def make_shape(type, name, divisions):
"""
Creates shape based on argument passed
Args:
type: {cube, cone, cylinder, plane, torus, sphere}
name: name of the object
divisions: number of subdivisions we want to apply in x,y and z axis.
Same value will be taken in all axis.
Return:
None
"""
if type == 'cube':
mc.polyCube(n=name, sx=divisions, sy=divisions, sz=divisions)
elif type == 'cone':
mc.polyCone(n=name, sx=divisions, sy=divisions, sz=divisions)
elif type == 'cylinder':
mc.polyCylinder(n=name, sx=divisions, sy=divisions, sz=divisions)
elif type == 'plane':
mc.polyPlane(n=name, sx=divisions, sy=divisions)
elif type == 'torus':
mc.polyTorus(n=name, sx=divisions, sy=divisions)
elif type == 'sphere':
mc.polySphere(n=name, sx=divisions, sy=divisions)
else:
mc.polySphere()
def createItem(self,*args):
self.item = mc.optionMenu(self.objectSelectionMenu, query = True, value = True)
if self.item == "Sphere":
self.xSubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value1= True)
self.ySubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value2= True)
self.radiusInput = mc.intSliderGrp(self.radiusFloat, query = True, value = True)
mc.polySphere(n = "mySphere",sx = self.xSubInput, sy = self.ySubInput, r = self.radiusInput)
elif self.item == "Cube":
self.xSubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value1= True)
self.ySubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value2= True)
self.widthInput = mc.intSliderGrp(self.widthFloat, query = True, value = True)
self.depthInput = mc.intSliderGrp(self.depthFloat, query = True, value = True)
self.heightInput = mc.intSliderGrp(self.heightFloat, query = True, value = True)
mc.polyCube(n = "myCube", sx = self.xSubInput, sy = self.ySubInput, w = self.widthInput, d = self.depthInput, h = self.heightInput)
elif self.item == "Cylinder":
self.xSubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value1= True)
self.ySubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value2= True)
self.radiusInput = mc.intSliderGrp(self.radiusFloat, query = True, value = True)
mc.polyCylinder(n = "myCylinder",sx = self.xSubInput, sy = self.ySubInput, r = self.radiusInput)
elif self.item == "Cone":
self.xSubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value1= True)
self.ySubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value2= True)
self.radiusInput = mc.intSliderGrp(self.radiusFloat, query = True, value = True)
mc.polyCone(n = "myCone",sx = self.xSubInput, sy = self.ySubInput, r = self.radiusInput)
elif self.item == "Torus":
self.xSubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value1= True)
self.ySubInput = mc.intFieldGrp(self.objectSubFloat, query = True, value2= True)
self.radiusInput = mc.intSliderGrp(self.radiusFloat, query = True, value = True)
mc.polyTorus(n = "myTorus",sx = self.xSubInput, sy = self.ySubInput, r = self.radiusInput)
def makeRoundHoleBlock(blockDepth):
cubeDimX = 0.74
cubeDimY = 0.78
cubeDimZ = (blockDepth * 0.8) - (blockDepth*0.8/blockDepth)
# Make Block
block = cmds.polyCube(width=cubeDimX, height=cubeDimY, depth=cubeDimZ, ch=False)
cmds.move((cubeDimY/2.0), moveY=True)
# Make left endcap
endCap = cmds.polyCylinder(r=cubeDimY * 0.5, h=cubeDimX, ax=(1,0,0), ch=False )
cmds.move( (cubeDimZ * 0.5), moveZ=True, a=True)
cmds.move( (cubeDimY * 0.5), moveY=True, a=True)
block = cmds.polyCBoolOp( block[0], endCap[0], op=1, ch=False )
# Make right endcap
endCap = cmds.polyCylinder(r=cubeDimY * 0.5, h=cubeDimX, ax=(1,0,0), ch=False )
cmds.move( (cubeDimZ * -0.5), moveZ=True, a=True)
cmds.move( (cubeDimY * 0.5), moveY=True, a=True)
block = cmds.polyCBoolOp( block[0], endCap[0], op=1, ch=False )
cmds.xform(centerPivots = True )
for z in range(blockDepth):
block = makeBeamHole( block, z , cubeDimX, cubeDimY, cubeDimZ )
block = makeBeamPipe( block, z , cubeDimX, cubeDimY, cubeDimZ )
return block
def MakeWheel(radius=3.6): # Function returns group name for a wheel
myListOfRotValues = range(0, 360, 20)
wheel = []
x = 0
for curCyl in myListOfRotValues:
curSpoke = mc.polyCylinder(r=0.1, h=radius)
wheel.append(curSpoke[0])
mc.move(0, radius / 2, 0)
mc.move(0, 0, 0, curSpoke[0] + ".scalePivot",
curSpoke[0] + ".rotatePivot")
mc.rotate(20 * x, 0, 0)
x += 1
wheelCenter = mc.polyCylinder(ax=(1, 0, 0))
wheel.append(wheelCenter[0])
mc.scale(0.22, 0.6, 0.6)
wheelEdge = mc.polyTorus(r=radius, sr=0.3, sx=40, sy=5, ax=(1, 0, 0))
mc.scale(0.537, 1, 1)
wheel.append(wheelEdge[0])
finalWheel = mc.group(wheel)
if trainSpeed > 0:
circumference = 2 * 3.14 * radius
wheelRotationTime = (circumference / trainSpeed)
mc.expression(s="rotateX = time * (360 / " + str(wheelRotationTime) +
");",
o=finalWheel)
return finalWheel
def createABranch(rotAxis, angle):
global prevRot, prevPos
'''Extract Euler angles from constructed quaternion'''
euAngles = EulerAnglesFromAxisQuat(rotAxis, angle)
#print toDegrees(euAngles[0])#x
#print toDegrees(euAngles[1])#y
#print toDegrees(euAngles[2])#z
'''Create Cylinder'''
branch = mc.polyCylinder(
n='cy1', r=0.1, height=branchLength) #axis=(dirx[0],diry[0],dirz[0]),
#time.sleep(1)
'''Set pivot to botton so as to rotate properly'''
bbox = mc.exactWorldBoundingBox(branch)
bottom = [(bbox[0] + bbox[3]) / 2, bbox[1],
(bbox[2] + bbox[5]) / 2] #(xmin,xmax)/2 , (zmin,zmax)/2
#now set pivot to the bottom of the cylinder
mc.xform(branch[0], piv=bottom, ws=True, r=True)
cmds.refresh()
#time.sleep(1)
print "branchStackPos=%s" % (branchStackPos)
#print "myposUsed=%s"%(prevPos)
mypos = prevPos
myrot = prevRot
#mypos=branchStackPos.pop()
#myrot=branchStackRot.pop()
'''Move cylinder to the current position & the current rotation'''
mc.xform(rotation=myrot, translation=mypos)
cmds.refresh()
#time.sleep(1)
cylHeight = mc.polyCylinder(branch[0], height=True, query=True)
'''move towards direction- push it up on the local y Axis'''
mc.move(0, cylHeight, 0, r=True,
os=True) #step forward - move up in local Y
'''Store this new branch position'''
prevPos = mc.xform(query=True, translation=True,
worldSpace=True) #keeps the previous position
cmds.refresh()
#time.sleep(1)
'''Rotate and Store rotation'''
mc.rotate(toDegrees(euAngles[0]),
toDegrees(euAngles[1]),
toDegrees(euAngles[2]),
branch[0],
r=True) #perform relative rotation
prevRot = mc.xform(
query=True, rotation=True,
worldSpace=True) #keeps the previous rotated degree angles
cmds.refresh()
#time.sleep(1)
setAngle(0)
def applyBtnCmd(self, *args):
stepH = cmds.floatSliderGrp(self.stepH, q=True, value=True)
stepW = cmds.floatSliderGrp(self.stepW, q=True, value=True)
stepD = cmds.floatSliderGrp(self.stepD, q=True, value=True)
numSteps = cmds.intSliderGrp(self.noStep, q=True, value=True)
railH = cmds.floatSliderGrp(self.railH, q=True, value=True)
totH = stepH * numSteps
totD = stepD * numSteps
railAngle = math.atan(totD / totH)
rad2deg = railAngle * 180 / math.pi
railLen = math.sqrt(totH * totH + totD * totD)
for i in range(0, numSteps):
cmds.polyCube(h=stepH, w=stepW, d=stepD)
cmds.move(0, stepH * i, stepD * i)
if railH > 0:
cmds.polyCylinder(r=0.5, h=railH)
cmds.move(stepW / 2, stepH * i + 0.5 * railH, stepD * i)
if railH > 0:
cmds.polyCylinder(r=0.5, h=railLen)
cmds.rotate(rad2deg, 0, 0)
cmds.move(stepW / 2, totH / 2 + railH - 0.5 * stepH,
totD / 2 - 0.5 * stepD)
def generate(cls, *args):
components = []
boolean = []
width = cmds.intSliderGrp(cls.get_prefix() + Labels["width_label"], query=True, value=True)
rgb = cmds.colorSliderGrp(cls.get_prefix() + Labels["color_label"], query=True, rgbValue=True)
block_width = width * Constants["block_width_unit"]
block_height = Constants["block_height_unit"]
block_depth = Constants["block_depth_unit"]
for x in range(0, width):
stub = cmds.polyCylinder(name=get_unique_name(cls.get_prefix(), "Stub"), radius=Constants["stub_radius"], height = Constants["stub_height"])
components.append(stub[0])
cmds.move(Constants["block_width_unit"] * x + half(Constants["block_width_unit"]), half(Constants["block_height_unit"]) + half(Constants["stub_height"]), half(Constants["block_depth_unit"]), stub[0])
for x in range(0, width-1):
hole = cmds.polyCylinder(name=get_unique_name(cls.get_prefix(), "Hole"), radius=Constants["perforation_radius"], height=Constants["block_depth_unit"] + 0.2)
boolean.append(hole[0])
cmds.rotate('90deg', 0, 0, hole[0])
cmds.move(Constants["block_width_unit"] * x + Constants["block_width_unit"], 0, half(Constants["block_depth_unit"]), hole[0])
cube = cmds.polyCube(sx=5,sy=2,sz=2,name=get_unique_name(cls.get_prefix(), "block"), width=block_width, height=block_height, depth=block_depth)
components.append(cube[0])
cmds.move(half(width * Constants["block_width_unit"]), 0, half(Constants["block_depth_unit"]), cube)
solid = cmds.polyUnite(components, name=get_unique_name(cls.get_prefix(), ""))
boolean_group = cmds.polyUnite(boolean, name=get_unique_name(cls.get_prefix(),"boolean"))
final = cmds.polyBoolOp( solid[0], boolean_group[0], op=2, n=get_unique_name(cls.get_prefix(), "") )
shader = cmds.shadingNode('blinn', asShader=True, name=get_unique_name(cls.get_prefix(),"mat"))
cmds.setAttr(shader + ".color", rgb[0],rgb[1],rgb[2], type='double3')
cmds.select(final[0], r=True)
cmds.hyperShade(assign=shader)
def generate_kink_peice(cls, block_width):
components = []
boolean = []
for x in range(0, block_width + 1):
hole = cmds.polyCylinder(name=get_unique_name(cls.get_prefix(), "Hole"), radius=Constants["perforation_radius"], height=Constants["block_depth_unit"] + 0.2)
boolean.append(hole[0])
cmds.rotate('90deg', 0, 0, hole[0])
cmds.move(Constants["block_width_unit"] * x , 0, half(Constants["block_depth_unit"]), hole[0])
cube = cmds.polyCube(sx=5,sy=2,sz=2,name=get_unique_name(cls.get_prefix(), "block"), width=block_width, height=Constants["block_height_unit"], depth=Constants["block_depth_unit"])
components.append(cube[0])
cmds.delete(cube[0] + ".f[40:47]")
cmds.move(half(block_width * Constants["block_width_unit"]), 0, half(Constants["block_depth_unit"]), cube)
#caps
cap_one = cmds.polyCylinder(sc=1, sy=2, radius=half(Constants["block_height_unit"]), height=Constants["block_depth_unit"],name=get_unique_name(cls.get_prefix(), "cap"))
cmds.rotate('90deg',0,0,cap_one[0])
cmds.move(0,0,half(Constants["block_depth_unit"]),cap_one[0])
cmds.delete(cap_one[0] + ".f[0:3]", cap_one[0] + ".f[14:23]", cap_one[0] + ".f[34:43]", cap_one[0] + ".f[54:63]", cap_one[0] + ".f[74:79]")
components.append(cap_one[0])
#caps
cap_two = cmds.polyCylinder(sc=1, sy=2, radius=half(Constants["block_height_unit"]), height=Constants["block_depth_unit"])
cmds.rotate('90deg','180deg',0,cap_two[0])
cmds.delete(cap_two[0] + ".f[0:3]", cap_two[0] + ".f[14:23]", cap_two[0] + ".f[34:43]", cap_two[0] + ".f[54:63]", cap_two[0] + ".f[74:79]")
cmds.move(block_width,0,half(Constants["block_depth_unit"]),cap_two[0])
components.append(cap_two[0])
solid = cmds.polyUnite(components, name=get_unique_name(cls.get_prefix(), ""))
boolean_group = cmds.polyUnite(boolean, name=get_unique_name(cls.get_prefix(),"boolean"))
cmds.polyMergeVertex( solid[0], d=0.15 )
cmds.delete(solid[0],ch=1)
return cmds.polyBoolOp( solid[0], boolean_group[0], op=2, n=get_unique_name(cls.get_prefix(), "") )
def four():
#group MODULE
mir = random.randint(0, 19)
crazyR = random.randint(0, 1000)
oven = 'Oven' + str(mir) + str(crazyR)
cmds.group(n=oven, em=True)
base_heigh = cmds.intSliderGrp(slider1, q=True, value=True)
base_width = cmds.intSliderGrp(slider2, q=True, value=True)
base_depth = cmds.intSliderGrp(slider3, q=True, value=True)
#base:
base = cmds.polyCube(h=base_heigh, w=base_width, depth=base_depth)
cmds.polyBevel3(base, offset=0.1)
door = cmds.polyCube(h=base_heigh - base_heigh / 2,
w=base_width - base_width / 2,
depth=0.2)
cmds.move(0, -base_heigh / 20.0, -base_width / 2.0)
cmds.parent(base, door, oven)
#swiches:
sdoor = cmds.ls(door)
for i in range(3):
switch = cmds.polySphere(sx=5, sy=5, r=0.2)
cmds.move(-base_width / 4.0 + i - 0.2 * i, base_heigh / 2.5,
-base_width / 2.1)
cmds.parent(switch, oven)
for i in range(2):
heatersOne = cmds.polyCylinder(sx=7, sy=7, h=0.2, r=base_width / 1000)
cmds.move(-base_width / 6.0 + i, base_heigh / 2.0, -base_width / 3.5)
cmds.parent(heatersOne, oven)
for i in range(2):
heaterTwo = cmds.polyCylinder(sx=7, sy=7, h=0.2, r=base_width / 1000)
cmds.move(-base_width / 6.0 + i, base_heigh / 2.0, base_width / 3.5)
cmds.parent(heaterTwo, oven)
def __init__(self, name_, height, radius, sides, shader):
'''
Initializes a CylinderHouse object, and creates a polygonal house object based on a
cylinder primitive.
self: Object that is to be initialized.
name_: A string with the name the polygonal house object will have.
height: The height of the house.
radius: See Attributes.
sides: See Attributes.
shader: Shader that will be assigned to the house.
On exit: A CylinderHouse object has been initialized and a polygonal house has
been created out of a cylinder primitive. A foundation for the house has
also been created and united with the box. The given shader has been
assigned to the house.
'''
House.__init__(self, name_, "cylinder", height, radius * 2, radius * 2)
self.radius = radius
self.sides = sides
n = cmds.polyCylinder(n = name_, r = radius, h = height, sx = sides, sy = height)
cmds.xform(n[0], translation = (0,height/2.0,0))
f = cmds.polyCylinder(n = "foundation", r = radius + 0.15, height = 0.8, sx = sides)
cmds.xform(f[0], translation = (0, 0.4, 0))
n = cmds.polyUnite(n[0],f[0], n = name_)
self.name = n[0]
cmds.sets(n[0], edit=True, forceElement= shader[1])
cmds.delete(self.name, ch = True)
def roundPlate():
#get values from UI
rgb = cmds.colorSliderGrp('brickColour', query=True, rgbValue=True)
transparent = cmds.checkBox('makeTransparent', query = True, value = True)
base = cmds.polyCylinder( h = 0.18, r = 0.3 )
cmds.rotate( 90, rotateY = True )
cmds.move( 0.18/2, moveY = True)
wide = cmds.polyCylinder( h = 0.14, r = 0.4 )
cmds.rotate( 90, rotateY = True )
cmds.move( 0.18 + (0.14/2), moveY = True)
stud = cmds.polyCylinder( h = 0.18, r = 0.24 )
cmds.rotate( 90, rotateY = True )
cmds.move( 0.18 + 0.14 + (0.18/2), moveY = True)
rp = cmds.polyUnite( base, wide, stud )
myShader = cmds.shadingNode( 'phong', asShader=True )
cmds.setAttr( myShader+".color", rgb[0], rgb[1], rgb[2], type='double3')
cmds.setAttr( myShader+".reflectivity", 0 )
if( transparent == True ):
cmds.setAttr( myShader+".transparency", 0.5, 0.5, 0.5, type = 'double3' )
cmds.select( rp )
cmds.hyperShade( assign = myShader )
cmds.delete( ch = True )
def __createPolyFromList(self, *args):
# first, let's assign our combo box
polyList = self.polygonList_cmbbx.currentText()
'''
you also can use .currentIndex() if that suit you
'''
if polyList == "Sphere":
#do this
cmds.polySphere()
elif polyList == "Cube":
#do this
cmds.polyCube()
elif polyList == "Cylinder":
#do this
cmds.polyCylinder()
elif polyList == "Cone":
#do this
cmds.polyCone()
else:
#give warning message
cmds.warning("There's no such thing like that.")
def createSideEdgesAxel(length, distance1, distance2):
cyl1 = cmds.polyCylinder(r=0.15, h=length + 0.1, sz=4, sy=24)
cmds.rotate(90, 0, 0)
cmds.move((distance1), moveY=True, a=True)
cmds.move((distance2), moveX=True, a=True)
cmds.move((-1 * (0.003)), moveZ=True, a=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(cu[0], cyl1[0], op=2, n="block", ch=False)
cyl2 = cmds.polyCylinder(r=0.15, h=length + 0.1, sz=4, sy=12)
cmds.rotate(90, 0, 0)
cmds.move((distance1), moveY=True, a=True)
cmds.move((-1 * (distance2)), moveX=True, a=True)
cmds.move((-1 * (0.003)), moveZ=True, a=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(cu[0], cyl2[0], op=2, n="block", ch=False)
cyl3 = cmds.polyCylinder(r=0.15, h=length + 0.1, sz=4, sy=12)
cmds.rotate(90, 0, 0)
cmds.move((-1 * (distance1)), moveY=True, a=True)
cmds.move((distance2), moveX=True, a=True)
cmds.move((-1 * (0.003)), moveZ=True, a=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(cu[0], cyl3[0], op=2, n="block", ch=False)
cyl4 = cmds.polyCylinder(r=0.15, h=length + 0.1, sz=4, sy=12)
cmds.rotate(90, 0, 0)
cmds.move((-1 * (distance1)), moveY=True, a=True)
cmds.move((-1 * (distance2)), moveX=True, a=True)
cmds.move((-1 * (0.003)), moveZ=True, a=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(cu[0], cyl4[0], op=2, n="block", ch=False)
def a_ring():
ring_diameter = 22 # outer diameter
ring_thickness = 1.5
divit_diameter = 1.5
divit_depth = .75
ring_height = 4
#divit_spacing = .5
divits = []
cmds.polyPipe(radius=ring_diameter/2, height=ring_height*2, thickness=ring_thickness, name='ring0')
cmds.setAttr( 'polyPipe1.subdivisionsAxis', 20 )
for x in range(0,6):
for y in range(0,3):
letter = initials[x]
symbol = letter[y]
myName = "_c" + str(x) + str(y)
if symbol == 0 :
cmds.polyCylinder(axis=[0,0,1], radius=(divit_diameter/2), height=divit_depth, name=myName)
elif symbol == 2:
cmds.polyCylinder(axis=[0,0,1], radius=(divit_diameter/2), height=ring_thickness * 2.1, name=myName)
if symbol != 1:
divits.append(myName)
y_off = 0
cmds.move(0,y_off,(ring_diameter/2 - divit_depth/2 + .3),myName)
cmds.rotate(0,(x*3+y)*20,0,myName, pivot=[0,0,0])
rn = 0;
for d in divits[:]:
print 'ring' + str(rn) + " " + d
cmds.polyBoolOp('ring' + str(rn), d, op=2, n='ring' + str(rn+1), )
rn += 1
def wheel():
wheelSize = cmds.intSliderGrp('WheelSize', q=True, v=True)
wheelThickness = cmds.intSliderGrp('WheelThickness', q=True, v=True)
rgb = cmds.colorSliderGrp('WheelColour', q=True, rgbValue=True)
global nextBlockId
nsTmp = "Wheel" + str(nextBlockId)
hubCap(nextBlockId, wheelSize, wheelThickness)
createNamespace(nsTmp)
wheelSizeY = wheelThickness * .1
displaceY = (wheelThickness * .5) * .1
for i in range(0, 2):
#Create cylinder
cmds.polyCylinder(r=wheelSize * 0.3, h=wheelSizeY, sa=50)
facetCount = cmds.polyEvaluate(nsTmp + ":pCylinder1", face=True)
cmds.move((-1 * ((wheelSizeY) / 2)),
nsTmp + ":pCylinder1.scalePivot",
nsTmp + ":pCylinder1.rotatePivot",
moveY=True,
os=True)
cmds.move(displaceY, moveY=True)
#eliminating the non-side Faces
facetCount = facetCount - 2
for j in range(0, facetCount):
faceName = nsTmp + ":pCylinder1" + ".f[" + str(j) + "]"
if j % 2 == 0: #Extrudes every other face
cmds.polyExtrudeFacet(faceName, ltz=((wheelSize * 0.1) / 4))
cmds.rename("wheel1")
cmds.select(nsTmp + ":wheel2")
cmds.rotate(7.25, rotateY=True)
cmds.move(((wheelThickness * .5) * .3), moveY=True)
BOOLEAN(nsTmp, ":wheel1", ":wheel2", 1, "wheel")
punchHole((wheelSize * .175), (wheelSizeY * 7), 0, 0, 0, nsTmp, ":wheel",
"wheel")
myShader = cmds.shadingNode('lambert', asShader=True, name="WheelColour")
cmds.setAttr(nsTmp + ":WheelColour.color",
rgb[0],
rgb[1],
rgb[2],
typ='double3')
cmds.select(nsTmp + ":wheel")
cmds.rename(nsTmp)
cmds.hyperShade(assign=(nsTmp + ":WheelColour"))
cmds.namespace(removeNamespace=":" + nsTmp, mergeNamespaceWithParent=True)
cmds.polyUnite(nsTmp, "Hub" + str(nextBlockId - 1))
cmds.delete(ch=True)
cmds.rename(nsTmp)
cmds.xform(cp=True)
def createButton(self):
name = 'bu' + str(self.num_bu)
cmds.polyCylinder(n=name, sx=8, sy=2, sz=3, h=.2)
cmds.move(0, 0.144676, 0, name + '.e[40:47]', relative=True)
cmds.move(0, 0.246665, 0, name + '.e[48:55]', relative=True)
cmds.move(0, 0.290494, 0, name + '.vtx[57]', relative=True)
self.num_bu += 1
return name
def diamondLattice(dimX=1, dimY=1, dimZ=1, radiusBall = 0.1, radiusStick = 0.02, latticeConst = 1.0, sticks = True):
for x in xrange (0, dimX + 1):
for y in xrange (0, dimY + 1):
for z in xrange (0, dimZ + 1):
scBalls(x, y, z, radiusBall, latticeConst)
#coordinates for translation of spheres to lattice points
xCoord = x * latticeConst
yCoord = y * latticeConst
zCoord = z * latticeConst
xCoordFace = (x + 0.5) * latticeConst
yCoordFace = (y + 0.5) * latticeConst
zCoordFace = (z + 0.5) * latticeConst
xCoordDia25 = (x + 0.25) * latticeConst
yCoordDia25 = (y + 0.25) * latticeConst
zCoordDia25 = (z + 0.25) * latticeConst
xCoordDia75 = (x + 0.75) * latticeConst
yCoordDia75 = (y + 0.75) * latticeConst
zCoordDia75 = (z + 0.75) * latticeConst
faceTranslations = [(xCoordFace, yCoordFace, zCoord), (xCoord, yCoordFace, zCoordFace), (xCoordFace, yCoord, zCoordFace)]
nameSuffix = str(x) + str(y) + str(z)
suffixDimChar = ['x', 'y', 'z']
#fcc atoms
for i in xrange(0, 3):
if suffixDimChar[i] == 'x' and x != dimX and y!= dimY or suffixDimChar[i] == 'y' and z != dimZ and y != dimY or suffixDimChar[i] == 'z' and x != dimX and z!=dimZ:
#facecentered balls
nameFaceBall = 'faceBall' + suffixDimChar[i] + nameSuffix
cmds.polySphere(sx=10, sy=10, r=radiusBall, n=nameFaceBall)
cmds.setAttr(str(nameFaceBall)+'.translate', faceTranslations[i][0], faceTranslations[i][1], faceTranslations[i][2])
diamondTranslations = [(xCoordDia25, yCoordDia25, zCoordDia25), (xCoordDia75, yCoordDia75, zCoordDia25), (xCoordDia25, yCoordDia75, zCoordDia75), (xCoordDia75, yCoordDia25, zCoordDia75)]
for i in xrange(0, 4):
if x != dimX and y != dimY and z != dimZ:
# 1/4 balls
nameDiaBall = 'diaBall' + str(i) + nameSuffix
cmds.polySphere(sx=10, sy=10, r=radiusBall, n=nameDiaBall)
cmds.setAttr(str(nameDiaBall)+'.translate', diamondTranslations[i][0], diamondTranslations[i][1], diamondTranslations[i][2])
# bonds between lattice points
if sticks == True:
axes = [(-1, -1, -1), (1, 1, -1), (-1, 1, 1), (1, -1, 1)]
heightDia = math.sqrt(3) * 0.25 * latticeConst
for j in xrange(0, 4):
#diamond sticks
nameDiaStick = 'diaStick' + str(i) + str(j) + '_' + nameSuffix
cmds.polyCylinder(r=radiusStick, h=heightDia, sx=5, n=nameDiaStick, axis=axes[i])
cmds.setAttr(str(nameDiaStick)+'.translate', diamondTranslations[j][0] + 0.125*axes[i][0], diamondTranslations[j][1] + 0.125*axes[i][1], diamondTranslations[j][2] + 0.125*axes[i][2])
def punchHole(rad, height, rotX, posX, posY, NSTMP, obj1, name):
#made the cylinder here instead
cmds.polyCylinder(r=rad, h=height)
cmds.move(posX, moveX=True, a=True)
cmds.move(posY, moveY=True)
cmds.rotate(rotX, rotateX=True)
#punched the hole in the block and renamed it back to pCube1 so that it loop friendly
BOOLEAN(NSTMP, obj1, ":pCylinder1", 2, name)
def createGear():
teeth = 16
teethLength = 0.2
# name
nsTmp = "Gear" + str(rnd.randint(1000, 9999))
cmds.select(clear=True)
cmds.namespace(add=nsTmp)
cmds.namespace(set=nsTmp)
# query colour from UI
rgb = cmds.colorSliderGrp('gearColour', q=True, rgbValue=True)
# base
gear = cmds.polyCylinder(r=0.7, h=0.4, sx=32)
# extrude teeth
for i in range(31):
if (i % 2 == 0):
cmds.select(gear[0] + ".f[" + str(i) + "]")
cmds.polyExtrudeFacet(ltz=0.1)
cmds.polyExtrudeFacet(ltz=0.1)
cmds.polyMoveFacet(lsx=0.5)
# decor
tmp = cmds.polyCylinder(r=0.6, h=0.2)
cmds.move(0.2, moveY=True, a=True)
gear = cmds.polyCBoolOp(gear, tmp, op=2, ch=False)
tmp = cmds.polyCylinder(r=0.6, h=0.2)
cmds.move(-0.2, moveY=True, a=True)
gear = cmds.polyCBoolOp(gear, tmp, op=2, ch=False)
# center
cylind = cmds.polyCylinder(r=0.3, h=0.6)
#create x shape
x = cmds.polyCube(w=0.5, h=0.6, d=0.2)
tmp = cmds.polyCube(w=0.2, h=0.6, d=0.5)
#combine them
x = cmds.polyCBoolOp(x, tmp, op=1)
x2 = cmds.duplicate(x)
# remove from center
cylind = cmds.polyCBoolOp(cylind, x, op=2)
# remove from base
gear = cmds.polyCBoolOp(gear, x2, op=2)
# add material
myShader = cmds.shadingNode('lambert', asShader=True, name="blckMat")
cmds.setAttr(nsTmp + ":blckMat.color",
rgb[0],
rgb[1],
rgb[2],
type='double3')
cmds.polyUnite((nsTmp + ":*"), n=nsTmp, ch=False)
cmds.move(0.3, moveY=True, a=True)
cmds.delete(ch=True)
cmds.hyperShade(assign=(nsTmp + ":blckMat"))
cmds.namespace(removeNamespace=":" + nsTmp, mergeNamespaceWithParent=True)
def slopedBlock():
blockHeight = 3
blockWidth = cmds.intSliderGrp('slopedWidth', q=True, v=True)
blockDepth = cmds.intSliderGrp('slopedDepth', q=True, v=True)
rgb = cmds.colorSliderGrp('slopedColour', q=True, rgbValue=True)
global nextBlockId
nsTmp = "Block" + str(nextBlockId)
nextBlockId = nextBlockId + 1
createNamespace(nsTmp)
cubeSizeX = blockWidth * 0.8
cubeSizeZ = blockDepth * 0.8
cubeSizeY = blockHeight * 0.32
cmds.polyCube(h=cubeSizeY, w=cubeSizeX, d=cubeSizeZ, sz=blockDepth)
cmds.move((cubeSizeY / 2.0), y=True, a=True)
for i in range(blockWidth):
cmds.polyCylinder(r=0.25, h=0.20)
cmds.move((cubeSizeY + 0.10), moveY=True, a=True)
cmds.move(((i * 0.8) - (cubeSizeX / 2.0) + 0.4), moveX=True, a=True)
cmds.move((0 - (cubeSizeZ / 2.0) + 0.4), moveZ=True)
myShader = cmds.shadingNode('lambert', asShader=True, name="blckMat")
cmds.setAttr(nsTmp + ":blckMat.color",
rgb[0],
rgb[1],
rgb[2],
typ='double3')
cmds.polyUnite((nsTmp + ":*"), n=nsTmp, ch=False)
cmds.delete(ch=True)
cmds.hyperShade(assign=(nsTmp + ":blckMat"))
cmds.select((nsTmp + ":" + nsTmp + ".e[1]"), r=True)
cmds.move(0, -0.8, 0, r=True)
if blockDepth == 4:
tV = cmds.xform((nsTmp + ":" + nsTmp + ".vtx[8]"), q=True, t=True)
cmds.select((nsTmp + ":" + nsTmp + ".vtx[6]"), r=True)
cmds.move(tV[0], tV[1], tV[2], a=True)
tV = cmds.xform((nsTmp + ":" + nsTmp + ".vtx[9]"), q=True, t=True)
cmds.select((nsTmp + ":" + nsTmp + ".vtx[7]"), r=True)
cmds.move(tV[0], tV[1], tV[2], a=True)
if blockDepth >= 3:
tV = cmds.xform((nsTmp + ":" + nsTmp + ".vtx[6]"), q=True, t=True)
cmds.select((nsTmp + ":" + nsTmp + ".vtx[4]"), r=True)
cmds.move(tV[0], tV[1], tV[2], a=True)
tV = cmds.xform((nsTmp + ":" + nsTmp + ".vtx[7]"), q=True, t=True)
cmds.select((nsTmp + ":" + nsTmp + ".vtx[5]"), r=True)
cmds.move(tV[0], tV[1], tV[2], a=True)
cmds.namespace(removeNamespace=":" + nsTmp, mergeNamespaceWithParent=True)
def RandomCylinder():
cmds.polyCylinder(h = random.randrange(1,50), r = random.randrange(1,50), sx=4, sy=4, sz=4)
cmds.select()
Transforms()
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
created.append(cmds.ls(selection=True))
cmds.duplicate()
cmds.scale(-1,1,1)
created.append(cmds.ls(selection=True))
def trunk(_name, _height, _rgb):
cmds.polyCylinder(name=_name, sx=8, sy=1, sz=2, h=_height)
cmds.xform(_name, piv=[0, -(_height / 2.0), 0])
cmds.move(0, _height / 2.0, 0, _name, r=True)
cmds.scale(0.3, 1, 0.3, _name)
cmds.select(all=True)
cmds.polyColorPerVertex(r=0.3, g=0.2, b=0.2, a=1, colorDisplayOption=True)
def kmCylinder(self):
mc.polyCylinder(r=10,
h=20,
sx=8,
sy=1,
sz=1,
ax=[0, 1, 0],
rcp=0,
cuv=3,
ch=1)
def makeDisk():
numSides = cmds.intSliderGrp('numSides', q=True, v=True)
cmds.polyCylinder(sx=numSides)
sel = cmds.ls(sl=True)
cmds.select(sel[0] + ".f[" + str(numSides) + "]") # Selecting cap
maya.mel.eval('GrowPolygonSelectionRegion;')
cmds.delete() # Deleting all but one cap
cmds.select(sel[0])
cmds.xform(cp=True)
cmds.move(rpr=True) # Moving Centered disk to origin
def makeRingList(num):
rings=[]
cmds.polyCylinder(n="ring", h=0.2, r=0.5)
cmds.move(-8,0.1,0, 'ring', a=True)
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
for i in range(0,num):
v = cmds.duplicate("ring")
rings.append(v[0])
cmds.delete('ring')
return rings
def basicBlock():
# query values from UI sliders
height = cmds.intSliderGrp('height', q=True, v=True)
width = cmds.intSliderGrp('blockWidth', q=True, v=True)
length = cmds.intSliderGrp('blockLength', q=True, v=True)
rgb = cmds.colorSliderGrp('blockColour', q=True, rgbValue=True)
# name
nsTmp = "Block" + str(rnd.randint(1000, 9999))
cmds.select(clear=True)
cmds.namespace(add=nsTmp)
cmds.namespace(set=nsTmp)
# define a cube's size
cubeSizeX = width * 0.8
cubeSizeZ = length * 0.8
cubeSizeY = height * 0.32
# create a cube
cmds.polyCube(h=cubeSizeY, w=cubeSizeX, d=cubeSizeZ)
# move block half size up on Y axis
cmds.move((cubeSizeY / 2.0), moveY=True)
# loop through width and length (in bumps)
for i in range(width):
for j in range(length):
# create cylinder
cmds.polyCylinder(r=0.25, h=0.20)
# move it on Y axis
cmds.move((cubeSizeY + 0.10), moveY=True, a=True)
# move it on X axis
cmds.move(((i * 0.8) - (cubeSizeX / 2.0) + 0.4),
moveX=True,
a=True)
# move it on Z axis
cmds.move(((j * 0.8) - (cubeSizeZ / 2.0) + 0.4),
moveZ=True,
a=True)
# add material
myShader = cmds.shadingNode('lambert', asShader=True, name="blckMat")
cmds.setAttr(nsTmp + ":blckMat.color",
rgb[0],
rgb[1],
rgb[2],
type='double3')
cmds.polyUnite((nsTmp + ":*"), n=nsTmp, ch=False)
cmds.delete(ch=True)
cmds.hyperShade(assign=(nsTmp + ":blckMat"))
cmds.namespace(removeNamespace=":" + nsTmp, mergeNamespaceWithParent=True)
def bccLattice(dimX=1,
dimY=1,
dimZ=1,
radiusBall=0.1,
radiusStick=0.02,
latticeConst=1.0,
sticks=True):
for x in xrange(0, dimX + 1):
for y in xrange(0, dimY + 1):
for z in xrange(0, dimZ + 1):
xCoord = x * latticeConst
yCoord = y * latticeConst
zCoord = z * latticeConst
nameSuffix = str(x) + str(y) + str(z)
#scPart of bccLattice
scBalls(x, y, z, radiusBall, latticeConst)
if sticks == True:
scSticks(x, y, z, dimX, dimY, dimZ, radiusStick,
latticeConst)
# ball in body
if x != dimX and y != dimY and z != dimZ:
xCoordBody = xCoord + 0.5 * latticeConst
yCoordBody = yCoord + 0.5 * latticeConst
zCoordBody = zCoord + 0.5 * latticeConst
nameBallBody = 'ballBody' + nameSuffix
cmds.polySphere(sx=10, sy=10, r=radiusBall, n=nameBallBody)
cmds.setAttr(
str(nameBallBody) + '.translate', xCoordBody,
yCoordBody, zCoordBody)
#sticks in body
if sticks == True:
heightBC = latticeConst * math.sqrt(3)
axes = [(1, 1, 1), (1, 1, -1), (1, -1, -1),
(-1, 1, -1)]
for i in xrange(0, 4):
nameStickBody = 'stickBody' + nameSuffix + '_' + str(
i)
cmds.polyCylinder(r=radiusStick,
h=heightBC,
sx=5,
n=nameStickBody,
axis=axes[i])
cmds.setAttr(
str(nameStickBody) + '.translate', xCoordBody,
yCoordBody, zCoordBody)
def __draw_column(self, name):
cmds.polyCylinder(name=name,
r=self.column_diameter / 2,
h=self.column_height,
sx=30,
sy=1,
sz=0,
ax=(0, 0, 0),
rcp=0,
cuv=3,
ch=1)
def actionCmd(self, *args):
#create turntable
mc.polyCylinder(h=0.223, r=6.44)
#create lights
self.light1 = mc.directionalLight()
mc.xform(t=(2.265, 6.358, -6.81), ro=(-139.31, -12.398, 31.896))
self.light2 = mc.directionalLight()
mc.xform(t=(7.9, 7.7, 0), ro=(-71.7, 22.8, -41.0))
self.light3 = mc.directionalLight()
mc.xform(t=(-2.3, 7.1, 7.5), ro=(-43.9, -12.4, 31.9))
self.animateCam()
def newScene():
cmds.polyPlane(n="floor", h=30, w=30, sx=1, sy=1)
cmds.polyCylinder(n="src", h=5, r=0.2)
cmds.move(0,2.5,0, 'src', a = True)
cmds.duplicate("src", n="temp")
cmds.duplicate("src", n="dest")
cmds.move(-8,0,0, "src", r=True)
cmds.move(8,0,0, "dest", r=True)
assignNewMaterial('floorMaterial', [0.3, 0.2, 0], 'floor')
assignNewMaterial('pegMaterial', [0,0,0], 'src')
assignMaterial('pegMaterial', 'temp')
assignMaterial('pegMaterial', 'dest')
def RandomCylinder():
cmds.polyCylinder(h=random.randrange(1, 50),
r=random.randrange(1, 50),
sx=4,
sy=4,
sz=4)
cmds.select()
Transforms()
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
created.append(cmds.ls(selection=True))
cmds.duplicate()
cmds.scale(-1, 1, 1)
created.append(cmds.ls(selection=True))
def createTargetPrim(*args):
#delete existing target primitive
#deleteTargetPrim()
createTargetPrim.targetprim = 0
if UI.targetPrim == 'Cube':
createTargetPrim.targetprim = mc.polyCube(sx=1, sy=1, sz=1)
mc.hyperShade(assign=Materials.shader)
#mc.polyColorPerVertex( rgb=(UI.targetR, UI.targetG, UI.targetB), cdo = True )
#if UI.randomOrientation != False:
#mc.select(targetprim)
mc.rotate(UI.targetOrientation[0],
UI.targetOrientation[1],
UI.targetOrientation[2],
a=True)
if UI.targetMiddle != True:
mc.move(random.randint(-10, 10), random.randint(-10, 10), 35)
else:
mc.move(0, 0, 35)
if UI.targetPrim == 'Sphere':
mc.polySphere(sx=24, sy=24, r=1)
mc.hyperShade(assign=Materials.shader)
#mc.polyColorPerVertex( rgb=(UI.targetR, UI.targetG, UI.targetB), cdo = True )
if UI.targetMiddle != True:
mc.move(random.randint(-10, 10), random.randint(-10, 10), 35)
if UI.targetPrim == 'Cylinder':
mc.polyCylinder(sx=24, sy=2, sz=2)
mc.hyperShade(assign=Materials.shader)
#mc.polyColorPerVertex( rgb=(UI.targetR, UI.targetG, UI.targetB), cdo = True )
if UI.targetMiddle != True:
mc.move(random.randint(-10, 10), random.randint(-10, 10), 35)
if UI.targetPrim == 'Torus':
mc.polyTorus(n='target', sx=24, sy=16, r=2, sr=1)
mc.hyperShade(assign=Materials.shader)
#mc.polyColorPerVertex( rgb=(UI.targetR, UI.targetG, UI.targetB), cdo = True )
if UI.targetMiddle != True:
mc.move(random.randint(-10, 10), random.randint(-10, 10), 35)
if UI.targetPrim == 'Cone':
mc.polyCone(sx=1, sy=1, sz=1)
mc.hyperShade(assign=Materials.shader)
#mc.polyColorPerVertex( rgb=(UI.targetR, UI.targetG, UI.targetB), cdo = True )
if UI.targetMiddle != True:
mc.move(random.randint(-10, 10), random.randint(-10, 10), 35)
def makeFountain():
'''
Creates a fountain.
On exit: A fountain shaped polygonal object has been created, assigned a shader
and is returned as a tuple with the object name and node name. The
procedure uses random numbers in order to create different looking fountains
every time it is called.
'''
steps = random.randint(1,3)
fountain = cmds.polyCylinder(name = "Fountain", h = 0.1)
cmds.xform(fountain, translation = (0, 0.25, 0))
cmds.select(fountain[0] + ".f[40:59]")
for i in range(steps):
scale_ = random.uniform(0.6, 0.95)
cmds.polyExtrudeFacet(scale = (scale_, scale_, scale_))
translation = random.uniform(0.1, 0.6)
cmds.polyExtrudeFacet(translate = (0, translation, 0))
cmds.polyExtrudeFacet(scale = (0.9,0.9,0.9))
cmds.polyExtrudeFacet(translate = (0, -0.3,0))
scale_ = random.uniform(0.3,0.6)
cmds.polyExtrudeFacet(scale = (scale_,scale_,scale_))
translation = random.uniform(0.2,0.4)
cmds.polyExtrudeFacet(translate = (0,translation,0))
stepsUp = random.randint(1,3)
for i in range(stepsUp):
scale_ = random.uniform(0.4,0.9)
cmds.polyExtrudeFacet(scale = (scale_,scale_,scale_))
translation = random.uniform(0.05,1)
cmds.polyExtrudeFacet(translate = (0,translation,0))
top = fountainTop(fountain) # Create a top for the fountain.
fountain = cmds.polyUnite(top[0],fountain)
cmds.sets(fountain[0], edit=True, forceElement="fountainMaterialGroup")
return fountain
def generateCollision(mode="sphere"):
selected = cmds.ls(sl=True)
if not selected:
logging.error("Please Select Something")
return
xmin, ymin, zmin, xmax, ymax, zmax = cmds.xform(selected[0], q=True, bb=True) # give 6 values
width = abs(xmax - xmin)
height = abs(ymax - ymin)
depth = abs(zmax - zmin)
name = selected[0] + "_COL" # new name
if (mode == "box"):
mesh = cmds.polyCube(w=width, h=height, d=depth, n=name)[0]
if (mode == "sphere"):
radius = max([width, height, depth])/2
mesh = cmds.polySphere(r=radius, sx=10, sy=10,n=name)
if (mode == "cylinder"):
radius = max([width,depth])/2
mesh = cmds.polyCylinder(r=radius, h=height, n=name, sc=1, sx=12, sy=1, sz=1)
xPos = xmax - width/2
yPos = ymax - height/2
zPos = zmax - depth/2
cmds.xform(mesh, ws=True, t=[xPos,yPos,zPos])
def create_tire(name, width, radius, tx, ty, tz):
# Create a cylinder that represents a tire.
# Return the transform node name.
tire = cmds.polyCylinder(r=width * 2, h=width, ax=(0, 0, 1), name=name)
arPolyNoise(tire[0], random.uniform(0.05, 0.45))
cmds.setAttr("{0}.translate".format(tire[0]), tx, ty, tz)
return tire[0]
def crystalise(base):
'''
Adds hexagonal crystals to a branch
base : The branch to be crystallised
A crystal is created by scaling the top and bottom rings of vertices of a
cylinder. The crystal is aligned to the base branch and scaled to match.
The crystal is duplicated, randomly distributed along the branch and scaled
relative to their positioning. The crystals are combined with the base branch
mesh and this object is returned.
'''
crystal=[cmds.polyCylinder(r=1,sx=6,sy=2)[0]]
cmds.polySoftEdge(crystal[0], a=0)
cmds.scale(0.6,0.3,0.6,crystal[0]+'.f[12:13]',r=1)
[(tx,ty,tz)] = cmds.getAttr(base+'.translate')
[(rx,ry,rz)] = cmds.getAttr(base+'.rotate')
cmds.move(tx,ty,tz,crystal[0])
cmds.rotate(rx,ry,rz,crystal[0])
[x1,y1,z1,x2,y2,z2] = cmds.xform(base+'.vtx[0:1]',q=1,t=1,ws=1)
baseScale = cmds.getAttr(base+'.scaleX')
cmds.scale(0.5,0.2,0.5,crystal[0])
length = ((x2-x1)**2+(z2-z1)**2)**0.5
for i in range(0,6):
crystal[len(crystal):]=[cmds.duplicate(crystal[0])[0]]
for x in crystal:
dist = (random.random())
cmds.move(length*dist,0,0,x,os=1,r=1,wd=1)
size = (1.5-dist)*(length/3)
cmds.scale(size,size,size,x,r=1)
cmds.rotate(0,30,0,x,r=1)
crystal += [base]
return combineParts(crystal,base)
def createRoundedBlock( blockSizeX, blockSizeY, blockSizeZ, blockLength ):
edgeCylinderL = cmds.polyCylinder ( h = blockSizeZ, r = blockSizeY/2 )
cmds.rotate( 90, rotateX = True )
cmds.move( ( -blockSizeX/2 ), moveX = True, a=True)
edgeCylinderR = cmds.polyCylinder ( h = blockSizeZ, r = blockSizeY/2 )
cmds.rotate( 90, rotateX = True )
cmds.move( ( blockSizeX/2 ), moveX = True, a=True)
block = cmds.polyCube ( h = blockSizeY, w = blockSizeX, d = blockSizeZ, sx = ( blockLength - 1 ) * 2, sy = 2 )
block = cmds.polyCBoolOp( block, edgeCylinderL, op = 1 )
block = cmds.polyCBoolOp( block, edgeCylinderR, op = 1 )
return block
def createCrossAxel():
length = createMainAxel("CrossAvelWidth")
cmds.select(cu[0])
cmds.scale(1, 1, 1.5)
sideCylin1 = cmds.polyCylinder(r=0.4, h=length, sz=12, sx=12, sy=12)
cmds.rotate(90, 0, 0)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(sideCylin1[0], cu[0], op=2, n="block", ch=False)
Tor = cmds.polyTorus(sx=2, sy=2, r=0.377, sr=0.037)
cmds.rotate(90, 0, 0)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(Tor[0], cu[0], op=1, n="block", ch=False)
Tor2 = cmds.polyTorus(sx=2, sy=2, r=0.377, sr=0.037)
cmds.rotate(90, 0, 0)
cmds.move(length / 3.2, moveZ=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(Tor2[0], cu[0], op=1, n="block", ch=False)
Tor3 = cmds.polyTorus(sx=2, sy=2, r=0.377, sr=0.037)
cmds.rotate(90, 0, 0)
cmds.move(-1 * (length / 3.2), moveZ=True)
cmds.delete(ch=True)
cu[0] = cmds.polyBoolOp(Tor3[0], cu[0], op=1, n="block", ch=False)
cmds.select(cu[0])
cmds.rotate(0, 0, 45)
distance1 = 0.33
distance2 = 0.35
createSideEdgesAxel(length, distance1, distance2)
def makeStreetTree(shaders):
'''
Creates a tree on a circular platform and with a circular fence around it.
shaders: A list of shaders for the tree crowns.
On exit: A tree has been created using makeTree(...), a circular platform
has been created underneath it and a fence around it. Appropriate
shaders have been assigned. Everything is united into one polygonal
object and returned as a tuple with the object name and the node
name.
'''
tree = makeTree(shaders)
platform = cmds.polyCylinder(name = "platform",h = 0.1, r = 0.8)
cmds.move(0.25, y = True)
cmds.sets(platform[0], edit=True, forceElement="fountainMaterialGroup")
pole = cmds.polyCube(name = "pole", h = 0.6, w = 0.04, d = 0.04)
cmds.xform(pole, t = (0.7,0.45,0))
angle = 360/10.0
for i in range(1,10):
pole1 = cmds.polyCube(name = "pole", h = 0.6, w = 0.04, d = 0.04)
cmds.rotate(angle * i, y = True)
cmds.move(0.7,0.45,0, os = True)
pole = cmds.polyUnite(pole, pole1)
bar = cmds.polyPipe(name = "bar", h = 0.1, r = 0.65, t = 0.04)
cmds.move(0.65, y = True)
bar1 = cmds.duplicate(bar[0])
cmds.move(-0.2, y = True, r = True)
fence = cmds.polyUnite(pole, bar, bar1)
cmds.sets(fence[0], edit=True, forceElement="blackMetalGroup")
streetTree = cmds.polyUnite(tree,platform, fence)
cmds.delete(streetTree, ch = True)
return streetTree
def SquareBlock():
components = []
# Fetching slider data
blockDepth = cmds.intSliderGrp('SquareBlockDepth', query=True, value=True)
blockWidth = cmds.intSliderGrp('SquareBlockWidth', query=True, value=True)
rgb = cmds.colorSliderGrp('SquareBlockColour', query=True, rgbValue=True)
cmds.select(clear=True)
# Set to the lego size presets
cubeDimX = blockWidth * 0.8
blockHeight = 1
cubeDimY = blockHeight * 0.32
cubeDimZ = blockDepth * 0.8
cube = cmds.polyCube(h=cubeDimY, w=cubeDimX, d=cubeDimZ, ch=False)
cmds.move((cubeDimY/2.0), moveY=True)
# Constructing the bumps
for i in range(blockWidth):
for j in range(blockDepth):
topBump = cmds.polyCylinder(r=0.25, h=0.20, ch=False)
components.append(topBump[0])
cmds.move((cubeDimY + 0.10), moveY=True, a=True)
cmds.move(((i * 0.8) - (cubeDimX/2.0) + 0.4), moveX=True, a=True)
cmds.move(((j * 0.8) - (cubeDimZ/2.0) + 0.4), moveZ=True, a=True)
finalShape = cmds.polyUnite( cube[0], components, ch=False)
# Adding on the colour
shadedShape = addShader(finalShape, rgb)
def createABranch(rotAxis, angle):
global prevRot,prevPos
'''Extract Euler angles from constructed quaternion'''
euAngles=EulerAnglesFromAxisQuat(rotAxis, angle)
#print toDegrees(euAngles[0])#x
#print toDegrees(euAngles[1])#y
#print toDegrees(euAngles[2])#z
'''Create Cylinder'''
if firsttime == True:
firsttime=False
branch = mc.polyCylinder(n='cy1', r=0.1, height=branchLength)#axis=(dirx[0],diry[0],dirz[0]),
prevCylinder=branch
else:
topPrevCylinderV1= cmds.xform(prevCylinder[0]+'.vtx[24]', translation=True, query=True)
topPrevCylinderV2= cmds.xform(prevCylinder[0]+'.vtx[34]', translation=True, query=True)
topfaceMidleX=(topPrevCylinderV1[0]+topPrevCylinderV2[0]) /2
topfaceMidleY=(topPrevCylinderV1[1]+topPrevCylinderV2[1]) /2
topfaceMidleZ=(topPrevCylinderV1[2]+topPrevCylinderV2[2]) /2
mycurve=cmds.curve( p=[(topfaceMidleX, topfaceMidleY, topfaceMidleZ), (topfaceMidleX, topfaceMidleY, topfaceMidleZ), (topfaceMidleX, topfaceMidleY, topfaceMidleZ), (topfaceMidleX+1, topfaceMidleY+1, topfaceMidleZ+1)] )
cmds.select(prevCylinder[0]+'.f[21]')
cmds.select(mycurve, add=True)
cmds.polyExtrudeFacet(constructionHistory=1, keepFacesTogether=1, pvx= -1.11758709e-08, pvy=0.5, pvz= -1.490116119e-08, divisions=10 ,twist=0, taper=1, off=0, thickness=0, smoothingAngle=30, inputCurve=mycurve)
def generate(cls, *args):
components = []
width = cmds.intSliderGrp(cls.get_prefix() + Labels["width_label"], query=True, value=True)
height = cmds.intSliderGrp(cls.get_prefix() + Labels["height_label"], query=True, value=True)
depth = cmds.intSliderGrp(cls.get_prefix() + Labels["depth_label"], query=True, value=True)
rgb = cmds.colorSliderGrp(cls.get_prefix() + Labels["color_label"], query=True, rgbValue=True)
block_width = width * Constants["block_width_unit"]
block_height = height * Constants["block_height_unit"]
block_depth = depth * Constants["block_depth_unit"]
#stubs
for x in range(0, width):
for z in range(0, depth):
stub = cmds.polyCylinder(name=get_unique_name(cls.get_prefix(), "Stub"), radius=Constants["stub_radius"], height = Constants["stub_height"])
components.append(stub[0])
cmds.move(Constants["block_width_unit"] * x + half(Constants["block_width_unit"]), half(Constants["block_height_unit"]) * height + half(Constants["stub_height"]), Constants["block_depth_unit"] * z + half(Constants["block_depth_unit"]), stub[0])
cube = cmds.polyCube(name=get_unique_name(cls.get_prefix(), "block"), width=block_width, height=block_height, depth=block_depth)
components.append(cube[0])
cmds.move(half(width * Constants["block_width_unit"]), 0, half(depth * Constants["block_depth_unit"]), cube)
if components.count > 1:
final = cmds.polyUnite(components, name=get_unique_name(cls.get_prefix(), ""))
else:
final = components[0]
shader = cmds.shadingNode('blinn', asShader=True, name=get_unique_name(cls.get_prefix(),"mat"))
cmds.setAttr(shader + ".color", rgb[0],rgb[1],rgb[2], type='double3')
cmds.select(final[0], r=True)
cmds.hyperShade(assign=shader)
def createObjects(self, mode, numObjects, *args):
"""
This creates objects. Support Cubes, Spheres, Cylinders and Cones
:param mode: To create objects
:param numObjects: Number of objects will be created
:return: a list of created objects
"""
objList = []
for n in range(numObjects):
if mode == 'Cube':
obj = cmds.polyCube()
elif mode == 'Sphere':
obj = cmds.polySphere()
elif mode == 'Cone':
obj = cmds.polyCone()
elif mode == 'Cylinder':
obj = cmds.polyCylinder()
else:
cmds.error("I dont know what to create")
objList.append(obj[0])
cmds.select(objList)
def makeTree(shaders):
'''
Creates a tree.
shaders: A list of shaders for the tree crown.
On exit: A tree has been modeled, and is returned as a tuple
containing the object name and the node name. Some of the
variables are chosen randomly to create different results.
'''
height = random.uniform(0.3,1.5)
trunk = cmds.polyCylinder(name = "trunk", h = height, r = 0.07)
cmds.sets(trunk[0], edit=True, forceElement="trunkMaterialGroup")
cmds.xform(trunk, translation = (0,height/2.0 + 0.2,0))
crown = cmds.polySphere(name = "crown", r = 0.5)
cmds.xform(crown, translation = (0,height + 0.6,0))
cmds.softSelect(sse = True, ssd = 0.86)
cmds.select(crown[0] + ".vtx[381]")
translation = random.uniform(0.3,1.5)
cmds.move(translation, y = True, r = True)
cmds.softSelect(sse = False)
shader = random.choice(shaders)
scale_ = random.uniform(0.7,1.8)
cmds.select(crown)
cmds.scale(scale_, scale_, scale_, pivot = (0,height,0))
cmds.sets(crown[0], edit=True, forceElement= shader[1])
tree = cmds.polyUnite(trunk[0],crown[0])
cmds.delete(tree[0], ch = True)
return tree
def create_cylinder():
result = cmds.polyCylinder(name='cylinder',
r=1.15,
h=0.15,
sx=6,
sy=1,
sz=1,
ax=(0, 1, 0),
rcp=0,
cuv=3,
ch=1)
cmds.polyBevel3(result[0],
fraction=0.5,
offsetAsFraction=1,
autoFit=1,
depth=1,
mitering=0,
miterAlong=0,
chamfer=1,
segments=1,
worldSpace=1,
smoothingAngle=30,
subdivideNgons=1,
mergeVertices=1,
mergeVertexTolerance=0.0001,
miteringAngle=180,
angleTolerance=180,
ch=1)
#print 'result: %s' % result
return result
def create_tire(name, width, radius, tx, ty, tz):
# Create a cylinder that represents a tire.
# Return the transform node name.
tire = cmds.polyCylinder(h=width, r=radius, ax=(0,0,1), sc=True, name=name)
cmds.setAttr("{0}.translate".format(tire[0]), tx, ty, tz)
arPolyNoise(tire[0], 0.4)
return tire[0]
def pieslice(pStAn, pEnAn, pR, pH=0.1):
cyl = mc.polyCylinder(h=pH, r=pR)
cx = mc.objectCenter(x=True)
cy = mc.objectCenter(y=True)
cz = mc.objectCenter(z=True)
h = pH
#cut the cylinder, and separate different parts
cut = mc.polyCut(cyl,
cutPlaneCenter=[cx, h / 2, cz],
cutPlaneRotate=[0, pStAn, 0],
extractFaces=True,
extractOffset=[0, 0, 0])
cut = mc.polyCut(cyl,
cutPlaneCenter=[cx, h / 2, cz],
cutPlaneRotate=[0, pEnAn, 0],
extractFaces=True,
extractOffset=[0, 0, 0])
obj = mc.polySeparate(cyl)
names = []
for i in range(len(obj)):
mc.rename(obj[i], 'part' + str(i))
names.append('part' + str(i))
#delete useless parts from the now separated cylinder
mc.delete(names[0:2] + names[3:], s=True)
#fill hole of the leftover pieslice
mc.polyCloseBorder(names[2])
#add and assign a material (which was deleted when delete was called)
myBlinn = mc.shadingNode('blinn', asShader=True)
mc.select(names[2])
mc.hyperShade(assign=myBlinn)
return names[2]
def connector():
rgb = cmds.colorSliderGrp('miscColour', query=True, rgbValue=True)
cX = 1.6
cY = 0.6
cZ = 0.6
cMiddle = cmds.polyCylinder( h = 1.6/2, r = 0.5/2, sz = 1 )
cmds.rotate( 90, rotateZ = True )
cmds.move( (1.6/2)/2, moveX = True )
cInsideRidge = cmds.polyCylinder( h = 0.1, r = cY/2, sz = 1 )
cmds.rotate( 90, rotateZ = True )
cmds.move( 0.1/2, moveX = True )
cOutsideRidge = cmds.polyTorus( sr = 0.05, r = (cY/2.6))
cmds.rotate( 90, rotateZ = True )
cmds.move( (cX/2) - (0.08/2), moveX = True )
connector = cmds.polyCBoolOp( cMiddle, cInsideRidge, op = 1 )
connector = cmds.polyCBoolOp( connector, cOutsideRidge, op = 1 )
cCut = createRoundedBlock( cY * 0.6, cY * 0.2, 5, 2 )
cmds.move( cY + 0.1, moveX = True )
connector = cmds.polyCBoolOp( connector, cCut, op = 2 )
cMCut = cmds.polyCylinder( h = 1.6, r = 0.45/2, sz = 1 )
cmds.rotate( 90, rotateZ = True )
cmds.move( (1.6/2)/2, moveX = True )
connector = cmds.polyCBoolOp( connector, cMCut, op = 2 )
connectorL = cmds.duplicate( connector )
cmds.scale( -1, scaleX = True )
cmds.move( -(1.6/2), moveX = True )
connector = cmds.polyUnite( connector, connectorL)
myShader = cmds.shadingNode( 'phong', asShader=True )
cmds.setAttr( myShader+".color", rgb[0], rgb[1], rgb[2], type='double3')
cmds.setAttr( myShader+".reflectivity", 0 )
cmds.select( connector )
cmds.hyperShade( assign = myShader )
cmds.delete( ch = True )
def createBlockHoles( blockSizeX, blockSizeY, block, blockLength, blockOffset ):
hcList = []
rcyList = []
rcuList = []
for j in range( blockLength ):
#create cylinders to cut holes
holeCylinder = cmds.polyCylinder( r = 0.24, h = 2, sz=1 )
cmds.rotate( 90, rotateX = True )
cmds.move((blockSizeY/2), moveY = True, a = True)
cmds.move(((j * 0.8) - (blockSizeX/2.0) + blockOffset ), moveX = True, a = True)
hcList.append( holeCylinder )
#create cylinders to cut sunken area around holes
##create a cylinder
ridgeCylinder = cmds.polyCylinder( r=0.31, h=2, sz=1 )
cmds.rotate( 90, rotateX = True )
cmds.move((blockSizeY/2), moveY = True, a = True)
cmds.move(((j * 0.8) - (blockSizeX/2.0) + blockOffset ), moveX = True, a = True)
rcyList.append( ridgeCylinder )
##create a cube
ridgeCube = cmds.polyCube ( h = 0.64, w = blockSizeY, d = blockSizeY )
cmds.rotate( 90, rotateX = True )
cmds.move((blockSizeY/2), moveY=True )
cmds.move(((j * 0.8) - (blockSizeX/2.0) + blockOffset ), moveX=True )
rcuList.append( ridgeCube )
if len( hcList ) > 1 :
holeCylinders = cmds.polyUnite( *hcList )
ridgeCylinders = cmds.polyUnite( *rcyList )
ridgeCubes = cmds.polyUnite( *rcuList )
else:
holeCylinders = hcList[0]
ridgeCylinders = rcyList[0]
ridgeCubes = rcuList[0]
block = cmds.polyCBoolOp( block, holeCylinders, op=2 )
ridgeCutter = cmds.polyCBoolOp( ridgeCylinders, ridgeCubes, op=2 )
block = cmds.polyCBoolOp( block, ridgeCutter, op=2 )
return block
def generate(cls, *args):
components = []
boolean = []
width = cmds.intSliderGrp(cls.get_prefix() + Labels["width_label"], query=True, value=True)
rgb = cmds.colorSliderGrp(cls.get_prefix() + Labels["color_label"], query=True, rgbValue=True)
block_width = width * Constants["block_width_unit"]
block_height = Constants["block_height_unit"]
block_depth = Constants["block_depth_unit"]
for x in range(0, width + 1):
hole = cmds.polyCylinder(name=get_unique_name(cls.get_prefix(), "Hole"), radius=Constants["perforation_radius"], height=Constants["block_depth_unit"] + 0.2)
boolean.append(hole[0])
cmds.rotate('90deg', 0, 0, hole[0])
cmds.move(Constants["block_width_unit"] * x , 0, half(Constants["block_depth_unit"]), hole[0])
cube = cmds.polyCube(sx=5,sy=2,sz=2,name=get_unique_name(cls.get_prefix(), "block"), width=block_width, height=block_height, depth=block_depth)
components.append(cube[0])
cmds.delete(cube[0] + ".f[40:47]")
cmds.move(half(width * Constants["block_width_unit"]), 0, half(Constants["block_depth_unit"]), cube)
#caps
cap_one = cmds.polyCylinder(sc=1, sy=2, radius=half(Constants["block_height_unit"]), height=Constants["block_depth_unit"],name=get_unique_name(cls.get_prefix(), "cap"))
cmds.rotate('90deg',0,0,cap_one[0])
cmds.move(0,0,half(Constants["block_depth_unit"]),cap_one[0])
cmds.delete(cap_one[0] + ".f[0:3]", cap_one[0] + ".f[14:23]", cap_one[0] + ".f[34:43]", cap_one[0] + ".f[54:63]", cap_one[0] + ".f[74:79]")
components.append(cap_one[0])
#caps
cap_two = cmds.polyCylinder(sc=1, sy=2, radius=half(Constants["block_height_unit"]), height=Constants["block_depth_unit"])
cmds.rotate('90deg','180deg',0,cap_two[0])
cmds.delete(cap_two[0] + ".f[0:3]", cap_two[0] + ".f[14:23]", cap_two[0] + ".f[34:43]", cap_two[0] + ".f[54:63]", cap_two[0] + ".f[74:79]")
cmds.move(block_width,0,half(Constants["block_depth_unit"]),cap_two[0])
components.append(cap_two[0])
solid = cmds.polyUnite(components, name=get_unique_name(cls.get_prefix(), ""))
boolean_group = cmds.polyUnite(boolean, name=get_unique_name(cls.get_prefix(),"boolean"))
cmds.polyMergeVertex( solid[0], d=0.15 )
cmds.delete(solid[0],ch=1)
final = cmds.polyBoolOp( solid[0], boolean_group[0], op=2, n=get_unique_name(cls.get_prefix(), "") )
shader = cmds.shadingNode('blinn', asShader=True, name=get_unique_name(cls.get_prefix(),"mat"))
cmds.setAttr(shader + ".color", rgb[0],rgb[1],rgb[2], type='double3')
cmds.select(final[0], r=True)
cmds.hyperShade(assign=shader)
def __init__(self, name, r=1.0, h=6.0, x=0.0, y=0.0, z=0.0):
self._name = name
self.force = 4.0
self.direction = V(0.0, 1.0, 0.0)
if cmds.objExists(name):
self.position = V(cmds.getAttr("{0}.translate".format(name))[0])
obstacleScale = cmds.getAttr("{0}.scale".format(name))[0]
self.radius = cmds.polyCylinder(name, query=True, radius=True) * obstacleScale[0] + 1.0
self.height = cmds.polyCylinder(name, query=True, height=True) * obstacleScale[1]
else:
print 'box with name "{0}" does not exist'.format(name)
self.radius = r
self.height = h
self.position = V(x, y, z)
print "reload"
print self.position
print self.height
def hingeY( inBitName ):
bit = cmds.polyCylinder( axis=[0,1,0],
radius=1,
height=10,
subdivisionsX=6,
subdivisionsY=1,
subdivisionsZ=1,
name=inBitName )
# Return the name of the newly created bit.
return bit[0]
def tieOff():
global balloonRadius, balloonQuantity
knotVals = mc.pointPosition('balloonTemp.vtx[96]', w=True)
knotThickness = balloonRadius * .05
endHeight = balloonRadius * .15
knotRadius = knotVals[0]
knotPos = ( knotVals[1] - (.5 * knotThickness))
mc.polyCylinder( n="knotTemp", r=knotRadius, h=knotThickness, sx=12, sy=3, sz=0, rcp=0, cuv=3)
mc.delete( 'knotTemp.f[36:37]')
mc.setAttr( 'knotTemp.translateY', knotPos )
mc.scale(1.25, 1.75, 1.25, 'knotTemp.vtx[12:35]', r=True )
mc.lattice( n='knot', cp=True, dv =(2, 2, 2), objectCentered=True, ldv=(2,2,2))
mc.move( (.75 * knotThickness), 'knotLattice.pt[1][0][0:1]', r=True, y=True)
mc.move( (.25 * knotThickness), 'knotLattice.pt[0][0][0:1]', r=True, y=True)
mc.duplicate('knotTemp')
mc.rotate(180, 'knotTemp1', z=True)
mc.polyCone( n="endTemp", r=knotRadius*2, h=endHeight, sx=12, sy=6, sz=3, rcp=0, cuv=3)
mc.delete( 'endTemp.f[60:83]', 'endTemp.f[96:107]')
mc.setAttr( 'endTemp.translateY', knotPos - knotThickness/2 )
mc.scale( 1.15, 1, 1.15, 'endTemp.vtx[36:59]')
mc.move((.5 * endHeight), 'endTemp.vtx[0:11]', 'endTemp.vtx[72]', y=True, r=True)
mc.polyUnite( 'balloonTemp', 'knotTemp', 'knotTemp1', 'endTemp', ch=True )
mc.polySoftEdge( a = 180 )
mc.polyMergeVertex( d=.001)
mc.polyEditUV('polySurface1.map[0:126]', pu=0.5, pv=1, su=1, sv=0.575)
mc.polyEditUV('polySurface1.map[127:230]', pu=0.5, pv=0.35, su=2, sv=.25)
mc.polyEditUV('polySurface1.map[267:318]', u=0, v=-0.1, pu=0.5, pv=0, su=1, sv=.5)
mc.polyEditUV('polySurface1.map[231:266]', 'polySurface1.map[319]', u=0, v=-.175, pu=0.5, pv=0.25, su=0.25, sv=0.25)
mc.polyMergeUV('polySurface1.map[103:126]', d=0.5, ch=True )
mc.polyEditUV('polySurface1.map[104]', r=False, u=0)
mc.polyEditUV('polySurface1.map[103]', r=False, u=1)
mc.polySmooth('polySurface1', mth=0, dv=1, c=1, kb=0, ksb=1, khe=0, kt=1, kmb=0, suv=0, peh=0, sl=1, dpe=1, ps=0.1 , ro=1, ch=True)
mc.DeleteHistory()
mc.delete( 'knotTemp1')
mc.rename('polySurface1', 'balloon1')
mc.select(cl=True)
return
def make_arm():
"""
Crane arm
"""
a1l = cmds.polyCube(w=1.5, h=4, d=.2, name="arm1_left")
cmds.move(0, 0, -.25, a1l)
a1r = cmds.polyCube(w=1.5, h=4, d=.2, name="arm1_right")
cmds.move(0, 0, .25, a1r)
a2 = cmds.polyCube(w=1, h=8, d=.2, name="arm2")
cmds.move(0, 4, 0, a2)
a3l = cmds.polyCube(w=1, h=6, d=.2, name="arm3_left")
cmds.move(0, 8, .25, a3l)
a3r = cmds.polyCube(w=1, h=6, d=.2, name="arm3_right")
cmds.move(0, 8, -.25, a3r)
a4 = cmds.polyCube(w=1, h=4, d=.2, name="arm4")
cmds.move(0, 12, 0, a4)
pin1 = cmds.polyCylinder(axis=(0,0,1), h=1.5,radius=.3, name="pin1")
cmds.move(0, -1.25, 0, pin1)
pin2 = cmds.polyCylinder(axis=(0,0,1), h=1.5,radius=.3, name="pin2")
cmds.move(0, 1.5, 0, pin2)
pin3 = cmds.polyCylinder(axis=(0,0,1), h=1.5,radius=.3, name="pin3")
cmds.move(0, 5.5, 0, pin3)
pin4 = cmds.polyCylinder(axis=(0,0,1), h=1.5,radius=.3, name="pin4")
cmds.move(0, 10.5, 0, pin4)
l = [a1l,a1r,a2,a3l,a3r,a4,pin1,pin2,pin3,pin4]
g = cmds.group(*l, name='g1')
cmds.move(0,4.5,0,g)
return g
def fccLattice( dimX=1, dimY=1, dimZ=1, radiusBall = 0.1, radiusStick = 0.02, latticeConst = 1.0, sticks = True ):
for x in xrange (0, dimX + 1):
for y in xrange (0, dimY + 1):
for z in xrange (0, dimZ + 1):
xCoord = x * latticeConst
yCoord = y * latticeConst
zCoord = z * latticeConst
nameSuffix = str(x) + str(y) + str(z)
scBalls(x, y, z, radiusBall, latticeConst)
if sticks == True:
scSticks(x, y, z, dimX, dimY, dimZ, radiusStick, latticeConst)
heightFCC = math.sqrt(2) * latticeConst
xCoordFace = (0.5+x)*latticeConst
yCoordFace = (0.5+y)*latticeConst
zCoordFace = (0.5+z)*latticeConst
faceTranslations = [(xCoordFace, yCoordFace, zCoord), (xCoord, yCoordFace, zCoordFace), (xCoordFace, yCoord, zCoordFace)]
suffixDimChar = ['x', 'y', 'z']
axes = [(1, 1, 0), (0, 1, 1), (1, 0, 1)]
axesNeg = [(1, -1, 0), (0, -1, 1), (-1, 0, 1)]
for i in xrange(0, 3):
if suffixDimChar[i] == 'x' and x != dimX and y!= dimY or suffixDimChar[i] == 'y' and z != dimZ and y != dimY or suffixDimChar[i] == 'z' and x != dimX and z!=dimZ:
#facecentered balls
nameFaceBall = 'faceBall' + suffixDimChar[i] + nameSuffix
cmds.polySphere(sx=10, sy=10, r=radiusBall, n=nameFaceBall)
cmds.setAttr(str(nameFaceBall)+'.translate', faceTranslations[i][0], faceTranslations[i][1], faceTranslations[i][2])
#sticks to face centered balls
if sticks == True:
nameFaceStick1 = 'faceStick1_' + suffixDimChar[i] + nameSuffix
cmds.polyCylinder(r=radiusStick, h=heightFCC, sx=5, n=nameFaceStick1, axis=axes[i])
cmds.setAttr(str(nameFaceStick1)+'.translate', faceTranslations[i][0], faceTranslations[i][1], faceTranslations[i][2])
nameFaceStick2 = 'faceStick2_' + suffixDimChar[i] + nameSuffix
cmds.polyCylinder(r=radiusStick, h=heightFCC, sx=5, n=nameFaceStick2, axis=axesNeg[i])
cmds.setAttr(str(nameFaceStick2)+'.translate', faceTranslations[i][0], faceTranslations[i][1], faceTranslations[i][2])
def honeycomb(xbound, zbound, flat, buildCity): dx = 0 indentOn = False #start 0.867 ahead cellnum = 0 while (dx < xbound): dz = 0 if(indentOn): dz = 0.867 while (dz < zbound): cellname = "cell" + "%04d"%cellnum randomheight = 0 raiseMe = False if not flat: randomheight = .1 - (0.2 * random.random()) if buildCity: if xbound/2 - xbound/10 < dx and dx < xbound/2 + xbound/10 and zbound/2 - zbound/10 < dz and dz < zbound/2 + zbound/10: raiseMe = True randombuildingheight = 20 - (10 * random.random()) cmds.polyCylinder(name = cellname, ax=[0,1,0], radius=1, height=1, sx=6, sy=1, sz=0) if raiseMe: cmds.move(0, randombuildingheight, 0, cellname+'.f[7]', r=True) else: cmds.move(0, randomheight, 0, cellname+'.f[7]', r=True) cmds.polyExtrudeFacet(cellname+'.f[7]', kft=False, s=(0.896415,0.896415,0.896415), divisions = 3) cmds.polyExtrudeFacet(cellname+'.f[7]', kft=False, ty=-0.15636, divisions=3) cmds.select(cellname) cmds.polyBevel(offset = 0.7, offsetAsFraction = 1, autoFit = 1, segments = 1, worldSpace = 1, uvAssignment = 0, fillNgons = 1, mergeVertices = 1, mergeVertexTolerance = 0.0001, miteringAngle = 180, angleTolerance = 180, ch = 1) cmds.move(dx, 0, dz) print "cylinder " + cellname + " location = dx: " + str(dx) + ", dz: " + str(dz) dz+=1.729 cellnum += 1 dx += 1.5 indentOn = not indentOn cmds.select([node for node in cmds.ls() if 'cell' in node and 'Shape' not in node]) cmds.group(name='honeycomb') cmds.move(-xbound/2, 0, -zbound/2, 'honeycomb')
def placeDisks( pDiskNumUIField, *Args ):
"""
Will place the initial disks into the peg A. But it will check if there are any before, in case
that there were some, it will delete them (calling the clearTowers procedure). The created ob-
jects will be placed in the pegA list, so that we can access each disk using [] (pegA[0] would
be the bottom larger peg[1] the one one step above, until the last one peg[n] being the smallest
and highest one. I give an example about what the pegA list would look like if we had 3 disks:
pegA[0] (1st element) will be called 'disk3'
pegA[1] (2nd element) will be called 'disk2'
pegA[2] (3rd element) will be called 'disk1'
"""
# Creates board and pegs with their relative materials. This just runs the first time the code is executed.
if not board: # If board exists.
tableSetup()
nDisks = cmds.intSliderGrp( diskNumUIField, q=True, v=True )
if len(pegA) != 0:
cmds.text( warnings, e=True, bgc=(0.85,0,0) )
cmds.text( warnings, e=True, l="Please, first press 'CLEAR ALL', thanks." )
else:
cmds.text( warnings, e=True, bgc=(0,0.66,0.05) )
cmds.text( warnings, e=True, l="None." )
j = nDisks
it = 0
while j > 0:
# Records the disks to the pegA list. Will look like disk3 (bottom/largest) disk2 (middle/medium),
# disk1 (top/smallest)"...
disk = cmds.polyCylinder( n='disk'+`j`, h=0.2, r=1.5-(0.1*it) )[0]
pegA.append(disk)
cmds.xform( t=pLeft )
cmds.xform( t=[0,0.6+(nDisks-j)*0.2,0], r=True )
# Apply the materials to the disks
import materials
reload(materials)
colourArrayDisks = cmds.colorSliderGrp( 'rgb_disks', q=True, rgb=True)
shadingObjs = materials.applyShaderDisk( disk, colourArrayDisks )
global superList
superList += shadingObjs[0], shadingObjs[1]
print shadingObjs[0], shadingObjs[1],"(374) have been added to superList. Now superList contains:", superList
print pegA[it], "has been created and placed in pegA"
# Set the keyframe
global KFTime
anim.setKeyframeToDisk( pegA[it], KFTime )
it = it + 1
j = j - 1
print "The pegA list contains: ", pegA
def createSpeaker():
"""create a speaker shape to be used as a sound visualiser.
return : name of the cylinder created
"""
# create cylinder
speaker = cmds.polyCylinder(h=0.025, r=0.5)
# extrude to create 'speaker' shape
cmds.polyExtrudeFacet(speaker[0] + ".f[21]", scale=(0.8, 0.8, 0.8))
cmds.polyExtrudeFacet(speaker[0] + ".f[21]", scale=(0.5, 0.5, 0.5), translate=(0, -0.2, 0))
cmds.polyExtrudeFacet(speaker[0] + ".f[21]", translate=(0, 0.1, 0))
return speaker
def tree():
treeTrunk = mc.polyCylinder( r=0, h=6, sx=8, n="Tree_Trunk" )
mc.move( 0,6/2.4,0, treeTrunk )
treeBody = mc.polySphere( r=3, sx=8, sy=8, n="Tree_Body" )
mc.move( 0,8,0, treeBody )
mc.scale( 1,2,1, treeBody )
mc.select( treeTrunk, treeBody )
mc.group( n="Tree Group" )
# -------------------------------------------------------------->
