def _water(self):
node = cmds.shadingNode('water', asTexture=True)
tex = cmds.shadingNode('place2dTexture', asUtility=True)
cmds.connectAttr(tex + '.outUV', node + '.uvCoord')
cmds.connectAttr(tex + '.outUvFilterSize', node + '.uvFilterSize')
cmds.setAttr(tex + '.repeatU', 1)
cmds.setAttr(tex + '.repeatV', 1)
def substanceOutput():
node = cmds.shadingNode('substanceOutput', asTexture=True)
tex = cmds.shadingNode('place2dTexture', asUtility=True)
cmds.connectAttr(tex + '.outUV', node + '.uvCoord')
cmds.connectAttr(tex + '.outUvFilterSize', node + '.uvFilterSize')
cmds.setAttr(tex + '.repeatU', 1)
cmds.setAttr(tex + '.repeatV', 1)
def grid():
node = cmds.shadingNode('grid', asTexture=True)
tex = cmds.shadingNode('place2dTexture', asUtility=True)
cmds.connectAttr(tex + '.outUV', node + '.uvCoord')
cmds.connectAttr(tex + '.outUvFilterSize', node + '.uvFilterSize')
cmds.setAttr(tex + '.repeatU', 4)
cmds.setAttr(tex + '.repeatV', 4)
def createShader(textureNode, shaderType='blinn', fromColour=False, fromNormal=True, fromSpecular=True):
if fromColour and fromNormal and fromSpecular:
raise UserWarning('You have to choose which component to start from')
if not fromColour and not fromNormal and not fromSpecular:
raise UserWarning('You have to choose which component to start from')
if not fromColour and fromNormal and fromSpecular:
raise UserWarning('You have to choose which component to start from')
colorTexture = textureNode
alphaTexture = textureNode
normalTexture = textureNode
specularTexture = textureNode
if shaderType == 'blinn':
# createShader and shadingGroup
shader = cmds.shadingNode('blinn', asShader=True)
shadingGroup = cmds.sets(shader)
if fromColour and fromSpecular:
# create bump/normal node
bumpNode = cmds.shadingNode('bump2d', asUtility=True)
cmds.setAttr(bumpNode+'.bumpInterp', 1)
# connect normal map to bump node
cmds.connectAttr(normalTexture+'.outAlpha', bumpNode+'.bumpValue')
# connect bump to shader
cmds.connectAttr(bumpNode+'.outNormal', shader+'.normalCamera')
def blendS(name, fk, ik, child):
cmds.shadingNode( 'blendColors', n=name, au=True)
cmds.connectAttr( '%s.scale' % fk , '%s.color1' % name)
cmds.connectAttr( '%s.scale' % ik , '%s.color2' % name)
cmds.connectAttr('%s.output' % name, '%s.scale' % child)
cmds.setAttr('%s.blender' % name, 0)
return name
def updateColor(self, mID, colorname):
"""
Update the color of the Maya's Mesh Node associated with a this
StrandItem, this is done by creating a shadingNode for each color or
connecting the Mesh Mode to an existing shadingNode if one exists
for a given color.
"""
m = Mom()
meshName = "%s%s" % (m.helixMeshName, mID)
color = QColor(colorname)
colorval = "%d_%d_%d" % (color.red(), color.green(), color.blue())
shaderName = "%s%d_%d_%d" % (m.helixShaderName, color.red(),
color.green(),
color.blue())
if not cmds.objExists(shaderName):
# Shader does not exist create one
cmds.shadingNode('lambert', asShader=True, name=shaderName)
cmds.sets(n="%sSG" % shaderName, r=True, nss=True, em=True)
cmds.connectAttr("%s.outColor" % shaderName,
"%sSG.surfaceShader" % shaderName)
cmds.setAttr("%s.color" % shaderName,
color.redF(), color.greenF(), color.blueF(),
type="double3")
cmds.sets(meshName, forceElement="%sSG" % shaderName)
else:
#shader exist connect
cmds.sets(meshName, forceElement="%sSG" % shaderName)
def createShaders(self):
"""Create only once the different shaders used to bake for the different modes"""
if not self.prepared:
# OCC
self.occ = cmds.createNode('ilrOccSampler') # create shader
self.occSG = cmds.sets(renderable=True, noSurfaceShader=True, empty=True, name=self.occ + 'SG')
cmds.connectAttr(self.occ + '.outColor', self.occSG + '.surfaceShader', force=True)
# THICKNESS
thickShader = cmds.shadingNode('surfaceShader', asShader=True)
self.thickSG = cmds.sets(renderable=True, noSurfaceShader=True, empty=True, name=thickShader + 'SG')
cmds.connectAttr(thickShader + '.outColor', self.thickSG + '.surfaceShader', force=True)
self.thick = cmds.shadingNode('ilrSurfaceThickness', asUtility=True)
cmds.connectAttr(self.thick + '.outThickness', thickShader + '.outColor', force=True)
# DIRT
nodes = cmds.file('path_to_your_file_shader.ma', reference=True, returnNewNodes=True, namespace='DIRT')
self.dirt = cmds.ls(nodes, type='surfaceShader')[0]
self.dirtSG = tdLib.getFirstItem(cmds.listConnections(self.dirt + '.outColor', source=False))
if not self.dirtSG:
self.dirtSG = cmds.sets(renderable=True, noSurfaceShader=True, empty=True, name=self.dirt + 'SG')
cmds.connectAttr(self.dirt + '.outColor', self.dirtSG + '.surfaceShader', force=True)
self.dirt = self.dirtSG
# RGB
self.rgb = cmds.shadingNode('surfaceShader', asShader=True)
self.rgbSG = cmds.sets(renderable=True, noSurfaceShader=True, empty=True, name=self.rgb + 'SG')
cmds.connectAttr(self.rgb + '.outColor', self.rgbSG + '.surfaceShader', force=True)
self.prepared = True
def linkFileToSpecular(src, dst):
cmds.shadingNode('remapHsv', n = '%s_remapHsc'%dst, au = 1)
cmds.shadingNode('solidFractal', n = '%s_solidFractal'%dst, at = 1)
cmds.shadingNode('place3dTexture', n = '%s_place3dTexture'%dst, at = 1)
cmds.shadingNode('multiplyDivide', n = '%s_multiplyDivide'%dst, au = 1)
cmds.shadingNode('ramp', n = '%s_ramp'%dst, at = 1)
cmds.setAttr('%s.saturation[1].saturation_Position'%('%s_remapHsc'%dst), 1)
cmds.setAttr('%s.saturation[1].saturation_FloatValue'%('%s_remapHsc'%dst), 0)
cmds.setAttr('%s.value[0].value_FloatValue'%('%s_remapHsc'%dst), 0)
cmds.setAttr('%s.value[0].value_Position'%('%s_remapHsc'%dst), 0.025)
cmds.setAttr('%s.value[1].value_FloatValue'%('%s_remapHsc'%dst), 1)
cmds.setAttr('%s.value[1].value_Position'%('%s_remapHsc'%dst), 0.075)
cmds.connectAttr('%s.worldInverseMatrix[0]'%('%s_place3dTexture'%dst), '%s.placementMatrix'%('%s_solidFractal'%dst), f = 1)
cmds.connectAttr('%s.outColor'%src, '%s.color'%('%s_remapHsc'%dst), f = 1)
cmds.connectAttr('%s.outColor'%('%s_remapHsc'%dst), '%s.input1'%('%s_multiplyDivide'%dst), f = 1)
cmds.connectAttr('%s.outColor'%('%s_solidFractal'%dst), '%s.input2'%('%s_multiplyDivide'%dst), f = 1)
cmds.connectAttr('%s.output'%('%s_multiplyDivide'%dst), '%s.colorGain'%('%s_ramp'%dst), f = 1)
if cmds.nodeType(dst) == 'RedshiftArchitectural':
# cmds.disconnectAttr('%s.outColor'%(src), '%s.diffuse'%dst)
cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.refl_color'%dst, f = 1)
elif cmds.nodeType(dst) == 'aiStandard':
# cmds.disconnectAttr('%s.outColor'%(src), '%s.color'%dst)
cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.KsColor'%dst, f = 1)
# cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.color'%dst, f = 1)
else:
# cmds.disconnectAttr('%s.outColor'%(src), '%s.color'%dst)
cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.reflectedColor'%dst, f = 1)
# cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.color'%dst, f = 1)
linkTopRemapNodeToAll('%s_ramp'%dst)
getRemapAndMutilplyNodes(dst)
def createDecoratorNodes(self, coords, mID):
"""Create a actual Maya Nodes for a new Pre-Decortators"""
m = Mom()
stapleModIndicatorName = "%s%s" % (m.decoratorNodeName, mID)
transformName = "%s%s" % (m.decoratorTransformName, mID)
meshName = "%s%s" % (m.decoratorMeshName, mID)
shaderName = "%s" % m.decoratorShaderName
cmds.createNode("transform", name=transformName, skipSelect=True)
cmds.setAttr("%s.rotateX" % transformName, 90)
cmds.setAttr("%s.translateX" % transformName, coords[0])
cmds.setAttr("%s.translateY" % transformName, coords[1])
cmds.setAttr("%s.translateZ" % transformName, coords[2])
cmds.createNode("mesh", name=meshName, parent=transformName, skipSelect=True)
# cmds.createNode("spPreDecoratorNode", name=stapleModIndicatorName)
cmds.createNode("polySphere", name=stapleModIndicatorName, skipSelect=True)
cmds.setAttr("%s.radius" % stapleModIndicatorName, 0.25)
cmds.setAttr("%s.subdivisionsAxis" % stapleModIndicatorName, 4)
cmds.setAttr("%s.subdivisionsHeight" % stapleModIndicatorName, 4)
# cmds.connectAttr("%s.outputMesh" % stapleModIndicatorName,
# "%s.inMesh" % meshName)
cmds.connectAttr("%s.output" % stapleModIndicatorName, "%s.inMesh" % meshName)
if not cmds.objExists(shaderName):
# Shader does not exist create one
cmds.shadingNode("lambert", asShader=True, name=shaderName)
cmds.sets(n="%sSG" % shaderName, r=True, nss=True, em=True)
cmds.connectAttr("%s.outColor" % shaderName, "%sSG.surfaceShader" % shaderName)
cmds.setAttr("%s.color" % shaderName, 0.0, 0.0, 0.0, type="double3")
cmds.sets(meshName, forceElement="%sSG" % shaderName)
else:
# shader exist connect
cmds.sets(meshName, forceElement="%sSG" % shaderName)
return (stapleModIndicatorName, transformName, meshName, shaderName)
def ImportCustomTexture(name):
os.system("cd ~/maya/2014-x64/scripts; python texture.py")
file = '/usr/tmp/texture.jpg'
#create a shader
shader=cmds.shadingNode( "blinn", asShader=True )
#a file texture node
shaderName = file_node=cmds.shadingNode( "file", asTexture=True )
print shaderName
#attach file to node
cmds.setAttr( '%s.fileTextureName' %file_node, file, type = "string")
# a shading group
shading_group= cmds.sets(renderable=True,noSurfaceShader=True,empty=True)
#connect shader to sg surface shader
cmds.connectAttr('%s.outColor' %shader ,'%s.surfaceShader' %shading_group)
#connect file texture node to shader's color
cmds.connectAttr('%s.outColor' %file_node, '%s.color' %shader)
cmds.sets(name, edit=True, forceElement=shading_group)
def CreateUVMaterial():
try:
cmds.delete("UVShader")
except:
pass
try:
cmds.delete("UVShaderSG")
except:
pass
try:
cmds.delete("CheckerMap")
except:
pass
try:
cmds.delete("TexturePlacer")
except:
pass
material = cmds.shadingNode('lambert', asShader=1, name='UVShader')
SG = cmds.sets(renderable=1, noSurfaceShader=1, empty=1, name = 'UVShaderSG')
cmds.connectAttr((material + '.outColor'),(SG + '.surfaceShader'),f=1)
cmds.shadingNode("file", asTexture = True, name = "CheckerMap" )
cmds.setAttr("CheckerMap.fileTextureName", os.path.expanduser('~/maya/Turbosquid/CheckMate Tools For Maya/CM_Tools/') + "ash_uvgrid.jpg", type = "string")
cmds.connectAttr( "CheckerMap.outColor", "UVShader.color", force = True)
def _VRayWater(self):
node = cmds.shadingNode("VRayWater", asTexture=True)
tex = cmds.shadingNode("place2dTexture", asUtility=True)
cmds.connectAttr(tex + ".outUV", node + ".uvCoord")
cmds.connectAttr(tex + ".outUvFilterSize", node + ".uvFilterSize")
cmds.setAttr(tex + ".repeatU", 1)
cmds.setAttr(tex + ".repeatV", 1)
def createDistanceCalculations(self, rootLocator, endLocator, containedNodes):
rootLocatorName = utils.stripAllNamespaces(rootLocator)[1]
endLocatorName = utils.stripAllNamespaces(endLocator)[1]
distNode = cmds.shadingNode("distanceBetween", asUtility=True, n=self.blueprintNamespace+":"+self.moduleNamespace+":distanceBetween_" + rootLocatorName + "__" + endLocatorName)
containedNodes.append(distNode)
rootLocShape = rootLocator+"Shape"
endLocShape = endLocator+"Shape"
cmds.connectAttr(rootLocShape+".worldPosition[0]", distNode+".point1")
cmds.connectAttr(endLocShape+".worldPosition[0]", distNode+".point2")
totalOriginalLength = cmds.getAttr(distNode+".distance")
totalOriginalLength /= cmds.getAttr(self.blueprintNamespace+":module_grp.hierarchicalScale")
scaleFactor = cmds.shadingNode("multiplyDivide", asUtility=True, n=distNode+"_scaleFactor")
containedNodes.append(scaleFactor)
cmds.setAttr(scaleFactor+".operation", 2) # Divide
cmds.connectAttr(distNode+".distance", scaleFactor+".input1X")
cmds.setAttr(scaleFactor+".input2X", totalOriginalLength)
scaleCorrection = cmds.shadingNode("multiplyDivide", asUtility=True, n=scaleFactor+"_correction")
containedNodes.append(scaleCorrection)
cmds.setAttr(scaleCorrection+".operation", 2) #Divide
cmds.connectAttr(scaleFactor+".outputX", scaleCorrection+".input1X")
cmds.connectAttr(self.blueprintNamespace+":module_grp.hierarchicalScale", scaleCorrection+".input2X")
return scaleCorrection+".outputX"
def assignVrayShaders(chromnBall,grayBall,whiteBall):
#create and assign chromn ball shader
chromnBallShader = mc.shadingNode('VRayMtl', asShader = True, n = "mat_chromnBall")
chromnBallSG = mc.sets(n = chromnBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(chromnBallShader+".outColor", chromnBallSG+".surfaceShader", f = True)
mc.setAttr(chromnBallShader+".color",0,0,0, type = "double3")
mc.setAttr(chromnBallShader+".diffuseColorAmount",0)
mc.setAttr(chromnBallShader+".reflectionColor",1,1,1,type = "double3")
mc.setAttr(chromnBallShader+".refractionIOR",15)
mc.sets(chromnBall,e = True, forceElement = chromnBallSG)
#create and assign gray ball shader
grayBallShader = mc.shadingNode('VRayMtl', asShader = True, n = "mat_grayBall")
grayBallSG = mc.sets(n = grayBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(grayBallShader+".outColor", grayBallSG+".surfaceShader", f = True)
mc.setAttr(grayBallShader+".color",0.18,0.18,0.18, type = "double3")
mc.setAttr(grayBallShader+".reflectionColorAmount",0)
mc.sets(grayBall,e = True, forceElement = grayBallSG)
#create and assign white ball shader
whiteBallShader = mc.shadingNode('VRayMtl', asShader = True, n = "mat_whiteBall")
whiteBallSG = mc.sets(n = whiteBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(whiteBallShader+".outColor", whiteBallSG+".surfaceShader", f = True)
mc.setAttr(whiteBallShader+".color",1,1,1, type = "double3")
mc.setAttr(whiteBallShader+".reflectionColorAmount",0)
mc.sets(whiteBall,e = True, forceElement = whiteBallSG)
def linkFileToSpecular(src, dst):
cmds.shadingNode("remapHsv", n="%s_remapHsc" % dst, au=1)
cmds.shadingNode("solidFractal", n="%s_solidFractal" % dst, at=1)
cmds.shadingNode("place3dTexture", n="%s_place3dTexture" % dst, at=1)
cmds.shadingNode("multiplyDivide", n="%s_multiplyDivide" % dst, au=1)
cmds.shadingNode("ramp", n="%s_ramp" % dst, at=1)
cmds.setAttr("%s.saturation[1].saturation_Position" % ("%s_remapHsc" % dst), 1)
cmds.setAttr("%s.saturation[1].saturation_FloatValue" % ("%s_remapHsc" % dst), 0)
cmds.setAttr("%s.value[0].value_FloatValue" % ("%s_remapHsc" % dst), 0)
cmds.setAttr("%s.value[0].value_Position" % ("%s_remapHsc" % dst), 0.025)
cmds.setAttr("%s.value[1].value_FloatValue" % ("%s_remapHsc" % dst), 1)
cmds.setAttr("%s.value[1].value_Position" % ("%s_remapHsc" % dst), 0.075)
cmds.connectAttr(
"%s.worldInverseMatrix[0]" % ("%s_place3dTexture" % dst), "%s.placementMatrix" % ("%s_solidFractal" % dst), f=1
)
cmds.connectAttr("%s.outColor" % src, "%s.color" % ("%s_remapHsc" % dst), f=1)
cmds.connectAttr("%s.outColor" % ("%s_remapHsc" % dst), "%s.input1" % ("%s_multiplyDivide" % dst), f=1)
cmds.connectAttr("%s.outColor" % ("%s_solidFractal" % dst), "%s.input2" % ("%s_multiplyDivide" % dst), f=1)
cmds.connectAttr("%s.output" % ("%s_multiplyDivide" % dst), "%s.colorGain" % ("%s_ramp" % dst), f=1)
if cmds.nodeType(dst) == "RedshiftArchitectural":
# cmds.disconnectAttr('%s.outColor'%(src), '%s.diffuse'%dst)
cmds.connectAttr("%s.outColor" % ("%s_ramp" % dst), "%s.refl_color" % dst, f=1)
elif cmds.nodeType(dst) == "aiStandard":
# cmds.disconnectAttr('%s.outColor'%(src), '%s.color'%dst)
cmds.connectAttr("%s.outColor" % ("%s_ramp" % dst), "%s.KsColor" % dst, f=1)
# cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.color'%dst, f = 1)
else:
# cmds.disconnectAttr('%s.outColor'%(src), '%s.color'%dst)
cmds.connectAttr("%s.outColor" % ("%s_ramp" % dst), "%s.reflectedColor" % dst, f=1)
# cmds.connectAttr('%s.outColor'%('%s_ramp'%dst), '%s.color'%dst, f = 1)
linkTopRemapNodeToAll("%s_ramp" % dst)
def addUVsChecker(objects, uRepeats=4, vRepeats=4):
"""
Applies UVs checkers onto given geometry objects.
:param objects: Current objects list.
:type objects: list
:param uRepeats: U checker repeats.
:type uRepeats: float
:param vRepeats: V checker repeats.
:type vRepeats: float
:return: Definition succes.
:rtype: bool
"""
for object in objects:
for shader in getAttachedShaders(object):
file = getFirstItem(filter(lambda x: re.search("\.color$", x[1]), getConnections(shader)))
if file is not None:
if "UVsChecker" in getFirstItem(file):
continue
file = cmds.shadingNode("file", asTexture=True)
cmds.setAttr("{0}.fileTextureName".format(file), os.path.normpath(os.path.join(RESOURCES_DIRECTORY, CHECKER_IMAGE)), type="string")
place2dTexture = cmds.shadingNode("place2dTexture", asUtility=True)
cmds.setAttr("{0}.repeatU".format(place2dTexture), uRepeats)
cmds.setAttr("{0}.repeatV".format(place2dTexture), vRepeats)
for uvAttribute in ("coverage", "translateFrame", "rotateFrame", "mirrorU", "mirrorV", "stagger", "wrapU", "wrapV" , "repeatUV" , "vertexUvOne" , "vertexUvTwo" , "vertexUvThree" , "vertexCameraOne", "noiseUV", "offset", "rotateUV"):
cmds.connectAttr("{0}.{1}".format(place2dTexture, uvAttribute), "{0}.{1}".format(file, uvAttribute), force=True)
cmds.connectAttr("{0}.outColor".format(file), "{0}.color".format(shader), force=True)
cmds.rename(file, "UVsChecker_{0}_file".format(shader))
cmds.rename(place2dTexture, "UVsChecker_{0}_place2dTexture".format(shader))
return True
def assignMayaShaders(chromnBall,grayBall,whiteBall):
#create and assign chromn ball shader
chromnBallShader = mc.shadingNode('blinn', asShader = True, n = "mat_chromnBall")
chromnBallSG = mc.sets(n = chromnBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(chromnBallShader+".outColor", chromnBallSG+".surfaceShader", f = True)
mc.setAttr(chromnBallShader+".color",0,0,0, type = "double3")
mc.setAttr(chromnBallShader+".diffuse",0)
mc.setAttr(chromnBallShader+".specularColor",1,1,1,type = "double3")
mc.setAttr(chromnBallShader+".reflectivity",1)
mc.setAttr(chromnBallShader+".eccentricity",0)
mc.setAttr(chromnBallShader+".specularRollOff",1)
mc.sets(chromnBall,e = True, forceElement = chromnBallSG)
#create and assign gray ball shader
grayBallShader = mc.shadingNode('lambert', asShader = True, n = "mat_grayBall")
grayBallSG = mc.sets(n = grayBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(grayBallShader+".outColor", grayBallSG+".surfaceShader", f = True)
mc.setAttr(grayBallShader+".color",0.18,0.18,0.18, type = "double3")
mc.setAttr(grayBallShader+".diffuse",1)
mc.sets(grayBall,e = True, forceElement = grayBallSG)
#create and assign white ball shader
whiteBallShader = mc.shadingNode('lambert', asShader = True, n = "mat_whiteBall")
whiteBallSG = mc.sets(n = whiteBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(whiteBallShader+".outColor", whiteBallSG+".surfaceShader", f = True)
mc.setAttr(whiteBallShader+".diffuse",1)
mc.setAttr(whiteBallShader+".color",1,1,1, type = "double3")
mc.sets(whiteBall,e = True, forceElement = whiteBallSG)
def pathFollow (curve , control, objectArray, NameConv = None):
if not NameConv:
NameConv = RMNameConvention.RMNameConvention()
controlAttr = cmds.listAttr(control)
if "Percent" not in controlAttr:
cmds.addAttr(control,at="float", ln = "Percent", h = 0, k = 1)
if "Stretch" not in controlAttr:
cmds.addAttr(control,at="float", ln = "Stretch", hnv = 1, hxv = 0, h = 0, k = 1, smn = 0)
numberOfElements = len(objectArray)
sumPath = []
multiplyDivide = []
index = 0
for eachObject in objectArray:
motionPath = cmds.pathAnimation(eachObject, c = curve , follow = True , worldUpType = "scene", name = "motionpath%s"%index)
motionPath = NameConv.RMRenameNameInFormat(motionPath)
multDivFactor = cmds.shadingNode('multiplyDivide', asUtility = True, name = "factor%s"%index)
multDivFactor = NameConv.RMRenameNameInFormat(multDivFactor)
cmds.connectAttr("%s.Stretch"%control ,"%s.input1X"%multDivFactor)
cmds.setAttr("%s.input2X"%multDivFactor, float(index)/float(len(objectArray)))
cmds.setAttr("%s.operation"%multDivFactor, 1)
multiplyDivide.append(multDivFactor)
addition = cmds.shadingNode('plusMinusAverage', asUtility = True, name = "Addition%s"%index)
addition = NameConv.RMRenameNameInFormat(addition)
cmds.connectAttr("%s.outputX"%multDivFactor ,"%s.input1D[0]"%addition)
cmds.connectAttr("%s.Percent"%control ,"%s.input1D[1]"%addition)
cmds.connectAttr("%s.output1D"%addition,"%s.uValue"%motionPath, force = True)
index+=1
def createMayaNetwork(filename):
lambert = m.shadingNode('lambert', asShader=True)
sg = m.sets(renderable=True, noSurfaceShader=True, empty=True, name=lambert + 'SG')
m.connectAttr(lambert + '.outColor', sg + '.surfaceShader', force=True)
fileNode = m.shadingNode('file', asTexture=True)
placement = m.shadingNode('place2dTexture', asUtility=True)
m.connectAttr(placement + '.coverage', fileNode + '.coverage', force=True)
m.connectAttr(placement + '.translateFrame', fileNode + '.translateFrame', force=True)
m.connectAttr(placement + '.rotateFrame', fileNode + '.rotateFrame', force=True)
m.connectAttr(placement + '.mirrorU', fileNode + '.mirrorU', force=True)
m.connectAttr(placement + '.mirrorV', fileNode + '.mirrorV', force=True)
m.connectAttr(placement + '.stagger', fileNode + '.stagger', force=True)
m.connectAttr(placement + '.wrapU', fileNode + '.wrapU', force=True)
m.connectAttr(placement + '.wrapV', fileNode + '.wrapV', force=True)
m.connectAttr(placement + '.repeatUV', fileNode + '.repeatUV', force=True)
m.connectAttr(placement + '.offset', fileNode + '.offset', force=True)
m.connectAttr(placement + '.rotateUV', fileNode + '.rotateUV', force=True)
m.connectAttr(placement + '.noiseUV', fileNode + '.noiseUV', force=True)
m.connectAttr(placement + '.vertexUvOne', fileNode + '.vertexUvOne', force=True)
m.connectAttr(placement + '.vertexUvTwo', fileNode + '.vertexUvTwo', force=True)
m.connectAttr(placement + '.vertexUvThree', fileNode + '.vertexUvThree', force=True)
m.connectAttr(placement + '.vertexCameraOne', fileNode + '.vertexCameraOne', force=True)
m.connectAttr(placement + '.outUV', fileNode + '.uv', force=True)
m.connectAttr(placement + '.outUvFilterSize', fileNode + '.uvFilterSize', force=True)
m.connectAttr(fileNode + '.outColor', lambert + '.color', force=True)
m.setAttr(fileNode + '.fileTextureName', filename, typ='string')
return sg
def createBlossomShader(rgb_blossom):
"""
It creates a shading network for the blossom material.
rgb_branch: RGB values (0-1) for the diffuse colour of the branches.
On Exit: Creates a Lambert node connected to a Shading Group which will be applied to the petals. Furthermore, two
non-customizable additional shaders will be created and applied to the stamen and pedicel of the blossom.
"""
global blossomMat, blossomSG
import globalVar
reload(globalVar)
blossomPetalsMat = cmds.shadingNode( 'lambert', asShader=True, name='blossomPetalsMat'+str(globalVar.plantNumber) )
cmds.setAttr( blossomPetalsMat + '.color', rgb_blossom[0], rgb_blossom[1], rgb_blossom[2] )
blossomPetalsSG = cmds.sets( renderable=True, noSurfaceShader=True, empty=True,
name='blossomPetalsSG'+str(globalVar.plantNumber) )
cmds.connectAttr( blossomPetalsMat + '.outColor', blossomPetalsSG + '.surfaceShader', f=True )
blossomStamenMat = cmds.shadingNode( 'lambert', asShader=True, name='blossomStamenMat'+str(globalVar.plantNumber) )
cmds.setAttr( blossomStamenMat + '.color', 0.848, 0.8484, 0.186 )
blossomStamenSG = cmds.sets( renderable=True, noSurfaceShader=True, empty=True,
name='blossomStamenSG'+str(globalVar.plantNumber) )
cmds.connectAttr( blossomStamenMat + '.outColor', blossomStamenSG + '.surfaceShader', f=True )
blossomPedicelMat = cmds.shadingNode( 'lambert', asShader=True, name='blossomPedicelMat'+str(globalVar.plantNumber) )
cmds.setAttr( blossomPedicelMat + '.color', 0, 0.494, 0 )
blossomPedicelSG = cmds.sets( renderable=True, noSurfaceShader=True, empty=True,
name='blossomPedicelSG'+str(globalVar.plantNumber) )
cmds.connectAttr( blossomPedicelMat + '.outColor', blossomPedicelSG + '.surfaceShader', f=True )
def connectThroughBC(parentsA, parentsB, children, instance, switchattr ):
constraints = []
for j in range(len(children)):
switchPrefix = children[j].partition('_')[2]
bcNodeT = cmds.shadingNode("blendColors", asUtility=True, n=instance + 'bcNodeT_switch_' + switchPrefix)
bcNodeR = cmds.shadingNode("blendColors", asUtility=True, n=instance + 'bcNodeR_switch_' + switchPrefix)
bcNodeS = cmds.shadingNode("blendColors", asUtility=True, n=instance + 'bcNodeS_switch_' + switchPrefix)
constraints.append([bcNodeT, bcNodeR, bcNodeS])
# connect to switchattr
if switchattr == 'None':
cmds.setAttr(bcNodeT + '.blender', 1)
cmds.setAttr(bcNodeR + '.blender', 1)
cmds.setAttr(bcNodeS + '.blender', 1)
else:
cmds.connectAttr(switchattr, bcNodeT + '.blender')
cmds.connectAttr(switchattr, bcNodeR + '.blender')
cmds.connectAttr(switchattr, bcNodeS + '.blender')
# Input Parents
cmds.connectAttr(parentsA[j] + '.translate', bcNodeT + '.color1')
cmds.connectAttr(parentsA[j] + '.rotate', bcNodeR + '.color1')
cmds.connectAttr(parentsA[j] + '.scale', bcNodeS + '.color1')
if parentsB != 'None':
cmds.connectAttr(parentsB[j] + '.translate', bcNodeT + '.color2')
cmds.connectAttr(parentsB[j] + '.rotate', bcNodeR + '.color2')
cmds.connectAttr(parentsB[j] + '.scale', bcNodeS + '.color2')
# Output to Children
cmds.connectAttr(bcNodeT + '.output', children[j] + '.translate')
cmds.connectAttr(bcNodeR + '.output', children[j] + '.rotate')
cmds.connectAttr(bcNodeS + '.output', children[j] + '.scale')
return constraints
def assignArnoldShaders(chromnBall,grayBall,whiteBall):
#create and assign chromn ball shader
chromnBallShader = mc.shadingNode('aiStandard', asShader = True, n = "mat_chromnBall")
chromnBallSG = mc.sets(n = chromnBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(chromnBallShader+".outColor", chromnBallSG+".surfaceShader", f = True)
mc.setAttr(chromnBallShader+".color",0,0,0, type = "double3")
mc.setAttr(chromnBallShader+".Kd",0)
mc.setAttr(chromnBallShader+".Ks",1)
mc.setAttr(chromnBallShader+".specularRoughness",0)
mc.sets(chromnBall,e = True, forceElement = chromnBallSG)
#create and assign gray ball shader
grayBallShader = mc.shadingNode('aiStandard', asShader = True, n = "mat_grayBall")
grayBallSG = mc.sets(n = grayBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(grayBallShader+".outColor", grayBallSG+".surfaceShader", f = True)
mc.setAttr(grayBallShader+".color",0.18,0.18,0.18, type = "double3")
mc.setAttr(grayBallShader+".Kd",1)
mc.setAttr(grayBallShader+".KsColor",0,0,0, type = "double3")
mc.setAttr(grayBallShader+".Ks",0)
mc.setAttr(chromnBallShader+".specularRoughness",0)
mc.sets(grayBall,e = True, forceElement = grayBallSG)
#create and assign white ball shader
whiteBallShader = mc.shadingNode('aiStandard', asShader = True, n = "mat_whiteBall")
whiteBallSG = mc.sets(n = whiteBallShader + "SG", renderable = True, noSurfaceShader = True, empty = True)
mc.connectAttr(whiteBallShader+".outColor", whiteBallSG+".surfaceShader", f = True)
mc.setAttr(whiteBallShader+".color",1,1,1, type = "double3")
mc.setAttr(whiteBallShader+".Kd",1)
mc.setAttr(whiteBallShader+".KsColor",0,0,0, type = "double3")
mc.setAttr(whiteBallShader+".Ks",0)
mc.setAttr(chromnBallShader+".specularRoughness",0)
mc.sets(whiteBall,e = True, forceElement = whiteBallSG)
def RMCreateTwist(self, TwistJoint, LookAtObject, NumberOfTB = 3, LookAtAxis = "Y"):
#LookAtObject = cmds.listRelatives( TwistJoint,type = "transform",children=True)[]
positionA = cmds.xform(TwistJoint ,q=True,ws=True,rp=True)
positionB = cmds.xform(LookAtObject ,q=True,ws=True,rp=True)
vectorA = om.MVector(positionA)
vectorB = om.MVector(positionB)
self.RMCreateBonesBetweenPoints(vectorA,vectorB,NumberOfTB, AlignObject = TwistJoint)
Distance = RMRigTools.RMPointDistance( TwistJoint, LookAtObject)
cmds.parentConstraint (TwistJoint,self.TwistResetJoints)
resetPoint , control = RMRigShapeControls.RMCreateBoxCtrl(self.TwistJoints[0], Xratio = .1, Yratio = .1, Zratio = .1, customSize = Distance/5 ,name = "TwistOrigin" + self.NameConv.RMGetAShortName (TwistJoint).title())
#control = self.NameConv.RMRenameBasedOnBaseName(TwistJoint , control, NewName = self.NameConv.RMGetAShortName(control))
#resetPoint = self.NameConv.RMRenameBasedOnBaseName(TwistJoint , resetPoint, NewName = self.NameConv.RMGetAShortName(resetPoint))
sign = 1
MoveDistance = Distance/5
if "-" in LookAtAxis:
sign = -1
if "Z" in LookAtAxis or "z" in LookAtAxis:
MoveList = [0,0, MoveDistance * sign]
WUV = [0,0,sign]
elif "Y" in LookAtAxis or "y" in LookAtAxis:
MoveList = [0,MoveDistance * sign,0 ]
WUV = [0,sign,0]
cmds.xform( resetPoint, os = True, relative=True, t = MoveList)
cmds.aimConstraint( LookAtObject,self.TwistJoints[0], aim = [1,0,0], worldUpVector = [0,0,1], worldUpType = "object", worldUpObject = control)
TwistJointDivide = cmds.shadingNode( "multiplyDivide", asUtility = True, name = "TwistJoint" + self.NameConv.RMGetAShortName( TwistJoint).title())
TwistJointDivide = self.NameConv.RMRenameBasedOnBaseName( TwistJoint , TwistJointDivide, NewName = self.NameConv.RMGetAShortName( TwistJointDivide))
TwistAddition = cmds.shadingNode( "plusMinusAverage", asUtility = True, name = "TwistJointAdd" + self.NameConv.RMGetAShortName( TwistJoint).title())
TwistAddition = self.NameConv.RMRenameBasedOnBaseName( TwistJoint , TwistAddition, NewName = self.NameConv.RMGetAShortName( TwistAddition))
NegativeLookAtRotation = cmds.shadingNode( "multiplyDivide", asUtility = True, name = "NegativeLookAtRotation" + self.NameConv.RMGetAShortName( TwistJoint).title())
NegativeLookAtRotation = self.NameConv.RMRenameBasedOnBaseName( TwistJoint , NegativeLookAtRotation, NewName = self.NameConv.RMGetAShortName( NegativeLookAtRotation))
cmds.connectAttr( LookAtObject + ".rotateX", NegativeLookAtRotation + ".input1X")
cmds.setAttr(NegativeLookAtRotation + ".input2X", -1 )
cmds.setAttr(NegativeLookAtRotation + ".operation", 1 )
cmds.connectAttr(self.TwistJoints[0]+".rotateX", TwistAddition + ".input1D[0]")
cmds.connectAttr( NegativeLookAtRotation + ".outputX", TwistAddition + ".input1D[1]")
cmds.connectAttr(TwistAddition + ".output1D", TwistJointDivide + ".input1X")
#cmds.connectAttr(self.TwistJoints[0]+".rotateX", TwistJointDivide + ".input1X") in this case the rotation of the lookatNode was not affecting
cmds.setAttr(TwistJointDivide + ".input2X", -(len(self.TwistJoints) - 1))
cmds.setAttr(TwistJointDivide + ".operation", 2 )
for eachJoint in self.TwistJoints[1:]:
cmds.connectAttr(TwistJointDivide+".outputX", eachJoint + ".rotateX")
self.TwistControlResetPoint = resetPoint
self.TwistControl = control
def shaderAssigner() :
# Assigning temporary shader to selected objects
sels = mc.ls( sl=True )
name = ''
side = ''
nameResult = mc.promptDialog(
title='Shading Name',
message='Enter Name:',
button=['OK', 'Cancel'],
defaultButton='OK',
cancelButton='Cancel',
dismissString='Cancel'
)
if nameResult == 'OK':
name = mc.promptDialog(query=True, text=True)
if name :
shadingName = '%sTmp_lambert' % name
if not mc.objExists( shadingName ) :
mc.shadingNode( 'lambert' , asShader=True , n=shadingName )
mc.select( sels , r=True )
cmd = 'hyperShade -assign %s;' % shadingName
mm.eval( cmd )
mc.select( shadingName , r=True )
def ConstraintVisibility(self, Objects , ControlObject , SpaceSwitchName = 'spaceSwitch', reverse = False ):
if (self.AddNumericParameter (ControlObject, Name = SpaceSwitchName)):
SWMultDiv = cmds.shadingNode("multiplyDivide",asUtility = True ,name = SpaceSwitchName + "SWMultDivide" )
SWMultDiv = self.NameConv.RMRenameBasedOnBaseName(ControlObject, SWMultDiv, NewName = SWMultDiv)
cmds.connectAttr(ControlObject+"."+SpaceSwitchName ,SWMultDiv+".input1X")
cmds.setAttr(SWMultDiv+".input2X",10)
cmds.setAttr(SWMultDiv+".operation",2)
else:
SWMultDiv = cmds.listConnections(ControlObject + "." + SpaceSwitchName, type = "multiplyDivide")[0]
if reverse == True:
ConnectionsList = cmds.listConnections (SWMultDiv + ".outputX", type = "reverse")
reverseSW = ""
if ConnectionsList and len(ConnectionsList) >= 1:
reverseSW = ConnectionsList[0]
else :
reverseSW = cmds.shadingNode('reverse', asUtility=True, name = SpaceSwitchName + "SWReverse")
reverseSW = self.NameConv.RMRenameBasedOnBaseName(ControlObject, reverseSW, NewName ="SWReverse")
cmds.connectAttr( SWMultDiv + ".outputX", reverseSW + ".inputX")
if self.NameConv.RMIsNameInFormat (ControlObject):
reverseSW = self.NameConv.RMRenameBasedOnBaseName(ControlObject,reverseSW, NewName = reverseSW)
else:
reverseSW = self.NameConv.RMRenameNameInFormat(reverseSW)
for eachObject in Objects:
cmds.connectAttr(reverseSW + ".outputX", eachObject + ".visibility")
else:
for eachObject in Objects:
cmds.connectAttr(SWMultDiv + ".outputX", eachObject + ".visibility")
def creatSphere(*args):
circleSel = mc.ls(sl=1)[0]
radiusCircle = mc.circle(circleSel, q=1, r=1)
radiusSpere = radiusCircle*.75
particleSphere = mc.polySphere(n='%s_Sphere'%circleSel, r=radiusSpere, sx=float(radiusSpere), sy=float(radiusSpere), ax=[0, 1, 0])[0]
mc.parentConstraint(circleSel, particleSphere, mo=0, w=1)
#mc.parent(particleSphere, circleSel)
mc.setAttr('%s.tx'%particleSphere, 0)
mc.setAttr('%s.ty'%particleSphere, 0)
mc.setAttr('%s.tz'%particleSphere, 0)
mc.setAttr('%s.rx'%particleSphere, 0)
mc.setAttr('%s.ry'%particleSphere, 0)
mc.setAttr('%s.rz'%particleSphere, 0)
mc.setAttr('%s.v'%particleSphere, 0)
mc.select(particleSphere, r=1)
mc.emitter(type='surface', r=4, dx=1, dy=0, dz=0, n='%s_emitter'%circleSel )
mc.particle( n='%s_Particles'%circleSel )
mc.connectDynamic( '%s_Particles'%circleSel, em='%s_emitter'%circleSel )
particlesShape = mc.listRelatives('%s_Particles'%circleSel, s=1)[0]
mc.setAttr('%s.lifespanMode'%particlesShape, 1)
mc.setAttr('%s.lifespan'%particlesShape, 0.4)
mc.setAttr('%s.startFrame'%particlesShape, 1001)
mc.connectControl( 'numText', '%s.rate'%('%s_emitter'%circleSel) )
mc.shadingNode('blinn', n='%s_blinn'%circleSel, asShader=1)
mc.sets( n='%s_blinnSG'%circleSel, renderable=True, noSurfaceShader=True, empty=1)
mc.connectAttr('%s.outColor'%('%s_blinn'%circleSel), '%s.surfaceShader'%('%s_blinnSG'%circleSel))
mc.connectControl( 'myColorIndex', '%s.color'%('%s_blinn'%circleSel) )
mc.connectControl( 'lifeText', '%s.lifespan'%particlesShape )
mc.sets('%s_Particles'%circleSel, e=1, forceElement='%s'%('%s_blinnSG'%circleSel))
def createOctaneShader(colorNode):
# glossy shader
shader = cmds.shadingNode('octaneGlossyMaterial', asShader=True)
shadingGroup = cmds.sets(shader, name=shader+'_shadingGroup')
# get other components
colorPath = cmds.getAttr(colorNode+'.fileTextureName')
normalPath = getComponent(colorNode, 'normal')
specularPath = getComponent(colorNode, 'specular')
# octane color texture
colorNode = cmds.shadingNode("octaneImageTexture", asTexture=True)
cmds.setAttr(colorNode+'.File', colorPath, type='string')
cmds.connectAttr(colorNode+".outTex", shader+".Diffuse")
if specularPath:
# octane specular texture
specularNode = cmds.shadingNode("octaneImageTexture", asTexture=True)
cmds.setAttr(specularNode+'.File', specularPath, type='string')
cmds.connectAttr(specularNode+".outTex", shader+".Specular")
if normalPath:
normalNode = cmds.shadingNode("octaneImageTexture", asTexture=True)
cmds.setAttr(normalNode+'.File', normalPath, type='string')
cmds.connectAttr(normalNode+".outTex", shader+".Normal")
def createShader(colorNode):
# create shader and shadingGroup
shader = cmds.shadingNode('blinn', asShader=True)
shadingGroup = cmds.sets(shader)
# set default shader values
cmds.setAttr(shader+".diffuse", 1)
cmds.setAttr(shader+".eccentricity", 0.2)
cmds.setAttr(shader+".specularRollOff", 0.8)
# connect base texture where it should be
cmds.connectAttr(colorNode+'.outColor', shader+'.color')
# get normal and specular textures path
normalTexture = getComponent(colorNode, 'normal')
specularTexture = getComponent(colorNode, 'specular')
if normalTexture:
# create bump/normal node
bumpNode = cmds.shadingNode('bump2d', asUtility=True)
cmds.setAttr(bumpNode+'.bumpInterp', 1)
normalNode = cmds.shadingNode('file', asTexture=True)
cmds.setAttr(normalNode+'.fileTextureName', normalTexture, type="string")
# connect normal map to bump node
cmds.connectAttr(normalNode+'.outAlpha', bumpNode+'.bumpValue')
# connect bump to shader
cmds.connectAttr(bumpNode+'.outNormal', shader+'.normalCamera')
if specularTexture:
# creating specular node
specularNode = cmds.shadingNode('file', asTexture=True)
cmds.setAttr(specularNode+'.fileTextureName', specularTexture, type="string")
cmds.connectAttr(specularNode+'.outColorR', shader+'.specularColorR')
cmds.connectAttr(specularNode+'.outColorR', shader+'.specularColorG')
cmds.connectAttr(specularNode+'.outColorR', shader+'.specularColorB')
def create_knee_pin(self):
"""Creates the knee pin setup."""
u_leg_d, u_leg_s, u_leg_e = self.c.distance_node(self.guides['thigh'], self.guides['shin'])
u_leg_d = cmds.rename(u_leg_d, '%s_%s_%s' % (self.side, 'thighToKnee', self.nc.distance))
u_leg_s = cmds.rename(u_leg_s, '%s_%s_%s' % (self.side, 'thighToKneeLengthStart', self.nc.locator))
u_leg_e = cmds.rename(u_leg_e, '%s_%s_%s' % (self.side, 'thighToKneeLengthEnd', self.nc.locator))
self.c.snap_a_to_b(u_leg_e, self.controls['knee'])
f_leg_d, f_leg_s, f_leg_e = self.c.distance_node(self.guides['foot'], self.guides['shin'])
f_leg_d = cmds.rename(f_leg_d, '%s_%s_%s' % (self.side, 'footToKnee', self.nc.distance))
f_leg_s = cmds.rename(f_leg_s, '%s_%s_%s' % (self.side, 'footToKneeLengthStart', self.nc.locator))
f_leg_e = cmds.rename(f_leg_e, '%s_%s_%s' % (self.side, 'footToKneeLengthEnd', self.nc.locator))
self.c.snap_a_to_b(f_leg_e, self.controls['knee'])
cmds.parent(u_leg_e, f_leg_e, self.controls['knee'])
cmds.parent(u_leg_d, f_leg_d, self.top_grp)
if self.side == 'R':
mult = cmds.shadingNode('multiplyDivide', asUtility=True)
u_mult = cmds.rename(mult, '%s_%s_stretch_negative_MDN' % (self.side, 'thigh'))
cmds.connectAttr('%sShape.distance' % u_leg_d, '%s.input1X' % u_mult, f=True)
cmds.setAttr('%s.input2X' % u_mult, -1)
mult = cmds.shadingNode('multiplyDivide', asUtility=True)
f_mult = cmds.rename(mult, '%s_%s_stretch_negative_MDN' % (self.side, 'foot'))
cmds.connectAttr('%sShape.distance' % f_leg_d, '%s.input1X' % f_mult, f=True)
cmds.setAttr('%s.input2X' % f_mult, -1)
# END if
# blend nodes
blend = cmds.shadingNode('blendColors', asUtility=True)
blend = cmds.rename(blend, '%s_%s_stretch_BLD' % (self.side, 'thigh'))
cmds.connectAttr('%s.kneeSnap' % self.controls['knee'], '%s.blender' % blend, f=True)
if self.side == 'L':
cmds.connectAttr('%sShape.distance' % u_leg_d, '%s.color1R' % blend, f=True)
elif self.side == 'R':
cmds.connectAttr('%s.input2X' % u_mult, '%s.color1R' % blend, f=True)
# END if
cmds.connectAttr('%s_translateX.output' % self.ik_jnts[1], '%s.color2R' % blend, f=True)
cmds.connectAttr('%s.outputR' % blend, '%s.translateX' % self.ik_jnts[1], f=True)
self.stretch_switch(blend, self.ik_jnts[1], self.switch_control, 'translateX')
blend = cmds.shadingNode('blendColors', asUtility=True)
blend = cmds.rename(blend, '%s_%s_stretch_BLD' % (self.side, 'foot'))
cmds.connectAttr('%s.kneeSnap' % self.controls['knee'], '%s.blender' % blend, f=True)
if self.side == 'L':
cmds.connectAttr('%sShape.distance' % f_leg_d, '%s.color1R' % blend, f=True)
elif self.side == 'R':
cmds.connectAttr('%s.input2X' % f_mult, '%s.color1R' % blend, f=True)
# END if
cmds.connectAttr('%s_translateX.output' % self.ik_jnts[2], '%s.color2R' % blend, f=True)
cmds.connectAttr('%s.outputR' % blend, '%s.translateX' % self.ik_jnts[2], f=True)
self.stretch_switch(blend, self.ik_jnts[2], self.switch_control, 'translateX')
cmds.parent(u_leg_s, self.ik_jnts[0])
cmds.parent(f_leg_s, self.controls['ik'])
def createNormalShader(self, nameShader, listColor):
""" This method creates a normal shader. """
mc.shadingNode( 'lambert', asShader=True, name=nameShader );
mc.sets( renderable=True, noSurfaceShader=True, empty=True, name= nameShader + 'SG' );
mc.connectAttr( nameShader + '.outColor', nameShader + 'SG.surfaceShader', force=True );
mc.setAttr( nameShader + ".color", listColor[0], listColor[1], listColor[2], type='double3' );
mc.select( clear=True )
def _aiMotionVector(self):
cmds.shadingNode('aiMotionVector', asShader=True)
def plot(path):
d = {}
rad = {
'I': .4,
'Kr': .3,
'O': 0.2,
'H': 0.1,
'F': .2,
'Si': .25,
'C': .2,
'N': 0.18
}
f = open(path, 'r')
lines = f.readlines()
f.close()
index = 1
cmds.shadingNode('blinn', asShader=True)
cmds.sets(renderable=True,
noSurfaceShader=True,
empty=True,
name='blinn1SG')
cmds.connectAttr('blinn1.outColor', 'blinn1SG.surfaceShader')
cmds.setAttr('blinn1.color', 0, 0, 0)
cmds.shadingNode('blinn', asShader=True)
cmds.sets(renderable=True,
noSurfaceShader=True,
empty=True,
name='blinn2SG')
cmds.connectAttr('blinn2.outColor', 'blinn2SG.surfaceShader')
cmds.setAttr('blinn2.color', 255, 0, 0)
cmds.shadingNode('blinn', asShader=True)
cmds.sets(renderable=True,
noSurfaceShader=True,
empty=True,
name='blinn3SG')
cmds.connectAttr('blinn3.outColor', 'blinn3SG.surfaceShader')
cmds.setAttr('blinn3.color', 0, 0, 255)
cmds.shadingNode('blinn', asShader=True)
cmds.sets(renderable=True,
noSurfaceShader=True,
empty=True,
name='blinn4SG')
cmds.connectAttr('blinn4.outColor', 'blinn4SG.surfaceShader')
cmds.setAttr('blinn4.color', 0, 255, 0)
for line in lines:
if len(line.strip().split()) == 4:
s, x, y, z = line.strip().split()
nam = s + str(index)
d[index] = nam
cmds.sphere(name=nam, r=rad[s])
cmds.move(x, y, z)
if s == 'H':
cmds.sets(forceElement='blinn4SG')
elif s == 'C':
cmds.sets(forceElement='blinn1SG')
elif s == 'N':
cmds.sets(forceElement='blinn3SG')
elif s == 'O':
cmds.sets(forceElement='blinn2SG')
index += 1
return d
for b in balls:
ys=cmds.getAttr(b+'.rotateY')
print ys
ys+=(360/12)
cmds.setAttr(b+'.rotateY',ys)
y=cmds.getAttr(b+'.translateY')
print y
y-=1
cmds.setAttr(b+'.translateY',y)
z=cmds.getAttr(b+'.translateZ')
z+=(random.random()-0.5)
print z
cmds.setAttr(b+'.translateZ',z)
x=cmds.getAttr(b+'.translateX')
x+=(random.random()-0.5)
print x
cmds.setAttr(b+'.translateX',x)
cmds.setKeyframe( balls, t=(str(s)+'sec'))
# myShader = cmds.shadingNode('anisotropic', asShader=True)
myShader=cmds.shadingNode('anisotropic',asShader=True)
shadingGroup=cmds.sets(renderable=True, noSurfaceShader=True, empty=True, name=myShader + 'SG' )
cmds.setAttr( myShader+'.color',0.99, 0.543,0.02, type='double3')
cmds.setAttr(myShader+'.translucence',0.55)
cmds.connectAttr(myShader+".outColor", shadingGroup+".surfaceShader")
cmds.select(balls)
cmds.sets(forceElement=shadingGroup,e=True)
cmds.play()
def bdRigLegBones(side):
legBones = ['leg', 'knee', 'foot', 'toe', 'toe_end']
for i in range(len(legBones)):
legBones[i] = side + '_' + legBones[i] + '_ik_jnt'
#START setup foot roll
legIk = cmds.ikHandle(sol='ikRPsolver',
sticky='sticky',
startJoint=legBones[0],
endEffector=legBones[2],
name=side + '_leg_ikHandle')
footIk = cmds.ikHandle(sol='ikSCsolver',
sticky='sticky',
startJoint=legBones[2],
endEffector=legBones[3],
name=side + '_foot_ikHandle')
toeIk = cmds.ikHandle(sol='ikSCsolver',
sticky='sticky',
startJoint=legBones[3],
endEffector=legBones[4],
name=side + '_toe_ikHandle')
#create the groups that will controll the foot animations ( roll, bend, etc etc)
bdRigUtils.bdCreateOffsetLoc(legBones[2], side + '_foot_loc')
bdRigUtils.bdCreateOffsetLoc(legBones[3], side + '_ball_loc')
bdRigUtils.bdCreateOffsetLoc(legBones[4], side + '_toe_loc')
bdRigUtils.bdCreateOffsetLoc(legBones[2], side + '_heel_loc')
cmds.parent([
side + '_ball_loc_grp', side + '_toe_loc_grp', side + '_heel_loc_grp'
], side + '_foot_loc')
cmds.parent([legIk[0], footIk[0], toeIk[0]], side + '_foot_loc')
cmds.parent([legIk[0]], side + '_ball_loc')
cmds.parent([side + '_ball_loc_grp', footIk[0], toeIk[0]],
side + '_toe_loc')
cmds.parent([side + '_toe_loc_grp'], side + '_heel_loc')
#add atributes on the footGrp - will be conected later to an anim controler
attrList = ['Heel', 'Ball', 'Toe', 'kneeTwist']
animCtrl = cmds.ls(side + '_foot_ik_anim')[0]
bdRigUtils.bdAddSeparatorAttr(animCtrl, '______')
bdRigUtils.bdAddAttribute(animCtrl, attrList, 'float')
#connect the attributes
cmds.connectAttr(animCtrl + '.' + attrList[0], side + '_heel_loc' + '.rz')
cmds.connectAttr(animCtrl + '.' + attrList[1], side + '_ball_loc' + '.rz')
cmds.connectAttr(animCtrl + '.' + attrList[2], side + '_toe_loc' + '.rz')
#setup the controller
bdRigLegCtrl(side)
#END setup foot roll
#START no flip knee knee
reverse = 1
if side == 'right':
reverse = -1
poleVectorLoc = cmds.spaceLocator()
poleVectorLoc = cmds.rename(poleVectorLoc, side + 'poleVector')
poleVectorLocGrp = cmds.group(poleVectorLoc, n=poleVectorLoc + '_GRP')
thighPos = cmds.xform(legBones[0], q=True, ws=True, t=True)
cmds.move(thighPos[0] + reverse * 5, thighPos[1], thighPos[2],
poleVectorLocGrp)
cmds.poleVectorConstraint(poleVectorLoc, legIk[0])
shadingNodeADL = cmds.shadingNode('addDoubleLinear',
asUtility=True,
name=side + 'adl_twist')
ikZval = cmds.getAttr(str(legIk[0]) + '.rotateZ')
cmds.setAttr(shadingNodeADL + '.input2', reverse * 90)
cmds.connectAttr(animCtrl + '.' + attrList[3], shadingNodeADL + '.input1')
cmds.connectAttr(shadingNodeADL + '.output', legIk[0] + '.twist')
thighRot = cmds.xform(legBones[0], q=True, ro=True, ws=True)
startTwist = reverse * 90
limit = 0.001
increment = reverse * 0.01
while True:
cmds.select(cl=True)
thighRot = cmds.xform(legBones[0], q=True, ro=True, os=True)
print thighRot[0]
if ((thighRot[0] > limit)):
startTwist = startTwist - increment
cmds.setAttr(shadingNodeADL + '.input2', startTwist)
else:
break
def AttrCassIfication(self, types, dIconPath, num):
########打开图片########
self.allArnolds = []
if num == 0:
os.startfile(dIconPath)
return
########创建材质########
elif num == 1:
aiSShader = mc.shadingNode('aiStandard', asShader=True, n=types)
aiSShaderSG = mc.sets(renderable=True,
noSurfaceShader=True,
empty=True,
name='%sSG' % aiSShader)
self.allArnolds.append(aiSShader)
if maLibPath not in sys.path:
sys.path.append(maLibPath)
######查找arnold材质######
elif num == 2:
if maLibPath not in sys.path:
sys.path.append(maLibPath)
self.allArnolds = mc.ls(sl=True, type="aiStandard")
if not self.allArnolds:
mc.confirmDialog(message=u'请选择需要设置属性的arnold材质！', button='OK')
return
#######################人造材料#######################
if types == 'stone01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setStone01Attr()
elif types == 'stone02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setStone02Attr()
elif types == 'bloon' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setBloonAttr()
elif types == 'mattPlastic' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setMattPlastticAttr()
elif types == 'toyPlastic' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setToyPlasticAttr()
elif types == 'shinyPlastic' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setShinyPlasticAttr()
elif types == 'silkMattPlastic' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setSilkMattPlasticAttr()
# elif types == 'silkMattPlastic1' and num != 0:
# self.setSilkMattPlastic1Attr()
elif types == 'softPlastic' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setSoftPlasticAttr()
elif types == 'rubber01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setRubber01Attr()
elif types == 'rubber02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setRubber02Attr()
elif types == 'gold' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setGoldAttr()
elif types == 'chrome01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setChrome01Attr()
elif types == 'chrome02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setChrome02Attr()
elif types == 'wheelRim' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWheelRimAttr()
elif types == 'glass01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setGalss01Attr()
elif types == 'glass02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setGlass02Attr()
elif types == 'glass03' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setGlass03Attr()
elif types == 'glass04' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setGlass04Attr()
elif types == 'ceramic01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCeramic01Attr()
# elif types == 'wax' and num != 0:
# self.setWaxAttr()
elif types == 'wood01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood01Attr()
elif types == 'wood02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood02Attr()
elif types == 'wood03' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood03Attr()
elif types == 'wood04' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood04Attr()
elif types == 'wood05' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood05Attr()
elif types == 'wood06' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setWood06Attr()
elif types == 'cloth01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth01Attr()
elif types == 'cloth02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth02Attr()
elif types == 'cloth03' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth03Attr()
elif types == 'cloth04' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth04Attr()
elif types == 'cloth05' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth05Attr()
elif types == 'cloth07' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth07Attr()
elif types == 'cloth08' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth08Attr()
elif types == 'cloth09' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth09Attr()
elif types == 'cloth10' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth10Attr()
elif types == 'cloth11' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth11Attr()
elif types == 'cloth12' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth12Attr()
elif types == 'cloth13' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth13Attr()
elif types == 'cloth14' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCloth14Attr()
elif types == 'carPaint01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setCarPaint01Attr()
elif types == 'metallicCarPaint' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setMetallicCarPaintAttr()
elif types == 'Chotolate' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setChotolateAttr()
elif types == 'leather01' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setLeather01Attr()
elif types == 'leather02' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setLeather02Attr()
elif types == 'leather03' and num != 0:
from OCT_ArtificialMateral import OCT_ArtificialMateral as matLib
matLib(self.allArnolds).setLeather03Attr()
#######################自然物质#######################
elif types == 'stone03' and num != 0:
from OCT_NaturalMatter import OCT_NaturalMatter as matLib
matLib(self.allArnolds).setStone03Attr()
elif types == 'clay' and num != 0:
from OCT_NaturalMatter import OCT_NaturalMatter as matLib
matLib(self.allArnolds).setClayAttr()
else:
mc.delete(self.allArnolds)
mc.confirmDialog(message=u'目前还没添加属性设置！', button='OK')
return
def _aiLightDecay(self):
cmds.shadingNode('aiLightDecay', asLight=True)
def _aiGobo(self):
cmds.shadingNode('aiGobo', asLight=True)
def _aiWriteFloat(self):
cmds.shadingNode('aiWriteFloat', asShader=True)
def _aiWriteColor(self):
cmds.shadingNode('aiWriteColor', asShader=True)
def _aiVolumeCollector(self):
cmds.shadingNode('aiVolumeCollector', asShader=True)
def create_rig(self, camera, object, dlist, name, rigName):
"""ctx = tools_utils.tool_context(
use_undo_chunk=True,
restore_current_frame=True,
use_dg_evaluation_mode=True,
disable_viewport=False)
with ctx:"""
start_frame, end_frame = time_utils.get_maya_timeline_range_inner()
# Create main group
main_grp = cmds.group(empty=True, n=name + rigName)
# Delete all transform attributes
attr_list = const.TRANSFORM_ATTR_LIST + ['visibility']
for attr in attr_list:
cmds.setAttr(main_grp + '.' + attr, keyable=False,
lock=True)
# Add custom attributes
cmds.addAttr(main_grp, ln='screenX', nn='Screen X', at='float',
k=True)
cmds.addAttr(main_grp, ln='screenY', nn='Screen Y', at='float',
k=True)
cmds.addAttr(main_grp, ln=const.SCREEN_Z_DEPTH_ATTR_NAME,
nn='Screen Z depth', at='float', k=True)
cmds.addAttr(main_grp, ln=const.ATTRIBUTE_IDENTIFIER_NAME,
nn=const.ATTRIBUTE_IDENTIFIER_NICE_NAME, dt='string',
k=False)
cmds.setAttr(main_grp + '.' + const.ATTRIBUTE_IDENTIFIER_NAME,
str(object), type='string')
# Set keyframes on screezdepth attribute
frames_list = self.get_prebake_frames_list_from_node(object)
for i, frame in enumerate(frames_list):
cmds.setKeyframe(main_grp, at=const.SCREEN_Z_DEPTH_ATTR_NAME,
t=frame, v=dlist[i])
# Clear name text
self.nameLineEdit.clear()
self.nameLineEdit.clearFocus()
# Create screez master group
screenz_master_grp = cmds.group(em=True,
n=name + const.SCREEN_Z_MASTER_NAME)
cmds.setAttr(screenz_master_grp + '.visibility', 0)
# Add screen X/Y copy attributes
cmds.addAttr(screenz_master_grp, ln='copyScreenX',
nn='Screen X copy', at='float')
cmds.addAttr(screenz_master_grp, ln='copyScreenY',
nn='Screen Y copy', at='float')
cmds.setAttr(screenz_master_grp + '.copyScreenX', cb=False)
cmds.setAttr(screenz_master_grp + '.copyScreenY', cb=False)
cmds.parent(screenz_master_grp, main_grp)
con = cmds.parentConstraint(self.get_vp_camera(),
screenz_master_grp)
fastbake_lib.bake_attributes([screenz_master_grp], [],
start_frame, end_frame, False)
cmds.delete(con)
# Create screen Z-depth connections
cmds.connectAttr(main_grp + '.' + const.SCREEN_Z_DEPTH_ATTR_NAME,
screenz_master_grp + '.scaleX', f=True)
cmds.connectAttr(main_grp + '.' + const.SCREEN_Z_DEPTH_ATTR_NAME,
screenz_master_grp + '.scaleY', f=True)
cmds.connectAttr(main_grp + '.' + const.SCREEN_Z_DEPTH_ATTR_NAME,
screenz_master_grp + '.scaleZ', f=True)
# Create screen X/Y master group
screen_xy_master_grp = cmds.group(em=True,
n=name + const.SCREEN_XY_MASTER_NAME)
cmds.setAttr(screen_xy_master_grp + '.visibility', 0)
attr_list = ['rx', 'ry', 'rz', 'sx', 'sy', 'sz', 'visibility']
for attr in attr_list:
cmds.setAttr(screen_xy_master_grp + '.' + attr,
keyable=False, lock=True)
cmds.parent(screen_xy_master_grp, screenz_master_grp, r=True)
con = cmds.pointConstraint(object, screen_xy_master_grp)
fastbake_lib.bake_attributes([screen_xy_master_grp], [],
start_frame, end_frame, False)
cmds.delete(con)
cmds.setAttr(screen_xy_master_grp + '.translateZ', lock=True)
# Create screen X/Y connections
cmds.connectAttr(screen_xy_master_grp + '.translateX',
main_grp + '.screenX', f=True)
cmds.connectAttr(screen_xy_master_grp + '.translateY',
main_grp + '.screenY', f=True)
cmds.connectAttr(screen_xy_master_grp + '.translateX',
screenz_master_grp + '.copyScreenX', f=True)
cmds.connectAttr(screen_xy_master_grp + '.translateY',
screenz_master_grp + '.copyScreenY', f=True)
fastbake_lib.bake_attributes([main_grp], ['screenX', 'screenY'],
start_frame, end_frame, False)
fastbake_lib.bake_attributes([screenz_master_grp],
['copyScreenX', 'copyScreenY'],
start_frame, end_frame, False)
cmds.connectAttr(main_grp + '.screenX',
screen_xy_master_grp + '.translateX', f=True)
cmds.connectAttr(main_grp + '.screenY',
screen_xy_master_grp + '.translateY', f=True)
# Create condition node network
screenx_condition_node = cmds.shadingNode(
'condition', au=True, n=name + '_screenX_condition')
screeny_condition_node = cmds.shadingNode(
'condition', au=True, n=name + '_screenY_condition')
cmds.connectAttr(main_grp + '.screenX',
screenx_condition_node + '.firstTerm', f=True)
cmds.connectAttr(screenz_master_grp + '.copyScreenX',
screenx_condition_node + '.secondTerm', f=True)
cmds.connectAttr(main_grp + '.screenY',
screeny_condition_node + '.firstTerm', f=True)
cmds.connectAttr(screenz_master_grp + '.copyScreenY',
screeny_condition_node + '.secondTerm', f=True)
attr_list = const.TRANSFORM_ATTR_LIST + ['visibility']
for attr in attr_list:
cmds.setAttr(screenz_master_grp + '.' + attr, lock=True)
cmds.pointConstraint(screen_xy_master_grp, object)
# Select the master control.
cmds.select(main_grp, replace=True)
self.refresh_rigsList()
def createLego(x, y, z, name, dimension, victime):
g = cmds.radioButtonGrp("color", query=True, sl=True)
#xlego=cmds.intSliderGrp('lLego', query=True, value=True)
#zlego=cmds.intSliderGrp('loLego', query=True, value=True)
#lego de base
#Base
cmds.polyCube(name="base", w=dimension, d=dimension, h=dimension)
cmds.polyExtrudeFacet('base.f[3]', lsx=0.9, lsy=0.9, kft=True)
cmds.polyExtrudeFacet('base.f[3]', ltz=-dimension, kft=True)
cmds.delete("base.f[3]")
if cmds.checkBox("bevel", query=True, value=True):
cmds.polyBevel("base.e[0:11]",
"base.e[14]",
"base.e[16]",
"base.e[18]",
"base.e[19]",
offset=0.02 * dimension)
#Cylindre
cmds.polyCylinder(n="cercle0",
r=0.3 * dimension,
h=1.15 * dimension,
sx=20)
cmds.move(0, 0.1 * dimension, 0, relative=True)
cmds.polyExtrudeFacet('cercle0.f[20]', lsx=0.9, lsy=0.9, kft=True)
cmds.polyExtrudeFacet('cercle0.f[20]', ltz=-dimension, kft=True)
cmds.delete("cercle0.f[20]")
if cmds.checkBox("bevel", query=True, value=True):
cmds.polyBevel("cercle0.e[20:39]",
"cercle0.e[0:19]",
"cercle0.e[62:99]",
offset=0.02 * dimension)
#Longueur, xLego
'''for i in range (xlego-1):
cmds.duplicate("cercle"+`i`, n="cercle"+`i+1`)
cmds.select("cercle"+`i+1`)
cmds.move(-2,0,0, relative=True)
cmds.group("cercle*", name="cerclesx")'''
# Largeur, zlego
'''if zlego > 1 :
for i in range (0, zlego):
cmds.duplicate("cerclesx", n="cerclesz" +` i+1`)
cmds.select("cerclesz"+`i+1`)
cmds.move(0,0,2*i, relative=True)
cmds.group("cerclesx", "cerclesz*", n="cercles")
cmds.select("cercles")
cmds.move(0,0,-zlego+1, relative=True)
else :
cmds.rename("cerclesx", "cercles")'''
# Fin de creation du LEGO
cmds.polyUnite("cercle0", "base", n="lego" + ` name `, ch=False)
cmds.move(x, y, z)
#Dynamique sur Lego
if cmds.checkBox("physics", query=True, value=True) and cmds.checkBox(
"animation", query=True, value=True) == False:
cmds.rigidBody(n='RigidBodyLego', active=True, b=0.5, sf=0.4)
#Shader
cmds.shadingNode('blinn', name='legoBlinn' + ` name `, asShader=True)
cmds.select("lego" + ` name `)
cmds.hyperShade(assign="legoBlinn" + ` name `)
cmds.textScrollList('colorblinn', query=True)
#Selectionne la victime
cmds.select(victime)
#Couleur
cmds.radioButtonGrp("color", query=True, sl=True)
#Random
if cmds.radioButtonGrp("color", query=True, sl=True) == 1:
randIndClr = random.sample(indiceColor, 1)
cmds.setAttr("legoBlinn" + ` name ` + ".color", randIndClr[0][0],
randIndClr[0][1], randIndClr[0][2])
#Choice
if cmds.radioButtonGrp("color", query=True, sl=True) == 3:
colorChoice = cmds.textScrollList("colorblinn", query=True, sii=True)
random.shuffle(colorChoice)
cmds.setAttr("legoBlinn" + ` name ` + ".color",
indiceColor[colorChoice[0] - 1][0],
indiceColor[colorChoice[0] - 1][1],
indiceColor[colorChoice[0] - 1][2])
if cmds.radioButtonGrp("color", query=True, sl=True) == 2:
colorOther = cmds.colorSliderGrp("othrColor", query=True, rgb=True)
cmds.setAttr("legoBlinn" + ` name ` + ".color", colorOther[0],
colorOther[1], colorOther[2])
#Object
if cmds.radioButtonGrp("color", query=True, sl=True) == 4:
colorObject = colorClosestVertex(x, y, z)
cmds.setAttr("legoBlinn" + ` name ` + ".color", colorObject[0],
colorObject[1], colorObject[2])
def _aiUserDataPnt2(self):
cmds.shadingNode('aiUserDataPnt2', asShader=True)
def _aiSkyDomeLight(self):
cmds.shadingNode('aiSkyDomeLight', asLight=True)
def _aiBarndoor(self):
cmds.shadingNode('aiBarndoor', asLight=True)
def _aiFog(self):
cmds.shadingNode('aiFog', asShader=True)
def _aiLightBlocker(self):
cmds.shadingNode('aiLightBlocker', asLight=True)
def _aiVolumeScattering(self):
cmds.shadingNode('aiVolumeScattering', asShader=True)
def createLensShaders(centerCam, leftCam, rightCam):
import maya.mel as mel
import maya.cmds as cmds
print "Center: " + centerCam + "Left: " + leftCam + "Right: " + rightCam
# ---------------------------------------------------------------------
#Set up the base folder path for the Domemaster3D control maps
# ---------------------------------------------------------------------
#Variables
separationMapFileTexture = getSourceImagesPath(
"latlong_separation_map.png")
# turnMapFileTexture = getSourceImagesPath("latlong_turn_map.png")
# tiltMapFileTexture = getSourceImagesPath("latlong_head_tilt_map.png")
# ---------------------------------------------------------------------
# Create the fulldome nodes for the rig
# ---------------------------------------------------------------------
centerCamLens = cmds.shadingNode('LatLong_Stereo',
n='center_LatLong_Stereo',
asUtility=True)
cmds.setAttr(centerCamLens + '.Camera', 0) #Set the view to center
leftCamLens = cmds.shadingNode('LatLong_Stereo',
n='left_LatLong_Stereo',
asUtility=True)
cmds.setAttr(leftCamLens + '.Camera', 1) #Set the view to left
rightCamLens = cmds.shadingNode('LatLong_Stereo',
n='right_LatLong_Stereo',
asUtility=True)
cmds.setAttr(rightCamLens + '.Camera', 2) #Set the view to right
# ---------------------------------------------------------------------
#Connect the lens shaders
# ---------------------------------------------------------------------
cmds.connectAttr(centerCamLens + '.message',
centerCam + '.miLensShader',
force=True)
cmds.connectAttr(leftCamLens + '.message',
leftCam + '.miLensShader',
force=True)
cmds.connectAttr(rightCamLens + '.message',
rightCam + '.miLensShader',
force=True)
# ---------------------------------------------------------------------
# Link the common left and right camera attributes to the center camera
# ---------------------------------------------------------------------
# Link the right camera attributes
cmds.connectAttr(centerCamLens + '.FOV_Vert_Angle',
rightCamLens + '.FOV_Vert_Angle',
force=True)
cmds.connectAttr(centerCamLens + '.FOV_Horiz_Angle',
rightCamLens + '.FOV_Horiz_Angle',
force=True)
cmds.connectAttr(centerCamLens + '.Parallax_Distance',
rightCamLens + '.Parallax_Distance',
force=True)
cmds.connectAttr(centerCamLens + '.Cameras_Separation',
rightCamLens + '.Cameras_Separation',
force=True)
cmds.connectAttr(centerCamLens + '.Cameras_Separation_Map',
rightCamLens + '.Cameras_Separation_Map',
force=True)
cmds.connectAttr(centerCamLens + '.Head_Tilt_Map',
rightCamLens + '.Head_Tilt_Map',
force=True)
cmds.connectAttr(centerCamLens + '.Zenith_Mode',
rightCamLens + '.Zenith_Mode',
force=True)
cmds.connectAttr(centerCamLens + '.Flip_Ray_X',
rightCamLens + '.Flip_Ray_X',
force=True)
cmds.connectAttr(centerCamLens + '.Flip_Ray_Y',
rightCamLens + '.Flip_Ray_Y',
force=True)
# Link the left camera attributes
cmds.connectAttr(centerCamLens + '.FOV_Vert_Angle',
leftCamLens + '.FOV_Vert_Angle',
force=True)
cmds.connectAttr(centerCamLens + '.FOV_Horiz_Angle',
leftCamLens + '.FOV_Horiz_Angle',
force=True)
cmds.connectAttr(centerCamLens + '.Parallax_Distance',
leftCamLens + '.Parallax_Distance',
force=True)
cmds.connectAttr(centerCamLens + '.Cameras_Separation',
leftCamLens + '.Cameras_Separation',
force=True)
cmds.connectAttr(centerCamLens + '.Cameras_Separation_Map',
leftCamLens + '.Cameras_Separation_Map',
force=True)
cmds.connectAttr(centerCamLens + '.Head_Tilt_Map',
leftCamLens + '.Head_Tilt_Map',
force=True)
cmds.connectAttr(centerCamLens + '.Zenith_Mode',
leftCamLens + '.Zenith_Mode',
force=True)
cmds.connectAttr(centerCamLens + '.Flip_Ray_X',
leftCamLens + '.Flip_Ray_X',
force=True)
cmds.connectAttr(centerCamLens + '.Flip_Ray_Y',
leftCamLens + '.Flip_Ray_Y',
force=True)
# ---------------------------------------------------------------------
#Set the default camera separation based upon the scene size
# ---------------------------------------------------------------------
#centerCamLens = "center_LatLong_Stereo"
# Check the current Maya scene units
# Possible Values: [mm | millimeter | cm | centimeter | m | meter | km | kilometer | in | inch | ft | foot | yd | yard | mi | mile]
sceneScale = cmds.currentUnit(query=True, linear=True)
print("Scene scale in: " + sceneScale)
baseSeparationValue = 6.5
baseDomeRadiusInCm = 360 / baseSeparationValue
if sceneScale == "cm":
defaultSeparation = 6.5
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "centimeter":
defaultSeparation = 6.5
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "m":
defaultSeparation = .065
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "meter":
defaultSeparation = .065
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "km":
defaultSeparation = 0.000065
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "kilometer":
defaultSeparation = 0.000065
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "in":
defaultSeparation = 2.362204724409449
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "inch":
defaultSeparation = 2.362204724409449
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "ft":
defaultSeparation = 0.1968503937007874
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "foot":
defaultSeparation = 0.1968503937007874
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "yd":
defaultSeparation = 0.065616797900262
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "yard":
defaultSeparation = 0.065616797900262
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "mi":
defaultSeparation = 3.728227153424004e-5
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
elif sceneScale == "mile":
defaultSeparation = 3.728227153424004e-5
defaultDomeRadius = baseDomeRadiusInCm * defaultSeparation
#Set the camera separation
cmds.setAttr(centerCamLens + '.Cameras_Separation', defaultSeparation)
print("Camera Separation: " + str(defaultSeparation))
#Set the dome radius
cmds.setAttr(centerCamLens + '.Parallax_Distance', defaultDomeRadius)
print("Parallax_Distance: " + str(defaultDomeRadius))
# ---------------------------------------------------------------------
# Create the custom Domemaster3D shading networks
# ---------------------------------------------------------------------
# Create the nodes
separation_map_tex_filter = cmds.shadingNode(
'mib_texture_filter_lookup',
n='separation_map_mib_texture_filter_lookup1',
asTexture=True)
# turn_map_tex_filter =cmds.shadingNode( 'mib_texture_filter_lookup', n='turn_map_mib_texture_filter_lookup1', asTexture=True )
# tilt_map_tex_filter =cmds.shadingNode( 'mib_texture_filter_lookup', n='tilt_map_mib_texture_filter_lookup1', asTexture=True )
latlong_tex_vector = cmds.shadingNode('mib_texture_vector',
n='latlong_mib_texture_vector1',
asUtility=True)
latlong_tex_remap = cmds.shadingNode('mib_texture_remap',
n='latlong_mib_texture_remap1',
asUtility=True)
separation_map_mr_tex = cmds.shadingNode(
'mentalrayTexture',
n='separation_map_mentalrayTexture1',
asTexture=True)
# turn_map_mr_tex = cmds.shadingNode( 'mentalrayTexture', n='turn_map_mentalrayTexture1', asTexture=True )
# tilt_map_mr_tex = cmds.shadingNode( 'mentalrayTexture', n='tilt_map_mentalrayTexture1', asTexture=True )
# Set the node to use mode (4) which is screen space
cmds.setAttr(latlong_tex_vector + '.selspace', 4)
# Connect the nodes
cmds.connectAttr(separation_map_tex_filter + '.outValueR',
centerCamLens + '.Cameras_Separation_Map',
force=True)
cmds.connectAttr(separation_map_mr_tex + '.message',
separation_map_tex_filter + '.tex',
force=True)
# cmds.connectAttr( turn_map_tex_filter+'.outValueR', centerCamLens+'.Head_Turn_Map', force=True )
# cmds.connectAttr( turn_map_mr_tex+'.message', turn_map_tex_filter+'.tex', force=True )
# cmds.connectAttr( tilt_map_tex_filter+'.outValueR', centerCamLens+'.Head_Tilt_Map', force=True )
# cmds.connectAttr( tilt_map_mr_tex+'.message', tilt_map_tex_filter+'.tex', force=True )
cmds.connectAttr(latlong_tex_vector + '.outValue',
latlong_tex_remap + '.input',
force=True)
cmds.connectAttr(latlong_tex_remap + '.outValue',
separation_map_tex_filter + '.coord',
force=True)
# cmds.connectAttr( latlong_tex_remap+'.outValue', turn_map_tex_filter+'.coord', force=True )
# cmds.connectAttr( latlong_tex_remap+'.outValue', tilt_map_tex_filter+'.coord', force=True )
cmds.setAttr(separation_map_mr_tex + '.fileTextureName',
separationMapFileTexture,
type="string")
# cmds.setAttr( turn_map_mr_tex+'.fileTextureName', turnMapFileTexture, type="string")
# cmds.setAttr( tilt_map_mr_tex+'.fileTextureName', tiltMapFileTexture, type="string")
# ---------------------------------------------------------------------
#Set up the stereo camera rig's preview shape settings
# ---------------------------------------------------------------------
# import maya.mel as mel
# Select the center camera LatLong_Stereo node
# cmds.select(centerCamLens, replace=True)
# Select the center camera LatLong_Stereo node in the attribute editor
# centerCamLens = "center_LatLong_Stereo"
# mel.eval ( ' showEditorExact(" ' + centerCamLens + ' ") ' )
# mel.eval ( ' showEditorExact(" ' + leftCamLens + ' ") ' )
# mel.eval ( ' showEditorExact(" ' + rightCamLens + ' ") ' )
# mel.eval ( ' showEditorExact(" ' + centerCamLens + ' ") ' )
# ---------------------------------------------------------------------
# Link the center camera lens shader to the Maya camera rig stereo3d settings
# This enables real-time 3D previews in the viewport
# ---------------------------------------------------------------------
cmds.connectAttr(centerCamLens + '.Parallax_Distance',
centerCam + '.zeroParallax',
force=True)
cmds.connectAttr(centerCamLens + '.Cameras_Separation',
centerCam + '.interaxialSeparation',
force=True)
#Turn on Stereo 3D support for the Domemaster3D Maya camera rig
cmds.setAttr(centerCam + '.stereo', 1)
def _aiImage(self):
cmds.shadingNode('aiImage', asTexture=True)
def ConnectMaps_UDIM(selection=False):
materials = mc.ls(mat=True)
if selection == False: ### APPLY TO ALL AI_STANDARDSURFACE SHADERS ###
shaders = [
i for i in materials if mc.objectType(i) == "aiStandardSurface"
and mc.referenceQuery(i, isNodeReferenced=True) == False
]
else: ### FROM A SELECTION OF SHADERS ###
selection = mc.ls(sl=True)
shaders = list(set(set(materials) & set(selection)))
scene_name = os.path.basename(mc.file(
q=True, sn=True)).split(".")[0] # Get scene_name name
if len(shaders) == 1:
shader = shaders[0]
elif len(shaders) == 0:
raise Exception("You must select a shader")
else:
pass
for shader in shaders:
shading_group = shading_group = mc.rename(
mc.listConnections(shader, t='shadingEngine'), shader + "SG")
shader_name = shader_name = shader.split('_')[1]
if mc.objExists(scene_name + "_BaseColor"
): # Check input BaseColor if empty connect file node
file_BaseColor = scene_name + "_BaseColor"
upstream_BaseColor = mc.listConnections(shader + ".baseColor",
d=False,
s=True)
if upstream_BaseColor == None:
mc.connectAttr(file_BaseColor + ".outColor",
shader + ".baseColor")
else:
pass
else:
upstream_BaseColor = mc.listConnections(shader + ".baseColor",
d=False,
s=True)
if upstream_BaseColor == None:
file_BaseColor = mc.shadingNode("file",
asTexture=True,
isColorManaged=True,
name=scene_name + "_BaseColor")
mc.connectAttr(file_BaseColor + ".outColor",
shader + ".baseColor")
else:
pass
if mc.objExists(
scene_name +
"_Height"): # Check input Height if empty connect file node
file_Height = scene_name + "_Height"
if not mc.objExists(scene_name + "_D_" + shader_name):
disp_node = mc.shadingNode("displacementShader",
asShader=True,
name=scene_name + "_D_" +
shader_name)
mc.setAttr(disp_node + ".scale", 0)
mc.setAttr(disp_node + '.aiDisplacementZeroValue', 0.5)
upstream_Height = mc.listConnections(shading_group +
".displacementShader",
d=False,
s=True)
if upstream_Height == None:
mc.connectAttr(file_Height + ".outAlpha",
disp_node + ".displacement")
mc.connectAttr(disp_node + ".displacement",
shading_group + ".displacementShader")
else:
pass
else:
upstream_Height = mc.listConnections(shading_group +
".displacementShader",
d=False,
s=True)
if upstream_Height == None:
file_Height = mc.shadingNode("file",
asTexture=True,
isColorManaged=True,
name=scene_name + "_Height")
mc.setAttr(file_Height + ".alphaIsLuminance", 1)
disp_node = mc.shadingNode("displacementShader",
asShader=True,
name=scene_name + "_D_" +
shader_name)
mc.connectAttr(file_Height + ".outAlpha",
disp_node + ".displacement")
mc.connectAttr(disp_node + ".displacement",
shading_group + ".displacementShader")
mc.setAttr(disp_node + ".scale", 0)
mc.setAttr(disp_node + '.aiDisplacementZeroValue', 0.5)
else:
pass
if mc.objExists(scene_name + "_Metalness"
): # Check input Metalness if empty connect file node
file_Metalness = scene_name + "_Metalness"
upstream_Metalness = mc.listConnections(shader + ".metalness",
d=False,
s=True)
if upstream_Metalness == None:
mc.connectAttr(file_Metalness + ".outAlpha",
shader + ".metalness")
else:
pass
else:
upstream_Metalness = mc.listConnections(shader + ".metalness",
d=False,
s=True)
if upstream_Metalness == None:
file_Metalness = mc.shadingNode("file",
asTexture=True,
isColorManaged=True,
name=scene_name + "_Metalness")
mc.setAttr(file_Metalness + ".alphaIsLuminance", 1)
mc.connectAttr(file_Metalness + ".outAlpha",
shader + ".metalness")
else:
pass
if mc.objExists(scene_name + "_Roughness"
): # Check input Roughness if empty connect file node
file_Roughness = scene_name + "_Roughness"
upstream_Roughness = mc.listConnections(shader +
".specularRoughness",
d=False,
s=True)
if upstream_Roughness == None:
mc.connectAttr(file_Roughness + ".outAlpha",
shader + ".specularRoughness")
else:
pass
else:
upstream_Roughness = mc.listConnections(shader +
".specularRoughness",
d=False,
s=True)
if upstream_Roughness == None:
file_Roughness = mc.shadingNode("file",
asTexture=True,
isColorManaged=True,
name=scene_name + "_Roughness")
mc.setAttr(file_Roughness + ".alphaIsLuminance", 1)
mc.connectAttr(file_Roughness + ".outAlpha",
shader + ".specularRoughness")
else:
pass
if mc.objExists(
scene_name +
"_Normal"): # Check input Normal if empty connect file node
file_Normal = scene_name + "_Normal"
if not mc.objExists(scene_name + "_aiNormal_" + shader_name):
normal_node = core.createArnoldNode("aiNormalMap",
name=scene_name +
"_aiNormal_" + shader_name)
upstream_Normal = mc.listConnections(shader + ".normalCamera",
d=False,
s=True)
if upstream_Normal == None:
mc.connectAttr(file_Normal + ".outColor",
normal_node + ".input")
mc.connectAttr(normal_node + ".outValue",
shader + ".normalCamera")
else:
pass
else:
upstream_Normal = mc.listConnections(shader + ".normalCamera",
d=False,
s=True)
if upstream_Normal == None:
file_Normal = mc.shadingNode("file",
asTexture=True,
isColorManaged=True,
name=scene_name + "_Normal")
normal_node = core.createArnoldNode("aiNormalMap",
name=scene_name +
"_aiNormal_" + shader_name)
mc.connectAttr(file_Normal + ".outColor",
normal_node + ".input")
mc.connectAttr(normal_node + ".outValue",
shader + ".normalCamera")
else:
pass
def _aiNoise(self):
cmds.shadingNode('aiNoise', asTexture=True)
from maya import cmds, mel
driver = cmds.ls(sl=1)[0]
driven = cmds.ls(sl=1)[1]
cmds.connectAttr(driver + '.rotateY', driven + '.rotateY')
cmds.connectAttr(driver + '.rotateZ', driven + '.rotateZ')
cmds.connectAttr(driver + '.scaleX', driven + '.scaleX')
cmds.connectAttr(driver + '.scaleY', driven + '.scaleY')
cmds.connectAttr(driver + '.scaleZ', driven + '.scaleZ')
multDiv = cmds.shadingNode('multiplyDivide', au=1)
if cmds.isConnected(driver + '.rotateX', driven + '.rotateX'):
print("they're connected")
cmds.disconnectAttr(driver + '.rotateX', driven + '.rotateX')
cmds.connectAttr(driver + '.rotateX', multDiv + '.input1X')
cmds.connectAttr(multDiv + '.outputX', driven + '.rotateX')
cmds.setAttr(multDiv + '.input2X', 3)
cmds.rename(multDiv, driver.replace(driver[-3:], 'multDiv'))
def _aiSky(self):
cmds.shadingNode('aiSky', asTexture=True)
def _aiAreaLight(self):
cmds.shadingNode('aiAreaLight', asLight=True)
def _aiPhotometricLight(self):
cmds.shadingNode('aiPhotometricLight', asLight=True)
def _aiUserDataString(self):
cmds.shadingNode('aiUserDataString', asShader=True)
def _aiUserDataBool(self):
cmds.shadingNode('aiUserDataBool', asShader=True)
def _aiUserDataInt(self):
cmds.shadingNode('aiUserDataInt', asShader=True)
def _aiUserDataVector(self):
cmds.shadingNode('aiUserDataVector', asShader=True)
