def create_module(self, moduleType):
# new module dialog
moduleName, ok = QtGui.QInputDialog().getText(self, 'Add ' + moduleType + ' Module', 'Enter module name:', QtGui.QLineEdit.Normal, moduleType)
if ok and moduleName != "":
# If module with name is exist
if cmds.objExists(moduleName+":main"):
QtGui.QMessageBox.information(self, "Warning", "This module is exist.")
else:
# add module to list
item = QtGui.QListWidgetItem(moduleName)
self.modules_listWidget.addItem(item)
self.modules_listWidget.setCurrentItem(item)
# import module
cmds.file("G:/Projects New/AnimaCord/pk_rig/%s/%s_rig.mb" %(moduleType,moduleType), r=True, type="mayaBinary", namespace=moduleName)
cmds.file("G:/Projects New/AnimaCord/pk_rig/%s/%s_rig.mb" %(moduleType,moduleType), importReference=True )
cmds.parent(moduleName+":main", characterRoot)
# set module name
cmds.setAttr(moduleName+":main.moduleName", moduleName, type="string")
cmds.hide(moduleName+":controls")
cmds.select(moduleName+":main_poser")
self.update_modules_list()
def setAttributes(self, shader):
self.setPreset(self.getPreference('Preset'))
cmds.setAttr('defaultRenderGlobals.ren', 'turtle', type='string')
cmds.setAttr('TurtleRenderOptions.renderer', 1)
for key, value in shader.shaderAttr.iteritems():
cmds.setAttr(getattr(self, shader.mode.lower()) + '.' + key, value)
cmds.setAttr('TurtleDefaultBakeLayer.tbBilinearFilter',
self.renderAttr['tbBilinearFilter'])
cmds.setAttr('TurtleDefaultBakeLayer.tbEdgeDilation',
self.renderAttr['tbEdgeDilation'])
cmds.setAttr('TurtleDefaultBakeLayer.tbDirectory',
self.renderAttr['tbDirectory'],
type='string')
if shader.mode == 'THICK':
# Isolate meshes because there is a bug with Thickness when object penetrate each others
faces = [x for x in shader.assignation if '.' in x]
if faces:
cmds.select(faces)
mel.eval("InvertSelection")
cmds.delete(
) # Delete and hide, or assign surfaceshader black if 'OCC'?
toHide = list(
set(cmds.ls(geometry=True, long=True)) - set(shader.shapes))
if toHide:
cmds.hide(toHide)
elif shader.mode == 'RGB':
try:
attr = cmds.getAttr(shader.name + '.color')
except ValueError:
attr = cmds.getAttr(shader.name + '.outColor')
cmds.setAttr(self.rgb + '.outColor', *attr[0], type='double3')
def nClothwInputMesh():
mesh = cmds.ls(selection=True)[0]
dup_mesh = cmds.duplicate(mesh)
mesh_parent = cmds.listRelatives(parent=True, fullPath=True)
all_nodes = cmds.ls()
mel.eval('doCreateNCloth 0')
new_nodes = cmds.ls()
diff = list(set(new_nodes) - set(all_nodes))
# Rename initial mesh to have suffix _inMesh and output mesh with _outMesh
cmds.rename(mesh, "{}_inMesh".format(mesh))
cmds.rename(dup_mesh[0], "{}_outMesh".format(mesh))
# Sets the inMesh shape as the inputMesh for the nCloth node
cmds.listConnections("{}.inputMesh".format(diff[1]), shapes=True)
cmds.connectAttr("{}_inMeshShape.worldMesh".format(mesh),
"{}.inputMesh".format(diff[1]),
force=True)
# Renames the nCloth node to the mesh name + _nCloth
nCloth = cmds.rename(diff[1], "{}_nCloth".format(mesh))
# groups the nCloth node, inMesh, and outMesh, and parents them where the inMesh was before
cmds.group("{}_nCloth".format(mesh),
"{}_inMesh".format(mesh),
"{}_outMesh".format(mesh),
name=mesh)
cmds.parent(mesh, mesh_parent)
# hides the initial mesh
cmds.hide("{}_inMesh".format(mesh))
def objectLoad(self):
global grpTemp
grpTemp = '___tmp___'
if self.assetQList.currentItem():
mel.eval('MLdeleteUnused;')
cmds.file(sceneFullPath,
i=True,
gr=True,
dns=False,
gn=grpTemp,
ifr=True)
cmds.select(grpTemp + '*')
cmds.hide(grpTemp + '*')
#mel.eval('setAttr ___tmp___.hiddenInOutliner true;AEdagNodeCommonRefreshOutliners();')
objectList = cmds.listRelatives(grpTemp, s=False)
objectList.sort()
self.objectQList.addItems(objectList)
self.objectViewCheckbox.setEnabled(True)
else:
self.statusBar.setStyleSheet('background-color:' + red)
self.statusBar.showMessage('No object selected', 4000)
self.objectListBtn.setEnabled(False)
self.objectListClearBtn.setEnabled(True)
def setAttributes(self, shader):
self.setPreset(self.getPreference('Preset'))
cmds.setAttr('defaultRenderGlobals.ren', 'turtle', type='string')
cmds.setAttr('TurtleRenderOptions.renderer', 1)
for key, value in shader.shaderAttr.iteritems():
cmds.setAttr(getattr(self, shader.mode.lower()) + '.' + key, value)
cmds.setAttr('TurtleDefaultBakeLayer.tbBilinearFilter', self.renderAttr['tbBilinearFilter'])
cmds.setAttr('TurtleDefaultBakeLayer.tbEdgeDilation', self.renderAttr['tbEdgeDilation'])
cmds.setAttr('TurtleDefaultBakeLayer.tbDirectory', self.renderAttr['tbDirectory'], type='string')
if shader.mode == 'THICK':
# Isolate meshes because there is a bug with Thickness when object penetrate each others
faces = [x for x in shader.assignation if '.' in x]
if faces:
cmds.select(faces)
mel.eval("InvertSelection")
cmds.delete() # Delete and hide, or assign surfaceshader black if 'OCC'?
toHide = list(set(cmds.ls(geometry=True, long=True)) - set(shader.shapes))
if toHide:
cmds.hide(toHide)
elif shader.mode == 'RGB':
try:
attr = cmds.getAttr(shader.name + '.color')
except ValueError:
attr = cmds.getAttr(shader.name + '.outColor')
cmds.setAttr(self.rgb + '.outColor', *attr[0], type='double3')
def creatIKHendle(self, Joint1, Joint2):
IKHendleName = mc.ikHandle(sol='ikRPsolver',
sj=Joint1,
ee=Joint2,
n=Joint1 + '_' + Joint2 + '_ikHandle')[0]
mc.hide(IKHendleName)
return IKHendleName
def buildRiders(pfx, spline, numJoints):
# make the joints (or locators?)
# just make them at origin. The constraint will put them in place
jPars = []
joints = []
for i in range(numJoints):
jp = cmds.spaceLocator(
name="{}JointPar_{}".format(pfx, i + 1))[0] # just for viewing
cmds.setAttr("{}Shape.localScaleX".format(jp), 0.25)
cmds.setAttr("{}Shape.localScaleY".format(jp), 0.25)
cmds.setAttr("{}Shape.localScaleZ".format(jp), 0.25)
j = cmds.createNode("joint", name="{}Joint_{}".format(pfx, i + 1))
cmds.parent(j, jp)
jPars.append(jp)
joints.append(j)
cmds.hide(joints)
# build the constraint object
rider = cmds.createNode("riderConstraint")
# connect the constraints
cmds.connectAttr("{}.outputSpline".format(spline),
"{}.inputSplines[0].spline".format(rider))
for i in range(len(jPars)):
cmds.setAttr("{0}.param[{1}]".format(rider, i), i / (numJoints - 1.0))
cmds.connectAttr("{0}.outputs[{1}].translate".format(rider, i),
"{}.translate".format(jPars[i]))
cmds.connectAttr("{0}.outputs[{1}].rotate".format(rider, i),
"{}.rotate".format(jPars[i]))
cmds.connectAttr("{0}.outputs[{1}].scale".format(rider, i),
"{}.scale".format(jPars[i]))
return jPars, joints
def ResetTranslationManipsUsed( self ): self.NumTranslationManipsUsed = 0 # .. se hacen invisible los que hay creados ... for manip in self.TranslationManips: manip.DestroyTranslationScriptJobs() cmds.hide( manip.GetGizmo() )
def setUp(self):
self.targetMesh = 'testMesh'
self.numVerts = 169 # number of verts in our mesh
self.mll = MllInterface()
unittest.TestCase.setUp(self)
openMayaFile('simplemirror.ma')
cmds.hide("|y_axis")
cmds.showHidden("|x_axis")
self.mll.setCurrentMesh(self.targetMesh)
self.mll.initLayers()
self.mll.createLayer("original weights")
self.model = ie.LayerData()
self.layer = ie.Layer()
self.layer.opacity = 1.0
self.layer.enabled = True
self.layer.mask = [0.0]*self.numVerts
self.layer.mask[1] = 0.9
self.layer.mask[5] = 0.5566
self.layer.name = "imported layer"
self.model.addLayer(self.layer)
self.infl = ie.Influence()
self.layer.addInfluence(self.infl)
self.infl.influenceName = "x_axis|root|R_joint1"
self.infl.logicalIndex = 666 # use nonsense value
self.infl.weights = [0.1]*self.numVerts
self.infl.weights[3] = 0.688
self.infl.weights[4] = 0.345
def makeHair(selList, density, layers, twist=0.0):
if len(selList) > 1:
firstLoop = selList
else:
sel = selList[0]
cmds.select('%s.e[3]' % sel)
cmds.polySelectSp(loop=True)
firstLoop = cmds.ls(sl=True, fl=True)
cmds.hide(sel)
firstLoop = cmds.ls(cmds.polyListComponentConversion(firstLoop,
fe=True,
fv=True,
tv=True),
fl=True)
# DO A LITTLE ERROR CHECKING TO SEE IF WE GOT WHAT WE NEED
neighbor = getNeighboringEdgeloops(firstLoop)
if len(neighbor) != len(firstLoop):
mel.eval(
'warning "Selected edgeloop is not a border loop. Please select a border loop and try again."'
)
return None
# CREATE THE HULL CURVES
if twist < 0:
numIntermediates = round((twist * -1) / .1) - 1
else:
numIntermediates = round(twist / .1) - 1
if numIntermediates < 0:
numIntermediates = 0
hullCurves = makeHullCurves(firstLoop, numIntermediates)
twist /= numIntermediates + 1.0
objName = firstLoop[0].split('.')[0]
# CREATE ALL THE HAIR CURVES
allHairCurves = []
for i in range(layers):
for curve in hullCurves:
s = (i + 1) / (layers * 1.0)
cmds.setAttr(curve + '.scale', s, s, s, type='double3')
allHairCurves += makeHairCurves(hullCurves, density, twist)
# DO SOME SPRING CLEANING
cmds.delete(hullCurves)
for i in range(len(allHairCurves)):
curveNum = str(i + 1)
allHairCurves[i] = cmds.rename(allHairCurves[i],
'%s_%sCRV' % (objName, curveNum))
if len(allHairCurves) > 0:
hairGrp = cmds.rename(cmds.group(allHairCurves),
objName + '_hairCurves')
else:
mel.eval(
'warning "No hair curves made. Perhaps Density value is too high."'
)
def build(self):
'''
'''
super(Neck, self).build()
jointList = eval(self.jointList)
self.spline = spline.SplineBase(jointList=jointList +
[self._skullBind],
splineName=self._splineName)
self.spline.create()
grp = mc.rename(self.name, "{}_grp".format(self.name))
# Neck
neckNul, neckOrt, neckCtrl = control.create(name="neck",
controlType="cube",
color=common.BLUE,
hierarchy=['nul', "ort"])
matrix = mc.xform(jointList[0], q=True, ws=True, matrix=True)
mc.xform(neckNul, ws=True, matrix=matrix)
# Parent the entire ik group to the neck
mc.parent(self.spline.getGroup(), neckCtrl)
# head
headNul, headCtrl = control.create(name="head",
controlType="cube",
color=common.BLUE,
hierarchy=['nul'])
# head gimabl control
# head
headGimbalNul, headGimbalCtrl = control.create(name="head_gimbal",
controlType="cube",
color=common.BLUE,
hierarchy=['nul'],
parent=headCtrl)
clusters = self.spline._clusters
con = mc.pointConstraint(jointList[0], self._skullBind, headNul)
mc.delete(con)
mc.parent(headNul, neckCtrl)
mc.parent(clusters[2:], headGimbalCtrl)
mc.orientConstraint(headGimbalCtrl, self.spline._endTwistNul, mo=1)
skullOffset = mc.duplicate(self._skullBind,
po=True,
rr=True,
name="{}_offset".format(self._skullBind))[0]
mc.parent(skullOffset, headGimbalCtrl)
mc.orientConstraint(skullOffset, self.spline._ikJointList[-1], mo=1)
#mc.connectAttr(headCtrl+'.s', self._skullBind+'.s')
anchor = self.getAttributeByName('anchor').getValue()
if mc.objExists(anchor):
mc.parentConstraint(anchor, neckNul, mo=1)
else:
mc.warning('Anchor object [ {} ] does not exist.'.format(anchor))
mc.parent(neckNul, grp)
mc.hide(self.spline._group, clusters)
def extractShapes(geo, blendShape):
bs = pm.listAttr(blendShape + '.weight', m=True)
for shape in bs:
cmds.setAttr(blendShape + '.' + shape, 1)
m = cmds.duplicate(geo, n=shape)
cmds.setAttr(blendShape + '.' + shape, 0)
cmds.hide(m)
def create_fk_setup():
selected_list = cmds.ls(selection=True)
cmds.parent(world=True)
dup_selected_list = cmds.duplicate(selected_list[1:], parentOnly=True)
cmds.parent(selected_list[3], selected_list[2])
cmds.parent(selected_list[2], selected_list[1])
cmds.parent(selected_list[1], selected_list[0])
renamed_list = []
count = 1
for item in dup_selected_list:
new_item = cmds.rename(item, selected_list[count] + '_fk')
renamed_list.append(new_item)
count = count + 1
cmds.parent(renamed_list[2], renamed_list[1])
cmds.parent(renamed_list[1], renamed_list[0])
cmds.parent(renamed_list[0], selected_list[0])
cmds.select(renamed_list[0])
cmds.hide(cmds.ls(selection=True))
#fk ctrl
get_name_list=[]
for item in selected_list:
name_split = item.split('_')
new_name = name_split[:2]
new_name = '_'.join(new_name)
get_name_list.append(new_name)
ctrl_list = []
zro_group_list = []
count = 0
for jnt in renamed_list:
ctrl = cmds.circle(r=3, nr=(1, 0, 0), n=get_name_list[count] + '_ctrl')
ctrl_list.append(ctrl)
cmds.matchTransform(ctrl, jnt)
zro_group = cmds.group(em=True, n=get_name_list[count] + '_ctrl_zro')
zro_group_list.append(zro_group)
cmds.matchTransform(zro_group, ctrl)
cmds.parent(ctrl, zro_group)
cmds.setAttr(ctrl[0] + '.translateX', lock=True, keyable=False)
cmds.setAttr(ctrl[0] + '.translateY', lock=True, keyable=False)
cmds.setAttr(ctrl[0] + '.translateZ', lock=True, keyable=False)
cmds.setAttr(ctrl[0] + '.scaleX', lock=True, keyable=False)
cmds.setAttr(ctrl[0] + '.scaleY', lock=True, keyable=False)
cmds.setAttr(ctrl[0] + '.scaleZ', lock=True, keyable=False)
count = count + 1
cmds.parent(zro_group_list[2], ctrl_list[1][0])
cmds.parent(zro_group_list[1], ctrl_list[0][0])
cmds.orientConstraint(ctrl_list[0][0], renamed_list[0], mo=True)
cmds.orientConstraint(ctrl_list[1][0], renamed_list[1], mo=True)
cmds.orientConstraint(ctrl_list[2][0], renamed_list[2], mo=True)
def makePairs(self):
sel = cmds.ls(os=1)
garments = cmds.listRelatives(sel[0]) # len(garments)
patterns = cmds.listRelatives(sel[1]) # len(patterns)
retopos = cmds.listRelatives(sel[2]) # len(retopos)
retopos_BB_width = {}
retopos_BB_length = {}
retopos_BB_center = {}
patterns_BB_width = {}
patterns_BB_length = {}
patterns_BB_center = {}
# In case that uv doesn't exists.
cmds.select(retopos, r=1)
mel.eval("performPolyAutoProj 0;")
cmds.select(sel, r=1)
# In case wrong bb
for i in retopos:
cmds.polyMergeVertex(i, d=0.001)
# Matching
for i in retopos:
BB = cmds.polyEvaluate(i, b=1)
retopos_BB_width[i] = BB[0][1] - BB[0][0]
retopos_BB_length[i] = BB[1][1] - BB[1][0]
retopos_BB_center[i] = [(BB[0][1] + BB[0][0]) / 2,
(BB[1][1] + BB[1][0]) / 2]
for i in patterns:
BB = cmds.polyEvaluate(i, b=1)
patterns_BB_width[i] = BB[0][1] - BB[0][0]
patterns_BB_length[i] = BB[1][1] - BB[1][0]
patterns_BB_center[i] = [(BB[0][1] + BB[0][0]) / 2,
(BB[1][1] + BB[1][0]) / 2]
pair_pattern_retopo = {} # len(pair_pattern_retopo)
for i in patterns:
for j in retopos:
if abs(patterns_BB_width[i] - retopos_BB_width[j]) < 1 \
and abs(patterns_BB_length[i] - retopos_BB_length[j]) < 1 \
and abs(patterns_BB_center[i][0] - retopos_BB_center[j][0]) < 1 \
and abs(patterns_BB_center[i][1] - retopos_BB_center[j][1]) < 1:
pair_pattern_retopo[i] = j
for i in pair_pattern_retopo:
cmds.transferAttributes(i, pair_pattern_retopo[i], transferUVs=1)
for i in pair_pattern_retopo:
cmds.select(pair_pattern_retopo[i], i, r=1)
cmds.CreateWrap()
for i in pair_pattern_retopo:
pairGarment = i[:-8]
pattern = i
blendObjs = [pairGarment, pattern] # 0: target 1: origin
blendName = cmds.blendShape(blendObjs,
o='world',
n='clothTransfer#')
cmds.hide(sel[1])
cmds.displaySurface(sel[0], x=1)
cmds.hide(sel[1])
cmds.displaySurface(sel[0], x=1)
layerName = cmds.createDisplayLayer(n="garment#", e=1)
cmds.editDisplayLayerMembers(layerName, sel[0])
cmds.setAttr(layerName + '.displayType', 2)
def createJoints(self, *args):
# Calls to joints script to create joints
prefix = cmds.textField(self.prefixField, query=True, text=True)
fingerCount = cmds.intSliderGrp(self.fingerCount, q=True, v=True)
Joints.createJoints(prefix, fingerCount)
cmds.hide(cmds.ls(prefix + "_Loc_Grp"))
cmds.hide(cmds.ls(prefix + "_Secondary_Loc_Grp"))
def hideLookdevScene(*arg):
if cmds.objExists(grpName):
testVis = cmds.getAttr(grpName + '.visibility')
if testVis == True:
cmds.hide(grpName)
else:
cmds.showHidden(grpName)
else:
pass
def generateSpider(input_namespace, startTime, endTime):
'''
this function attaches all curves together, without replacing the orignal curves, using it as a motion path
for an animated spider. the animated spider is imported, and a simple expression links the U value of the motion
path to a rotation attribute on the spider rig, controlling its walk cycle. there is also a custom attribute on
the controller that appears with the spider rig, controlling the length of its steps as it walks.
'''
filePath = cmds.internalVar(
usd=True
) + 'SpiderGen/spider.ma' #the file path at which the spider model should exist
fileExists = cmds.file(filePath, q=True,
ex=True) #queries whether the file exists
if fileExists is True:
#selects all of the spiralling curves and connects them, providing a 'path' for the spiders movement.
cmds.select(str(input_namespace) + 'curve_spiral*')
curves = cmds.ls(selection=True)
path = cmds.attachCurve(curves,
n=str(input_namespace) + 'spiderpath',
rpo=False)
cmds.rebuildCurve(path, rt=3)
cmds.hide(path)
cmds.file(filePath, i=True)
#renames the spider and it's callable controllers so that they are using the current 'namespace'.
cmds.rename('SPIDER_RIG', str(input_namespace) + 'SPIDER_RIG')
cmds.rename('SCALE_HANDLE',
str(input_namespace) + 'CONTROLLER_ScaleMe')
cmds.rename('CONTROLLER', str(input_namespace) + 'CONTROLLER')
#selects the scale controller and the path and connects them to a path animation.
cmds.select(str(input_namespace) + 'CONTROLLER_ScaleMe', path)
cmds.pathAnimation(stu=startTime,
etu=endTime,
f=True,
fa='x',
ua='y',
name=str(input_namespace) + 'motionpath')
#creates a command that links the controller rotation to the 'length' of the animation.
command = str(input_namespace) + 'CONTROLLER.rotateX = ' + str(
input_namespace) + 'motionpath_uValue.output * ' + str(
(endTime - startTime) / 10)
#creates an expression of that command which is used for moving the legs as the spider moves around the path.
cmds.expression(name=str(input_namespace) + 'leg_movement',
alwaysEvaluate=True,
s=command)
else:
#an error window for if the file is not found
cmds.confirmDialog(
title='Error',
message='Spider Model not found, please ensure it located at: ' +
str(filePath),
button=['OK'],
cancelButton='OK')
return fileExists #so that the grouping functions know not to expect the spider model or motionpath
def animFixShape(fixShape):
objs=mc.ls(sl=1)
numVtx=mc.polyEvaluate(objs[1],v=1)
skinMeshShapes=mc.listRelatives(objs[1],s=1,pa=1)
skinMeshShapes1=mc.listRelatives(objs[1],s=1,ni=1,pa=1)
fixMeshShape=mc.listRelatives(objs[0],s=1,ni=1,pa=1)[0]
inputs=mc.listHistory(objs[1])
for i in skinMeshShapes:
if not i in skinMeshShapes1:
intermediateShape=i
break
BSNode=None
for n in inputs:
if 'animFixBS' in n and mc.nodeType(n)=='blendShape':
BSNode=n
if not BSNode:
BSNode=mc.blendShape(objs[1],parallel=1,n='animFixBS')[0]
if not mc.objExists('animFixCtrl'):
createCtrl()
mc.addAttr('animFixCtrl',ln=fixShape,at='double',min=0,max=1,dv=0,k=1)
weightAttrs=mc.listAttr(BSNode+'.weight',m=1)
weightListNum=0
if weightAttrs:
weightListNum=len(weightAttrs)
beforeFixMesh=mc.duplicate(objs[1],n='beforeFixMesh')[0]
buildBSMesh=mc.duplicate(objs[1],n='buildBlendShapeMesh')[0]
mc.hide(buildBSMesh)
buildBSMeshShapes=mc.listRelatives(buildBSMesh,s=1,pa=1)
buildBSMeshShapes1=mc.listRelatives(buildBSMesh,s=1,ni=1,pa=1)
for i in buildBSMeshShapes:
if not i in buildBSMeshShapes1:
buildBSMeshShape=i
break
mc.setAttr(buildBSMeshShape+'.intermediateObject',0)
mc.delete(buildBSMeshShapes1)
buildBSNode=mc.blendShape(beforeFixMesh,objs[0],buildBSMesh,foc=1,w=[(0,-1),(1,1)],n='buildFixBs')[0]
mc.blendShape(BSNode,e=1,t=[objs[1],weightListNum,buildBSMesh,1])
BSTargets=mc.listAttr(BSNode+'.weight',m=1)
mc.connectAttr('animFixCtrl.'+fixShape,BSNode+'.'+BSTargets[-1])
'''for i in range(0,numVtx):
ipos=mc.xform(intermediateShape+'.vtx[%d]'%i,q=1,os=1,t=1)
tPos=mc.xform(objs[0]+'.vtx[%d]'%i,q=1,os=1,t=1)
bPos=mc.xform(objs[1]+'.vtx[%d]'%i,q=1,os=1,t=1)
mc.xform(objs[0]+'.vtx[%d]'%i,os=1,t=[(ipos[0]+tPos[0]-bPos[0]),(ipos[1]+tPos[1]-bPos[1]),(ipos[2]+tPos[2]-bPos[2])])'''
mc.delete(beforeFixMesh)
#mc.deleteUI('animFixWin')
mc.setAttr('animFixCtrl.'+fixShape,1)
if not mc.objExists('targetShapesGrp'):
targetGrp=mc.group(em=1,n='targetShapesGrp')
mc.parent(targetGrp,'animFixGrp')
shapeTmpGrp=mc.group(buildBSMesh,objs[0],n=fixShape+'_TmpGrp')
mc.parent(shapeTmpGrp,'targetShapesGrp')
def _bakeObj(obj):
'''Bake animazione.'''
constrName = _getParentConstraint(obj)
constrExists = cmds.ls(constrName)
# se il constraint non esiste o non contiene keyframe esci
if not constrExists or cmds.keyframe(constrName, q=True, kc=True) == 0:
sys.stdout.write('Nothing to bake\n')
return
# primo frame
currentFrame = cmds.currentTime(q=True)
firstFrame = cmds.playbackOptions(q=True, ast=True)
cmds.currentTime(firstFrame)
# salva come lastFrame l'ultimo frame d'animazione del constraint o dell'oggetto
keyTimes = cmds.keyframe(obj, q=True, tc=True)
if not keyTimes:
keyTimes = cmds.keyframe(constrName, q=True, tc=True)
else:
keyTimes.extend(cmds.keyframe(constrName, q=True, tc=True))
lastFrame = max(keyTimes)
# se all'ultimo frame rimane attached oppure il corpo e' rigido allora usa animation end time
if max(cmds.keyframe(constrName, q=True, ev=True, t=(lastFrame, lastFrame))) > 0.0 or _getRigidBody(obj):
lastFrame = max(lastFrame, cmds.playbackOptions(q=True, aet=True))
# crea il locator
locatorName = obj + _locSfx
_setRootNamespace()
loc = cmds.spaceLocator(n=locatorName)[0]
cmds.hide(loc)
# trova il parent del gruppo PH
parent = cmds.listRelatives(_getParentHandle(obj), p=True)
if parent:
cmds.parent([loc, parent[0]])
# copia l'ordine degli assi
cmds.setAttr(loc + '.rotateOrder', cmds.getAttr(obj + '.rotateOrder'))
# copia matrice e pivot
cmds.xform(loc, m=cmds.xform(obj, q=True, m=True, ws=True), ws=True)
cmds.xform(loc, piv=cmds.xform(obj, q=True, rp=True, ws=True), ws=True)
# costringi il locator
constraint = cmds.parentConstraint(obj, loc, mo=True)[0]
# fai il bake
cmds.bakeResults(loc, at=['t', 'r'], sm=True, t=(firstFrame, lastFrame), dic=True, pok=True)
# cancella il constraint
cmds.delete(constraint)
# ripristina il frame precedente
cmds.currentTime(currentFrame)
def setObjectAsCanvas(name): cmds.polyEvaluate(f=True) subdivSurface = cmds.polyToSubdiv(maxPolyCount=cmds.polyEvaluate(f=True), maxEdgesPerVert=32, ch=False)[0] liveSurface = cmds.subdToNurbs(subdivSurface, ot=0, ch=False) cmds.delete(subdivSurface) cmds.hide(liveSurface) cmds.makeLive(liveSurface) return liveSurface
def toggle_hide_target(self, e=False):
if not self.target_name:
return
self._is_hidden = not self._is_hidden
if self._is_hidden:
cmds.hide(self.imported_nodes)
else:
cmds.showHidden(self.imported_nodes)
def render(self):
""" Starts the render """
try: # If MtoA was not found
defaultTranslator = cmds.getAttr("defaultArnoldDisplayDriver.aiTranslator")
except ValueError:
cmds.warning("Current renderer is not set to Arnold.")
return
cmds.setAttr("defaultArnoldDisplayDriver.aiTranslator", "aton", type="string")
# Updating the port from UI
if self.defaultPort != 0:
port = self.portSpinBox.value()
cmds.setAttr("defaultArnoldDisplayDriver.port", port)
else:
cmds.warning("Current renderer is not set to Arnold or Aton driver is not loaded.")
return
# Adding time changed callback
if self.timeChangedCB == None:
self.timeChangedCB = OM.MEventMessage.addEventCallback("timeChanged", self.timeChnaged)
# Adding selection changed callback
if self.selectionChangedCB == None:
self.selectionChangedCB = OM.MEventMessage.addEventCallback("SelectionChanged", self.selectionChanged)
try: # If render session is not started yet
cmds.arnoldIpr(mode="stop")
except RuntimeError:
pass
# Temporary makeing hidden cameras visible before scene export
hCams = [
x
for x in cmds.listCameras()
if not cmds.getAttr("%s.visibility" % x)
or not cmds.getAttr("%s.visibility" % cmds.listRelatives(x, s=1)[0])
]
for i in hCams:
cmds.showHidden(i)
try: # Start IPR
camera = self.getCamera()
cmds.arnoldIpr(cam=camera, mode="start")
except RuntimeError:
cmds.warning("Current renderer is not set to Arnold.")
# Update IPR
self.IPRUpdate()
sys.stdout.write("// Info: Aton - Render started.\n")
# Setting back to default
for i in hCams:
cmds.hide(i)
cmds.setAttr("defaultArnoldDisplayDriver.aiTranslator", defaultTranslator, type="string")
cmds.setAttr("defaultArnoldDisplayDriver.port", self.defaultPort)
def build(self):
'''
'''
super(Tongue, self).build()
jointList = eval(self.jointList)
self.spline = spline.SplineBase(jointList=jointList, splineName=self._splineName)
self.spline.create()
# Tongue Base
tonugeBaseNul, tonugeBaseCtrl = control.create(name="tonuge_base",
controlType=None,
color=common.RED,
hierarchy=['nul'])
matrix = mc.xform(jointList[0], q=True, ws=True, matrix=True)
mc.xform(tonugeBaseNul, ws=True, matrix=matrix)
# Parent the entire ik group to the neck
mc.parent(self.spline.getGroup(), tonugeBaseCtrl)
# tongue Mid
tonugeMidNul, tonugeMidCtrl = control.create(name="tonuge_mid",
controlType=None,
color=common.RED,
hierarchy=['nul'])
# move the middle control between the last the middle joints
mc.delete(mc.parentConstraint(jointList[-2], jointList[1], tonugeMidNul))
mc.parent(tonugeMidNul, tonugeBaseCtrl)
# tongue Tip
tonugeTipNul, tonugeTipCtrl = control.create(name="tonuge_tip",
controlType=None,
color=common.RED,
hierarchy=['nul'])
# make the tongue tip matches the last joint in the chain
matrix=mc.xform(jointList[-1], q=True, ws=True, matrix=True)
mc.xform(tonugeTipNul, ws=True, matrix=matrix)
clusters = self.spline._clusters
mc.parent(tonugeTipNul, tonugeMidCtrl)
mc.parent(clusters[2:], tonugeTipCtrl)
mc.orientConstraint(tonugeTipCtrl, self.spline._endTwistNul, mo=1)
#mc.parentConstraint(tonugeTipCtrl, self._skullBind, mo=1)
#mc.connectAttr(headCtrl+'.s', self._skullBind+'.s')
anchor = self.getAttributeByName('anchor').getValue()
if mc.objExists(anchor):
mc.parentConstraint(anchor, tonugeBaseNul, mo=1)
else:
mc.warning('Anchor object [ {} ] does not exist.'.format(anchor))
mc.parent(tonugeBaseNul, self.name)
mc.hide(self.spline._group, clusters)
def createMotionTrail(self, ctrls):
cmds.waitCursor(state=True)
self.saveTwistObjsInfo()
self.createMainGroup()
for loopCtrl in ctrls:
ctrlName = self.getCtrlName(loopCtrl)
groupNode = self.createCtrlGroup(ctrlName)
if not groupNode: continue
motionTrail = "%s_aTools_motionTrail" % ctrlName
offsetNode = "%s_aTools_offset" % ctrlName
currentLocators = [motionTrail, offsetNode]
for loopLocator in currentLocators:
animMod.createNull(loopLocator)
cmds.hide(currentLocators)
motionTrailList = self.createMotionTrailNode(offsetNode)
motionTrailTransform = motionTrailList[0]
motionTrailAttr = motionTrailList[1]
motionTrailNode = motionTrailList[2]
self.nodeInfo[ctrlName] = {
"ctrlNode": loopCtrl,
"offsetNode": offsetNode,
"groupNode": groupNode,
"motionTrailTransform": motionTrailTransform,
"motionTrailAttr": motionTrailAttr,
"motionTrailNode": motionTrailNode,
"lineColor": self.lineColorCycle.next()
}
with G.aToolsBar.createAToolsNode:
cmds.parent(offsetNode, motionTrail)
cmds.parent(motionTrail, groupNode)
cmds.parent(motionTrailTransform, groupNode)
cmds.parent(groupNode, self.mainGroupNode)
cmds.parentConstraint(loopCtrl, motionTrail)
if self.offsetCtrlsPosition.has_key(ctrlName):
offsetNodePosition = self.offsetCtrlsPosition[ctrlName][0]
if offsetNodePosition != (0, 0, 0):
cmds.setAttr("%s.translate" % offsetNode,
offsetNodePosition[0], offsetNodePosition[1],
offsetNodePosition[2])
self.makeDirty(ctrlName)
cmds.select(ctrls)
self.updateMotionTrail(lightningMode=True)
self.updateKeysTimes()
self.updateSortedRange()
cmds.waitCursor(state=False)
def setShaderBall():
shader = 'shd:shdBallShape'
shaderSGConn = cmds.listConnections(shader,
d=True,
et=True,
t='shadingEngine')
sg = shaderSGConn[0]
for geo in cmds.ls('*_GEO'):
cmds.sets(geo, edit=True, forceElement=sg)
cmds.hide(shader)
def ikHandle(name, jnt1, jnt2, parent=None): mc.select(jnt1, jnt2) ikh, eff = mc.ikHandle() mc.hide(ikh) if parent: ikh = mc.parent(ikh, parent)[0] ikh = mc.rename(ikh, name+"_ikh") eff = mc.rename(eff, name+"_eff") return ikh, eff
def hider(option, *args):
if option == 0:
mc.hide()
elif option == 1:
mc.select("*_ctrl*")
mc.hide()
elif option == 2:
mc.select("*_ctrl*")
mc.showHidden()
mc.select(clear=True)
def hide_modelDup(self):
#self.ui2.hideModel_pushButton()
if self.hideMD_button == 0:
for i in self.model_dup:
mc.hide(i)
self.hideMD_button = self.hideMD_button + 1
else:
for i in self.model_dup:
mc.showHidden(i)
self.hideMD_button = 0
def doLimbsSetUp():
initialSelecList = cmds.ls(sl=True)
for i in initialSelecList:
limbsSetUp(i)
#++ hide Extras ++#
cmds.hide('Extras')
def hide_model(self):
#self.ui2.hideModel_pushButton()
if self.hideM_button == 0:
for i in self.model:
mc.hide(self.model)
self.hideM_button = self.hideM_button + 1
else:
for i in self.model:
mc.showHidden(self.model)
self.hideM_button = 0
def renderAllLights(self, renderLights=[],useGroups=False):
lights = cmds.ls(dag=True,visible=True,lights=True, type='mentalrayIblShape')
#Check if there is any lights selected to only do those
if renderLights == [] or renderLights == None:
renderLights = cmds.ls( dag=True, sl=True , lights=True, type='mentalrayIblShape')
#if there isn't any light selected just get all the lights
if renderLights == []:
renderLights = lights
lightNames = ""
for light in renderLights:
lightNames = lightNames + light + '\n'
windowName = 'ProgressWindow'
if cmds.window(windowName, exists=True):
cmds.deleteUI(windowName)
window = cmds.window(windowName,t="Progress Report")
cmds.columnLayout()
cmds.iconTextStaticLabel( st='textOnly', l='Rendering Lights:' )
cmds.iconTextStaticLabel( st='textOnly', l=lightNames )
cmds.iconTextStaticLabel( st='textOnly', l='Process Bar' )
progressControl = cmds.progressBar(maxValue=len(renderLights), width=300)
cmds.showWindow( window )
lights = self.sortLightsByType(lights)
#-Revised--hide ibl node that is at the end of lights list (sorted previously)
if cmds.objectType( lights[-1], isType='mentalrayIblShape' ) == True:
cmds.setAttr('%s.visibleInFinalGather' % lights[-1], 0)
cmds.setAttr('%s.visibleInEnvironment' % lights[-1], 0)
cmds.hide(lights)
lightCount = 0
if useGroups==True:
renderLightsGroups = self.groupLightsByName(renderLights)
cmds.progressBar(progressControl,edit=True, maxValue=len(renderLightsGroups.keys()), width=300)
for group in renderLightsGroups:
self.renderOnlyThisLight(renderLightsGroups[group])
progressInc = cmds.progressBar(progressControl, edit=True, pr=lightCount+1)
lightCount+=1
else:
print renderLights
for light in renderLights:
self.renderOnlyThisLight(light)
progressInc = cmds.progressBar(progressControl, edit=True, pr=lightCount+1)
lightCount+=1
cmds.showHidden(lights)
#-Revised--since we sorted the lights by type we know that the lastone will be the IBL
if cmds.objectType( lights[-1], isType='mentalrayIblShape' ) == True:
cmds.setAttr('%s.visibleInFinalGather' % lights[-1], 1)
cmds.setAttr('%s.visibleInEnvironment' % lights[-1], 1)
def build(tailRootJoint="Jt_tail", tailCurve="tail_SpIK_CV", base=None):
tailRootCtrl = Control(prefix=removePrefix(tailRootJoint),
scale=8,
translateTo=tailRootJoint,
rotateTo=tailRootJoint,
parent=base.controlGrp,
lockChannels=["t", "s"])
cmds.parentConstraint(cmds.listRelatives(tailRootJoint,
p=True,
type="joint")[0],
tailRootCtrl.Off,
mo=True)
tailJoints = listJointHierarchy(tailRootJoint)
# cluster tail curve.
tailCurveCvs = cmds.ls(tailCurve + ".cv[*]", fl=1)
tailCurveClusters = []
for i in range(len(tailCurveCvs)):
cluster = cmds.cluster(tailCurveCvs[i],
n=tailCurve + "_cluster%d" % i)[1]
tailCurveClusters.append(cluster)
cmds.parent(tailCurve, base.noTransformGrp)
tailControls = []
for i in range(len(tailCurveCvs)):
ctrl = Control(prefix="tail" + "%s" % i,
translateTo=tailCurveClusters[i],
scale=3,
parent=base.controlGrp,
shape="octahedron")
ctrl.adjustControlPosition(x=0, y=8, z=0)
cmds.parentConstraint(tailRootCtrl.C, ctrl.Off, mo=True)
tailControls.append(ctrl)
for i in range(len(tailCurveCvs)):
cmds.parent(tailCurveClusters[i], tailControls[i].C)
tailIk = cmds.ikHandle(n=tailCurve + '_ikhandle',
sol='ikSplineSolver',
sj=tailJoints[0],
ee=tailJoints[-1],
c=tailCurve,
ccv=0,
parentCurve=0)[0]
cmds.parent(tailIk, base.ikGrp)
twistAt = 'twist'
cmds.addAttr(tailControls[-1].C, ln=twistAt, k=1)
cmds.connectAttr(tailControls[-1].C + ".%s" % twistAt, "%s.twist" % tailIk)
cmds.hide(tailControls[0].Off)
cmds.hide(tailCurveClusters)
def setGeo(sceneGeo):
#Freeze transformations
cmds.select(sceneGeo)
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
#Merges objects if more than one object to catch shadows
if len(sceneGeo) > 1:
for obj in sceneGeo:
noUnicode = unicode(obj)
newObjName = noUnicode + "_mergedForShadowCatcher"
print newObjName
print "More than one object. Merging objects"
cmds.select(sceneGeo)
hideMe = cmds.polyUnite(sceneGeo, n=newObjName)
cmds.hide(hideMe[0])
sillyString = "connectAttr -f {}Shape.outMesh shadowCatcherShape.inMesh;".format(
newObjName)
#Hide the original geo in all layers
renderlayers = cmds.ls(type="renderLayer")
print renderlayers
if u'default_light_rig:defaultRenderLayer' in renderlayers:
renderlayers.remove(u'default_light_rig:defaultRenderLayer')
print renderlayers
"""
# for legacy render-layers setup
for layer in renderlayers:
cmds.editRenderLayerGlobals( currentRenderLayer=layer )
cmds.hide( newObjName )
"""
#otherwise do just the one
else:
print "Only one object selected"
noUnicode = cmds.pickWalk(d='Down')
noUnicode = str(noUnicode[0])
sillyString = "connectAttr -f {}.outMesh shadowCatcherShape.inMesh;".format(
noUnicode)
#Hide the original geo in all layers
renderlayers = cmds.ls(type="renderLayer")
print renderlayers
if u'default_light_rig:defaultRenderLayer' in renderlayers:
renderlayers.remove(u'default_light_rig:defaultRenderLayer')
print renderlayers
print sillyString
mel.eval(sillyString)
def repurposeCtrls(ctrl):
import maya.cmds as mc
shapes = mc.listRelatives("%s_attrs" % ctrl, s=True)
for shape in shapes:
mc.parent(shape, ctrl, r=True, s=True)
mc.delete("%s_attrs_orig" % ctrl)
mc.hide("%sShape" % ctrl)
def toggle_hide_source(self, e=False):
if not cmds.ls(self.source_name):
return
self._is_hidden = not self._is_hidden
if self._is_hidden:
cmds.hide(self.source_name)
else:
cmds.showHidden(self.source_name)
cmds.select(self.source_name)
def resetVisiblity(self):
"""
Hide all top level nodes within the scene. This is the default state for
Sandwich to always hide everything before executing a render layer
NOTE: This is only a quick solution to hide all geometries in the scene.
We still need to iterate through each layer and hide their assigned object
in order to be certain that the visibility remains correctly.
"""
mc.hide(allObjects=True)
def _hide(self):
"""
Hides everything but the dynamic control.
"""
system = cmds.listRelatives(self.pos_group, ad=True)
for item in system:
if not re.search("DyCtrl|DyFKCtrl", item, re.I):
try:
cmds.hide(item)
except ValueError:
continue
def set_curves(self):
cmds.select(self.mesh)
# Fetching commands from mel LPC script.
# Since now don't want to rewrite on python
try:
mel.eval("setDeformGeom();")
except:
print 'LPC not loaded. Please, initialize it.'
a_objects = cmds.ls('*', flatten=True, transforms=True)
cmds.select(clear=True)
ctrl_grp = cmds.group(name=self.mesh + '_curve_ctrls', empty=True)
for region in self.data.keys():
locs = self.set_lpc_for_region(self.data[region])
if region != 'excluded':
curve_name = region + self.hi
if self.curve_vtx_match:
closest_vtx = '%s.vtx[%s]' % (
self.mesh, str(self.curve_vtx_match[region]))
init_loc = self.get_init_loc(closest_vtx, locs)
locs = self.order_locs(locs, init=init_loc)
else:
locs = self.order_locs(locs)
hi_curve = self.create_hi_curve(locs, region)
self.connect_locs_to_curve(locs, hi_curve)
low_curve = self.create_low_curve(region)
cmds.hide(hi_curve)
cmds.wire(hi_curve,
w=low_curve,
gw=0,
en=1,
ce=0,
li=0,
dds=[(0, 100)])
cmds.parent(low_curve, ctrl_grp)
# Not so handful, as I expected
# self.create_controls(low_curve)
b_objects = cmds.ls('*', flatten=True, transforms=True)
rig_objects = [o for o in b_objects if o not in a_objects]
self.rig_objects = rig_objects
if not self.curve_vtx_match:
for c in self.data.keys():
if c != 'excluded':
self.curve_vtx_match[c] = self.get_closest_vtx(
'%s_%s%s.cv[0]' % (self.mesh, c, self.low), self.mesh)
func.dict_io(self.save_dir + self.current_rig + self.match_prefix +
self.ext,
self.curve_vtx_match,
set=True)
def resetVisiblity(self):
"""
Hide all top level nodes within the scene. This is the default state for
Sandwich to always hide everything before executing a render layer
NOTE: This is only a quick solution to hide all geometries in the scene.
We still need to iterate through each layer and hide their assigned object
in order to be certain that the visibility remains correctly.
"""
mc.hide(allObjects = True)
def __init__(self, prefix='new'):
# global control
super(GlobalUnit, self).__init__(prefix='superMover',
curveShape='masterAnim')
mc.parent(self.unitControl.c, self.unit)
rigScalePlug = self.unitControl.c + '.global_scale'
mc.addAttr(self.unitControl.c,
ln='global_scale',
at='float',
dv=1,
h=0,
k=1)
for attr in self.unitControl.s:
mc.setAttr(attr, l=0)
mc.connectAttr(rigScalePlug, self.unitControl.c + '.sx')
#scale reciprocal
scaleRecip = node.recipNode(prefix='superMover',
inPlugOne=rigScalePlug)
self.recipPlug = scaleRecip + '.ox'
# groups
self.modelGrp = mc.group(n='model_grp', em=1)
self.deformGrp = mc.group(n='deform_grp', em=1)
mc.parent(self.modelGrp, self.deformGrp, self.unit)
# clean-up
for attr in ['t', 's', 'r']:
mc.setAttr(self.unit + '.' + attr, l=1, cb=0, k=0)
mc.hide(self.deformGrp)
mc.delete(
self.unitControl.c + 'Shape1.cv[0:10]',
self.unitControl.off,
)
self.unit = mc.rename(self.unit, prefix + '_grp')
self.unitControl.c = mc.rename(self.unitControl.c, 'superMover_ctl')
# root control
self.rootControl = control.Control(prefix='root',
colorIdx='',
curveShape='circleY',
scale=0.45)
mc.parent(self.rootControl.off, self.unitControl.c)
def editSkin(self): if self.editSkin_button.isChecked() : self.mainPage_stackedWidget.setCurrentIndex(2) self.editCharacter_button.setChecked(False) self.editModules_button.setChecked(False) for m in modules: cmds.showHidden(m+":posers") cmds.hide(m+":controls") else: self.editSkin_button.setChecked(True)
def showHideObjects(self, *args):
'''
'''
if self._IScontextTool._mObjectsToHide:
if len(self._IScontextTool._mObjectsToHide) > 0:
bHide = cmds.checkBox(self._IShideObjectsCbx, query = True, value = True)
if bHide:
cmds.hide(self._IScontextTool._mObjectsToHide)
else:
cmds.showHidden(self._IScontextTool._mObjectsToHide)
def initializeRibbon(initWidth):
mc.polyPlane(sx = 240, sy = 2.0, n = "ribbonTemp", w = initWidth, h = 0.165)
mc.rename("polyPlane1", "ribbonTempHistory")
mc.polySoftEdge( a = 180)
mc.lattice( n = 'ribbon', cp = True, dv = (2, 4, 2), objectDentered = True, ldv = (2, 3, 2), outsideLattice = True )
mc.hide()
mc.select('ribbonTempHistory.vtx[1]', r=True )
mc.ChamferVertex()
mc.rename( "polyChamfer1", "tempChamfer" )
mc.seAttr( 'tempChamfer.width', 1)
mc.delete( 'ribbonTemp.vtx[72]' )
return
def initializeBalloon(initRadius):
mc.polySphere(sx = 12, sy = 8, n = "balloonTemp", r = initRadius)
mc.rename( "polySphere1", "balloonTempHistory")
mc.polySoftEdge( a = 180 )
mc.lattice( n = 'balloon', cp = True, dv = (2, 4, 2), objectCentered = True, ldv = (2, 3, 2), outsideLattice = True )
mc.hide()
mc.select('balloonTemp.vtx[84]', r=True)
mc.ChamferVertex()
mc.rename( "polyChamfer1", "tempChamfer" )
mc.setAttr( 'tempChamfer.width', .1 )
mc.delete( 'balloonTemp.f[72]' )
return
def createMotionTrailNode(self, masterNode):
with G.aToolsBar.createAToolsNode:
motionTrailNode = cmds.createNode("motionTrail", name="%s_motionTrailNode"%masterNode, skipSelect=True)
motionTrailShape = cmds.createNode("motionTrailShape", skipSelect=True)
motionTrailTransform = cmds.rename(cmds.listRelatives(motionTrailShape, parent=True)[0], "%s_motionTrailTransform"%masterNode)
motionTrailAttr = "%s.points"%motionTrailNode
cmds.hide(motionTrailTransform)
cmds.connectAttr("%s.worldMatrix"%masterNode, "%s.inputMatrix"%motionTrailNode, force=True)
cmds.connectAttr("%s.points"%motionTrailNode, "%sShape.points"%motionTrailTransform, force=True)
return [motionTrailTransform, motionTrailAttr, motionTrailNode]
def hideUnselected(self):
hide = True
self.lastSelection = mc.ls(sl = 1)
for obj in mc.ls(o=1, typ= "transform"):
hide = True
decen = mc.listRelatives(obj, ad =1)
if decen == None:
decen = []
for obj2 in (decen + [obj]):
if obj2 in self.lastSelection:
print obj2, obj
hide = False
if hide:
mc.hide(obj)
def editModules(self): if self.editModules_button.isChecked() : self.mainPage_stackedWidget.setCurrentIndex(1) self.editCharacter_button.setChecked(False) self.editSkin_button.setChecked(False) self.update_modules_list() for m in modules: cmds.showHidden(m+":posers") cmds.hide(m+":controls") #cmds.setAttr(m+":skinJoints.template", 1) else: self.editModules_button.setChecked(True)
def runScript(self):
originalMesh = self.originalInput.text() # Get original Mesh
blendShapesList = []
allBlendShapeList = []
# List all blendshapes mesh added
for index in xrange(self.blendList.count()):
selectedItem = self.blendList.item(index)
blendShapesList.append(selectedItem.text())
# Create hierarchy
cmds.group(em=True, name="Geometry")
cmds.group(em=True, name="Deformers")
cmds.group(em=True, name="Blendshapes")
cmds.group(em=True, name="Wraps")
cmds.parent(originalMesh, "Geometry")
cmds.parent("Blendshapes", "Wraps", "Deformers")
cmds.parent("Deformers", "Geometry")
cmds.hide("Deformers")
# Create the mirrored Blendshape mesh
for blendShapes in blendShapesList:
cmds.duplicate(originalMesh, name=blendShapes + "_Mirored")
cmds.duplicate(blendShapes + "_Mirored", name=blendShapes + "_Inverted")
cmds.blendShape(blendShapes, blendShapes + "_Inverted", name=blendShapes + "_Inverted_Node")
cmds.select(blendShapes + "_Inverted", blendShapes + "_Mirored")
cmds.move(10, 0, 10)
cmds.select(blendShapes + "_Inverted")
if self.scaleXRadio.isChecked():
cmds.scale(-1, 1, 1)
elif self.scaleYRadio.isChecked():
cmds.scale(1, -1, 1)
elif self.scaleZRadio.isChecked():
cmds.scale(1, 1, -1)
cmds.select(cl=True)
self.createWrap(blendShapes + "_Inverted", blendShapes + "_Mirored")
cmds.blendShape(blendShapes + "_Inverted_Node", edit=True, w=[(0, 1)])
cmds.parent(blendShapes, "Blendshapes")
cmds.parent(blendShapes + "_Mirored", "Blendshapes")
cmds.parent(blendShapes + "_Inverted", "Blendshapes")
cmds.hide(blendShapes + "_Inverted")
cmds.parent(blendShapes + "_InvertedBase", "Wraps")
allBlendShapeList.append(blendShapes)
allBlendShapeList.append(blendShapes + "_Mirored")
# Apply all blendshapes on the original mesh
cmds.select(allBlendShapeList, originalMesh)
cmds.blendShape(cmds.ls(selection=True))
def _fixThis(ctrl, timeRange):
'''Fixa lo snap per questo controllo.'''
constrName = _getParentConstraint(ctrl)
# fixa il timerange corrente
if timeRange:
currentFrame = cmds.currentTime(q=True)
allKeyTimes = list(set(cmds.keyframe(constrName, q=True, time=(cmds.playbackOptions(q=True, min=True), cmds.playbackOptions(q=True, max=True)), timeChange=True)))
allKeyTimes.sort()
for t in allKeyTimes:
cmds.currentTime(t)
_fixThis(ctrl, False)
# ritorna al frame di prima
cmds.currentTime(currentFrame)
# fixa solo il frame corrente
else:
# se sono al primo frame o non ci sono keyframe in questo frame esci
firstFrame = cmds.playbackOptions(q=True, ast=True)
currentFrame = cmds.currentTime(q=True)
if currentFrame == firstFrame or cmds.keyframe(constrName, q=True, time=(currentFrame, currentFrame), timeChange=True) == None:
sys.stdout.write('Nothing to fix at frame %d\n' % currentFrame)
return
# target attivo
activeTarget = _getActiveAttachTarget(constrName)
# elimina le chiavi
selectConstraintNodes(ctrl)
cmds.cutKey(t=(currentFrame, currentFrame))
# se rigid body rivaluta dal primo frame
if _getRigidBody(ctrl):
# dummy locator (faccio il bake su di lui e lo cancello)
tempLoc = cmds.spaceLocator()[0]
cmds.hide(tempLoc)
# mi permette di riprodurre la simulazione dal primo frame fino a quello corrente
cmds.bakeResults(tempLoc, at=['t'], sm=True, t=(firstFrame, currentFrame), dic=True, pok=True)
cmds.delete(tempLoc)
# rifai il parent (detach o attach)
if not activeTarget:
cmds.select(ctrl)
detach()
else:
cmds.select([ctrl, activeTarget])
attach()
sys.stdout.write('Snap fixed at frame %d\n' % currentFrame)
def create_loarm_twist_setup(loarm, wrist, suffix, boneTwistAxis, reverseTwistVal=False):
'''
create_loarm_twist_setup('l_lowArm_joint', 'l_hand_joint', 'twist', 'x', reverseTwistVal=True)
'''
loArmTwist = nodeDuplicate(loarm, '%s_%s' % (loarm, suffix))
MC.makeIdentity(loArmTwist, apply=True, scale=True)
loArmTwistEnd = nodeDuplicate(loArmTwist, '%s_end' % loArmTwist)
MC.delete(MC.pointConstraint(wrist, loArmTwist))
MC.parent(loArmTwistEnd, loArmTwist)
MC.parent(loArmTwist, wrist)
twIkh = MC.ikHandle( n='%s_%s_ikh' % (loarm, suffix), sj=loArmTwist, ee=loArmTwistEnd, sol='ikSCsolver' )[0]
MC.parent(twIkh, loarm)
MC.hide(twIkh)
dist = MC.getAttr('%s.t%s' % (loArmTwistEnd, boneTwistAxis))/4
twJnt1 = nodeDuplicate(loArmTwist, '%s_1' % loArmTwist)
twJnt2 = nodeDuplicate(loArmTwist, '%s_2' % loArmTwist)
twJnt3 = nodeDuplicate(loArmTwist, '%s_3' % loArmTwist)
MC.parent(twJnt1, twJnt2, twJnt3, loArmTwist)
MC.setAttr('%s.t%s' % (twJnt1, boneTwistAxis), dist)
MC.setAttr('%s.t%s' % (twJnt2, boneTwistAxis), dist*2)
MC.setAttr('%s.t%s' % (twJnt3, boneTwistAxis), dist*3)
twMdn = MC.createNode('multiplyDivide', name='%s_mdn' % loArmTwist)
MC.connectAttr('%s.r%s' % (loArmTwist, boneTwistAxis), '%s.input1X' % twMdn)
MC.connectAttr('%s.r%s' % (loArmTwist, boneTwistAxis), '%s.input1Y' % twMdn)
MC.connectAttr('%s.r%s' % (loArmTwist, boneTwistAxis), '%s.input1Z' % twMdn)
revVal=0
if reverseTwistVal:
revVal = -1
else:
revVal = 1
MC.setAttr('%s.input2X' % twMdn, (.85*revVal))
MC.setAttr('%s.input2Y' % twMdn, (.6*revVal))
MC.setAttr('%s.input2Z' % twMdn, (.3*revVal))
MC.connectAttr('%s.outputX' % twMdn, '%s.r%s' % (twJnt1, boneTwistAxis))
MC.connectAttr('%s.outputY' % twMdn, '%s.r%s' % (twJnt2, boneTwistAxis))
MC.connectAttr('%s.outputZ' % twMdn, '%s.r%s' % (twJnt3, boneTwistAxis))
def createMotionTrail(self, ctrls):
cmds.waitCursor(state=True)
self.saveTwistObjsInfo()
self.createMainGroup()
for loopCtrl in ctrls:
ctrlName = self.getCtrlName(loopCtrl)
groupNode = self.createCtrlGroup(ctrlName)
if not groupNode: continue
motionTrail = "%s_aTools_motionTrail"%ctrlName
offsetNode = "%s_aTools_offset"%ctrlName
currentLocators = [motionTrail, offsetNode]
for loopLocator in currentLocators: animMod.createNull(loopLocator)
cmds.hide(currentLocators)
motionTrailList = self.createMotionTrailNode(offsetNode)
motionTrailTransform = motionTrailList[0]
motionTrailAttr = motionTrailList[1]
motionTrailNode = motionTrailList[2]
self.nodeInfo[ctrlName] = {"ctrlNode":loopCtrl, "offsetNode":offsetNode, "groupNode":groupNode, "motionTrailTransform":motionTrailTransform, "motionTrailAttr":motionTrailAttr, "motionTrailNode":motionTrailNode, "lineColor":self.lineColorCycle.next()}
with G.aToolsBar.createAToolsNode:
cmds.parent(offsetNode, motionTrail)
cmds.parent(motionTrail, groupNode)
cmds.parent(motionTrailTransform, groupNode)
cmds.parent(groupNode, self.mainGroupNode)
cmds.parentConstraint(loopCtrl, motionTrail)
if self.offsetCtrlsPosition.has_key(ctrlName):
offsetNodePosition = self.offsetCtrlsPosition[ctrlName][0]
if offsetNodePosition != (0,0,0): cmds.setAttr("%s.translate"%offsetNode, offsetNodePosition[0], offsetNodePosition[1], offsetNodePosition[2])
self.makeDirty(ctrlName)
cmds.select(ctrls)
self.updateMotionTrail(lightningMode=True)
self.updateKeysTimes()
self.updateSortedRange()
cmds.waitCursor(state=False)
def createThumbnail( mayafile , mode = 'nonExport' ):
if mode == 'export':
sel = cmds.ls(sl=1 , dag=True , type = 'mesh')
usel = cmds.ls(sl=False )
cmds.hide(usel)
for x in sel:
cmds.showHidden( x , above = True )
jpgfile = os.path.dirname( mayafile ) + os.sep + '.lib' + os.sep + '.'+ os.path.splitext( os.path.basename(mayafile) )[0] +'.jpg'
currFrame = int( cmds.currentTime( q = True ) )
# currFrame = int( (cmds.playbackOptions(q=1,min=1) + cmds.playbackOptions(q=1,max=1) ) / 2 )
format = cmds.getAttr("defaultRenderGlobals.imageFormat")
cmds.setAttr("defaultRenderGlobals.imageFormat", 8)
cmds.playblast(frame=currFrame, format="image", completeFilename=str( jpgfile ),
showOrnaments=False, viewer=False, widthHeight=[150, 100], percent=100 , os=1 )
cmds.setAttr( "defaultRenderGlobals.imageFormat", format )
# if mode == 'export' :
# cmds.showHidden( all = True )
return jpgfile
def renderOnlyThisLight(self, lights):
if type(lights)!=list:
lights = [lights]
lightNames =''
for light in lights:
lightNames += '_'+cmds.listRelatives(light, p=1)[0]
wasHidden = False
if self.isLightHidden(light) :
cmds.showHidden(light)
wasHidden = True
#-Revise!--if it is an ibl light then turn off emit Final Gather
if cmds.objectType( light, isType='mentalrayIblShape' ) == True:
if cmds.getAttr('%s.visibleInFinalGather' % light) == False:
cmds.setAttr('%s.visibleInFinalGather' % light, 1)
wasHidden = True
mel.eval("renderIntoNewWindow render")
#See if we are rendering with vray frame buffer and save it to the maya render buffer
if cmds.getAttr('defaultRenderGlobals.currentRenderer') == 'vray':
if self.isRenderEngineInstalled('vray'):
if cmds.getAttr ("vraySettings.vfbOn"):
mel.eval("vrend -cloneVFB")
rv = cmds.getPanel(scriptType='renderWindowPanel')
caption = cmds.renderWindowEditor(rv, query=True, pca=True)
newCaption = caption+' contriburion of '+lightNames.replace('_',' ')
cmds.renderWindowEditor(rv, edit=True, pca= newCaption)
# save the frame in mel
mel.eval("renderWindowMenuCommand keepImageInRenderView renderView;")
if self.saveImages:
self.saveCurrentImageInRenderView('contributionOf'+lightNames)
for light in lights:
if wasHidden:
cmds.hide(light)
#-Revise!-- if it was the ibl node disable final gather again
if cmds.objectType( light, isType='mentalrayIblShape' ) == True:
cmds.setAttr('%s.visibleInFinalGather' % light, 0)
def convert_jsShoulderRigToFK():
for side in ['l', 'r']:
# Delete existing IK shoulder rig
ikh = '%s_shoulder_skin_handle' % side
if MC.objExists(ikh):
MC.delete(ikh)
ctrl = '%s_shoulder_anim' % side
MC.lockNode(ctrl, lock=False)
MC.delete(ctrl)
# Duplicate shoulder skin joint to make Fk shoulder control
shldrSkin = '%s_shoulder_skin' % side
shldrCtrl = MC.duplicate(shldrSkin, rr=True)[0]
MC.delete(MC.listRelatives(shldrCtrl, f=True, children=True))
shldrCtrl = MC.rename(shldrCtrl, shldrCtrl.replace('skin1', 'anim'))
shldrAtt = MC.duplicate(shldrCtrl, rr=True)[0]
shldrAtt = MC.rename(shldrAtt, '%s_att' % shldrCtrl)
MC.parent(shldrCtrl, shldrAtt)
shldrEnd = MC.duplicate('%s_shoulder_end_joint' % side, rr=True)[0]
shldrEnd = MC.rename(shldrEnd, '%s_end' % shldrCtrl)
MC.parent(shldrEnd, shldrCtrl)
MC.hide(shldrSkin)
MC.orientConstraint(shldrCtrl, shldrSkin)
ctrlHdl = MC.circle(ch=False,nr=[0,0,1],r=8)
ctrlHdlShp = MC.listRelatives(ctrlHdl, shapes=True)
ctrlHdlShp = MC.rename(ctrlHdlShp, '%sShape' % shldrCtrl)
MC.parent(ctrlHdlShp, shldrCtrl, r=True, s=True)
MC.delete(ctrlHdl)
MC.select('%s.cv[0:7]' % ctrlHdlShp)
if 'l' in side:
MC.move(9,0,0, relative=True)
elif 'r' in side:
MC.move(-9,0,0, relative=True)
MC.connectAttr('%s.sx' % shldrCtrl, '%s.sx' % shldrSkin)
for attr in ['tx', 'ty', 'tz', 'sy', 'sz']:
MC.setAttr('%s.%s' % (shldrCtrl, attr), lock=True, keyable=False)
def subCam(mainCam, camName):
"""Generate the stack of child cameras and parent
under mainCam from the calling operation."""
# Handheld1 - first layer of handheld motion
cmds.camera(
displayGateMask=True,
filmFit='overscan',
overscan=1.0
)
handCam1 = cmds.rename(camName + '_handheld_1')
cmds.parent(handCam1, mainCam, relative=True)
connectAtt(mainCam, handCam1)
cmds.hide()
# Handheld2 - second layer of handheld motion
cmds.camera(
displayGateMask=True,
filmFit='overscan',
overscan=1.0
)
handCam2 = cmds.rename(camName + '_handheld_2')
cmds.parent(handCam2, handCam1, relative=True)
connectAtt(handCam1, handCam2)
# Shake1 - first layer of shake vibration
cmds.camera(
displayGateMask=True,
filmFit='overscan',
overscan=1.0
)
shakeCam1 = cmds.rename(camName + '_shake_1')
cmds.parent(shakeCam1, handCam2, relative=True)
connectAtt(handCam2, shakeCam1)
# Shake2 - second layer of shake vibration
cmds.camera(
displayGateMask=True,
filmFit='overscan',
overscan=1.0
)
shakeCam2 = cmds.rename(camName + '_shake_2')
cmds.parent(shakeCam2, shakeCam1, relative=True)
connectAtt(shakeCam1, shakeCam2)
def doRelease(self):
# print "RELEASED"
self.isMouseDown = False
if(self.deltaFront != 0):
app().activeDocument.document().resizeSelection(self.deltaFront)
if(self.deltaBack != 0):
app().activeDocument.document().resizeSelection(self.deltaBack)
m = Mom()
m.strandsSelected(self.helicesNames, (True, True))
cmds.hide(helixManip.transformName)
self.frontDistance = 0
self.backDistance = 0
return OpenMaya.kUnknownParameter
def trafficLights(street,size,daytime):
'''
Creates traffic lights for the city.
street: An object of the class Street, which is the root node of the binary
tree that makes up the street structure for the city.
size: Tuple that contains the x- and z-components for the size of the city.
daytime: Boolean variable which is true if it is day and false if it is night.
On exit: Traffic lights polygonal objects of each type ("R", "G", "Y", "RY") have
been created using makeTrafficLight(...) and instances placed using
placeTrafficLights(...).
'''
RedLightGeom = makeTrafficLight("R")
RedYellowLightGeom = makeTrafficLight("RY")
YellowLightGeom = makeTrafficLight("Y")
GreenLightGeom = makeTrafficLight("G")
cmds.group(RedLightGeom[0], RedYellowLightGeom[0], YellowLightGeom[0], GreenLightGeom[0], name = "trafficLights")
placeTrafficLights(street, [RedLightGeom,RedYellowLightGeom,YellowLightGeom,GreenLightGeom], size)
cmds.hide(RedLightGeom[0],RedYellowLightGeom[0],YellowLightGeom[0],GreenLightGeom[0])
def toggleMaskActive(self, mode):
try:
cmds.undoInfo(openChunk=True)
if mode:
cmds.showHidden(self.controls)
cmds.showHidden(self.maskGeo)
#hide all movers
cmds.hide(self.faceModule.jointMovers)
#TODO: Need to check if the constraints were deleted and re-add them
'''for mover in self.faceModule.jointMovers:
sdk = cmds.listConnections(mover + '.sdk')[0]
sdkParent = cmds.listRelatives(sdk, parent = True)[0]
lra = cmds.listConnections(mover + '.lra')[0]
cmds.parentConstraint(lra, sdkParent)'''
print 'MASK: ACTIVATED'
else:
#show joint movers
cmds.showHidden(self.faceModule.jointMovers)
#hide the mask controls and mesh
cmds.hide(self.controls)
cmds.hide(self.maskGeo)
print 'MASK: DEACTIVATED'
except Exception as e:
print(traceback.format_exc())
finally:
cmds.undoInfo(closeChunk=True)
def Animposecam(sel_obj):
# if mc.objExists('poseLibCaptureCamera'):
# mc.delete('poseLibCaptureCamera')
if not mc.objExists('poseLibCaptureCamera'):
CurrentPanel = mc.getPanel(withFocus=True)
#print CurrentPanel
if mc.getPanel(to=CurrentPanel!= "modelPanel") :
visPanel = mc.getPanel(vis=True)
for name in visPanel:
modelPanels= mc.getPanel(type= 'modelPanel')
if mc.getPanel (to = name == "modelPanel"):
mc.setFocus(name)
CurrentPanel = name
break
if mel.eval('catch(`modelPanel -q -cam %s`)'%CurrentPanel):
CurrentCamera = "persp"
else:
CurrentCamera = mc.modelPanel(CurrentPanel,q=1,cam=1)
campos= mc.camera(CurrentCamera,q=1,position=1)
camrot= mc.camera(CurrentCamera,q=1,rotation=1)
camwup= mc.camera(CurrentCamera,q=1,worldUp =1)
camcoi= mc.camera(CurrentCamera,q=1,coi=1)
focal = mc.camera(CurrentCamera,q=1,fl=1)
camShapeNode = mc.createNode("camera")
camTopNode = mc.listRelatives(camShapeNode,p=1)
mc.rename (camTopNode[0] ,'poseLibCaptureCamera')
mc.hide('poseLibCaptureCamera')
focalLengthTmp = 200
nearClipTmp = .1
farClipTmp = 10000
mc.camera('poseLibCaptureCamera',e=1,
position =[campos[0],campos[1],campos[2]],
rotation =[camrot[0],camrot[1],camrot[2]],
worldUp =[camwup[0],camwup[1],camwup[2]],
fl = focalLengthTmp,
nearClipPlane = nearClipTmp,
farClipPlane = farClipTmp)
AnimposeCreateWindow(sel_obj)
def hdri_render_main(self):
if self.current_renderer not in self.accepted_renderers:
cmds.inViewMessage(amg="This feature currently supports Vray, Arnold or Redshift renderers only",
pos="botCenter", fade=True)
return
if self.render_position == "object": # will render from object(s) centre
if not self.render_geo:
cmds.inViewMessage(amg="Please Select an Object from which to render HDRI View",
pos="botCenter", fade=True)
return
else:
# get averaged centre of selected objects
x, y, z = 0, 0, 0
for geo in self.render_geo:
xyz = cmds.objectCenter(geo)
x += xyz[0]
y += xyz[1]
z += xyz[2]
objs_centre = x / len(self.render_geo), y / len(self.render_geo), z / len(self.render_geo)
cmds.hide(self.render_geo) # hide objects while rendering
# zero out any camera rotations and reposition to objects centre if needed
cmds.setAttr("%s.rotate" % self.render_camera, 0, 0, 0)
if self.render_position == "object":
cmds.setAttr("%s.translate" % self.render_camera, objs_centre[0], objs_centre[1], objs_centre[2])
if self.current_renderer == "vray":
self.vray_render()
if self.current_renderer == "redshift":
self.redshift_render()
if self.current_renderer == "arnold":
self.arnold_render()