def render(self):
RADIUS = 3
######################
## SMOKE SIMULATION ##
######################
bpy.ops.mesh.primitive_cube_add(location=(0.0, 0.0, 4.0),
radius=RADIUS)
container = bpy.context.object
container.name = 'smoke_container'
container.modifiers.new(name='container', type='SMOKE')
container.modifiers['container'].smoke_type = 'DOMAIN'
container.modifiers[
'container'].domain_settings.use_high_resolution = True
container.modifiers['container'].domain_settings.vorticity = 3
container.modifiers['container'].domain_settings.vorticity = 3
container.modifiers["container"].domain_settings.alpha = -1.2
helpers.assign_material(container,
bpy.data.materials['Smoke Domain Material'])
emitter = self.spawn_emitter_smoke(self.ORIGIN)
self.make_object_smoke_collider(self.SUBJECT)
emitter.modifiers["emitter"].flow_settings.density = 1
bpy.context.scene.frame_set(0)
emitter.location = helpers.rand_location(7, positive=True)
helpers.add_frame([emitter], ['location'])
bpy.context.scene.frame_set(self.NUMBER_OF_FRAMES)
emitter.location = (4, 4, 4)
helpers.add_frame([emitter], ['location'])
def matthew_curve(self, obj, time, scale = 0.2):
fx, fy, fz = self.rand_curve()
verts = [(fx(t), fy(t), fz(t)) for t in helpers.pitched_array(0, time, 0.2)]
bpy.context.scene.objects.active = obj
bpy.ops.object.select_all(action='DESELECT')
for idx, coord in enumerate(verts[0::self.MESH_OCCURENCE]):
new_obj = helpers.duplicate_object(obj)
new_obj.select = True
new_obj.location = coord
new_obj.scale = (0.02,0.02,0.02) if idx % 2 == 0 else (0.05, 0.05, 0.05)
new_obj.rotation_euler.z += idx * (2 * math.pi) / len(verts)
bpy.context.scene.objects.active = new_obj
bpy.ops.object.join()
res = bpy.context.object
res.name = 'fernandez'
helpers.resize(res)
helpers.center(res)
helpers.decimate(res)
helpers.assign_material(res, helpers.random_material(self.MATERIALS_NAMES))
support = helpers.create_mesh('fernandez_support', verts, [], (0,0,0), [[v, v+1] for v in range(0, (len(verts) - 1))])
helpers.resize(support)
helpers.center(support)
helpers.extrude(support)
helpers.assign_material(support, helpers.random_material(self.MATERIALS_NAMES))
return res
def render(self):
self.cubes = helpers.build_composite_object('Cube', self.SIZE - 1, 0.5)
for a in self.cubes:
for b in a:
for c in b:
c.location += mathutils.Vector(
(self.SIZE / 2, self.SIZE / 2, self.SIZE / 2))
self.cells = [[[0 for i in range(self.SIZE)] for k in range(self.SIZE)]
for j in range(self.SIZE)]
self.next_generation = [[[0 for i in range(self.SIZE)]
for k in range(self.SIZE)]
for j in range(self.SIZE)]
for x in range(self.SIZE):
for y in range(self.SIZE):
for z in range(self.SIZE):
self.cubes[x][y][z].scale = (.1, .1, .1)
self.cells[x][y][z] = numpy.random.choice([0, 1],
1,
p=[0.6, 0.4])[0]
helpers.assign_material(
self.cubes[x][y][z],
helpers.random_material(self.MATERIALS_NAMES))
print("Synthetic life begin")
self.adjust_scale()
for l in range(self.NUMBER_OF_FRAMES):
bpy.context.scene.frame_set(l)
print("Life in " + str(l))
self.life(l)
def render(self):
diameter = 4.0
sz = 2.125 / diameter
base_object = helpers.infer_primitive(random.choice(self.PRIMITIVES),
location=(100, 100, 100),
radius=sz)
latitude = 16
longitude = latitude * 2
invlatitude = 1.0 / (latitude - 1)
invlongitude = 1.0 / (longitude - 1)
iprc = 0.0
jprc = 0.0
phi = 0.0
theta = 0.0
invfcount = 1.0 / (self.NUMBER_OF_FRAMES - 1)
# Animate center of the sphere.
center = Vector((0.0, 0.0, 0.0))
startcenter = Vector((0.0, -4.0, 0.0))
stopcenter = Vector((0.0, 4.0, 0.0))
# Rotate cubes around the surface of the sphere.
pt = Vector((0.0, 0.0, 0.0))
rotpt = Vector((0.0, 0.0, 0.0))
# Change the axis of rotation for the point.
baseaxis = Vector((0.0, 1.0, 0.0))
axis = Vector((0.0, 0.0, 0.0))
# Slerp between two rotations for each cube.
startrot = Quaternion((0.0, 1.0, 0.0), pi)
stoprot = Quaternion((1.0, 0.0, 0.0), pi * 1.5)
currot = Quaternion()
for i in range(0, latitude, 1):
iprc = i * invlatitude
phi = pi * (i + 1) * invlatitude
rad = 0.01 + sz * abs(sin(phi)) * 0.99
pt.z = cos(phi) * diameter
for j in range(0, longitude, 1):
jprc = j * invlongitude
theta = TWOPI * j / longitude
pt.y = center.y + sin(phi) * sin(theta) * diameter
pt.x = center.x + sin(phi) * cos(theta) * diameter
current = helpers.duplicate_object(base_object)
current.location = pt
current.name = 'Object ({0:0>2d}, {1:0>2d})'.format(i, j)
current.data.name = 'Mesh ({0:0>2d}, {1:0>2d})'.format(i, j)
current.rotation_euler = (0.0, phi, theta)
helpers.assign_material(
current, helpers.random_material(self.MATERIALS_NAMES))
axis = self.vecrotatex(theta, baseaxis)
currot = startrot
center = startcenter
for f in range(0, self.NUMBER_OF_FRAMES, 1):
fprc = f / (self.NUMBER_OF_FRAMES - 1)
osc = abs(sin(TWOPI * fprc))
bpy.context.scene.frame_set(f)
center = startcenter.lerp(stopcenter, osc)
current.location = helpers.rotate_vector(
TWOPI * fprc, axis, pt)
current.keyframe_insert(data_path='location')
currot = startrot.slerp(stoprot, jprc * fprc)
current.rotation_euler = currot.to_euler()
current.keyframe_insert(data_path='rotation_euler')
def render(self):
frame = self.spawn_frame(helpers.build_segment(
(-10, -10, 0),
helpers.rand_proba(self.FUNCTIONS),
length=3,
pitch=1),
side=20)
helpers.assign_material(frame,
helpers.random_material(self.MATERIALS_NAMES))
def render(self):
######################
## FLUID SIMULATION ##
######################
self.SCENE.frame_end = self.NUMBER_OF_FRAMES
RADIUS = 20
bpy.ops.mesh.primitive_cube_add(location=(0.0, 0.0, 17), radius=RADIUS)
container = helpers.last_added_object('Cube')
container.name = 'fluid_container'
container.modifiers.new(name='container', type='FLUID_SIMULATION')
container.modifiers.new(name='smooth_container', type='SMOOTH')
container.modifiers['container'].settings.type = 'DOMAIN'
container.modifiers['container'].settings.generate_particles = 5
container.modifiers['container'].settings.surface_subdivisions = 50
container.modifiers['container'].settings.viscosity_exponent = 6
container.modifiers['container'].settings.viscosity_base = 1.0
container.modifiers['container'].settings.resolution = 25
container.modifiers['container'].settings.simulation_scale = 1
container.modifiers['container'].settings.simulation_rate = 5
self.BAKED.append(container)
self.spawn_emitter_fuild((-2, -2, 10),
mathutils.Vector((-0.5, -0.5, -2)))
self.spawn_emitter_fuild((2, 2, 10), mathutils.Vector((0.5, 0.5, -2)))
helpers.assign_material(container,
helpers.random_material(self.MATERIALS_NAMES))
######################
## SMOKE SIMULATION ##
######################
bpy.ops.mesh.primitive_cube_add(location=(0.0, 0.0, 17), radius=RADIUS)
container = helpers.last_added_object('Cube')
container.name = 'smoke_container'
container.modifiers.new(name='container', type='SMOKE')
container.modifiers['container'].smoke_type = 'DOMAIN'
container.modifiers[
'container'].domain_settings.use_high_resolution = True
container.modifiers['container'].domain_settings.vorticity = 3
self.BAKED.append(container)
self.spawn_emitter_smoke(self.ORIGIN)
# Bake animation
print(
"*** Baking commence *** (you might see a bunch of gibberish popping up cause baking is not supposed to be used headlessly"
)
bpy.ops.ptcache.free_bake_all() # free bake cache
bpy.ops.ptcache.bake_all(bake=True)
print("*** Baking finished ***")
def render(self):
base_model = self.SUBJECT
for i in range(0, 10):
copy = self.load_random_obj()
copy.scale = helpers.rand_scale_vector(round(random.uniform(0, 1), 10))
copy.location = helpers.rand_location()
angles = [-90, 90, 0]
self.props.append(copy)
copy.rotation_euler.z += math.radians(random.choice(angles))
copy.rotation_euler.y += math.radians(random.choice(angles))
copy.rotation_euler.x += math.radians(random.choice(angles))
copy.name = 'copy_' + str(i)
helpers.assign_material(copy, helpers.random_material(self.MATERIALS_NAMES))
cut_copy = self.duplicate_object(self.SUBJECT)
self.cut(cut_copy)
def add_ocean(self,
spatial_size,
resolution,
depth=100,
scale=(4, 4, 4),
wave_scale=0.5):
bpy.ops.mesh.primitive_cube_add(location=(0, 0, -0.4), radius=1)
ocean = helpers.last_added_object('Cube')
ocean.scale = scale
ocean.modifiers.new(name='Ocean', type='OCEAN')
ocean.modifiers["Ocean"].spatial_size = spatial_size
ocean.modifiers["Ocean"].resolution = resolution
ocean.modifiers["Ocean"].wave_scale = wave_scale
ocean.modifiers["Ocean"].depth = depth
helpers.assign_material(ocean, helpers.fetch_material("jello"))
shadow = helpers.duplicate_object(ocean)
shadow.location += mathutils.Vector((1, 1, -0.4))
helpers.wireframize(shadow, random.choice(self.COLORS))
shadow.name = 'shadow'
ocean.name = 'ocean'
return [ocean, shadow]
def render(self):
diameter = 4.0
sz = 2.125 / diameter
latitude = 10
longitude = latitude * 2
invlatitude = 1.0 / (latitude - 1)
current_frame = 0
jprc = 0.0
phi = 0.0
theta = 0.0
pt = Vector((0.0, 0.0, 0.0))
rotpt = Vector((0.0, 0.0, 0.0))
center = Vector((0.0, 0.0, 0.0))
baseaxis = Vector((0.0, 1.0, 0.0))
axis = Vector((0.0, 0.0, 0.0))
metaball_type = random.choice(self.TYPES)
mbdata = bpy.data.metaballs.new('meta_balls')
mbdata.render_resolution = 0.075
mbdata.resolution = 0.1
mbobj = bpy.data.objects.new("meta_bollocks", mbdata)
bpy.context.scene.objects.link(mbobj)
helpers.assign_material(mbobj, helpers.random_material(self.MATERIALS_NAMES))
for i in range(0, latitude, 1):
phi = pi * (i + 1) * invlatitude
pt.z = cos(phi) * diameter
for j in range(0, longitude, 1):
theta = TWOPI * j / longitude
pt.y = center.y + sin(phi) * sin(theta) * diameter
pt.x = center.x + sin(phi) * cos(theta) * diameter
mbelm = mbdata.elements.new(type=metaball_type)
mbelm.co = (latitude, longitude, 6)
mbelm.radius = 0.15 + sz * abs(sin(phi)) * 1.85
mbelm.stiffness = 1.0
if i % 7 == j % 3:
mbelm.use_negative = True
for f in range(0, self.NUMBER_OF_FRAMES, 1):
fprc = f / (self.NUMBER_OF_FRAMES - 1)
bpy.context.scene.frame_set(f)
mbelm.co = helpers.rotate_vector(TWOPI * fprc, axis, pt)
mbelm.keyframe_insert(data_path='co')
def render(self):
DURATION=self.NUMBER_OF_FRAMES
self.SCENE.frame_start = 0
self.SCENE.frame_end = DURATION
self.cubes = helpers.build_composite_object('Cube', self.SIZE-1, 0.5)
self.cells = [[[ 0 for i in range(self.SIZE)] for k in range(self.SIZE)] for j in range(self.SIZE)]
self.next_generation = [[[ 0 for i in range(self.SIZE)] for k in range(self.SIZE)] for j in range(self.SIZE)]
for x in range(self.SIZE):
for y in range(self.SIZE):
for z in range(self.SIZE):
self.cubes[x][y][z].scale=(.1,.1,.1)
self.cells[x][y][z] = random.choice(range(2))
helpers.assign_material(self.cubes[x][y][z], helpers.random_material(self.MATERIALS_NAMES))
print("Synthetic life begin")
self.adjust_scale()
for l in range(DURATION):
self.SCENE.frame_set(l)
print("Life in " + str(l))
self.life(l)
def render(self):
bpy.ops.import_scene.obj(
filepath=os.path.join(self.FIXTURES_FOLDER_PATH + 'm4a1.obj'),
use_edges=True)
bpy.ops.import_scene.obj(
filepath=os.path.join(self.FIXTURES_FOLDER_PATH + 'lightning.obj'),
use_edges=True)
m4a1 = bpy.data.objects['m4a1']
logo = bpy.data.objects["0_glitch3d_lightning"]
logo.name = 'logo'
logo.location = self.rand_location()
m4a1.location = self.rand_location()
m4a1.scale = (0.5, 0.5, 0.5)
self.props.append(m4a1)
self.props.append(logo)
rand_primitive = random.choice(self.PRIMITIVES)
# elements = helpers.build_composite_object(rand_primitive, 4, 1)
bpy.ops.mesh.primitive_grid_add(x_subdivisions=100,
y_subdivisions=100,
location=(0, 6, 2))
display1 = helpers.last_added_object('Grid')
display1.name = 'display_1'
bpy.ops.mesh.primitive_grid_add(x_subdivisions=100,
y_subdivisions=100,
location=(6, 0, 2))
display2 = helpers.last_added_object('Grid')
display2.name = 'display_2'
bpy.data.groups['displays'].objects.link(display1)
bpy.data.groups['displays'].objects.link(display2)
display1.rotation_euler.x += math.radians(90)
display1.rotation_euler.z -= math.radians(90)
display2.rotation_euler.x += math.radians(90)
display2.rotation_euler.y += math.radians(90)
display2.rotation_euler.z += math.radians(120)
for display in bpy.data.groups['displays'].objects:
display.rotation_euler.x += math.radians(90)
display.scale = self.DISPLAY_SCALE
helpers.texture_object(display, self.TEXTURE_FOLDER_PATH)
helpers.unwrap_model(display)
helpers.glitch(display)
for prop in self.props:
helpers.assign_material(
prop, helpers.random_material(self.MATERIALS_NAMES))
bpy.ops.mesh.primitive_plane_add(location=(0, 0, -2))
floor = self.last_added_object('Plane')
floor.name = 'floor'
floor.scale = (20, 20, 20)
helpers.subdivide(floor, int(random.uniform(1, 5)))
helpers.displace(floor)
self.OCEAN = self.add_ocean(10, 20)
self.LINES = bpy.data.groups['lines']
for j in range(0, random.choice(range(5, 40))):
for i in range(0, random.choice(range(5, 10))):
new_line = self.create_line(
'line' + str(uuid.uuid1()),
self.series(30, self.rand_proba(self.FUNCTIONS), 0.3),
random.choice(self.COLORS), 0.003, (j, -10, 2))
bpy.data.groups['lines'].objects.link(new_line)
new_line.location.z += i / 3
self.props.append(new_line)
helpers.spawn_text(self.TEXT_FILE_PATH, "PSKL")
helpers.apply_displacement(bpy.data.objects['ocean'],
self.HEIGHT_MAP_FOLDER_PATH)
for index in range(1, 5):
new_object = helpers.spawn_text(self.TEXT_FILE_PATH)
bpy.data.groups['texts'].objects.link(new_object)
self.props.append(new_object)
text_scale = random.uniform(0.75, 3)
self.assign_material(new_object,
helpers.random_material(self.MATERIALS_NAMES))
new_object.scale = (text_scale, text_scale, text_scale)
new_object.location = helpers.rand_location()
for obj in bpy.data.groups['neons'].objects:
self.wireframize(obj, random.choice(self.COLORS))
def render(self):
rand_curve = helpers.create_line('rand_curve', helpers.parametric_curve(helpers.rand_proba(self.FUNCTIONS), helpers.rand_proba(self.FUNCTIONS), self.rand_proba(self.FUNCTIONS), 100, 100), random.choice(self.COLORS))
rand_curve.scale = (2,2,2)
helpers.glitch(rand_curve)
art = self.matthew_curve(self.SUBJECT, 50)
helpers.assign_material(art, helpers.random_material(self.MATERIALS_NAMES))
def render(self):
bpy.ops.mesh.primitive_cube_add(location=(0, 0, 100), radius=1)
cube = helpers.last_added_object('Cube')
helpers.assign_material(cube,
helpers.random_material(self.MATERIALS_NAMES))
self.spawn_particles_system(self.SUBJECT, cube)
def render(self):
count = self.COUNT
# Size of grid.
extents = 8.0
# The height of each cube will be animated, so we'll specify the minimum and maximum scale.
sz = (extents / count)
base_object = helpers.infer_primitive(random.choice(self.PRIMITIVES), location = (100, 100, 100), radius=sz)
helpers.assign_material(base_object, helpers.random_material(self.MATERIALS_NAMES))
minsz = sz * 0.25
maxsz = sz * extents
# To convert abstract grid position within loop to real-world coordinate.
jprc = 0.0
kprc = 0.0
countf = 1.0 / (count - 1)
diffex = extents * 2
y = 0.0
x = 0.0
centerz = 0.0
centery = 0.0
centerx = 0.0
# The maximum possible distance is used to normalize the distance.
rise = 0.0
run = 0.0
normdist = 0.0
maxdist = sqrt(2 * extents * extents)
# For generating the wave.
offset = 0.0
angle = 0.0
# Loop through grid y axis.
for j in range(0, count, 1):
jprc = j * countf
y = -extents + jprc * diffex
# Calculate rise.
rise = y - centery
rise *= rise
# Loop through grid x axis.
for k in range(0, count, 1):
kprc = k * countf
x = -extents + kprc * diffex
# Calculate run.
run = x - centerx
run *= run
# Find normalized distance using Pythogorean theorem.
# Remap the normalized distance to a range -PI .. PI
normdist = sqrt(rise + run) / maxdist
offset = -TWOPI * normdist + pi
current = helpers.duplicate_object(base_object)
current.location = (centerx + x, centery + y, centerz)
current.name = 'Object ({0:0>2d}, {1:0>2d})'.format(k, j)
current.data.name = 'Mesh ({0:0>2d}, {1:0>2d})'.format(k, j)
for f in range(0, self.NUMBER_OF_FRAMES, 1):
# Convert the keyframe into an angle.
fprc = f * 1.0 / (self.NUMBER_OF_FRAMES - 1)
angle = TWOPI * fprc
# Set the scene to the current frame.
bpy.context.scene.frame_set(f)
# Change the scale.
# sin returns a value in the range -1 .. 1. abs changes the range to 0 .. 1.
# The values are remapped to the desired scale with min + percent * (max - min).
current.scale.z = minsz + abs(sin(offset + angle)) * (maxsz - minsz)
helpers.add_frame([current], ['scale'])
def render(self):
props = []
bpy.ops.import_scene.obj(
filepath=os.path.join(self.MODELS_FOLDER_PATH + 'lightning.obj'),
use_edges=True)
logo = bpy.context.selected_objects[0]
logo.location = helpers.rand_location(self.CANVAS_BOUNDARY)
props.append(logo)
bpy.ops.mesh.primitive_grid_add(x_subdivisions=100,
y_subdivisions=100,
location=(0, 6, 2))
display1 = bpy.context.object
display1.name = 'display_1'
bpy.ops.mesh.primitive_grid_add(x_subdivisions=100,
y_subdivisions=100,
location=(6, 0, 2))
display2 = bpy.context.object
display2.name = 'display_2'
bpy.data.groups['displays'].objects.link(display1)
bpy.data.groups['displays'].objects.link(display2)
display1.rotation_euler.x += math.radians(90)
display1.rotation_euler.z -= math.radians(90)
display2.rotation_euler.x += math.radians(90)
display2.rotation_euler.y += math.radians(90)
display2.rotation_euler.z += math.radians(120)
for display in bpy.data.groups['displays'].objects:
display.rotation_euler.x += math.radians(90)
display.scale = self.DISPLAY_SCALE
helpers.texture_object(display, self.TEXTURE_FOLDER_PATH)
helpers.unwrap_model(display)
helpers.glitch(display)
for j in range(0, random.choice(range(5, 40))):
for i in range(0, random.choice(range(5, 10))):
new_line = self.create_line(
'line' + str(uuid.uuid1()),
self.series(30, self.rand_proba(self.FUNCTIONS), 0.3),
random.choice(self.COLORS), 0.003, (j, -10, 2))
bpy.data.groups['lines'].objects.link(new_line)
new_line.location.z += i / 3
props.append(new_line)
ocean = self.add_ocean(10, 20)
for index in range(1, 5):
new_object = helpers.spawn_text(self.TEXT_FILE_PATH)
bpy.data.groups['texts'].objects.link(new_object)
props.append(new_object)
helpers.assign_material(
new_object, helpers.random_material(self.MATERIALS_NAMES))
text_scale = random.uniform(0.75, 3)
new_object.scale = (text_scale, text_scale, text_scale)
new_object.location = helpers.rand_location(self.CANVAS_BOUNDARY)
props.append(new_object)
for obj in bpy.data.groups['neons'].objects:
self.wireframize(obj, random.choice(self.COLORS))
for f in range(self.NUMBER_OF_FRAMES):
bpy.context.scene.frame_set(f)
for prop in props:
helpers.shuffle(prop, self.CANVAS_BOUNDARY)
helpers.assign_material(
prop, helpers.random_material(self.MATERIALS_NAMES))
