def oneToNumberSkin(self, widget=None):
rootName = self.skilineEdit.text()
suitedName = self.skilineEdit2.text()
suitedListName = suitedName.split(',')
suitedNode = [pm.PyNode(n) for n in suitedListName]
rootSki = self.getSkinCluste(pm.PyNode(rootName))
for node in suitedNode:
if rootSki:
jointlist = rootSki.getInfluence()
if not self.getSkinCluste(node):
s = pm.skinCluster(jointlist, node, dr=4.5)
pm.copySkinWeights(ss=rootSki,
ds=s,
noMirror=True,
sa='closestPoint',
ia='closestJoint')
else:
s = self.getSkinCluste(node)
pm.copySkinWeights(ss=rootSki,
ds=s,
noMirror=True,
sa='closestPoint',
ia='closestJoint')
widget.reject()
def copy_weights(self, from_this, to_this):
try:
# skin = current_skin_host.inputs(type='skinCluster')[0]
skin = pm.PyNode(pm.mel.findRelatedSkinCluster(from_this.name()))
except:
# -- If there is no skin cluster we skip this step (this is
# -- useful whilst progressively building
return
# -- Get a list of the influence objects being used
# -- by the skin currently
influences = skin.influenceObjects()
# -- Apply a new skin cluster
new_skin = pm.skinCluster(
influences,
to_this,
toSelectedBones=True,
maximumInfluences=skin.getMaximumInfluences())
# -- Copy the skin weights between them
pm.copySkinWeights(
sourceSkin=skin,
destinationSkin=new_skin,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=['name', 'closestJoint', 'label'],
)
def run(self, current_skin_host=None, target=None):
# -- Get our mesh candidates
current_skin_host = pm.selected()[0]
target = pm.selected()[1]
# -- Look for the mesh
log.debug(current_skin_host.inputs())
# skin = current_skin_host.inputs(type='skinCluster')[0]
skin = pm.PyNode(pm.mel.findRelatedSkinCluster(current_skin_host))
# -- Get a list of the influence objects being used
# -- by the skin currently
influences = skin.influenceObjects()
# -- Apply a new skin cluster
new_skin = pm.skinCluster(
influences,
target,
toSelectedBones=True,
maximumInfluences=skin.getMaximumInfluences())
# -- Copy the skin weights between them
pm.copySkinWeights(
sourceSkin=skin,
destinationSkin=new_skin,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=['name', 'closestJoint', 'label'],
)
def batchCovert():
sels = pm.selected()
if sels:
for sel in sels:
if sel.getShape().type() == 'mesh':
originNode = sel
originShapeNodes = originNode.getShapes()
pm.select(cl=True)
if originShapeNodes:
originShapeNode = originShapeNodes[0]
historyNodes = originShapeNode.listHistory()
if historyNodes:
influenceJoints = []
for node in historyNodes:
if node.type() == 'joint':
influenceJoints.append(node)
tempNode = pm.duplicate(originNode,name=originNode+'_temp')[0]
pm.setAttr(tempNode+'.visibility',0)
pm.select(influenceJoints,r=True)
pm.select(tempNode,add=True)
pm.skinCluster(name=tempNode.name()+'_skinCluster',toSelectedBones=True,maximumInfluences=5,dropoffRate=4)
pm.copySkinWeights(originNode,tempNode,noMirror=True,surfaceAssociation='closestPoint',influenceAssociation='closestJoint',normalize=True)
pm.deltaMushToSkinCluster(source=originShapeNode.name(),target=tempNode.getShape().name())
pm.copySkinWeights(tempNode,originNode,noMirror=True,surfaceAssociation='closestPoint',influenceAssociation='closestJoint')
pm.delete(tempNode)
else:
pm.displayWarning('Please select polygon object!')
def retargetSkin(meshes=None):
"""
Creates new meshes retargeted to the root skeleton.
Args:
meshes(list): A list of meshes, defaults to the current selection.
"""
meshes = meshes or pmc.selected()
meshes = getMeshes(meshes)
newMeshes = []
for srcMesh in meshes:
# Create a duplicate mesh
dstParent = pmc.duplicate(srcMesh.getParent())
pmc.parent(dstParent, world=True)
# Copy the skinning
srcCluster = pmc.ls(srcMesh.listHistory(), type='skinCluster')[0]
dstCluster = pmc.skinCluster(dstParent, getBindSkeleton(), mi=4, tsb=True)
pmc.copySkinWeights(ss=srcCluster, ds=dstCluster, noMirror=True)
newMeshes.append(dstParent)
# If more than one mesh selected, combine meshes
if len(newMeshes) > 1:
newMesh, newCluster = pmc.polyUniteSkinned(newMeshes, ch=False)
pmc.delete(newMeshes)
pmc.rename(newMesh, 'body')
bindRootSkeleton()
def copy_skin(self, *args):
"""
Copy's the skinning between different meshes
only by providing the meshes.\n
:args[0] the source mehs, this geo \n
:args[1:] the destination mehs where the skin will be copied\n
:return a list with all the skin clusters that where created during execution
"""
source = args[0]
destination = args[1:]
skin_cluster_node = self.get_skin_cluster(source)
skin_cluster_list = []
if skin_cluster_node:
list_joints = skin_cluster_node.influenceObjects()
if destination:
for each_node in destination:
new_skin_cluster = pm.skinCluster(list_joints, each_node)
skin_cluster_list.append(new_skin_cluster)
self.name_convention.rename_name_in_format(
new_skin_cluster,
name=self.name_convention.get_a_short_name(each_node))
pm.copySkinWeights(source,
destination,
influenceAssociation=[
'label', 'name', 'closestJoint',
'oneToOne'
])
return new_skin_cluster
def mirror_eyeCurve_weights():
'''
mirror LT_eye_aimAt_crv_0 to RT_eye_aimAt_crv_0
'''
lf_crv = nt.Transform(u'LT_eye_aimAt_crv_0')
rt_crv = nt.Transform(u'RT_eye_aimAt_crv_0')
lf_skn = pm.PyNode(mel.findRelatedSkinCluster(lf_crv))
rt_skn = pm.PyNode(mel.findRelatedSkinCluster(rt_crv))
def setEyeJointsLabels(joints):
for jnt in joints:
### change the label
label = '_'.join(jnt.name().split('_')[1:3])
#label = '_'.join(jnt.name().split('_')[1:4])
jnt.attr('type').set('Other')
jnt.otherType.set(label)
lf_infs = pm.skinCluster(lf_crv, q=True, inf=True)
setEyeJointsLabels(lf_infs)
rt_infs = pm.skinCluster(rt_crv, q=True, inf=True)
setEyeJointsLabels(rt_infs)
lf_crv.sx.setLocked(False)
lf_crv.sx.set(-1)
pm.copySkinWeights(ss=lf_skn,
ds=rt_skn,
sa='closestPoint',
ia='label',
nm=True)
lf_crv.sx.set(1)
def mirror_eyeCurve_weights():
"""
mirror LT_eye_aimAt_crv_0 to RT_eye_aimAt_crv_0
"""
lf_crv = nt.Transform(u"LT_eye_aimAt_crv_0")
rt_crv = nt.Transform(u"RT_eye_aimAt_crv_0")
lf_skn = pm.PyNode(mel.findRelatedSkinCluster(lf_crv))
rt_skn = pm.PyNode(mel.findRelatedSkinCluster(rt_crv))
def setEyeJointsLabels(joints):
for jnt in joints:
### change the label
label = "_".join(jnt.name().split("_")[1:3])
# label = '_'.join(jnt.name().split('_')[1:4])
jnt.attr("type").set("Other")
jnt.otherType.set(label)
lf_infs = pm.skinCluster(lf_crv, q=True, inf=True)
setEyeJointsLabels(lf_infs)
rt_infs = pm.skinCluster(rt_crv, q=True, inf=True)
setEyeJointsLabels(rt_infs)
lf_crv.sx.setLocked(False)
lf_crv.sx.set(-1)
pm.copySkinWeights(ss=lf_skn, ds=rt_skn, sa="closestPoint", ia="label", nm=True)
lf_crv.sx.set(1)
def copySkin(skinedMesh, mesh):
"""
Copy skin cluster from a skined mesh
"""
# Checks nodetypes
if not isinstance(skinedMesh, pm.nodetypes.Transform):
skinedMesh = pm.PyNode(skinedMesh)
if not isinstance(mesh, pm.nodetypes.Transform):
mesh = pm.PyNode(mesh)
# get shape
skinedMeshShape = skinedMesh.getShape()
# loop since a skin cluster are found
skinCluster = pm.listHistory(skinedMeshShape, type='skinCluster')[0]
# skinCluster = pm.PyNode(skinCluster)
skinInf = skinCluster.maxInfluences.get()
# joint list
jointList = skinCluster.influenceObjects()
# create skinCluster
copySkinCluster = pm.skinCluster(mesh, jointList, mi=skinInf)
print copySkinCluster
# copy skin weigths
pm.copySkinWeights(ss=skinCluster,
ds=copySkinCluster,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=('closestJoint',
'closestJoint'))
def copyBind(source, destination, sa='closestPoint', ia='closestJoint'):
"""
Bind and Copy skincluster to destination GEO
:param source: mesh str
:param destination: mesh str
:return:
"""
# Get Shape and skin from Object
skinCluster = findRelatedSkinCluster(source)
if skinCluster:
skin = skinCluster
else:
print 'Missing source SkinCluster'
# Get joint influence of the skin
influnces = skin.getInfluence(q=True) # influences is joint
# Bind destination Mesh
# pm.select(influnces[0])
# pm.select(destination, add=True)
# mel.eval('SmoothBindSkin;')
pm.skinCluster(influnces[0], destination, dr=4.0)
# copy skin wheights form source
pm.select(source)
pm.select(destination, add=True)
pm.copySkinWeights(noMirror=True, surfaceAssociation=sa, influenceAssociation=ia)
pm.select(cl=True)
def skinCopy(sourceMesh=None, targetMesh=None, *args):
if not sourceMesh or not targetMesh:
if len(pm.selected()) >=2:
sourceMesh = pm.selected()[-1]
targetMeshes = pm.selected()[:-1]
else:
pm.displayWarning("Please select target mesh/meshes and source mesh with skinCluster.")
return
else:
targetMeshes = [targetMesh]
#we check this here, because if not need to check when we work base on selection.
if isinstance(sourceMesh, basestring):
sourceMesh = pm.PyNode(sourceMesh)
for targetMesh in targetMeshes:
if isinstance(targetMesh, basestring):
sourceMesh = pm.PyNode(targetMesh)
ss = getSkinCluster(sourceMesh)
if ss:
oDef = pm.skinCluster(sourceMesh, query=True, influence=True)
skinCluster = pm.skinCluster(oDef, targetMesh, tsb=True, nw=2, n=targetMesh.name() + "_SkinCluster")
pm.copySkinWeights( ss=ss.stripNamespace(), ds=skinCluster.name(), noMirror=True, ia="oneToOne", sm=True, nr=True)
else:
pm.displayError("Source Mesh :" + sourceMesh.name() + " Don't have skinCluster")
def shadowMesh(triCount=10000):
meshArg = pm.ls(sl=True)
meshList = pm.duplicate(meshArg, rr=True)
shadowGeo = pm.polyUnite(meshList, ch=False, name='ShadowGeo')[0]
pm.delete(meshList) #deleting leftover garbage transform nodes
pm.parent(shadowGeo, 'CharaA')
newSkinClust = pm.skinCluster(
shadowGeo, pm.listRelatives('CharaA', ad=True,
type='joint')) #skinning begins
pm.select(meshArg)
pm.select(shadowGeo, add=True)
pm.copySkinWeights(
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation='closestJoint') #copying skin weights
pm.selectMode(o=True)
#shadowmesh starts here
pm.select(shadowGeo)
mel.eval(
'polyCleanupArgList 3 { "0","1","1","0","0","0","0","0","0","1e-005","0","1e-005","0","1e-005","0","1","0" };'
) #clean up before reduction
pm.selectMode(o=True)
#reduce polycount to fall under budget
pm.polyReduce(shadowGeo,
ver=1,
trm=2,
triangleCount=triCount,
sharpness=0,
keepBorder=1,
keepColorBorder=1,
keepFaceGroupBorder=1,
keepHardEdge=1,
keepCreaseEdge=1,
keepBorderWeight=0.5,
keepMapBorderWeight=0,
keepColorBorderWeight=0,
keepFaceGroupBorderWeight=0,
keepHardEdgeWeight=0.25,
keepCreaseEdgeWeight=0,
useVirtualSymmetry=0,
symmetryTolerance=0.01,
sx=0,
sy=1,
sz=0,
sw=0,
preserveTopology=1,
keepQuadsWeight=1,
vertexMapName="",
replaceOriginal=1,
cachingReduce=1,
constructionHistory=1)
pm.select(deselect=True)
pm.bakePartialHistory(shadowGeo, prePostDeformers=True, preDeformers=True)
pm.select(shadowGeo)
print('EKKO shadowMesh successful!\nShadow Mesh specs:')
print(pm.polyEvaluate(shadowGeo, fmt=True))
def transfer_deformer_weights(self, geo_source, geo_target=None, deformer_source=None, deformer_target=None,
surface_association="closestPoint"):
"""
Copies the weight map of a deformer of an object to the deformer of another object.
:param geo_source: Source Shape
:param geo_target: Target Shape
:param deformer_source: Source Deformer
:param deformer_target: Target Deformer
:param surface_association: Surface Association. Valid values: closestPoint, rayCast, or closestComponent.
"""
assert geo_source and deformer_source and deformer_target, \
"select a source and target geometry and then the source and target deformers"
previous_selection = pm.selected()
if not geo_target:
geo_target = geo_source
self.progress_bar_init()
self.progress_bar_next()
deformer_source_weights = deformer_source.weightList[0].weights.get()
self.progress_bar_next()
tmp_source = pm.duplicate(geo_source)[0]
tmp_target = pm.duplicate(geo_target)[0]
tmp_source.v.set(True)
tmp_target.v.set(True)
self.progress_bar_next()
pm.select(clear=True)
l_jnt = list()
l_jnt.append(pm.joint(n="jnt_tmpA_01", p=[0, 0, 0]))
l_jnt.append(pm.joint(n="jnt_tmpA_02", p=[0, 1, 0]))
skin_source = pm.skinCluster(l_jnt, tmp_source, nw=1)
skin_target = pm.skinCluster(l_jnt, tmp_target, nw=1)
self.progress_bar_next()
skin_source.setNormalizeWeights(0)
pm.skinPercent(skin_source, tmp_source, nrm=False, prw=100)
skin_source.setNormalizeWeights(True)
[pm.setAttr('{}.wl[{}].w[{}]'.format(skin_source, i, 0), value) for i, value in enumerate(deformer_source_weights)]
[pm.setAttr('{}.wl[{}].w[{}]'.format(skin_source, i, 1), 1.0 - value) for i, value in enumerate(deformer_source_weights)]
self.progress_bar_next()
pm.copySkinWeights(ss=skin_source, ds=skin_target, nm=True, sa=surface_association)
self.progress_bar_next()
deformer_target_weights = [v for v in skin_target.getWeights(tmp_target, 0)]
[deformer_target.weightList[0].weights[i].set(val) for i, val in enumerate(deformer_target_weights)]
self.progress_bar_next()
pm.delete([tmp_source, tmp_target, l_jnt])
pm.select(previous_selection)
self.progress_bar_next()
self.progress_bar_ends(message="Finished successfully!")
def copy_weights(source_mesh, target_nodes, **copySkinWeights_kwargs):
"""Copies weights using pm.copySkinWeights with the most commonly used default kwargs.
target_nodes can be a single skinned mesh or vertex or it can be a list of vertices.
"""
default_copySkinWeightsKwargs = {'noMirror': True,
'surfaceAssociation': 'closestPoint',
'influenceAssociation': ('label', 'name', 'closestJoint'),
'normalize': True}
default_copySkinWeightsKwargs.update(copySkinWeights_kwargs)
pm.copySkinWeights(source_mesh, target_nodes, **default_copySkinWeightsKwargs)
def copy_skin_binding(source_object, destination_object):
skin_cluster = get_skinCluster(source_object)
if skin_cluster:
skin_joints = skin_cluster.influenceObjects()
dest_skin = get_skinCluster(destination_object)
if dest_skin:
pm.delete(dest_skin)
new_skin = pm.skinCluster(skin_joints, destination_object, bindMethod=0, toSelectedBones=True)
pm.copySkinWeights(sourceSkin=skin_cluster, destinationSkin=new_skin, surfaceAssociation='closestPoint',
influenceAssociation=['label', 'name', 'oneToOne'],
noMirror=True)
print '%s -> %s\n' % (source_object, destination_object)
def copySkinWeightBetweenMesh(selection=pm.ls(sl=True)):
"""
Copy skin weight to mirrored mesh
"""
sourceMesh = selection[0]
destinationMesh = selection[1]
sourceSkinCluster = mel.eval('findRelatedSkinCluster ' + sourceMesh)
destinationSkinCluster = mel.eval('findRelatedSkinCluster ' + destinationMesh)
pm.copySkinWeights(ss=sourceSkinCluster, ds=destinationSkinCluster, mirrorMode='YZ',
surfaceAssociation='closestPoint', influenceAssociation='closestJoint')
def SkinCopy(SEL):
for a in SEL[1:]:
pm.select(a)
pm.select(jntList, add=1)
pm.skinCluster(toSelectedBones=1,
bindMethod=0,
normalizeWeights=1,
mi=10,
omi=1,
dr=10,
sm=SknMthd)
pm.select(SEL[0])
pm.select(a, add=1)
pm.copySkinWeights(noMirror=1, surfaceAssociation='closestPoint')
def copy_weights(self, newTarget):
'''@brief Additional function to copy weights from the source geometry to a new one.@details This new geometry will be skinned with the same influence joints.
@code
test = libWeights.SkinWeights()
#Set the target geometry
test.target = "pCube1"
#copy the weights to the new gometery
test.copy_weights("pCube2")
@endcode
'''
currentInfluences = pm.skinCluster(self.target_deformer, inf=True, q=True)
res = libUtilities.skinGeo(newTarget, currentInfluences)
# Transfer the weights
pm.copySkinWeights(ss=self.target_deformer, ds=res, noMirror=True, surfaceAssociation="rayCast",
influenceAssociation="closestJoint")
def copySkinRUI():
sel = pm.ls(sl=1)
if sel:
source = sel[0]
dest = sel[1:]
for d in dest:
pm.copySkinWeights(source,
d,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation='oneToOne')
pm.select(sel[1:])
mel.eval('removeUnusedInfluences')
def copyWeights(sourceMesh, destMesh):
'''
Select skinned mesh then non-skinned mesh and run: copyWeights(pmc.selected()[0], pmc.selected()[1])
'''
sourceSkin = [
x for x in pmc.listHistory(sourceMesh)
if pmc.nodeType(x) == "skinCluster"
][0]
influences = pmc.skinCluster(sourceMesh, q=1, influence=1)
pmc.select(influences)
destSkin = pmc.skinCluster(influences, destMesh)
pmc.copySkinWeights(ss=sourceSkin.name(),
ds=destSkin.name(),
noMirror=True)
def copy_weights(self, newTarget):
'''@brief Additional function to copy weights from the source geometry to a new one.
@details This new geometry will be skinned with the same influence joints.
@code
test = libWeights.SkinWeights()
#Set the target geometry
test.target = "pCube1"
#copy the weights to the new gometery
test.copy_weights("pCube2")
@endcode
'''
currentInfluences = pm.skinCluster(self.target_deformer, inf=True, q=True)
res = libUtilities.skinGeo(newTarget, currentInfluences)
# Transfer the weights
pm.copySkinWeights(ss=self.target_deformer, ds=res, noMirror=True, surfaceAssociation="rayCast",
influenceAssociation="closestJoint")
def copy_skin_binding_structure(source, destination):
match_structure = []
# analysis.Main(source, destination)
from pprint import pprint as pp
pp(match_structure)
done = 'coping from to:\n'
for each_object in match_structure.match_dictionary:
skin_cluster = get_skinCluster(each_object)
if skin_cluster:
skin_joints = skin_cluster.influenceObjects()
new_skin = pm.skinCluster(skin_joints, match_structure.match_dictionary[each_object],
bindMethod=0, toSelectedBones=True)
pm.copySkinWeights(sourceSkin=skin_cluster, destinationSkin=new_skin, surfaceAssociation='closestPoint',
noMirror=True)
done += '%s -> %s\n' % (each_object, match_structure.match_dictionary[each_object])
print done
def mirror_transfer_skin_weights():
"""
Helper function to mirror weights from two pieces of geo that are separate.
Selection order: This -> That
"""
user_sel = pm.ls(sl=True)
# TODO: More robust way of finding from and to objects.
from_object = user_sel[0]
to_object = pm.PyNode(from_object.replace('_L', '_R'))
# If the to object has no skin cluster, add one best we can.
bind_mirror_weights(from_object, to_object)
# Duplicate and combine the pieces
duplicate_pieces = pm.duplicate([from_object, to_object])
combined_geo, _ = pm.polyUnite(*duplicate_pieces,
ch=1,
mergeUVSets=1,
centerPivot=True,
name='TEMP_combined_mirror_geo')
# Delete history
pm.delete(combined_geo, constructionHistory=True)
skin_cluster = copy_skin_influence(from_object, combined_geo)
# Mirroring the skin cluster
pm.copySkinWeights(ss=skin_cluster,
ds=skin_cluster,
mirrorMode='YZ',
surfaceAssociation='closestPoint',
influenceAssociation='closestJoint')
# Final copy skin weights to target geo
pm.copySkinWeights(combined_geo,
to_object,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation='closestJoint')
# Cleanup
pm.delete(combined_geo)
pm.delete(duplicate_pieces)
pm.select(user_sel, r=True)
print('Copying Complete!')
def SkinCopy(SEL):
BaseMod = SEL[0]
TargetMod = SEL[1]
skinClst = BaseMod.listHistory(type='skinCluster')
if skinClst:
skinJnt = pm.skinCluster(skinClst[0], query=True, inf=True)
skinMhod = pm.getAttr(skinClst[0] + ".skinningMethod")
pm.select(TargetMod, skinJnt)
pm.skinCluster(sm=skinMhod, tsb=True)
pm.copySkinWeights(BaseMod,
TargetMod,
nm=True,
sa="closestPoint",
ia="oneToOne")
else:
pass
pm.select(cl=True)
def transfertSkinCluster():
oOldSelection = pm.selected()
_oSource = [oOldSelection[0]]
_oTarget = oOldSelection[1:]
oJoints = []
#Check if there a source mesh
if len(_oSource) < 1:
pm.displayWarning('You need to have a source mesh')
elif len(_oTarget) < 1:
pm.displayWarning('You need to have a target mesh')
else:
#Check if there a skinCluster on the mesh. And add joints of the skinCluster to the lists
try:
oJoints.extend(pm.skinCluster(_oSource, query=True,
influence=True))
except:
print "Exception: it doesn't appear to have a skinCluster."
#Warnings : check if in the lists oJoints there's objects that are not joints
oJointSkin = []
for o in oJoints:
if pm.nodeType(o) == 'joint':
oJointSkin.append(o)
else:
pm.warning(
"removed the influence of {0} beacuse it's not a joint type object"
.format(o))
#Getting skinCluster from the source mesh
oSkinClusterSource = GetSkinCluster(_oSource[0])
#Skin the new mesh and copy weight from the source mesh
for each in _oTarget:
print each
pm.select(clear=True)
pm.select(oJointSkin)
pm.select(each, add=True)
oNewSkinCluster = pm.skinCluster(toSelectedBones=True)
print 'Transfert DONE'
pm.copySkinWeights(sourceSkin=oSkinClusterSource,
destinationSkin=oNewSkinCluster,
influenceAssociation='oneToOne',
noMirror=True)
print 'copy weight DONE'
pm.select(oOldSelection)
def copy_skin_influence(from_obj, to_obj):
"""
Copy Joint influence and skin weights form one object ot another.
:param PyNode from_obj: Object to copy weights from.
:param PyNode to_obj: Object to copy weights to.
:return: The created skin cluster
:rtype: PyNode
"""
skinned_joints = pm.skinCluster(from_obj, query=True, influence=True)
result_skin = pm.skinCluster(skinned_joints, to_obj)
pm.copySkinWeights(from_obj,
to_obj,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation='closestJoint')
return result_skin
def skinCopy(sourceMesh=None, targetMesh=None, *args):
if not sourceMesh or not targetMesh:
if len(pm.selected()) >= 2:
sourceMesh = pm.selected()[-1]
targetMeshes = pm.selected()[:-1]
else:
pm.displayWarning("Please select target mesh/meshes and source "
"mesh with skinCluster.")
return
else:
targetMeshes = [targetMesh]
# we check this here, because if not need to check when we work
# base on selection.
if isinstance(sourceMesh, basestring):
sourceMesh = pm.PyNode(sourceMesh)
for targetMesh in targetMeshes:
if isinstance(targetMesh, basestring):
sourceMesh = pm.PyNode(targetMesh)
ss = getSkinCluster(sourceMesh)
if ss:
skinMethod = ss.skinningMethod.get()
oDef = pm.skinCluster(sourceMesh, query=True, influence=True)
# strip | from longName, or skinCluster command may fail.
skinName = targetMesh.name().replace('|','') + "_SkinCluster"
skinCluster = pm.skinCluster(oDef,
targetMesh,
tsb=True,
nw=1,
n=targetMesh.name() + "_SkinCluster")
pm.copySkinWeights(sourceSkin=ss.stripNamespace(),
destinationSkin=skinCluster.name(),
noMirror=True,
influenceAssociation="oneToOne",
smooth=True,
normalize=True)
skinCluster.skinningMethod.set(skinMethod)
else:
errorMsg = "Source Mesh : {} doesn't have a skinCluster."
pm.displayError(errorMsg.format(sourceMesh.name()))
def mirror_skinBinding(scene_objects):
for each_object in scene_objects:
current_tokens = each_object.split('_')
if current_tokens[0] in ['FR', 'MR', 'BR', 'R']:
mirror_inverse = True
else:
mirror_inverse = False
skin_cluster = get_skinCluster(each_object)
if skin_cluster:
skin_joints = get_oposite(skin_cluster.influenceObjects())
oposite_object = get_oposite(each_object)
if not get_skinCluster(oposite_object):
destination_skin_cluster = pm.skinCluster(skin_joints, oposite_object, bindMethod=0, toSelectedBones=True)
pm.copySkinWeights(ss=skin_cluster, ds=destination_skin_cluster, mirrorMode='YZ',
influenceAssociation='oneToOne', mirrorInverse=mirror_inverse)
destination_skin_cluster.skinningMethod.set(skin_cluster.skinningMethod.get())
else:
print 'object %s not processed, already skin cluster attached' % oposite_object
def copySkinWeights_old( objs ):
'''weightTransfer('skin_mesh', cmds.ls(sl=True) )'''
skinDataObj = objs[0]
targetObjs = [pm.PyNode( obj ) for obj in objs[1:]]
sourceSkin = pm.mel.findRelatedSkinCluster( skinDataObj )
for i ,mesh in enumerate( targetObjs ):
destinationSkin = pm.mel.findRelatedSkinCluster( mesh )
try:
pm.copySkinWeights(
ss=sourceSkin,
ds=destinationSkin,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=['closestJoint', 'closestBone', 'oneToOne']
)
print 'copySkinWeights (%d/%d): "%s" --> "%s"'%( i+1, len(targetObjs), skinDataObj, mesh )
except :
print 'copySkinWeights Fail (%d/%d): "%s" --> "%s"'%( i+1, len(targetObjs), skinDataObj, mesh )
def copy_mirror_skin_binding(source, destination):
"""
:param source: the source object from where the skinning will be copied
:param destination:
:return:
"""
mirror_inverse = True
print 'copying from {} to {}'.format(source, destination)
skin_cluster = get_skinCluster(source)
if skin_cluster:
skinJoints = get_oposite(skin_cluster.influenceObjects())
oposite_object = destination
if not get_skinCluster(oposite_object):
destination_skinCluster = pm.skinCluster(skinJoints, oposite_object, bindMethod=0, toSelectedBones=True)
pm.copySkinWeights(ss=skin_cluster, ds=destination_skinCluster, mirrorMode='YZ',
influenceAssociation='oneToOne', mirrorInverse=mirror_inverse)
destination_skinCluster.skinningMethod.set(skin_cluster.skinningMethod.get())
else:
print 'object %s not processed, allready skin cluster attached' % oposite_object
else:
print'didnt find skinCluster in source object'
def transfer_skincluster(source_object, target_objects, prune_after=False):
"""Bind the target objects based on source object,
then copied the skin data from source to target objects.
If target object have skincluster,
it will get replaced by new skincluster.
:arg source_object: PyNode object transfer source.
:type source_object: pm.PyNode
:arg target_objects: PyNode objects transfer destination.
:type target_objects: list of pm.PyNode
:key prune_after: Do prune operation after transfer skincluster or not.
:type prune_after: bool
:rtype: None
"""
source_skin_node = get_skincluster_node(source_object)
assert source_skin_node, 'Skincluster not found in source object.'
skin_info = get_skincluster_info(source_skin_node)
joint_list = skin_info['joint_list']
skin_method = skin_info['skin_method']
for tgt_obj in target_objects:
old_tgt_skin_node = get_skincluster_node(tgt_obj)
if old_tgt_skin_node:
old_tgt_skin_node.unbind()
try:
tgt_skin_node = pm.skinCluster(joint_list,
tgt_obj,
skinMethod=skin_method)
except:
tgt_skin_node = pm.skinCluster(joint_list, tgt_obj)
pm.copySkinWeights(
sourceSkin=source_skin_node,
destinationSkin=tgt_skin_node,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=['name', 'oneToOne', 'closestJoint'],
)
remove_unused_influence(tgt_skin_node)
if prune_after:
prune_skincluster(tgt_skin_node)
def copySkin(cls, skin_from, skin_to):
"""
!@Brief Copy Skin with point of shape.
CopySkin of maya doesn't really works with different shape.
:type skin_from: pymel.core.nodetypes.Transform / shape / SkinCluster
:param skin_from: Maya node reference for copy skin
:type skin_to: pymel.core.nodetypes.Transform / shape / SkinCluster
:param skin_to: Maya node to copy skin.
:rtype: bool
:return: True if copy skin is finish.
"""
# Get skin Cluster
from_node = pmc.listHistory(skin_from, type="skinCluster")[0]
to_node = pmc.listHistory(skin_to, type="skinCluster")
# If to node is None add Skin cluster from from_node
if not to_node:
to_node = cls.skinFromOther(from_node, skin_to)
else:
to_node = to_node[0]
# Check two skin in case
cls.checkTwoSkin(from_node, to_node)
# CopySkin
pmc.copySkinWeights(
node_utils.getPointName(skin_from),
node_utils.getPointName(skin_to),
sourceSkin=from_node.name(),
destinationSkin=to_node.name(),
noMirror=True,
surfaceAssociation="closestComponent",
influenceAssociation="oneToOne"
)
def matchSkinning():
"""Select a skin mesh, followed the mesh you wish to match skinning to."""
source, target = pm.ls(sl=1,type='transform')
src_cluster = source.listHistory(type='skinCluster')[0]
influences = src_cluster.influenceObjects()
pm.select(influences, r=1 )
pm.select(target, add=1)
pm.skinCluster(toSelectedBones=1,
obeyMaxInfluences=src_cluster.getObeyMaxInfluences(),
maximumInfluences=src_cluster.getMaximumInfluences(),
dropoffRate=2,
removeUnusedInfluence=False
)
tgt_cluster = target.listHistory(type='skinCluster')[0]
pm.copySkinWeights( ss=src_cluster, ds=tgt_cluster, noMirror=True )
pm.select(target, replace=1)
def transfer_deformer_weights(geo_source,
geo_target=None,
deformer_source=None,
deformer_target=None,
surface_association="closestPoint",
interface=None):
"""
Copies the weight map of a deformer of an object to the deformer of another object.
:param geo_source: Source Shape
:param geo_target: Target Shape
:param deformer_source: Source Deformer
:param deformer_target: Target Deformer
:param surface_association: Surface Association. Valid values: closestPoint, rayCast, or closestComponent.
:param interface: Copy of class CopyDeformerWeightsUI
"""
assert geo_source and deformer_source and deformer_target, \
"select a source and target geometry and then the source and target deformers"
previous_selection = pm.selected()
if not geo_target:
geo_target = geo_source
if interface:
interface.progress_bar_init()
interface.progress_bar_next()
source_weight_list = get_weight_list(deformer_source, geo_source)
if not source_weight_list:
pm.warning(
"The deformer {} does not have the weight list for {}".format(
deformer_source, geo_source))
if interface:
interface.progress_bar_ends(message="Finished with errors!")
return
target_weight_list = get_weight_list(deformer_target, geo_target)
if not target_weight_list:
pm.warning(
"The deformer {} does not have the weight list for {}".format(
deformer_target, geo_target))
if interface:
interface.progress_bar_ends(message="Finished with errors!")
return
initialize_weight_list(target_weight_list, geo_target)
if interface: interface.progress_bar_next()
tmp_source = pm.duplicate(geo_source)[0]
tmp_target = pm.duplicate(geo_target)[0]
pm.rename(tmp_source, tmp_source.nodeName() + "_cdw_DUP")
pm.rename(tmp_target, tmp_target.nodeName() + "_cdw_DUP")
tmp_source.v.set(True)
tmp_target.v.set(True)
if interface: interface.progress_bar_next()
pm.select(clear=True)
l_jnt = list()
l_jnt.append(pm.joint(n="jnt_tmpA_01", p=[0, 0, 0]))
l_jnt.append(pm.joint(n="jnt_tmpA_02", p=[0, 1, 0]))
skin_source = pm.skinCluster(l_jnt, tmp_source, nw=1)
skin_target = pm.skinCluster(l_jnt, tmp_target, nw=1)
if interface: interface.progress_bar_next()
skin_source.setNormalizeWeights(0)
pm.skinPercent(skin_source, tmp_source, nrm=False, prw=100)
skin_source.setNormalizeWeights(True)
n_points = len(geo_source.getShape().getPoints())
if deformer_source.type() == "blendShape":
[
skin_source.wl[i].w[0].set(source_weight_list.baseWeights[i].get())
for i in range(n_points)
]
[
skin_source.wl[i].w[1].set(1.0 -
source_weight_list.baseWeights[i].get())
for i in range(n_points)
]
else:
[
skin_source.wl[i].w[0].set(source_weight_list.weights[i].get())
for i in range(n_points)
]
[
skin_source.wl[i].w[1].set(1.0 -
source_weight_list.weights[i].get())
for i in range(n_points)
]
if interface: interface.progress_bar_next()
pm.copySkinWeights(ss=skin_source,
ds=skin_target,
nm=True,
sa=surface_association)
if interface: interface.progress_bar_next()
tmp_shape = skin_target.getGeometry()[0]
deformer_target_weights = [v for v in skin_target.getWeights(tmp_shape, 0)]
[
target_weight_list.weights[i].set(val)
for i, val in enumerate(deformer_target_weights)
]
if interface: interface.progress_bar_next()
pm.delete([tmp_source, tmp_target, l_jnt])
pm.select(previous_selection)
if interface:
interface.progress_bar_next()
interface.progress_bar_ends(message="Finished successfully!")
def run():
# validate that we selected 1 skinned mesh and 1 non-skinned mesh
sel = pm.ls(sl=True)
if len(sel)!=2:
raise Exception("copyWeightsToFurCards: select skin mesh, shift select fur cards. Aborted.")
#
src_mesh_trans = sel[0]
src_mesh_shape = pm.listRelatives(src_mesh_trans, s=True)[0]
if type(src_mesh_shape) != pm.nodetypes.Mesh:
raise Exception("copyWeightsToFurCards: source object must be a skinned mesh.")
#
fur_trans = sel[1]
fur_shape = pm.listRelatives(fur_trans, s=True)[0]
if type(fur_shape) != pm.nodetypes.Mesh:
raise Exception("copyWeightsToFurCards: target object must be a mesh.")
#
src_skincluster = getRelatedSkinCluster(src_mesh_trans)
if type(src_skincluster) != pm.nodetypes.SkinCluster:
raise Exception("copyWeightsToFurCards: source mesh must have a skinCluster deformer.")
#
fur_skincluster = getRelatedSkinCluster(fur_trans)
if fur_skincluster != None:
raise Exception("copyWeightsToFurCards: target mesh must not be skinned.")
# bind the fur cards to the same influences as the source mesh
src_influences = src_skincluster.getInfluence()
pm.select(src_influences, r=True)
pm.select(fur_trans, add=True)
fur_skincluster = pm.skinCluster(tsb=True)
# copy skin weights from source to fur cards
pm.copySkinWeights( ss=str(src_skincluster),
ds=str(fur_skincluster),
noMirror=True,
surfaceAssociation = "closestPoint",
influenceAssociation = "oneToOne")
# split mesh into list of vertex lists (1 per shell)
vertex_shells = []
num_faces = pm.polyEvaluate(fur_trans,f=True)
faces_checked = set(range(num_faces))
#
gMainProgressBar = mel.eval('$tmp = $gMainProgressBar');
pm.progressBar( gMainProgressBar,
edit=True,
beginProgress=True,
isInterruptable=True,
status='Gathering vertex shells...',
maxValue=num_faces )
#
while len(faces_checked)>0:
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=num_faces-len(faces_checked))
face = faces_checked.pop()
shell_faces = pm.polySelect( fur_trans, extendToShell=face )
faces_checked = faces_checked.difference(shell_faces)
face_vert_info = pm.polyInfo(faceToVertex=True)
verts_in_shell = []
#pm.polyInfo returns horrible unicode format that must be parsed
for face_verts_str in face_vert_info:
verts_str = face_verts_str.split(":")[1]
vert_strings = verts_str.split(" ")
for v in vert_strings:
try:
v_id = int(v)
verts_in_shell.append(v_id)
except:
pass
vertex_shells.append(verts_in_shell)
# now search for closest vertex in each shell...
sel_list = OpenMaya.MSelectionList()
sel_list.add(str(fur_shape))
nodeDagPath = sel_list.getDagPath(0)
mfnMesh = OpenMaya.MFnMesh(nodeDagPath)
space = OpenMaya.MSpace.kWorld
pm.progressBar(gMainProgressBar, edit=True, step=0, status="Getting vertex positions...")
verts = OpenMaya.MPointArray()
verts = mfnMesh.getPoints(OpenMaya.MSpace.kWorld)
pm.progressBar(gMainProgressBar, edit=True, status="Finding closest vertex per card...")
pm.progressBar(gMainProgressBar, edit=True, step=0, maxValue=len(vertex_shells))
closest_vert_per_shell = []
for i,shell in enumerate(vertex_shells):
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=i)
closest_dist = None
closest_vert = None
for vert_id in shell:
point = verts[vert_id]
closestPoint, faceIdx = mfnMesh.getClosestPoint(point, space)
dist = closestPoint.distanceTo(point)
if closest_dist==None:
closest_dist = dist
closest_vert = vert_id
elif dist < closest_dist:
closest_dist = dist
closest_vert = vert_id
closest_vert_per_shell.append(closest_vert)
pm.progressBar(gMainProgressBar, edit=True, status="Apply weights for each card...")
pm.progressBar(gMainProgressBar, edit=True, step=0, maxValue=len(vertex_shells))
#
vtx_base = str(fur_trans)+".vtx["
for i,shell in enumerate(vertex_shells):
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=i)
#get weight value of closest vertex
c = closest_vert_per_shell[i]
vtx = vtx_base+str(c)+"]"
values = pm.skinPercent(fur_skincluster,vtx,q=1,v=1,ib=0.0001)
transforms = pm.skinPercent(fur_skincluster,vtx,q=1,t=None,ib=0.0001)
influences = []
for i in range(len(transforms)):
influences.append((transforms[i],values[i]))
#paste weight values on all other vertices in shell
for v in shell:
vtx = vtx_base+str(v)+"]"
pm.skinPercent(fur_skincluster,vtx,tv=influences)
pm.progressBar(gMainProgressBar, edit=True, endProgress=True)
def option_box_apply(self):
pm.setParent(self.option_box)
input_deformer = self.input_deformer_list.get_selected_deformer()
input_shape, _ = self.input_shape_list.get_selected_shape()
output_deformer = self.output_deformer_list.get_selected_deformer()
output_shape, _ = self.output_shape_list.get_selected_shape()
# Find the selected surface association mode, and map it to a copySkinWeights argument.
surface_association = self.get_selected_surface_association_idx()
surface_association_modes = {
1: 'closestPoint',
2: 'rayCast',
3: 'closestComponent',
4: 'uvSpace',
}
surface_association = surface_association_modes[surface_association]
# Duplicate the input and output shapes.
input_shape_copy = pm.duplicate(input_shape)[0].getShape()
output_shape_copy = pm.duplicate(output_shape)[0].getShape()
# Create a temporary joint, and skin both shapes to it. Disable weight normalization,
# or weights will get forced to 1 since we only have one joint.
temporary_joint = pm.createNode('joint')
input_shape_skin = pm.skinCluster([input_shape_copy, temporary_joint], removeUnusedInfluence=False, normalizeWeights=False)
output_shape_skin = pm.skinCluster([output_shape_copy, temporary_joint], removeUnusedInfluence=False, normalizeWeights=False)
# Disable the skinClusters. We're using them to transfer data, and we don't want them
# to influence the temporary meshes.
input_shape_skin.attr('envelope').set(0)
output_shape_skin.attr('envelope').set(0)
try:
# Figure out which attributes to copy where.
attrs_to_map = self.get_selected_attrs()
# Do the copy.
for src_attr, dst_attr in attrs_to_map:
if not maya_helpers.copy_weights_to_skincluster(src_attr, input_shape_skin, input_shape_copy):
log.warning('Input has no deformer weights: %s', src_attr)
continue
copy_options = {
'sourceSkin': input_shape_skin,
'destinationSkin': output_shape_skin,
'noMirror': True,
# Always use one-to-one joint association, since we're always copying the
# two temporary joints.
'influenceAssociation': 'oneToOne',
}
# If we're in UV space mode, find a UV set to copy. Otherwise, set the association
# mode.
if surface_association == 'uvSpace':
# Use the current UV set for each mesh.
def get_current_uv_set(shape):
uv_sets = pm.polyUVSet(shape, q=True, currentUVSet=True)
if uv_sets:
return uv_sets[0]
else:
return 'map1'
input_shape_uv_set = get_current_uv_set(input_shape)
output_shape_uv_set = get_current_uv_set(output_shape)
copy_options['uvSpace'] = (input_shape_uv_set, output_shape_uv_set)
else:
copy_options['surfaceAssociation'] = surface_association
pm.copySkinWeights(**copy_options)
# Read the copied weights out of the skinCluster and copy them to the output attribute.
copied_weights = list(output_shape_skin.getWeights(output_shape_copy, 0))
dst_weight_path = str(dst_attr)
for index, value in enumerate(copied_weights):
cmds.setAttr('%s[%i]' % (dst_weight_path, index), value)
finally:
# Clean up our temporary nodes.
pm.delete(input_shape_copy.getTransform())
pm.delete(output_shape_copy.getTransform())
pm.delete(temporary_joint)
log.info( 'Copied %i %s' % (len(attrs_to_map), 'map' if len(attrs_to_map) == 1 else 'maps'))
