def __init__(self, index, generator):
# Stores its location.
self.__index = index
# Retrieves the values needed from the UI.
self.__get_values(generator)
# Fetches a pointer to the cratering data.
cratering = self.__cratering
# Stores the transform and shape nodes.
nodes = []
# If this is the first moon created, create a polyPlatonicSolid.
if (index == 0):
# Creates the shape.
nodes = polyPlatonicSolid(radius=self.__radius, name="Moon")
# For aesthetics, the polyPlatonicSolid is beveled (based on the user's input) and smoothed.
polyBevel3(offset=getAttr("polyBevel1.offset") *
generator.get_spinbox_value("moon_ratio"),
depth=cratering.get_depth(),
segments=cratering.get_segments(),
fraction=cratering.get_fraction())
polySmooth(divisions=2)
# Otherwise, instance the original.
else:
nodes = instance("Moon")
# Stores the transform node.
self.__transform_node = nodes[0]
def makeShards(number,size,sizeVar,rgb1,rgb2,transparency,glow):
'''
Creates a number of ice shard particles
number : Number of particles to create
size : Radius of the particles
sizeVar : Variation in the radius
rgb1 : One end of the colour range in the form (r,g,b)
rgb2 : The other end of the colour range in the form (r,g,b)
transparency : Alpha value for the shader
glow : Glow value for the shader
The progress window is updated and the shading group list is created.
A while loop is initiated to create octahedrons, add them to the list
and assign shaders. The list of objects is returned.
'''
cmds.progressWindow(e=1,progress=0,status='Making Shards...')
SGList = createColourList(rgb1,rgb2,transparency,glow,5)
list=[]
count=0
while count<number:
radius = size+random.uniform(-(size*sizeVar*0.01),(size*sizeVar*0.01))
list[len(list):] = [cmds.polyPlatonicSolid(r=radius,st=2)[0]]
cmds.polySoftEdge(list[-1],a=0)
cmds.sets(list[-1], e=1, forceElement=SGList[random.randint(0,4)])
cmds.progressWindow(e=1,step=100/number)
count += 1
return list
def makeShards(number, size, sizeVar, rgb1, rgb2, transparency, glow):
'''
Creates a number of ice shard particles
number : Number of particles to create
size : Radius of the particles
sizeVar : Variation in the radius
rgb1 : One end of the colour range in the form (r,g,b)
rgb2 : The other end of the colour range in the form (r,g,b)
transparency : Alpha value for the shader
glow : Glow value for the shader
The progress window is updated and the shading group list is created.
A while loop is initiated to create octahedrons, add them to the list
and assign shaders. The list of objects is returned.
'''
cmds.progressWindow(e=1, progress=0, status='Making Shards...')
SGList = createColourList(rgb1, rgb2, transparency, glow, 5)
list = []
count = 0
while count < number:
radius = size + random.uniform(-(size * sizeVar * 0.01),
(size * sizeVar * 0.01))
list[len(list):] = [cmds.polyPlatonicSolid(r=radius, st=2)[0]]
cmds.polySoftEdge(list[-1], a=0)
cmds.sets(list[-1], e=1, forceElement=SGList[random.randint(0, 4)])
cmds.progressWindow(e=1, step=100 / number)
count += 1
return list
def __init__(self, generator):
# Creates a pointer to the generator.
self.__generator = generator
# The radius and cratering data is fetched from the UI.
self.__get_values()
# Maya generates the shape.
polyPlatonicSolid(radius=self.__radius, name="Planet")
# The cratering data is fetched,
cratering = self.__cratering
# For aesthetics, the polyPlatonicSolid is beveled (based on the user's input) and smoothed.
polyBevel3(depth=cratering.get_depth(),
segments=cratering.get_segments(),
fraction=cratering.get_fraction())
polySmooth(divisions=2)
# Cleanup objects that are no long necessary.
self.__generator = None
self.__cratering = None
def run_script(num_shield_pieces=50):
RED = [1, 0, 0] #red blood cells
BLUE = [0, 0, 1] #blue for the core, aka Sonic
DARK_RED = [.545, 0, 0]
#create the lighting for the scene
main_light = cmds.directionalLight(name="main_light", intensity=5)
cmds.move(-5.711, 14.564, 11.097, "main_light")
cmds.rotate('-67.367deg', '-24.33deg', '54.557deg', "main_light")
#create the shape of the core and the shield
shield_shape = cmds.polyTorus(sr=0.2, name="myRing#") #shape of shield
shield_center = cmds.polyPlatonicSolid(radius=2.55, st=1, name="core")
applyMaterial(shield_center[0], DARK_RED, 'lambert')
cmds.move(0, 9, 0, "core") #move the core higher
#add decorative cylinder to core
core_piece_1 = cmds.polyCylinder(name="tube_1")
applyMaterial(core_piece_1[0], BLUE, 'lambert')
cmds.move(0.195, 11.014, -1.221, "tube_1")
cmds.rotate('-30.351deg', 0, 0, "tube_1")
cmds.scale(0.505, 0.619, 0.505, "tube_1")
#add another decorative cylinder to core
core_piece_2 = cmds.polyCylinder(name="tube_2")
applyMaterial(core_piece_2[0], RED, 'lambert')
cmds.move(-0.917, 11.185, -0.216, "tube_2")
cmds.rotate('-3.436deg', '14.201deg', '24.834deg', "tube_2")
cmds.scale(0.505, 0.619, 0.505, "tube_2")
#generate random shield fragments
shield_pieces, shield_pieces_group = generate_shield(
shield_shape, num_shield_pieces)
#coloring the shield pieces
for piece_obj in shield_pieces:
applyMaterial(piece_obj[0], RED, 'phong')
#aim fragments at core
aim_at_first(shield_center, shield_pieces)
#create and link expansion attribute
locator_group = expand_from_first(shield_center, shield_pieces)
#must group locators so they can be rotated with the fragments
cmds.parent(locator_group, shield_pieces_group)
startTime = cmds.playbackOptions(query=True, minTime=True)
endTime = cmds.playbackOptions(query=True, maxTime=True)
#second param is rotation param
key_rotation(shield_pieces_group, 'rotateY', startTime, endTime)
#create heartbeat animation pattern
cmds.cutKey(shield_center,
time=(startTime, endTime),
attribute='expansion')
heartbeat(shield_center, 0)
heartbeat(shield_center, 2)
heartbeat(shield_center, 4)
heartbeat(shield_center, 6)
heartbeat(shield_center, 8)
heartbeat(shield_center, 10)
cmds.selectKey(shield_center,
time=(startTime, endTime),
attribute='expansion',
keyframe=True)
cmds.keyTangent(inTangentType='linear', outTangentType='linear')
def create_blob(size=2):
obj_name, _ = cmds.polyPlatonicSolid(st=1, r=size)
cmds.polySmooth(mth=1) # Linear smooth
randomize_faces(move_bias=[2, 1, 3])
return obj_name
def polyPlatonicSolid(*args, **kwargs):
res = cmds.polyPlatonicSolid(*args, **kwargs)
if not kwargs.get('query', kwargs.get('q', False)):
res = _factories.maybeConvert(res, _general.PyNode)
return res
def createPine(self, p_depth, # tree depth,
p_length, p_length_inc, p_r, p_rate,
p_l, # last segment tip
p_ll, # last segment base
branch_turn, branch_shift,
polygons, num_branches, branch_ang, foliage_sze, foliage_res, turn, branch, foliage_num, foliage_spr,
first_segment_l, pine_level, branch_chance, angle_chance, turn_chance, turn_amount, angle_amount):
if p_depth > 0:
branch_length = p_length * first_segment_l
lv = [p_l[0] - p_ll[0], p_l[1] - p_ll[1], p_l[2] - p_ll[2]]
m = math.sqrt(math.pow(lv[0], 2) + math.pow(lv[1], 2) + math.pow(lv[2], 2))
u = [lv[0] / m, lv[1] / m, lv[2] / m]
v = [lv[0] + p_ll[0] + (u[0] * branch_length), lv[1] + p_ll[1] + (u[1] * branch_length),
lv[2] + p_ll[2] + (u[2] * branch_length)]
if pine_level == 3 or pine_level == 2:
newP = [p_l[0] + 0.1, p_l[1], p_l[2]]
p = self.get_sp_point(p_l, p_ll, newP)
points = self.point_rotate_3d(p[0], p[1], p[2],
newP[0], newP[1], newP[2],
v[0], v[1], v[2],
branch_turn)
yTurn = self.point_rotate_3d(p_l[0], p_l[1], p_l[2],
v[0], v[1], v[2],
points[0], points[1], points[2],
branch_shift)
p_n = yTurn
else:
p_n = v
self.polytube(
p_l[0], p_l[1], p_l[2], # base point
p_n[0], p_n[1], p_n[2], # top point
p_ll[0], p_ll[1], p_ll[2],
p_r, p_r * p_rate, # base and top radius
polygons)
p_length = (p_length * p_length_inc)
p_r = p_r * p_rate
p_depth = p_depth - 1.0
if pine_level == 1:
self.createPine(p_depth, p_length, p_length_inc, p_r, p_rate,
p_n,
p_l,
branch_turn, branch_shift,
polygons, num_branches, branch_ang,
foliage_sze, foliage_res, turn, branch, foliage_num, foliage_spr, 1, 1, branch_chance,
angle_chance, turn_chance, turn_amount, angle_amount)
c = 0
if p_depth > 0:
branch_turn = branch_ang
turn = turn + math.pi / 2.0
for i in range(0, num_branches):
branch = True
p_length = p_length + random.uniform(-0.5, 0.5)
if random.uniform(0, 1) < turn_chance:
turn = turn + random.uniform(-turn_amount, turn_amount)
if random.uniform(0, 1) < angle_chance:
branch_turn = branch_turn + random.uniform(-angle_amount, angle_amount)
if random.uniform(0, 1) < 1.0 - branch_chance:
branch = False
c = c + 1
branch_shift = (i * ((math.pi * 2.0) / num_branches)) + turn
if branch:
self.createPine(p_depth * 0.5, p_length * 0.7, p_length_inc, p_r, p_rate,
p_n,
p_l,
branch_turn, branch_shift,
polygons, num_branches, branch_ang,
foliage_sze, foliage_res, turn, branch, foliage_num, foliage_spr, 1, 2,
branch_chance,
angle_chance, turn_chance, turn_amount, angle_amount)
if c == num_branches or p_depth <= 0:
randx = []
randy = []
randz = []
for r in range(0, 20):
randx.append(random.uniform(-foliage_spr, foliage_spr))
randy.append(random.uniform(-foliage_spr, foliage_spr))
randz.append(random.uniform(-foliage_spr, foliage_spr))
for j in range(0, foliage_num):
my_sphere = cmds.polyPlatonicSolid(l=foliage_sze, name='leaves#')
for i in range(0, foliage_res):
cmds.polySmooth(my_sphere)
cmds.move(p_n[0] + randx[j],
p_n[1] + randy[j],
p_n[2] + randz[j], my_sphere)
cmds.select(all=True) cmds.delete() cmds.polySphere(n='Sphere') cmds.polyCube(n='Cube') cmds.move(0, 0, 5) cmds.polyCylinder(n='Cylinder') cmds.move(0, 0, 10) cmds.polyCone(n='Cone') cmds.move(0, 0, 15) cmds.polyTorus(n='Torus') cmds.move(0, 0, 20) cmds.polyPlane(n='Plane') cmds.move(0, 0, 25) #cmds.polyDisc(n='Disc') #cmds.move( 0, 0, 30 ) cmds.polyPyramid(n='Pyramid') cmds.move(0, 0, 30) cmds.polyPlatonicSolid(n='Platonic') cmds.move(0, 0, 35) cmds.polyPrism(n='Prism') cmds.move(0, 0, 40) cmds.polyPipe(n='Pipe') cmds.move(0, 0, 45) cmds.polyHelix(n='Helix') cmds.move(0, 0, 50) #cmds.polyGear(n='Gear') #cmds.move( 0, 0, 60 ) cmds.polyPrimitive(r=1, l=0.4036, pt=0, n='SoccerBall') cmds.move(0, 0, 55)
