enemy.angle_degrees = random.random() * 360.0
self.enemy2.angle_degrees = random.random() * 360.0
self.batch = cocos.batch.BatchNode()
self.main_layer.cocos_layer.add( self.batch )
self.physics_objects = []
self.things = []
self.psys_managed_things = []
for i in range(200):
cols = "red", "purple", "grey", "blue", "green", "yellow"
sq = create_square_thing( self, None, (100,0), None )
sq.position = (random.random()-0.5) * 4000, (random.random()-0.5) * 4000
sq.angle_radians = random.random() * math.pi * 2
sq.mylabel = sq.position
sq.velocity = (300,10)
kw = {}
name = "polygon_normals.4.generated"
kw[ "size" ] = Vec2d(106.6666666,106.6666666)
kw[ "texture_coordinates" ] = self.atlas.texcoords( name )
kw[ "texture_size" ] = self.atlas.texsize( name )
z = random.random() * 6.28
r = 0.1 + random.random() * 10.0
pos = r*math.cos(z), r*math.sin(z)
# need to translate from pixel space
# [0,self.
# to
# [-1.3333,1.3333] x [-1,1]
p = sq.position
p = p + self.main_layer.cocos_layer.position
p = Vec2d(p) / Vec2d( self.window.width, self.window.height )
p = (p * 2) - Vec2d(1,1)
p = p * Vec2d( self.window.width / float(self.window.height), 1 )
kw[ "position" ] = p
kw[ "angle" ] = sq.angle_radians
kw[ "colour" ] = 1.0, 0.5, 0.5, 1.0
index = self.object_psys.add( **kw )
self.psys_managed_things.append( (sq, index) )
self.things.append( sq )
def draw_psys():
# CMSDTv
# T = translate by self.main_layer.cocos_layer.position
#
# M = v -> v - (1,1)
# C = v -> v * (w/h, 1)
w = float(self.window.width)
h = float(self.window.height)
x, y = self.main_layer.cocos_layer.position
mat = (2.0/w, 0.0, 0.0, (2*x/w-1),
0.0, 2.0/h, 0.0, (2*y/h-1),
0.0, 0.0, 1.0, 0.0,
0.0, 0.0, 0.0, 1.0)
self.object_psys.set_transformation_matrix( mat )
glEnable( GL_SCISSOR_TEST )
glScissor( 0, 0, self.window.width + 1 - self.hud_width, self.window.height )
self.object_psys.draw()
glDisable( GL_SCISSOR_TEST )
s = 0.3
sx, sy = 500 + self.sim._t * 100,200
sx, sy = self.window.width - self.hud_width * 0.5, self.window.height - self.hud_width * 0.5
mat = (0.0, s*2.0/w, 0.0, (2*sx/w-1),
s*2.0/h, 0, 0.0, (2*sy/h-1),
0.0, 0.0, 1.0, 0.0,
0.0, 0.0, 0.0, 1.0)
self.hud_psys.set_transformation_matrix( mat )
self.hud_psys.draw()
graphics.Layer( self.scene, cocos_layer = graphics.FunctionCocosLayer( draw_psys ) )
self.sim.space.add_collision_handler( physics.CollisionTypes["main"], physics.CollisionTypes["bullet"], self.collide_general_with_bullet )
def setup_input(self):
input_layer = graphics.Layer( self.scene, gameinput.CocosInputLayer() )
for k in (key.LEFT, key.RIGHT, key.UP, key.DOWN):
input_layer.cocos_layer.set_key_hook( k, self.player.on_controls_state )
input_layer.cocos_layer.set_key_hook( k, self.player.on_controls_state )
input_layer.cocos_layer.set_key_hook( key.LSHIFT, self.player.on_controls_state )
input_layer.cocos_layer.set_key_press_hook( key.SPACE, lambda *args, **kwargs: (self.player.on_controls_state(*args,**kwargs), self.shoot_volley(self.player)) )
input_layer.cocos_layer.set_key_release_hook( key.SPACE, lambda *args, **kwargs: self.player.on_controls_state(*args,**kwargs) )
input_layer.cocos_layer.set_key_press_hook( key.P, self.on_save_ship )
def shoot_volley(self, shooter):
guns = shooter.ready_guns()
index = 0
for gun in guns:
if not gun.may_activate():
continue
gun.shoot( shooter )
gun.activated( index )
def update_pygame(self):
self.screen.fill( pygame.color.THECOLORS[ "black" ] )
draw_space( self.screen, self.sim.space )
pygame.display.flip()
def update_psys_managed_objects(self):
for thing, index in self.psys_managed_things:
self.object_psys.update_position_and_angle( index, thing.position, thing.angle_radians )
def collide_general_with_bullet(self, space, arbiter ):
anything, bullet = arbiter.shapes
try:
thing = anything.thing
index = anything.extra_info
except AttributeError:
bullet.thing.ttl = min( bullet.thing.ttl, 0.05 )
return False
if bullet.thing.inert:
return False
if (bullet.thing.shooter == thing) and bullet.thing.grace > 0.0:
return False
try:
block = thing.block_structure.blocks[ index ]
hp = block.hp
except KeyError:
return False
except AttributeError:
return False
bullet.thing.impact( thing = thing, block_index = index, block = block )
bullet.thing.inert = True
bullet.thing.ttl = min( bullet.thing.ttl, 0.05 )
return False
def run(self):
self.window.run( self.scene )
def generateAtlases(self, basePath, sortOn, writer):
'''
Создание атласов и их описаний.
basePath путь и префикс имени файла с атласом
sortOn параметр сортировки атласов (ширина или высота)
writer объект для записи атласов
'''
assert sortOn in ('width', 'height'), 'SortOn must be either width or height'
assert writer in WRITERS, 'Unknown writer'
print >> self.__log, '[AtlasManager] generating atlases'
# Сортируем изображения в порядке увеличения параметра сортировки (будем искать подходящее
# по размерам изображение начиная с конца.
self.__images.sort(key=lambda i: getattr(i.paddedSourceRect.size, sortOn))
writer = WRITERS[writer]()
# Размещаем изображения.
atlasIndex = 0
while self.__images:
# Количество помещенных изображений
imageCount = 0
# Количество дубликатов
duplicateCount = 0
atlas = Atlas(self.__maxSize, self.__log)
areas = [Rect(Point(0, 0), self.__maxSize)]
while areas:
# Ищем изображение, максимально подходящее по размеру.
area = areas.pop()
image = self.__retainMostFittableImage(area.size)
# Если изображение не найдено, переходим к следующей области.
if image is None:
continue
# Размещаем изображение в верхний левый угол области и делим оставшееся пространство.
atlas.placeImage(image, area.origin)
areas.extend(self.__splitRect(area, image.paddedSourceRect.size, sortOn))
imageCount += 1
# Ищем оставшиеся дубликаты изображения
groupImages = self.__imagesGroupedBySize[image.sourceRect.size.sizeTuple]
groupImages.remove(image)
for dupeImage in list(groupImages):
if dupeImage.isEqual(image):
groupImages.remove(dupeImage)
atlas.placeImage(dupeImage, area.origin, isDuplicate=True)
duplicateCount += 1
imageCount += 1
self.__images.remove(dupeImage)
# Записываем атлас.
if not self.__withoutOptimize:
atlas.optimize()
atlasName = basePath + str(atlasIndex)
writer.writeAtlas(atlasName, atlas)
atlasIndex += 1
print >> self.__log, ' * [AtlasManager] writing atlas "%s" (images %d, duplicates %d%%)' % (os.path.basename(atlasName),
imageCount, float(duplicateCount) / imageCount * 100.0)
def setup_graphics(self, resolution):
self.camera = graphics.Camera(self.window)
self.scene = graphics.Scene(self.window)
graphics.Layer(self.scene, cocos.layer.ColorLayer(0, 0, 0, 1))
for i in range(8):
graphics.Layer(
self.scene,
graphics.BackgroundCocosLayer(self.camera, 10.0 + 0.5 * i,
"starfield{0}.png".format(i)))
self.hud_width = 170
self.main_layer = graphics.Layer(self.scene)
self.main_layer.cocos_layer.position = self.camera.offset()
self.main_layer.size = (self.window.width - self.hud_width,
self.window.height)
self.hud_cocos_layer = graphics.BlankingCocosLayer()
self.hud_cocos_layer.clear_colour = (0, 40, 40, 255)
self.hud_cocos_layer.clear_rect = ((self.window.width - self.hud_width,
0), (self.window.width,
0), (self.window.width,
self.window.height),
(self.window.width - self.hud_width,
self.window.height))
self.hud_layer = graphics.Layer(self.scene,
cocos_layer=self.hud_cocos_layer)
self.hud_layer.cocos_layer.position = 0, 0
self.gem_images = pyglet.image.ImageGrid(
pyglet.image.load("gems3.png"), 4, 4)
self.atlas = Atlas("atlas.generated")
self.object_psys = bsgl.System(
texture_id=self.atlas.sheet.get_texture().id)
self.hud_psys = bsgl.System(
texture_id=self.atlas.sheet.get_texture().id)
def run_game():
# game settings
cells = Group()
gameset = Settings()
gamestat = GameStat()
atlas = Atlas(gameset)
pygame.init()
screen = pygame.display.set_mode((gameset.scr_width, gameset.scr_height))
pygame.display.set_caption("Conway's Game of Life")
# main loop. 2 steps only for test.
evolvecount = 2
while True:
gf.check_events(gameset, gamestat, screen, atlas, cells)
# when the mouse is pressed down, begin setcell
if gamestat.setcell:
gf.check_setcell(gameset, gamestat, screen, atlas, cells)
print('matrix after cellset')
print(atlas.matrix)
# when game is on, atlas evolve itself.
if not gamestat.paused:
atlas.evolve()
evolvecount -= 1
# create cells according to atlas, and draw them.
gf.create_cells(gameset, gamestat, screen, atlas, cells)
gf.update_screen(gameset, screen, atlas, cells)
def _find_atlases(self):
""" Return a list of FSL atlases
"""
fsldir = utils.environment()["FSLDIR"]
if fsldir is None:
return []
atlases_dir = os.path.join(fsldir, "data", "atlases")
if not os.path.isdir(atlases_dir):
return []
atlases = []
for entry in os.listdir(atlases_dir):
if not os.path.isfile(os.path.join(atlases_dir, entry)):
continue
try:
atlas = Atlas.read(os.path.join(atlases_dir, entry))
except medipy.base.Exception, e:
# Cannot read the atlas
logging.warning("Cannot read the atlas: '{0}'".format(e))
continue
else:
atlases.append(atlas)
def __init__(self):
pg.init()
self.fps = 60
self.clock = pg.time.Clock()
self.ship = Ship()
self.screen = Screen(self.ship, self.clock)
self.atlas = Atlas()
self.fragments = Fragments(Vector(0, 0), self.atlas.dim, int(abs(self.atlas.dim) / 10))
self.all = [self.screen, self.fragments, self.ship, self.atlas]
def pack_charts(chart_list, list_cut_charts_dicts=[
dict(),
]):
# List of computed packed atlases
atlas_list = list()
# List of the computed packed atlases' scores
score_list = list()
# Run for each of the cuts
for cut_charts_dict in list_cut_charts_dicts:
# Create a new charts dictionary for each cut
chart_dict = dict(chart_list.charts)
new_id = chart_list._new_id
# Replace the charts with the cut charts for each affected chart
for key in cut_charts_dict:
cut_charts_dict[key][0].chart_id = key
chart_dict[key] = cut_charts_dict[key][0]
cut_charts_dict[key][1].chart_id = new_id
chart_dict[new_id] = cut_charts_dict[key][1]
new_id += 1
# Get a sorted list from big to small charts
sorted_list_charts = _sorted_chart_dict(chart_dict)
if not sorted_list_charts:
raise RuntimeError('pack_charts: sorted_list_charts is empty')
# Create atlas from the biggest chart
atlas = Atlas.from_chart(sorted_list_charts[0])
# Pop the biggest chart
sorted_list_charts.pop(0)
# Run as long as the list is not empty (pop every iteration)
while sorted_list_charts:
_add_chart_to_atlas(atlas, sorted_list_charts.pop(0))
# Add the atlas to the list of computed packed atlases
atlas_list.append(atlas)
# Add the atlas's score to the list
score_list.append(atlas.calc_score())
# Find the atlas with the maximal score
max_score_ind = 0
for i in range(len(score_list)):
if score_list[i] > score_list[max_score_ind]:
max_score_ind = i
# Return the atlas with the maximal score
return (atlas_list[max_score_ind], score_list[max_score_ind])
def input_analysis(name: str, test: list):
"""
This function calulaces the input mean/variance
from both the provided human input and the
open pose input.
:param str name: Is the name of the set in dataset diretory.
:param list test: Test method if several is avaible.
"""
dataobj = dataset(name)
atlasobj = Atlas(dataobj.setconf)
dataobj.set_atlas(atlasobj)
print(f"Created dataset object {name} {dataobj} size = {dataobj.count}")
dataobj.create_views()
def setup_graphics(self, resolution):
self.camera = graphics.Camera( self.window )
self.scene = graphics.Scene( self.window )
graphics.Layer( self.scene, cocos.layer.ColorLayer( 0, 0, 0, 1 ) )
for i in range(8):
graphics.Layer( self.scene, graphics.BackgroundCocosLayer( self.camera, 10.0 + 0.5 * i, "starfield{0}.png".format(i) ) )
self.hud_width = 170
self.main_layer = graphics.Layer( self.scene )
self.main_layer.cocos_layer.position = self.camera.offset()
self.main_layer.size = (self.window.width-self.hud_width,self.window.height)
self.hud_cocos_layer = graphics.BlankingCocosLayer()
self.hud_cocos_layer.clear_colour = (0,40,40,255)
self.hud_cocos_layer.clear_rect = ((self.window.width-self.hud_width,0),(self.window.width,0),(self.window.width,self.window.height),(self.window.width-self.hud_width,self.window.height))
self.hud_layer = graphics.Layer( self.scene, cocos_layer = self.hud_cocos_layer )
self.hud_layer.cocos_layer.position = 0,0
self.gem_images = pyglet.image.ImageGrid( pyglet.image.load("gems3.png"), 4, 4 )
self.atlas = Atlas( "atlas.generated" )
self.object_psys = bsgl.System( texture_id = self.atlas.sheet.get_texture().id )
self.hud_psys = bsgl.System( texture_id = self.atlas.sheet.get_texture().id )
def test_set(name):
"""
Tests a set in the dataset directory.
:param str name: is the name of the dataset that is loaded with this function
"""
# conf = None
# with open('./readset.yaml','r') as f:
# conf = yaml.load(f,Loader=yaml.FullLoader)
print("test")
datap1 = dataset(name)
myatlas = Atlas(datap1.setconf)
datap1.set_atlas(myatlas)
print(f"Created dataset object {name} {datap1} size = {datap1.count}")
datap1.create_views()
print("Done. Loaded all images")
datap1.show_atlas()
print("builds the atlas")
datap1.build_atlas()
print('Sovle geometry')
# datap1.geometry_solver()
datap1.create_latex_img_table(4)
print("end")
def __init__(self, window, continuation_with_ship=None, **kwargs):
super(GarageWorld, self).__init__(**kwargs)
self.window = window
self.scene = graphics.Scene(self.window)
self.sim = physics.PhysicsSimulator(timestep=None)
self.input_layer = gameinput.CocosInputLayer()
layer = graphics.Layer(self.scene,
cocos.layer.ColorLayer(128, 0, 128, 255))
graphics.Layer(self.scene,
cocos_layer=graphics.FunctionCocosLayer(self.draw_psys))
layer.cocos_layer.position = 0, 0
graphics.Layer(self.scene, self.input_layer)
self.atlas = Atlas("atlas.generated")
self.object_psys = bsgl.System(
texture_id=self.atlas.sheet.get_texture().id)
self.input_layer.mouse_motion_hooks.append(self.on_mouse_motion)
self.main_layer = graphics.Layer(self.scene)
self.root_node = cocos.cocosnode.CocosNode()
self.main_layer.cocos_layer.add(self.root_node)
self.continuation_with_ship = continuation_with_ship
root = PolygonBlock.load_file("blocks/poly5.yaml")
self.root_node.scale = 1
# for i in range(7):
# a = s.attach((0,i), blocks.QuadBlock(32), 0)
# b = s.attach((a,2), blocks.QuadBlock(32), 0)
# c = s.attach((b,2), blocks.QuadBlock(32), 0)
# d = s.attach((c,1), blocks.QuadBlock(32), 3)
# self.sprite_structure = None
self.garage_ship = None
self.block_shapes = map(
lambda n:
(lambda: PolygonBlock.load_file("blocks/poly{}.yaml".format(n))),
(3, 4, 5, 6, 8))
self.block_decorators = [
decorate_block_armour, decorate_block_battery,
decorate_block_generator
]
self.block_gun_mounter = decorate_block_with_guns_within
self.block_engine_mounter = decorate_block_with_engines_within
self.current_block_shape = self.block_shapes[0]
self.current_block_decorator = self.block_decorators[0]
self.restart_block_structure()
self.mouse_index = None
self.current_rotation = 0.0
self.current_position = (0, 0)
self.set_current_block()
self.input_layer.mouse_scroll_hooks.add_anonymous_hook(
self.on_mouse_scroll)
if self.continuation_with_ship:
self.input_layer.set_key_press_hook(key.ENTER,
self.on_continue_with_ship)
self.input_layer.set_key_press_hook(key.SPACE, self.on_place_block)
self.input_layer.set_key_press_hook(key.UP, self.on_next_shape)
self.input_layer.set_key_press_hook(key.DOWN, self.on_previous_shape)
self.input_layer.set_key_press_hook(key.RIGHT, self.on_next_decorator)
self.input_layer.set_key_press_hook(key.LEFT,
self.on_previous_decorator)
self.input_layer.set_key_press_hook(key.R,
self.on_restart_with_current)
self.input_layer.set_key_press_hook(key.P, self.on_save_ship)
self.input_layer.set_key_press_hook(key.L, self.on_load_ship)
self.input_layer.mouse_press_hooks[mouse.RIGHT] = self.on_next_shape
self.input_layer.mouse_press_hooks[mouse.LEFT] = self.on_place_block
self.refresh_garage_ship()
self.physics.add_anonymous_hook(self.sim.tick)
self.idle_time = 0.0
self.currently_idle = False
def create_and_run(idx, Consumer):
CONSUMER_CONFIG["ID"] = idx
consumer = Consumer(config=CONSUMER_CONFIG)
step = Atlas(consumer, config=STEP_CONFIG, level=level)
step.start()
class MainWorld(World):
def __init__(self,
window,
player_ship_data=None,
use_pygame=False,
**kwargs):
super(MainWorld, self).__init__(**kwargs)
self.window = window
resolution = (self.window.width, self.window.height)
self.setup_graphics(resolution)
self.setup_game(player_ship_data=player_ship_data)
self.setup_input()
self.setup_hud()
self.camera.following = self.player
self.main_layer.camera = self.camera
if use_pygame:
self.setup_pygame(resolution)
self.display.add_anonymous_hook(self.update_pygame)
self.pre_display.add_anonymous_hook(self.update_psys_managed_objects)
self.pre_physics.add_anonymous_hook(self.update_camera)
self.display.add_anonymous_hook(self.scene.update)
self.player.body.velocity_limit = 800.0 # experiment with this for actually chasing fleeing ships
self.pre_physics.add_hook(self.player, self.player.update)
self.pre_physics.add_hook(
self.enemy, lambda dt: ai.ai_seek_target(
dt, self.enemy, self.player,
partial(self.shoot_volley, self.enemy)))
# self.pre_physics.add_hook( self.enemy, lambda dt : ai.ai_flee_target( dt, self.enemy, self.player ) )
self.pre_physics.add_hook(self.enemy, self.enemy.update)
self.pre_physics.add_hook(
self.enemy2, lambda dt: ai.ai_seek_target(
dt, self.enemy2, self.player,
partial(self.shoot_volley, self.enemy2)))
# self.pre_physics.add_hook( self.enemy2, lambda dt : ai.ai_flee_target( dt, self.enemy2, self.player ) )
self.pre_physics.add_hook(self.enemy2, self.enemy2.update)
for x in (self.player, self.enemy, self.enemy2):
self.post_physics.add_hook(x, x.tick)
x.add_to_minimap(self.minimap, "solid_white_5x5.png",
(0, 255, 0) if x == self.player else (255, 0, 0))
# for x in self.things:
# x.add_to_minimap( self.minimap, "solid_white_5x5.png", (128,128,128) )
self.physics.add_anonymous_hook(self.sim.tick)
self.scene.schedule(self.update_everything)
def on_save_ship(self, *args):
import sys
s = self.player.dump_string()
print >> sys.stderr, s
self.player.dump_file("dumped_ship.yaml")
def update_everything(self, dt):
self.tick(dt)
self.display_update()
def update_camera(self, dt):
self.camera.update(dt)
def setup_pygame(self, resolution):
pygame.init()
self.screen = pygame.display.set_mode(resolution)
def setup_graphics(self, resolution):
self.camera = graphics.Camera(self.window)
self.scene = graphics.Scene(self.window)
graphics.Layer(self.scene, cocos.layer.ColorLayer(0, 0, 0, 1))
for i in range(8):
graphics.Layer(
self.scene,
graphics.BackgroundCocosLayer(self.camera, 10.0 + 0.5 * i,
"starfield{0}.png".format(i)))
self.hud_width = 170
self.main_layer = graphics.Layer(self.scene)
self.main_layer.cocos_layer.position = self.camera.offset()
self.main_layer.size = (self.window.width - self.hud_width,
self.window.height)
self.hud_cocos_layer = graphics.BlankingCocosLayer()
self.hud_cocos_layer.clear_colour = (0, 40, 40, 255)
self.hud_cocos_layer.clear_rect = ((self.window.width - self.hud_width,
0), (self.window.width,
0), (self.window.width,
self.window.height),
(self.window.width - self.hud_width,
self.window.height))
self.hud_layer = graphics.Layer(self.scene,
cocos_layer=self.hud_cocos_layer)
self.hud_layer.cocos_layer.position = 0, 0
self.gem_images = pyglet.image.ImageGrid(
pyglet.image.load("gems3.png"), 4, 4)
self.atlas = Atlas("atlas.generated")
self.object_psys = bsgl.System(
texture_id=self.atlas.sheet.get_texture().id)
self.hud_psys = bsgl.System(
texture_id=self.atlas.sheet.get_texture().id)
def setup_hud(self):
def update_hp_display():
undamaged = 255, 255, 255
undamaged_cockpit = 0, 255, 0
damaged = damaged_cockpit = 255, 0, 0
# for block, sprite in self.hud_sprite.subcomponent.items():
# rel = float(block.hp) / block.max_hp
# a = damaged_cockpit if block.cockpit else damaged
# b = undamaged_cockpit if block.cockpit else undamaged
# sprite.color = vector_lerp( rel, a, b )
# cockpit = False
def create_hp_display():
self.hud_sprite = self.player.block_structure.create_sys_structure(
self.hud_psys, self.atlas, self.player, sync_to_thing=False)
expected_size = self.hud_width
update_hp_display()
def recreate_hp_display():
self.hud_sprite.kill()
create_hp_display()
bar = graphics.VerticalBar(8, 256, (0, 64, 0), (128, 0, 0))
bar.position = (self.window.width - self.hud_width +
16), (self.window.height - self.hud_width - bar.height)
x, y = self.window.width - self.hud_width + 32, self.window.height - self.hud_width
speed_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
power_supply_size_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
power_production_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
thrust_power_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
turn_power_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
brake_power_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
number_of_engines_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
number_of_guns_label = last_element = graphics.create_label(
x, y, layer=self.hud_cocos_layer)
y -= last_element.height + 8
x, y = self.window.width - self.hud_width + 16, self.window.height - self.hud_width - bar.height - 16
position_label = graphics.create_label(x,
y,
layer=self.hud_cocos_layer)
def update_labels():
x, y = self.player.position
position_label.element.text = "({0},{1})".format(
int(x * 0.1), int(y * 0.1))
speed_label.element.text = "S: {0:.1f}".format(self.player.speed)
power_production_label.element.text = "PP: {0}".format(
int(sum(self.player.psu.production.values())))
power_supply_size_label.element.text = "MP: {0}".format(
int(self.player.psu.max_storage))
thrust_power_label.element.text = "T: {0}".format(
self.player.thrust_power)
turn_power_label.element.text = "R: {0}".format(
self.player.turn_power)
brake_power_label.element.text = "B: {0}".format(
self.player.brake_power)
number_of_engines_label.element.text = "#E: {}".format(
len(self.player.all_engines()))
number_of_guns_label.element.text = "#G: {0}/{1}".format(
len(self.player.ready_guns()), len(self.player.all_guns()))
def update_power_display():
bar.fill = self.player.psu.charge_rate()
self.hud_cocos_layer.add(bar)
self.minimap = graphics.Minimap(self.hud_width - 32,
self.hud_width - 32, 5000, 5000,
self.player)
self.minimap.position = (self.window.width - self.hud_width +
16), (self.window.height - self.hud_width -
bar.height - self.hud_width - 16)
self.hud_cocos_layer.add(self.minimap)
def update_hud():
update_labels()
update_hp_display()
update_power_display()
self.minimap.update()
create_hp_display()
self.post_physics.add_anonymous_hook(ignore_arguments(update_hud))
self.player.reshape_hooks.add_anonymous_hook(recreate_hp_display)
def setup_game(self, player_ship_data=None):
self.sim = physics.PhysicsSimulator(timestep=None)
# self.player = create_ship_thing( self, self.main_layer, (500,500), shape = "small", hp = 5 )
if not player_ship_data:
self.player = Ship.load_file("current_garage_ship.yaml", self)
else:
self.player = Ship.load_data(player_ship_data, self)
self.player.position = (300, 300)
self.player.invulnerable = False
self.enemy = create_ship_thing(self, (500, 500), shape="small", hp=10)
self.enemy.invulnerable = False
self.enemy.body.angular_velocity_limit = degrees_to_radians(144 * 2)
self.enemy2 = create_ship_thing(self, (0, 500), shape="small", hp=10)
self.enemy2.invulnerable = False
self.enemy2.body.angular_velocity_limit = degrees_to_radians(144 * 2)
self.enemy.angle_degrees = random.random() * 360.0
self.enemy2.angle_degrees = random.random() * 360.0
self.batch = cocos.batch.BatchNode()
self.main_layer.cocos_layer.add(self.batch)
self.physics_objects = []
self.things = []
self.psys_managed_things = []
for i in range(200):
cols = "red", "purple", "grey", "blue", "green", "yellow"
sq = create_square_thing(self, None, (100, 0), None)
sq.position = (random.random() - 0.5) * 4000, (random.random() -
0.5) * 4000
sq.angle_radians = random.random() * math.pi * 2
sq.mylabel = sq.position
sq.velocity = (300, 10)
kw = {}
name = "polygon_normals.4.generated"
kw["size"] = Vec2d(106.6666666, 106.6666666)
kw["texture_coordinates"] = self.atlas.texcoords(name)
kw["texture_size"] = self.atlas.texsize(name)
z = random.random() * 6.28
r = 0.1 + random.random() * 10.0
pos = r * math.cos(z), r * math.sin(z)
# need to translate from pixel space
# [0,self.
# to
# [-1.3333,1.3333] x [-1,1]
p = sq.position
p = p + self.main_layer.cocos_layer.position
p = Vec2d(p) / Vec2d(self.window.width, self.window.height)
p = (p * 2) - Vec2d(1, 1)
p = p * Vec2d(self.window.width / float(self.window.height), 1)
kw["position"] = p
kw["angle"] = sq.angle_radians
kw["colour"] = 1.0, 0.5, 0.5, 1.0
index = self.object_psys.add(**kw)
self.psys_managed_things.append((sq, index))
self.things.append(sq)
def draw_psys():
# CMSDTv
# T = translate by self.main_layer.cocos_layer.position
#
# M = v -> v - (1,1)
# C = v -> v * (w/h, 1)
w = float(self.window.width)
h = float(self.window.height)
x, y = self.main_layer.cocos_layer.position
mat = (2.0 / w, 0.0, 0.0, (2 * x / w - 1), 0.0, 2.0 / h, 0.0,
(2 * y / h - 1), 0.0, 0.0, 1.0, 0.0, 0.0, 0.0, 0.0, 1.0)
self.object_psys.set_transformation_matrix(mat)
glEnable(GL_SCISSOR_TEST)
glScissor(0, 0, self.window.width + 1 - self.hud_width,
self.window.height)
self.object_psys.draw()
glDisable(GL_SCISSOR_TEST)
s = 0.3
sx, sy = 500 + self.sim._t * 100, 200
sx, sy = self.window.width - self.hud_width * 0.5, self.window.height - self.hud_width * 0.5
mat = (0.0, s * 2.0 / w, 0.0, (2 * sx / w - 1), s * 2.0 / h, 0,
0.0, (2 * sy / h - 1), 0.0, 0.0, 1.0, 0.0, 0.0, 0.0, 0.0,
1.0)
self.hud_psys.set_transformation_matrix(mat)
self.hud_psys.draw()
graphics.Layer(self.scene,
cocos_layer=graphics.FunctionCocosLayer(draw_psys))
self.sim.space.add_collision_handler(physics.CollisionTypes["main"],
physics.CollisionTypes["bullet"],
self.collide_general_with_bullet)
def setup_input(self):
input_layer = graphics.Layer(self.scene, gameinput.CocosInputLayer())
for k in (key.LEFT, key.RIGHT, key.UP, key.DOWN):
input_layer.cocos_layer.set_key_hook(k,
self.player.on_controls_state)
input_layer.cocos_layer.set_key_hook(k, self.player.on_controls_state)
input_layer.cocos_layer.set_key_hook(key.LSHIFT,
self.player.on_controls_state)
input_layer.cocos_layer.set_key_press_hook(
key.SPACE, lambda *args, **kwargs: (self.player.on_controls_state(
*args, **kwargs), self.shoot_volley(self.player)))
input_layer.cocos_layer.set_key_release_hook(
key.SPACE, lambda *args, **kwargs: self.player.on_controls_state(
*args, **kwargs))
input_layer.cocos_layer.set_key_press_hook(key.P, self.on_save_ship)
def shoot_volley(self, shooter):
guns = shooter.ready_guns()
index = 0
for gun in guns:
if not gun.may_activate():
continue
gun.shoot(shooter)
gun.activated(index)
def update_pygame(self):
self.screen.fill(pygame.color.THECOLORS["black"])
draw_space(self.screen, self.sim.space)
pygame.display.flip()
def update_psys_managed_objects(self):
for thing, index in self.psys_managed_things:
self.object_psys.update_position_and_angle(index, thing.position,
thing.angle_radians)
def collide_general_with_bullet(self, space, arbiter):
anything, bullet = arbiter.shapes
try:
thing = anything.thing
index = anything.extra_info
except AttributeError:
bullet.thing.ttl = min(bullet.thing.ttl, 0.05)
return False
if bullet.thing.inert:
return False
if (bullet.thing.shooter == thing) and bullet.thing.grace > 0.0:
return False
try:
block = thing.block_structure.blocks[index]
hp = block.hp
except KeyError:
return False
except AttributeError:
return False
bullet.thing.impact(thing=thing, block_index=index, block=block)
bullet.thing.inert = True
bullet.thing.ttl = min(bullet.thing.ttl, 0.05)
return False
def run(self):
self.window.run(self.scene)
def generate(matrix):
size = matrix.size
voxels = matrix.voxels
uv_slices = []
vertices = []
indices = []
uvs = []
faces = []
for side in sides:
normal = side.normal
right = side.right
up = side.up
stack_size = abs(normal.x) * size.x + abs(normal.y) * size.y + abs(normal.z) * size.z
slice_width = abs(right.x) * size.x + abs(right.y) * size.y + abs(right.z) * size.z
slice_height = abs(up.x) * size.x + abs(up.y) * size.y + abs(up.z) * size.z
slice = numpy.empty(shape=(slice_width, slice_height), dtype=numpy.object)
for _z in range(stack_size):
for _x, _y in product(range(slice_width), range(slice_height)):
x = right.x * _x + up.x * _y + abs(normal.x) * _z
y = right.y * _x + up.y * _y + abs(normal.y) * _z
z = right.z * _x + up.z * _y + abs(normal.z) * _z
if voxels[x, y, z] is None:
continue
if not 0 <= x + normal.x < size.x or \
not 0 <= y + normal.y < size.y or \
not 0 <= z + normal.z < size.z or \
voxels[x + normal.x, y + normal.y, z + normal.z] is None:
slice[_x, _y] = voxels[x, y, z]
quads = []
for _y in range(slice_height):
_x = 0
while _x < slice_width:
qc = slice[_x, _y]
if qc is not None:
qx, qy = _x, _y
qw, qh = 1, 1
while qx + qw < slice_width and slice[qx + qw, qy] == qc:
qw += 1
while qy + qh < slice_height:
k = 0
while k < qw and slice[qx + k, qy + qh] == qc:
k += 1
if k != qw:
break
qh += 1
quads.append(Quad(qx, qy, qw, qh, qc))
for x, y in product(range(qw), range(qh)):
slice[qx + x, qy + y] = None
_x += qw
else:
_x += 1
uv_slice_index = len(vertices)
for q in quads:
_indices = [0, 1, 2, 3] if side.clockwise else [0, 3, 2, 1]
for i in _indices:
indices.append(i + len(vertices))
def make_vertex(x, y):
return FbxVector4(x * right.x + y * up.x + (_z + 0.5) * abs(normal.x) + 0.5 * normal.x,
x * right.y + y * up.y + (_z + 0.5) * abs(normal.y) + 0.5 * normal.y,
x * right.z + y * up.z + (_z + 0.5) * abs(normal.z) + 0.5 * normal.z)
vertices.extend([
make_vertex(q.x, q.y),
make_vertex(q.x, q.y + q.height),
make_vertex(q.x + q.width, q.y + q.height),
make_vertex(q.x + q.width, q.y)
])
uvs.extend([
FbxVector2(q.x, q.y),
FbxVector2(q.x, q.y + q.height),
FbxVector2(q.x + q.width, q.y + q.height),
FbxVector2(q.x + q.width, q.y),
])
faces.append(q.color)
uv_slices_count = len(vertices) - uv_slice_index
if uv_slices_count > 0:
uv_slices.append(UVSlice(uv_slice_index, uv_slices_count, slice_width, slice_height))
# build uv map
for u in uv_slices:
min_x = max_x = uvs[u.index][0]
min_y = max_y = uvs[u.index][1]
for i in range(u.index + 1, u.index + u.count - 1):
x, y = uvs[i]
min_x, max_x = min(x, min_x), max(x, max_x)
min_y, max_y = min(y, min_y), max(y, max_y)
for i in range(u.index, u.index + u.count):
uvs[i] = FbxVector2(uvs[i][0] - min_x, uvs[i][1] - min_y)
u.width, u.height = max_x - min_x, max_y - min_y
padding = 1
s = 0
for u in uv_slices:
s += (u.width + padding) * (u.height + padding)
map_size = 2
while pow(map_size, 2) < s:
map_size *= 2
atlas = None
while True:
fit = True
atlas = Atlas(map_size, map_size)
for u in uv_slices:
if not atlas.append(u.width + padding, u.height + padding, u):
fit = False
break
if fit:
break
else:
map_size *= 2
for x, y, u in atlas:
for i in range(u.index, u.index + u.count):
uvs[i] = FbxVector2(uvs[i][0] + x, uvs[i][1] + y)
# normalize uvs to [0..1]
for i, uv in enumerate(uvs):
uvs[i] = FbxVector2(uv[0] / map_size, uv[1] / map_size)
return vertices, indices, uvs, faces
#
# Execute the ETL job in Spark ...
#
print("==> Executing Spark ETL job ")
master = "local[*]"
appName = "Simple ETL Job"
sc = SparkContext(master, appName)
sc.setLogLevel("ERROR")
sqlContext = HiveContext(sc)
startTime = datetime.utcnow()
emp_dept_flat = etl()
endTime = datetime.utcnow()
print("Started: %s" % startTime.isoformat())
print("Ended: %s" % endTime.isoformat())
#
# ... and add the lineage to Atlas
#
print("Adding Lineage to Atlas (using the code in function 'etl')")
atlas = Atlas(cluster, atlasHost, user, password)
atlas.lineage.createHiveToHive(sourceDB, sourceTables, targetDB, targetTable, targetColumns, \
etl, usedSparkPackages, atlas.timestamp(startTime), atlas.timestamp(endTime), owner)
print("Done")
def main():
start_of_program_time = time.time()
ITERATIONS = 8
SCORE_RATIO = 0.7
if len(sys.argv) == 1 or (
len(sys.argv) == 2 and
(sys.argv[1] == '-h' or sys.argv[1] == '/h' or sys.argv[1] == '--help'
or sys.argv[1] == '-help' or sys.argv[1] == 'help')):
print('Usage: box_cutter PATH_TO_IMAGE FLAGS')
print(
'(The image needs to be a bitmap file, and should not be more than 128x128 pixels)'
)
print('\t-n INT\t\tMax number of void boxes to consider')
print('\t-i INT\t\tMax number of cut-repack iterations')
print('\t-s FLOAT\tMin ratio between starting score to current score')
print('\t-r\t\tEnable chart rotation for the packing phase')
print('\t-x\t\tEnable upside-down mirroring')
print('\t-y\t\tEnable left-to-right mirroring')
return
path = sys.argv[1]
path.strip(' \'\"')
im = Image.open(path)
prv_arg = None
for arg in sys.argv[2:]:
if prv_arg == '-n':
if is_int(arg):
BoxQueue.N = int(arg)
else:
raise Exception(
'__main__.py: The argument following \'-n\' must be an int'
)
if prv_arg == '-i':
if is_int(arg):
ITERATIONS = int(arg)
else:
raise Exception(
'__main__.py: The argument following \'-i\' must be an int'
)
if prv_arg == '-s':
if is_int(arg) or is_float(arg):
SCORE_RATIO = float(arg)
else:
raise Exception(
'__main__.py: The argument following \'-s\' must be a float'
)
if arg == '-r':
pc.ORIENTATIONS = 4
if arg == '-x':
pc.MIRROR_X = 2
if arg == '-y':
pc.MIRROR_Y = 2
prv_arg = arg
print('Importing atlas from image...')
atlas = Atlas.from_image(im)
start_time = time.time()
print('Doing the initial repacking of the atlas...')
(atlas, start_score) = pack_charts(atlas.chart_list)
end_time = time.time()
print('Took ' + str_time(end_time, start_time))
score = start_score
Atlas.MAX_AXIS = max(atlas.height, atlas.width)
for iteration in range(ITERATIONS):
start_time = time.time()
atlas.chart_list.import_from_atlas(atlas) # Workaround for a bug
print('Iteration ' + str(iteration + 1) + ' out of ' +
str(ITERATIONS) + ':')
print('\t' + str(iteration + 1) + ':' + 'Score ratio: ' +
str(float(start_score / score)))
print('\t' + str(iteration + 1) + ':' + 'Cutting the charts...')
li = cut_charts(atlas)
print('\t' + str(iteration + 1) + ':' + 'Repacking the charts...')
(atlas, score) = pack_charts(atlas.chart_list, li)
end_time = time.time()
print('\t' + str(iteration + 1) + ':' + 'Took ' +
str_time(end_time, start_time))
if (start_score / score) <= SCORE_RATIO:
print(
'Reached the desirable score improvement of start_score/score='
+ str(float(start_score)) + '/' + str(float(score)) + '=' +
str(float(start_score / score)) + '<=' +
str(float(SCORE_RATIO)) + '=desirable_score_ratio')
break
print('Converting atlas to image...')
new_im = atlas.to_image()
new_path = path[:len(path) - 4] + '_repacked.bmp'
new_im.save(new_path)
end_of_program_time = time.time()
print('Total elapsed time: ' +
str_time(end_of_program_time, start_of_program_time))
import os
import sys
import logging
SCRIPT_PATH = os.path.dirname(os.path.abspath(__file__))
PACKAGE_PATH = os.path.abspath(os.path.join(SCRIPT_PATH, ".."))
sys.path.append(PACKAGE_PATH)
from settings import *
level = logging.INFO
if os.getenv("LOGGING_DEBUG"):
level = logging.DEBUG
logging.basicConfig(
level=level,
format='%(asctime)s %(levelname)s %(name)s.%(funcName)s: %(message)s',
datefmt='%Y-%m-%d %H:%M:%S',
)
from atlas import Atlas
from apf.consumers import KafkaConsumer as Consumer
consumer = Consumer(config=CONSUMER_CONFIG)
step = Atlas(consumer, config=STEP_CONFIG, level=level)
step.start()
def atlas():
from atlas import Atlas
a = Atlas()
a.fetch_all()
a.test_active_tickets()
def setup(name, height, width):
# setup atlas
atlas = Atlas(name, height, width)
return atlas
when = c.data.split('_')[3]
keyboard = templates.HOURS_INLINE(when)
bot.answer_callback_query(c.id)
bot.edit_message_text("Set hour:",
message.chat.id,
message.message_id,
reply_markup=keyboard)
@bot.callback_query_handler(func=lambda c: c.data.startswith('min'))
def change_minute(c: telebot.types.CallbackQuery):
if not check_admin_rights(c):
return
message = c.message
when = c.data.split('_')[1]
m = c.data.split('_')[2]
atlas.change_minute(message.chat.id, when, m)
time = atlas.time(message.chat.id, when)
bot.answer_callback_query(c.id, "Time is changed to " + time)
if __name__ == '__main__':
atlas = Atlas()
templates = Templates(atlas)
sender = Sender()
sender.start()
try:
bot.polling(none_stop=True)
except:
pass
def main():
include_build_directory()
import pyglet
import pyglet.gl
import bsgl
import sys
window = pyglet.window.Window(vsync=True, width=1300, height=1000)
print window.width, window.height
label = pyglet.text.Label("Hello world!",
font_name="Times New Roman",
font_size=36,
x=window.width // 2,
y=window.height // 2,
anchor_x="center",
anchor_y="center")
atlas = Atlas("atlas.generated")
tex = atlas.sheet.get_texture()
fps = pyglet.clock.ClockDisplay()
pyglet.clock.schedule(lambda _: None)
t0 = [time.time(), time.time()]
psys = bsgl.System(texture_id=tex.id)
print psys.get_capacity(), psys.get_number_of_elements()
amount = 1000
psys.reserve(amount)
things = {}
def add_things():
for i in range(amount):
z = random.random() * 6.28
r = 0.001 + random.random() * 0.01
pos = r * math.cos(z), r * math.sin(z)
vel = tuple(
Vec2d(pos).normalized() * (1 + 4 * random.random()) * 3)
offset = 0, 0
texcoords = 0, 0
texsize = 1, 1
angle = random.random() * 6.28
avel = (-1 if random.random() > 0.5 else 1) * (
random.random() * 0.1 + 0.9) * 10 * Vec2d(vel).get_length()
size = (0.1, 0.1)
rgba = [random.random() for i in range(3)] + [1.0]
name = "polygon_normals.{}.generated".format(
random.choice((3, 4, 5, 6, 8)))
rv = psys.add(size=size,
texture_coordinates=atlas.texcoords(name),
texture_size=atlas.texsize(name),
position=pos,
offset=offset,
angle=angle,
colour=rgba)
things[rv] = (pos, angle, vel, avel)
def update_things(dt):
for index, (pos, a, vel, avel) in things.items():
x, y = pos
dx, dy = vel
t = 0.2 * dt
xp, yp = x + t * dx, y + t * dy
ap = a + t * avel
things[index] = ((xp, yp), ap, vel, avel)
psys.update_position_and_angle(index, (xp, yp), ap)
def reset_things():
for index in things.keys():
del things[index]
psys.remove(index)
assert len(things) == 0
add_things()
add_things()
indices = things.keys()
add_things()
for index in indices:
psys.remove(index)
del things[index]
print psys.get_capacity(), psys.get_number_of_elements()
@window.event
def on_draw():
pyglet.gl.glClearColor(0.5, 0.2, 0.5, 1.0)
window.clear()
label.draw()
t1 = time.time()
dt = t1 - t0[0]
t0[0] = t1
if (t1 - t0[1]) > 3.0:
reset_things()
t0[1] = t1
update_things(dt)
psys.draw() # position = (dt,2*dt) )
fps.draw()
pyglet.app.run()
def loadAtlasFromXml(self, node, filePath):
try:
atlas = self.atlases[filePath]
drawable = atlas.drawable
except KeyError:
atlas = Atlas(self.factory)
atlas.path = filePath
atlas.connect("sprite-added", self.workzone._spriteAddedCb)
atlas.connect("sprite-removed", self.workzone._spriteRemovedCb)
atlas.loadSprites(node)
atlas.connect("sprite-removed", self._atlasChangedCb)
atlas.connect("sprite-added", self._atlasChangedCb)
observer = AtlasLogObserver(self.workzone.app.action_log)
observer.startObserving(atlas)
self.atlases[filePath] = atlas
try:
drawable = self.factory.makeDrawableFromPath(filePath)
self.logger.info("User opened an atlas : %s", filePath)
except:
drawable = self.factory.makeNewDrawable(node.attrib["width"], node.attrib["height"])
if not node.attrib["width"]: #Imported atlas
node.attrib["width"] = str(drawable.image.size[0])
node.attrib["height"] = str(drawable.image.size[1])
atlas.setDrawable(drawable)
atlas.setXmlNode(node)
self.currentAtlas = atlas
try:
atlas.selection.disconnect_by_function(self.photoshop._atlasSelectionChangedCb)
except Exception:
pass
atlas.selection.connect("selected-changed", self.photoshop._atlasSelectionChangedCb)
self.photoshop.displayImage(drawable.image)
self._getOffsetsFromXml(node)
#!/usr/bin/env python
from atlas import Atlas
import logging
import time
logging.basicConfig(filename="tail.log",
filemode='a',
format='%(asctime)s,%(msecs)d %(name)s %(levelname)s %(message)s',
datefmt='%H:%M:%S',
level=logging.DEBUG)
logger = logging.getLogger
atlas = Atlas()
while True:
try:
print atlas.get_topic()
except:
break
class Grid:
def __init__(self, x, y, x_tile_gap, y_tile_gap, atlas_file):
self.set_atlas(atlas_file, atlas_file)
self.set_tiles(x, y, x_tile_gap, y_tile_gap)
self.characters = {}
def set_atlas(self, atlas_name, atlas_file_loc):
self.atlas = Atlas(atlas_name, atlas_file_loc)
# The integer value at each bitmap position will represent an asset id assigned to an asset
# in the atlas json.
def set_tiles(self, x, y, x_tile_gap, y_tile_gap):
self.tiles = [[Tile(i, j, x_tile_gap, y_tile_gap) for i in range(x)]
for j in range(y)]
self.selected_x = 0
self.selected_y = 0
self.batches = {}
bitmaps = self.atlas.get_bitmaps()
x_loc = 0
for row in range(x):
y_loc = 0
for col in range(y):
for bm_key in bitmaps:
if bm_key not in self.batches:
self.batches[bm_key] = pyglet.graphics.Batch()
bitmap = bitmaps[bm_key]
do_draw = bitmap[row][col]
if do_draw == 1:
asset = self.atlas.get_asset(bm_key,
self.batches[bm_key])
self.tiles[row][col].set_xy(x_loc, y_loc)
self.tiles[row][col].add_image(asset["image"],
asset["name"],
asset["layer"])
y_loc += y_tile_gap
x_loc += x_tile_gap
def add_character(self, char_obj, x, y, image_type="image"):
if "characters" not in self.batches:
self.batches["characters"] = pyglet.graphics.Batch()
char_obj.set_image(self.batches["characters"])
self.characters[char_obj.name] = char_obj.image
tile = self.tiles[x][y]
char_obj.image.x = tile.x
char_obj.image.y = tile.y
def get_selected_tile(self):
print("selected tile: ({},{},{})".format(
self.selected_x, self.selected_y, self.tiles[self.selected_x][
self.selected_y].get_image_descriptions()))
def move_selected_tile_up(self):
self.selected_y += 1
def move_selected_tile_left(self):
self.tiles[self.selected_x][self.selected_y].deselect()
self.selected_x -= 1
self.tiles[self.selected_x][self.selected_y].select()
def move_selected_tile_right(self):
self.tiles[self.selected_x][self.selected_y].deselect()
self.selected_x += 1
self.tiles[self.selected_x][self.selected_y].select()
def move_selected_tile_down(self):
self.tiles[self.selected_x][self.selected_y].deselect()
self.selected_y -= 1
self.tiles[self.selected_x][self.selected_y].select()
# Grid's draw method doesn't call tile's draw method.
# For optimization purposes, it uses batches that hold the tile's images.
# @TODO: Create 2 draw methods that can do either one of those options.
def draw(self):
# First draw the terrain assets.
assets_by_layer = self.atlas.get_assets_by_layer()
for asset in assets_by_layer:
asset_name = asset[0]
self.batches[asset_name].draw()
# Second draw the selected tile lines.
# @TODO: Make this more versatile.
# Draw rectangle around selected tile.
s_tile = self.tiles[self.selected_x][self.selected_y]
pyglet.graphics.draw(
2, pyglet.gl.GL_LINES,
('v2i', (s_tile.x, s_tile.y, s_tile.x, s_tile.y + s_tile.height)))
pyglet.graphics.draw(2, pyglet.gl.GL_LINES,
('v2i',
(s_tile.x, s_tile.y + s_tile.height, s_tile.x +
s_tile.width, s_tile.y + s_tile.height)))
pyglet.graphics.draw(
2, pyglet.gl.GL_LINES,
('v2i', (s_tile.x + s_tile.width, s_tile.y + s_tile.height,
s_tile.x + s_tile.width, s_tile.y)))
pyglet.graphics.draw(
2, pyglet.gl.GL_LINES,
('v2i', (s_tile.x + s_tile.width, s_tile.y, s_tile.x, s_tile.y)))
# Third draw the character sprites.
self.batches["characters"].draw()
def set_atlas(self, atlas_name, atlas_file_loc):
self.atlas = Atlas(atlas_name, atlas_file_loc)
if len(sys.argv) not in [2, 3]:
print("Usage: gps.py numCities|atlasFile [debugLevel].")
sys.exit(1)
if len(sys.argv) > 2:
if sys.argv[2] not in ['DEBUG', 'INFO', 'WARNING', 'ERROR']:
print('Debug level must be one of: DEBUG, INFO, WARNING, ERROR.')
sys.exit(2)
logging.getLogger().setLevel(sys.argv[2])
else:
logging.getLogger().setLevel('INFO')
try:
num_cities = int(sys.argv[1])
logging.info(
'Building random atlas with {} cities...'.format(num_cities))
usa = Atlas(num_cities)
logging.info('...built.')
except:
logging.info('Loading atlas from file {}...'.format(sys.argv[1]))
usa = Atlas.from_filename(sys.argv[1])
logging.info('...loaded.')
path, cost = find_best_path(usa)
print('Best path from {} to {} costs {}: {}.'.format(
0,
usa.get_num_cities() - 1, cost, path))
print('You expanded {} nodes: {}'.format(len(usa._nodes_expanded),
usa._nodes_expanded))
def init_atlas(debug=False): global atlas, username, password, api_url load_credentials() atlas = Atlas(username, password, api_url, verify_credentials=False, debug=debug)