def hierarchyBetween(*args,**keywords):
sel=[]
type=''
if len(args)==0:
sel=mc.ls(sl=True)
for a in args:
if isIterable(a):
sel.extend(a)
else:
sel.append(a)
for k in keywords:
if k=='t' or k=='type':
type=keywords[k]
elif k in locals():
exec(k+'=keywords[k]')
shortNames=mc.ls(sel,sn=True)
longNames=mc.ls(sel,l=True)
if shortNames[0] not in longNames[-1].split('|'):
shortNames.reverse()
longNames.reverse()
hierarchy=longNames[-1].split('|')
if shortNames[0] not in hierarchy: return []
hierarchyBetween=[]
for i in range(hierarchy.index(shortNames[0]),len(hierarchy)):
if type=='':
h=mc.ls('|'.join(hierarchy[:i+1]))
else:
h=mc.ls('|'.join(hierarchy[:i+1]),type=type)
if isIterable(h) and len(h)>0:
hierarchyBetween.append(h[0])
return hierarchyBetween
def shape(*args,**keywords):
all=False
shortNames={
'a':'all'
}
for k in keywords:
if k in shortNames:
exec(shortNames[k]+'=keywords[k]')
if k in locals():
exec(k+'=keywords[k]')
if len(args)==0: args=iterable(mc.ls(sl=True))
sel=[]
for a in args:
if isIterable(a) or mc.objExists(a):
sel.append(mc.ls(a,o=True))
shapes=[]
for s in sel:
sh=iterable(mc.ls(s,s=True))
if len(sh)==0:
sh=mc.listRelatives(s,c=True,s=True,ni=True)
if len(iterable(sh))>0:
if all:
shapes.append(sh)
else:
shapes.append(sh[0])
if len(shapes)==1:
return shapes[0]
elif len(shapes)==0:
return ''
else:
return shapes
def __init__(self, *args, **keywords):
# default options
self.world = ""
self.parents = []
name = ""
self.scale = True
self.enumNames = []
self.enumNames = {
"s": "scale",
"w": "world",
"p": "parents",
"n": "name",
"ps": "ParentSpace",
"en": "enumNames",
}
# attributes
self[:] = []
self.child = ""
self.currentParent = ""
self.parentConstraint = ""
self.scaleConstraint = ""
for k in keywords:
if k in self.__dict__:
exec("self." + k + "=keywords[k]")
elif k in self.enumNames:
exec("self." + enumNames[k] + "=keywords[k]")
self.enumNames = iterable(self.enumNames)
sel = []
if len(args) == 0:
sel = mc.ls(sl=True)
for a in args:
if isIterable(a):
for aa in a:
if mc.objExists(a):
sel.append(mc.ls(a))[0]
elif mc.objExists(a):
sel.append(mc.ls(a)[0])
if (len(sel) > 0 or self.child != "") and len(self) == 0:
if self.child == "":
self.child = sel[0]
if mc.objExists(self.child + ".zenParentSpace") and mc.connectionInfo(
self.child + ".zenParentSpace", id=True
):
self.append(mc.listConnections(sel[0] + ".zenParentSpace", s=True, d=False)[0])
else:
self.create(n=name)
if len(sel) > 1:
self.addParents(en=self.enumNames, *sel[1:])
self.setParent(sel[-1])
def distanceBetween(*args): # distance between two points
if len(args) == 0:
args = mc.ls(sl=True)
if len(args) == 0:
return
p = []
for a in args:
if isIterable(a) and len(a) >= 3 and isinstance(a[0], (float, long, int)) and len(a) >= 3:
p.append(a)
elif isinstance(a, basestring) and mc.objExists(a):
if len(a.split(".")) > 1:
try:
p.append(mc.pointPosition(a))
except:
pass
else:
try:
p.append(mc.pointPosition(a + ".rp"))
except:
err = True
if len(p) < 1:
return
if len(p) > 2:
p[:] = p[:2]
dx = abs(p[0][0] - p[1][0])
dy = abs(p[0][1] - p[1][1])
dz = abs(p[0][2] - p[1][2])
return sqrt(dx * dx + dy * dy + dz * dz)
def listNodeConnections(*args,**keywords): s=True d=True sn=False sel=[] if len(args)==0: sel=mc.ls(sl=True) for a in args: if isIterable(a): sel.extend(a) else: sel.append(a) for k in keywords: if k=='s' or k=='source': s=keywords[k] if k=='d' or k=='destination': d=keywords[k] if k=='sn' or k=='shortName': sn=keywords[k] elif k in locals(): exec(k+'=keywords[k]') connections=[] for conn in removeDuplicates(mc.listConnections(sel[0],s=s,d=d,p=True)): if len(sel)==1 or mc.ls(conn,o=True)[0]==sel[1]: if mc.connectionInfo(conn,isSource=True): for dfs in mc.connectionInfo(conn,dfs=True): if mc.ls(dfs,o=True)[0]==sel[0]: if sn: connections.append\ ( [ mc.ls(conn,o=True)[0]+'.'+mc.listAttr(conn,sn=True)[0], mc.ls(dfs,o=True)[0]+'.'+mc.listAttr(dfs,sn=True)[0] ] ) else: connections.append([conn,dfs]) if mc.connectionInfo(conn,id=True): sfd=mc.connectionInfo(conn,sfd=True) if mc.ls(sfd,o=True)[0]==sel[0]: if sn: connections.append\ ( [ mc.ls(sfd,o=True)[0]+'.'+mc.listAttr(sfd,sn=True)[0], mc.ls(conn,o=True)[0]+'.'+mc.listAttr(conn,sn=True)[0] ] ) else: connections.append([sfd,conn]) return removeDuplicates(connections)
def removeAll(removeList, origList): if not isIterable(origList): if isinstance(origList,(basestring,float,int,long)): origList=[origList] else: return [] if not isIterable(removeList): if isinstance(removeList,(basestring,float,int,long)): removeList=[removeList] else: return [] returnVal=[] if isIterable(removeList): for o in origList: if o not in removeList: returnVal.append(o) return returnVal
def addAutoFlex(self,mirror=True,pose={},**keywords):
"Adds an auto-flex pose from the current pose or a dictionary of attribute/value pairs."
self.bindPose= mc.dagPose(self.Muscle,q=True,bp=True)[0]
self.root=mc.dagPose(self.bindPose, q=True, m=True )[0]
startPose=mc.dagPose(self.root,s=True)#store current pose
plug=mel.eval('zenFirstOpenPlug("'+self.Handle+'.zenAutoFlex")')
verified=False
attributes={}
poses=[]
success=True
offBindPoseJointCount=0
dp=mc.dagPose(self.bindPose,q=True,ap=True)
if isIterable(dp):
offBindPoseJointCount=len(dp)
if(offBindPoseJointCount>0 and len(pose)==0): #create an auto-flex pose from the current position
command='rigZenMuscleAddAutoFlex("'+self.Handle+'",'+str(int(mirror))+')'
plug=mel.eval(command)
elif(len(pose)>0):
success=self.goToPose(**pose)
if(success):
try:
plug=mel.eval('rigZenMuscleAddAutoFlex("'+self.Handle+'",'+str(int(mirror)*self.getAxis())+')')
except:
success=False#raise Warning('Could not add auto flex pose for '+self.Muscle)
if success:
for k in keywords:
attr='zenAutoFlex['+str(plug)+'].'+str(k)
conn=mc.listConnections((self.Handle+'.'+attr),s=True,d=False,p=True)
if isIterable(conn) and len(conn)>0 and mc.ls(conn[0],o=True)[0]==mc.ls((self.Handle+'.'+attr),o=True)[0]:
attr=conn[0].split('.')[-1]
attributes[str(attr)]=keywords[k]
self.setAttributes(**attributes)
success=self.goToPose(startPose)
else:
self.goToPose(startPose)
mc.delete(startPose)
return success
def iterable(arg): if type(arg).__name__=='NoneType': return [] if not isIterable(arg): if isinstance(arg,(basestring,float,int,long)): return [arg] else: return [] else: return arg
def getInfluences(self):
#get influence objects
self.influences=list()
self.allCurves=list()
if(not mc.objExists(self.Handle+'.zmi[0].zmim')): return
for i in range(0,len(mc.ls(self.Handle+'.zmi[*]'))):
self.influences.append(dict())
self.influences[i]['mesh']=str(mc.listConnections(self.Handle+'.zmi['+str(i)+'].zmim',sh=True)[0])
self.influences[i]['curves']=list()
self.influences[i]['edges']=list()
self.influences[i]['parents']=list()
for c in mc.ls(self.Handle+'.zmi['+str(i)+'].zmics[*]'):
if( isinstance(mc.listConnections(c+'.zmic'),list) and len(mc.listConnections(c+'.zmic'))>0):
curve=mc.listConnections(c+'.zmic')[0]
self.influences[i]['curves'].append(curve)
self.allCurves.append(curve)
edgeList=[]
index=c.split('[')[(len(c.split('['))-1)].split(']')[0]
edgeIndices=mc.getAttr(c+'.zmie')[0]
if( len(self.influences[i]['mesh'])>0 ):
for e in edgeIndices:
edgeList.append(self.influences[i]['mesh']+'.e['+str(int(e))+']')
self.influences[i]['edges'].append(edgeList)
parentDictionary={}
pc=mc.parentConstraint(curve,q=True)
if(isinstance(pc,basestring)):
parents=mc.parentConstraint(pc,q=True,tl=True)
parentWeights=mc.parentConstraint(parents,pc,w=True,q=True)
if not isIterable(parents): parents=[parents]
if not isIterable(parentWeights): parentWeights=[parentWeights]
for ppc in range(0,len(parents)):
pcName=parents[ppc]
pcWeight=parentWeights[ppc]
if isinstance(pcName,basestring) and len(pcName) and isinstance(pcWeight,(float,int,long)):
parentDictionary[pcName]=pcWeight
else:
parents=mc.listRelatives(curve,p=True)
if(isinstance(parents,list) and len(parents)>0):
parentDictionary[parents[0]]=1
self.influences[i]['parents'].append(parentDictionary)
def generateScript():
sel=mc.ls("*.zenMuscleInputs",o=True,sl=True)
if not isIterable(sel) or len(sel)==0:
sel=mc.ls("*.zenMuscleInputs",o=True)
if not isIterable(sel):
raise('You must select one or more muscles or Muscle Handle from which to generate creation scripts.')
returnVal=''
completed=[]
for m in sel:
myMuscle=Muscle(m)
if myMuscle.Muscle not in completed:
returnVal+=myMuscle.generateScript()
completed.append(myMuscle.Muscle)
if('opposite' in myMuscle.__dict__):
completed.append(myMuscle.opposite.Muscle)
if len(returnVal)>0:
returnVal='import maya.mel as mel\nmel.eval("source zenTools")\nimport zen\n'+returnVal
mel.eval('zenDisplayText("Muscle Script","'+mc.encodeString(returnVal)+'")')
return returnVal
def removeDuplicates(iterable): if not isIterable(iterable): if isinstance(iterable,(basestring,float,int,long)): return [iterable] else: return [] returnVal=[] for item in iterable: if item not in returnVal: returnVal.append(item) return returnVal
def melEncode(arg):
if isinstance(arg,basestring):
return '"'+mc.encodeString(arg)+'"'
elif isIterable(arg):
returnVal='{'
for i in range(0,len(arg)):
if(isIterable(arg[i])):
returnVal+='"'
for n in range(0,len(arg[i])):
returnVal+=str(arg[i][n])
if n<len(arg[i])-1 and len(str(arg[i][n]))>0:
returnVal+=','
returnVal+='"'
else:
returnVal+=melEncode(arg[i])
if i<len(arg)-1 and len(str(arg[i]))>0:
returnVal+=','
returnVal+='}'
return returnVal
return unicode(arg)
def set(self,val):
if self.type=='vector':#vectors must be explicitly set
if isIterable(val):
if isIterable(val[0]):
self.array=True
valString='{'
for i in range(0,len(val)):
valString+='<<'+unicode(val[i][0])+','+unicode(val[i][1])+','+unicode(val[i][2])+'>>'
if i<(len(val)-1): valString+=','
else: valString+='}'
else:
valString='<<'+unicode(val[0])+','+unicode(val[1])+','+unicode(val[2])+'>>'
else:
if isIterable(val):
self.array=True
if len(val)>0:
testVal=val[0]
else:
testVal=''
else:
testVal=val
if isinstance(testVal,basestring):
self.type='string'
if isinstance(testVal,(int,long,float)):
if self.type!='' and self.type in ['int','float']: pass
else:
if isinstance(testVal,float): self.type='float'
else: self.type='int'
valString=melEncode(val)
cmd=self.type+' '+self.name
if self.array: cmd+='[]'
cmd+='='+valString
return mel.eval(cmd)
def goToDagPose(*args,**keywords):
bindPose=False
shortNames={'bp':'bindPose'}
for k in keywords:
if k in locals():
exec(k+'=keywords[k]')
if k in shortNames:
exec(shortNames[k]+'=keywords[k]')
sel=[]
if len(args)==0:
sel=mc.ls(sl=True)
for a in args:
if isIterable(a):
sel.extend(a)
else:
sel.append(a)
if len(iterable(mc.ls(sel,type='dagPose')))==0 or bindPose:
sel=removeDuplicates(mc.dagPose(mc.listConnections(mc.ls(mc.listHistory(sel)),type='transform'),q=True,bp=True))
if len(sel)==0: return
mel.eval('DisableAll')
success=True
err=True
for i in range(0,10):
try:
mc.dagPose(sel[0],r=True)
err=False
break
except:
err=True
mel.eval('EnableAll')
if err and len(iterable(mc.dagPose(q=True,ap=True))):
success=False
if success: return sel[0]
else: return
def sortBy(*args,**keywords):
sorted=[]
sel=[]
if len(args)==1:
if isIterable(args[0]) and len(args[0])>1:
sorted=list(args[0][-1])
sel=list(args[0][0])
inputType=type(args[0][0]).__name__
else:
return
elif len(args)>1:
sorted=list(args[-1])
sel=list(args[0])
inputType=type(args[0]).__name__
l=sorted[:]
for s in l:
if s not in sel:
sorted.remove(s)
unsorted=sel[0:0]
for s in sel:
if s not in sorted:
unsorted=unsorted+[s]
if inputType=='str' or inputType=='unicode':
unsorted=''.join(unsorted)
sorted=''.join(sorted)
elif inputType=='dict':
sorted=list(sorted)
unsorted=list(unsorted)
else:
exec('sorted='+inputType+'(sorted)')
exec('unsorted='+inputType+'(unsorted)')
return(sorted+unsorted)
def sortBy(*args, **keywords):
sorted = []
sel = []
if len(args) == 1:
if isIterable(args[0]) and len(args[0]) > 1:
sorted = list(args[0][-1])
sel = list(args[0][0])
inputType = type(args[0][0]).__name__
else:
return
elif len(args) > 1:
sorted = list(args[-1])
sel = list(args[0])
inputType = type(args[0]).__name__
l = sorted[:]
for s in l:
if s not in sel:
sorted.remove(s)
unsorted = sel[0:0]
for s in sel:
if s not in sorted:
unsorted = unsorted + [s]
if inputType == 'str' or inputType == 'unicode':
unsorted = ''.join(unsorted)
sorted = ''.join(sorted)
elif inputType == 'dict':
sorted = list(sorted)
unsorted = list(unsorted)
else:
exec('sorted=' + inputType + '(sorted)')
exec('unsorted=' + inputType + '(unsorted)')
return (sorted + unsorted)
def normalize(*args):#normalize a vector
aa=[]
v=[]
for a in args:
if isIterable(a):
aa.extend(a)
else:
aa.append(a)
for a in aa:
if isinstance(a,(float,int,long)):
v.append(float(a))
if len(v)<3:
raise Exception('normalize requires an input of 3 numbers')
if len(v)>3: v[:]=v[:3]
factor=1.0
vLen=v[0]*v[0]+v[1]*v[1]+v[2]*v[2];
if vLen==0: return
factor=1.0/sqrt(vLen)
if factor!=1.0:
v[0]*=factor
v[1]*=factor
v[2]*=factor
return v
def addInfluences(self, *influences, **keywords):
controlObjects = [""]
baseShapes = [""]
wrapSmoothness = [1]
nurbsSamples = [10]
smooth = -1
smoothType = 0
influences = list(influences)
shortNames = {"co": "controlObjects"}
for k in keywords:
if k in locals():
exec(k + "=keywords[k]")
elif k in shortNames:
exec(shortNames[k] + "=keywords[k]")
controlObjects = iterable(controlObjects)
baseShapes = iterable(baseShapes)
wrapSmoothness = iterable(wrapSmoothness)
nurbsSamples = iterable(nurbsSamples)
if self.influences == influences:
self.influences = []
else:
influencesHold = influences
for inf in influencesHold:
if inf in self.influences:
influences.remove(inf)
else:
self.influences.append(inf)
while len(controlObjects) < len(influences):
controlObjects.append(controlObjects[-1])
while len(baseShapes) < len(influences):
baseShapes.append(baseShapes[-1])
while len(wrapSmoothness) < len(influences):
wrapSmoothness.append(wrapSmoothness[-1])
while len(nurbsSamples) < len(influences):
nurbsSamples.append(nurbsSamples[-1])
for i in range(0, len(influences)):
bsh = baseShapes[i]
inf = influences[i]
ctrlObj = controlObjects[i]
nurbsSample = self.nurbsSamples[i]
wrapSmooth = self.wrapSmoothness[i]
infFaces = []
infSourceShape = ""
infShape = ""
infTr = ""
shapeType = ""
if isinstance(inf, basestring):
if len(inf.split(".")) > 1:
shapeType = str(mc.getAttr(inf, type=True))
if (
len(iterable(mc.ls(inf, o=True, type="dagNode"))) > 0
and len(iterable(mc.listRelatives(mc.ls(inf, o=True), p=True))) > 0
):
infTr = mc.listRelatives(mc.ls(inf, o=True), p=True)[0]
infShape = shape(infTr)
else:
infShapeHist = iterable(mc.ls(iterable(mc.listHistory(inf, f=True, af=True)), type="shape"))
if len(infShapeHist) > 0:
infShape = infShapeHist[0]
infTr = mc.listRelatives(infShape, p=True)
else:
shapeType = mc.nodeType(inf)
infShape = infSourceShape = inf
infTr = mc.listRelatives(inf, p=True)
elif isIterable(inf):
infShape = mc.ls(inf, o=True)[0]
infTr = mc.listRelatives(infShape, p=True)[0]
shapeType = mc.nodeType(infShape)
if mc.nodeType(infShape) == "mesh":
inf = mc.polyListComponentConversion(inf, tf=True)
inputComponents = []
for fStr in inf:
inputComponents.append(fStr.split(".")[-1])
pco = mc.createNode("polyChipOff")
mc.setAttr(pco + ".dup", True)
mc.setAttr(pco + ".inputComponents", len(inputComponents), type="componentList", *inputComponents)
mc.connectAttr(infShape + ".outMesh", pco + ".ip")
psep = mc.createNode("polySeparate")
mc.setAttr(psep + ".ic", 2)
mc.connectAttr(pco + ".out", psep + ".ip")
inf = psep + ".out[1]"
if not (isinstance(bsh, basestring) and mc.objExists(bsh)):
bshSource = ""
for m in removeAll(infShape, mc.ls(iterable(mc.listHistory(infShape)), type="mesh")):
if (
len(mc.ls(m + ".vtx[*]", fl=True)) == len(mc.ls(infShape + ".vtx[*]", fl=True))
and len(mc.ls(m + ".f[*]", fl=True)) == len(mc.ls(infShape + ".f[*]", fl=True))
and len(mc.ls(m + ".e[*]", fl=True)) == len(mc.ls(infShape + ".e[*]", fl=True))
and len(removeAll(m, mc.listHistory(m))) == 0
):
isBSTarget = False
for bsConn in iterable(mc.listConnections(m, type="blendShape", p=True)):
if "inputTarget" in ".".join(bsConn.split(".")[1:]):
isBSTarget = True
break
if isBSTarget:
continue
else:
bshSource = m
break
if bshSource == "":
bshSource = mc.createNode("mesh", p=infTr)
mc.connectAttr(infShape + ".outMesh", bshSource + ".inMesh")
mc.blendShape(infShape, bshSource, w=[1, 1])
mc.delete(bshSource, ch=True)
mc.setAttr(bshSource + ".io", True)
pco = mc.createNode("polyChipOff")
mc.setAttr(pco + ".dup", True)
mc.setAttr(
pco + ".inputComponents", len(inputComponents), type="componentList", *inputComponents
)
mc.connectAttr(bshSource + ".outMesh", pco + ".ip")
psep = mc.createNode("polySeparate")
mc.setAttr(psep + ".ic", 2)
mc.connectAttr(pco + ".out", psep + ".ip")
bsh = psep + ".out[1]"
else:
inf = infShape
plug = firstOpenPlug(self[0] + ".basePoints")
if isinstance(inf, basestring) and mc.objExists(inf):
if len(inf.split(".")) <= 1:
if mc.nodeType(shape(inf)) == "mesh":
inf = shape(inf) + ".outMesh"
else:
inf = shape(inf) + ".local"
if isinstance(bsh, basestring) and mc.objExists(bsh):
if len(bsh.split(".")) <= 1:
if mc.nodeType(shape(bsh)) == "mesh":
bsh = shape(bsh) + ".outMesh"
else:
bsh = shape(bsh) + ".local"
else:
bshShape = mc.createNode(shapeType)
if shapeType == "mesh":
mc.connectAttr(inf, bshShape + ".inMesh")
mc.blendShape(infShape, bshShape, w=(1, 1))
mc.delete(bshShape, ch=True)
bsh = bsh + ".outMesh"
else:
mc.connectAttr(inf, bshShape + ".create")
mc.blendShape(infShape, bshShape, w=(1, 1))
mc.delete(bshShape, ch=True)
bsh = bsh + ".local"
mc.setAttr(bshShape + ".io", True)
# mc.connectAttr(inf,self[0]+'.driverPoints['+str(plug)+']',f=True)
# mc.connectAttr(bsh,self[0]+'.basePoints['+str(plug)+']',f=True
# poly smooth
if shapeType == "mesh":
pspInf = mc.createNode("polySmoothProxy")
mc.setAttr(pspInf + ".kb", False)
mc.connectAttr(inf, pspInf + ".ip")
inf = pspInf + ".out"
pspBase = mc.createNode("polySmoothProxy")
mc.setAttr(pspBase + ".kb", False)
mc.connectAttr(bsh, pspBase + ".ip")
bsh = pspBase + ".out"
mc.connectAttr(inf, self[0] + ".driverPoints[" + str(plug) + "]", f=True)
mc.connectAttr(bsh, self[0] + ".basePoints[" + str(plug) + "]", f=True)
# add wrap control attributes
if not mc.objExists(ctrlObj):
ctrlObj = infTr
if shapeType == "mesh":
if not "wrapSmoothLevels" in mc.listAttr(ctrlObj):
mc.addAttr(ctrlObj, ln="wrapSmoothLevels", at="short", dv=0)
mc.setAttr(ctrlObj + ".wrapSmoothLevels", k=False, cb=True)
mc.connectAttr(ctrlObj + ".wrapSmoothLevels", pspInf + ".el")
mc.connectAttr(ctrlObj + ".wrapSmoothLevels", pspBase + ".el")
mc.connectAttr(ctrlObj + ".wrapSmoothLevels", pspInf + ".ll")
mc.connectAttr(ctrlObj + ".wrapSmoothLevels", pspBase + ".ll")
if not "wrapSmoothType" in mc.listAttr(ctrlObj):
mc.addAttr(
ctrlObj, ln="wrapSmoothType", at="enum", en="exponential:linear", min=0, max=1, dv=smoothType
)
mc.setAttr(ctrlObj + ".wrapSmoothType", k=False, cb=True)
mc.connectAttr(ctrlObj + ".wrapSmoothType", pspInf + ".mth")
mc.connectAttr(ctrlObj + ".wrapSmoothType", pspBase + ".mth")
if not "inflType" in mc.listAttr(ctrlObj):
mc.addAttr(ctrlObj, ln="inflType", at="enum", en="none:point:face", min=1, max=2, dv=2)
mc.setAttr(ctrlObj + ".inflType", k=False, cb=True)
mc.connectAttr(ctrlObj + ".inflType", self[0] + ".inflType[" + str(plug) + "]")
else:
if not "nurbsSamples" in mc.listAttr(ctrlObj):
mc.addAttr(ctrlObj, ln="nurbsSamples", at="short", dv=nurbsSample)
mc.setAttr(ctrlObj + ".nurbsSamples", k=False, cb=True)
mc.connectAttr(ctrlObj + ".nurbsSamples", self[0] + ".nurbsSamples[" + str(plug) + "]")
if self.calculateMaxDistance:
greatestDistance = 0.0
if shapeType == "mesh":
distCheckMesh = mc.createNode("mesh", p=infTr)
mc.connectAttr(inf, distCheckMesh + ".inMesh")
deformedCP = ""
if mc.nodeType(shape(self.deformed[0])) == "mesh":
deformedCP = mc.createNode("closestPointOnMesh")
mc.connectAttr(self.deformed[0] + ".worldMesh[0]", deformedCP + ".im")
elif mc.nodeType(shape(self.deformed[0])) == "nurbsCurve":
deformedCP = mc.createNode("closestPointOnCurve")
mc.connectAttr(self.deformed[0] + ".worldSpace", deformedCP + ".ic")
elif mc.nodeType(shape(self.deformed[0])) == "nurbsSurface":
deformedCP = mc.createNode("closestPointOnSurface")
mc.connectAttr(self.deformed[0] + ".worldSpace", deformedCP + ".is")
for f in mc.ls(distCheckMesh + ".f[*]", fl=True):
center = midPoint(f)
mc.setAttr(deformedCP + ".ip", *center)
closestPoint = mc.getAttr(deformedCP + ".p")[0]
distance = distanceBetween(closestPoint, center)
if distance > greatestDistance:
greatestDistance = distance
mc.disconnectAttr(inf, distCheckMesh + ".inMesh")
mc.delete(distCheckMesh)
if greatestDistance * 2 > mc.getAttr(self[0] + ".maxDistance"):
mc.setAttr(self[0] + ".maxDistance", greatestDistance * 2)
if shapeType == "mesh":
if smooth >= 0:
mc.setAttr(ctrlObj + ".wrapSmoothLevels", smooth)
elif mc.nodeType(shape(self.deformed[0])) == "mesh":
faceCount = 0
for d in self.deformed:
if mc.nodeType(shape(d)) == "mesh":
faceCount += len(mc.ls(shape(d) + ".f[*]", fl=True))
smoothSampleMesh = mc.createNode("mesh", p=infTr)
mc.connectAttr(inf, smoothSampleMesh + ".inMesh")
smoothFaceCount = 0
n = 0
while len(mc.ls(smoothSampleMesh + ".f[*]", fl=True)) < faceCount:
mc.setAttr(ctrlObj + ".wrapSmoothLevels", n)
n += 1
if len(mc.ls(smoothSampleMesh + ".f[*]", fl=True)) > faceCount * 1.5:
mc.setAttr(ctrlObj + ".wrapSmoothLevels", mc.getAttr(ctrlObj + ".wrapSmoothLevels") - 1)
mc.disconnectAttr(inf, smoothSampleMesh + ".inMesh")
mc.delete(smoothSampleMesh)
def generateScript(self):
returnVal=self.Muscle+'=zen.Muscle\\\n'
returnVal+='(\n'
connections=mc.listConnections(self.Handle+'.zmi',type='transform')
if isIterable(connections) and len(connections)>0:#if this is a mirrored Handle use the original
if(len(connections)==1):
if(mc.objExists(connections[0]+'.zmi')):
opposite=Muscle(Handle=connections[0])
return(opposite.generateScript())
self.getInfluences()
selectionGroups=[]
parentConstraintWeights=[]
n=0
for i in range(0,len(self.influences)):#get the span components
selectionGroups.append([])
#parentConstraintWeights.append({})
mesh=str(self.influences[i]['mesh'])
curves=self.influences[i]['curves']
edges=self.influences[i]['edges']
parents=self.influences[i]['parents']
if(len(parents)):
for p in parents:
for pc in p:
if pc not in selectionGroups[i]: selectionGroups[i].append(pc)
#parentConstraintWeights[i][pc]=p[pc]
parentConstraintWeights.append(p)
if(len(edges)):
for e in edges:
for ee in e:
selectionGroups[i].append(ee)
else:
for c in curves:
selectionGroups[i].append(c)
for i in range(0,len(selectionGroups)):#span selection groups
returnVal+=' ['
for n in range(0,len(selectionGroups[i])):
returnVal+='"'+selectionGroups[i][n]+'"'
if(n==len(selectionGroups[i])-1):
returnVal+='],\n'
else:
returnVal+=','
#set the parent constraint weights
returnVal+=' pcw=['
dStrings=[]
for i in range(0,len(parentConstraintWeights)):
returnVal+='{'
diStrings=[]
for x in parentConstraintWeights[i]:
diStrings.append('"'+x+'":'+str(parentConstraintWeights[i][x]))
returnVal+=','.join(diStrings)
if(i<len(parentConstraintWeights)-1):
returnVal+='},'
else:
returnVal+='}]'
attrList=[]
delList=[]
attrList.extend(mc.listAttr(self.Handle,k=True))
attrList.extend(mc.listAttr(self.Handle,cb=True))
for i in range(0,len(attrList)):
if mc.objExists(self.Handle+'.'+attrList[i]) and mc.getAttr(self.Handle+'.'+attrList[i],type=True)!='message':
c=mc.listConnections(self.Handle+'.'+attrList[i],s=True,d=False)
if isIterable(c) and len(c)>0:
delList.append(attrList[i])
else:
delList.append(attrList[i])
delList.extend(['visibility','translateX','translateY','translateZ','rotateX','rotateY','rotateZ','scaleX','scaleY','scaleZ'])
for d in delList:
attrList.remove(d)
tempList=attrList
attrList=[]
for a in tempList:
if(len(a.split('.'))==1 and mc.getAttr(self.Handle+'.'+a,type=True)!='message'):
attrList.append(a)
if(len(attrList)>0):
returnVal+=',\n '
for i in range(0,len(attrList)):
returnVal+=attrList[i]+'='+str(mc.getAttr(self.Handle+'.'+attrList[i]))
if(i<len(attrList)-1):
returnVal+=','
returnVal+=',\n'
#get the name
if "opposite" in self.__dict__:
returnVal+=' name=["'+self.Muscle+'","'+self.opposite.Muscle+'"],\n'
else:
returnVal+=' name="'+self.Muscle+'",\n'
returnVal+=' axis='+str(self.getAxis())+','
returnVal+='spans='+str(self.spans)+','
if(mc.objExists(self.Handle+'.jiggle')):
returnVal+='jiggle=True\n'
else:
returnVal+='jiggle=False\n'
returnVal+=')\n'
#auto-flex
autoFlexPlugs=mc.ls(self.Handle+'.zaf[*]')
if(isinstance(autoFlexPlugs,list) and len(autoFlexPlugs)>0):
for p in autoFlexPlugs:
infAttrs=mc.listConnections(p+'.zenPoseAttr',p=True,s=True,d=False)
infAttrValues=[]
if isIterable(infAttrs):
for i in range(0,len(infAttrs)):
attributeValue=mc.getAttr(p+'.zenAttrVal['+str(i)+']')
if(isinstance(attributeValue,(float,int,long))):
infAttrValues.append(attributeValue)
elif(isIterable(attributeValue)):
infAttrValues.append(attributeValue[0])
counter=0
if(isinstance(infAttrs,list) and isinstance(infAttrValues,list)):
length=len(infAttrs)
if(len(infAttrValues)<length): length=len(infAttrValues)
if(length>0):
if(counter==0):
returnVal+=self.Muscle+'.addAutoFlex\\\n(\n'
if "opposite" in self.__dict__:
returnVal+=' mirror=True,\n'
returnVal+=' pose={'
for i in range(0,length):
returnVal+='"'+infAttrs[i]+'":'+str(infAttrValues[i])
if(i<length-1):
returnVal+=','
else:
returnVal+='},\n '
attrList=mc.listAttr(p,leaf=True)
if(isinstance(attrList,list) and len(attrList)>0):
ii=0
for i in range(0,len(attrList)):
if mc.objExists(p+'.'+attrList[i]):
c=mc.listConnections(p+'.'+attrList[i],s=True,d=False)
if\
(
mc.getAttr(p+'.'+attrList[i],type=True)=='double' and
(
not(isIterable(c)) or
len(c)==0 or
mc.ls(c,o=True)[0]==mc.ls(p,o=True)[0]
)
):
if(ii>0): returnVal+=','
returnVal+=attrList[i]+'='+str(mc.getAttr(p+'.'+attrList[i]))
ii+=1
counter+=1
if(counter>0):
returnVal+='\n)\n'
return returnVal
def __init__(self,*args,**keywords):
#check to make sure unique names are used in scene
uniqueNames(iterable(mc.ls(type='dagNode')),re=True)
# default options
self.createSurface=False # use for IK's etc. - creates a surface instead of a curve
self.scaleLength=True # use for IK's etc. - compensates for scale
self.stretch=-1 # maximum stretch %: 0 > Infinity
self.squash=-1 # maximum squash %: 0 > 100
self.arcWeight=.5 # controls the balance of rotational control weight alloted to the end Handle vs the base Handle
self.width=1 # surface width
self.length=10 # only used if no arguments are passed
self.parents=['',''] # create under parent or parents
self.softParents=['','']
self.parentSpaces=['','']
self.names=['ArcCtrl#','arcCtrl_handle#'] #
self.handleType=['locator','locator'] # see 'Handle' class - 'locator','doubleEllipse',
self.handleOptions=[{},{}] # dictionaries passed on to the Handle class for options concerning placement of handles
self.aim=(0,1,0)
self.poleVector=(0,0,1) # if only two arc points are given, it will try to point the arc in this direction if possible
# option abbreviations
shortNames=\
{
'p':'parents',
'cs':'createSurface',
'pv':'poleVector',
'st':'stretch',
'sq':'squash',
'cs':'createSurface',
'n':'names',
'ho':'handleOptions',
'w':'width',
'pv':'poleVector',
'aw':'arcWeight',
'ht':'handleType',
'sp':'softParents'
}
if 'shortNames' in self.__dict__: # this is done so that we don't wipe out added short names in inheriting classes
for sn in shortNames:
self.shortNames[sn]=shortNames[sn]
else:
self.shortNames=shortNames
for k in keywords: #get user options
if k in self.shortNames:
exec('self.'+self.shortNames[k]+'=keywords[k]')
elif k in self.__dict__:
exec('self.'+k+'=keywords[k]')
#check and format options
if\
(
len(iterable(self.aim))<3 or
not isinstance(self.aim[0],(float,int,long)) or
not isinstance(self.aim[1],(float,int,long)) or
not isinstance(self.aim[2],(float,int,long))
):
self.aim=(0,1,0)
if\
(
len(iterable(self.poleVector))<3 or
not isinstance(self.poleVector[0],(float,int,long)) or
not isinstance(self.poleVector[1],(float,int,long)) or
not isinstance(self.poleVector[2],(float,int,long))
):
self.poleVector=(0,0,1)
self.aim=normalize(self.aim)
self.poleVector=normalize(self.poleVector)
if len(iterable(self.softParents))==1:
self.softParents=[iterable(self.softParents)[0],iterable(self.softParents)[0]]
elif len(iterable(self.softParents))==0:
self.softParents=['','']
if len(iterable(self.parents))==1:
self.parents=[iterable(self.parents)[0],iterable(self.parents)[0]]
elif len(iterable(self.parents))==0:
self.parents=['','.']
if len(iterable(self.names))==1:
self.names=[iterable(self.names)[0],iterable(self.names)[0]]
if len(iterable(self.names))==0:
self.names=['','']
if len(iterable(self.handleType))==1:
self.handleType=[iterable(self.handleType)[0],iterable(self.handleType)[0]]
if len(iterable(self.handleType))==0:
self.handleType=['','']
if isinstance(self.handleOptions,dict): self.handleOptions=[self.handleOptions,self.handleOptions]
if isinstance(self.handleOptions,(list,tuple)) and\
len(self.handleOptions)==1 and\
isinstance(self.handleOptions[0],dict):
self.handleOptions=[self.handleOptions[0],self.handleOptions[0]]
if self.stretch>=0 and self.squash<0 or self.stretch<0 and self.squash>=0:# squash & stretch come as a pair, set one to 0 if only 1 is set
if self.stretch<0: self.stretch=0
if self.squash<0: self.squash=0
if not isinstance(self.poleVector,tuple): self.poleVector=tuple(self.poleVector)
# attributes
self.outputCurve=''
self.outputNormal=''
self.surface=''
self.outputSurface=''
self.handleShapes=[]
self.curveShapes=[]
self.arcPoints=[]
self.handles=[]
# parse arguments
if len(args)==0: args=iterable(mc.ls(sl=True,fl=True)) # if no arguments are input, use selection
if len(args)==0: args=[[0.0,0.0,0.0]]
sel=[]
for a in args:
if isIterable(a) and not isinstance(a[0],(float,long,int)):
sel.extend(a)
else:
sel.append(a)
for s in sel:
if isIterable(s) and isinstance(s[0],(float,long,int)) and len(s)>=3:
self.arcPoints.append(s)
elif isinstance(s,basestring) and mc.objExists(s):
err=True
if len(s.split('.'))>1:
try:
self.arcPoints.append(mc.pointPosition(s))
err=False
except:
err=True
else:
try:
self.arcPoints.append(mc.pointPosition(s+'.rp'))
err=False
except:
err=True
if len(self.arcPoints)<2:
if len(self.arcPoints)==0: self.arcPoints=[[0.0,0.0,0.0]]
self.arcPoints=\
[
self.arcPoints[0],
[
float(self.arcPoints[0][0])+float(self.aim[0])*self.length,
float(self.arcPoints[0][1])+float(self.aim[1])*self.length,
float(self.arcPoints[0][2])+float(self.aim[2])*self.length
]
]
self.create()
def __init__(self,*args,**keywords):
#set defaults
name=''
self.spanGroups={}
attributes={}
self.axis=0
self.jiggle=0
self.script=0
self.cMuscleShape=''
self.Muscle=''
self.muscleShape=''
self.Handle=''
self.allCurves=[]
self.selectionGroups=[]
pcw={}
self.resMult=1.5
self.spans=12
for k in keywords:
if(isinstance(keywords[k],list) and (k=='pcw' or k=='parentConstraintWeights')):#interpret parent constraint weights
pcw=keywords[k]
if(isinstance(keywords[k],bool)):#convert booleans to integers
exec('self.'+k+'='+str(int(keywords[k])))
elif(k=='axis'):#convert axis input to integer
if(isinstance(keywords[k],str)):
if(keywords[k].lower()=='x'):
self.axis=1
if(keywords[k].lower()=='y'):
self.axis=2
if(keywords[k].lower()=='z'):
self.axis=3
elif(isinstance(keywords[k],int)):
self.axis=keywords[k]
elif(k=='name'):
name=keywords[k]
elif(k in self.__dict__):
exec('self.'+k+'=keywords[k]')
else:
attributes[k]=keywords[k]
if len(args)==0 and len(self.Handle)==0 and len(self.Muscle)==0 and len(self.muscleShape)==0: args=mc.ls(sl=True)
for arg in args:
if(isinstance(arg,list)):
aList=arg
else:
aList=[arg]
sList=aList
for a in aList:
if(mc.objExists(a) and mc.ls(a,o=True)[0]==mc.ls(a)[0]):
if(mc.objExists(a+'.zmi')):
self.Handle=a
sList.remove(a)
else:
if(mc.nodeType(a)=='nurbsSurface'):
aShape=a
else:
try: aShape=mc.listRelatives(c=True,s=True,ni=True,type='nurbsSurface')[0]
except: aShape=''
if(mc.objExists(aShape)):
messageConnections=mc.listConnections(aShape+'.message',p=True,d=True,s=False)
if(isinstance(messageConnections,list) and len(messageConnections)>0):
for c in mc.listConnections(a+'.message',p=True,d=True):
if(c.split('.')[1]=='zenMuscle'):
self.Handle=c.split('.')[0]
sList.remove(a)
if isIterable(sList) and len(sList)>0: self.selectionGroups.append(sList)
if(len(self.Muscle)>0 and len(self.muscleShape)==0):
try:
self.muscleShape=mc.listRelatives(self.Muscle,s=True,ni=True,type='nurbsSurface')[0]
except:
pass
if(len(self.muscleShape)>0 and len(self.Handle)==0):
for c in listConnections(self.muscleShape+'.message',p=True,d=True,s=False):
if(c.split('.')[1]=='zenMuscle'):
self.Handle=c.split('.')[0]
break
if(len(self.Handle)>0 and len(self.Muscle)==0 and mc.objExists(self.Handle+'.zenMuscle')): #if we know the Handle already, get the Muscle
try: self.Muscle=mc.listConnections(self.Handle+'.zenMuscle')[0]
except: pass
if(len(self.Handle)>0 and len(self.muscleShape)==0 and mc.objExists(self.Handle+'.zenMuscle')):#get the Muscle shape
try: self.muscleShape=mc.listConnections(self.Handle+'.zenMuscle',sh=True)[0]
except: pass
try: self.handleGroup=mc.listConnections(self.Handle+'.zenMuscleCtrlGroup')[0]
except: pass
if(len(self.Handle)>0 and self.axis>=0):#see if there is an opposite
if(isinstance(mc.listConnections(self.Handle+'.zenOpposite'),list)):
opp=mc.listConnections(self.Handle+'.zenOpposite')[0]
if(mc.objExists(opp)):
self.opposite=Muscle(Handle=opp,axis=-1)
if len(self.muscleShape):
self.spans=mc.getAttr(self.muscleShape+'.spansU')
if( len(self.selectionGroups)>0 ):
if(len(self.Muscle)==0 and len(self.Handle)==0):
self.create()
self.getInfluences()
if( len(self.selectionGroups)>0 ):
if(len(name)>0):
if(isinstance(name,str)):
self.rename(name)
elif(isinstance(name,list)):
self.rename(name[0])
if "opposite" in self.__dict__:
self.opposite.rename(name[1])
self.setAttributes(**attributes)
self.setParentConstraintWeights(*pcw)
def create(self):
worldMatrixNode=mc.createNode('fourByFourMatrix')
wm=\
[
[1,0,0,0],
[0,1,0,0],
[0,0,1,0],
[0,0,0,1]
]
for a in range(0,4):
for b in range(0,4):
mc.setAttr( worldMatrixNode+'.in'+str(a)+str(b), wm[a][b] )
self.worldMatrix=worldMatrixNode+'.o'
wsMatrices=[]
cleanup=[]
lattices=[]
uvPos=[]
antipodes=[]
cpos=mc.createNode('closestPointOnSurface')
if 'surfaceAttr' not in self.__dict__ or len(self.surfaceAttr)==0 and len(self.edges)>0:
mc.select(self.edges)
rebuildNode,surfaceNodeTr=mel.eval('zenLoftBetweenEdgeLoopPathRings(2)')[:2]
self.surfaceAttr=rebuildNode+'.outputSurface'
children=mc.listRelatives(surfaceNodeTr,c=True,s=True,ni=True,type='nurbsSurface')
if isIterable(children) and len(children)>0:
self.uSpans=mc.getAttr(children[0]+'.spansU')
self.vSpans=mc.getAttr(children[0]+'.spansV')
mc.disconnectAttr(self.surfaceAttr,surfaceNodeTr+'.create')
mc.delete(surfaceNodeTr)
if self.uSpans<0 or self.vSpans<0:
tempTr=mc.createNode('transform')
tempCurve=mc.createNode('nurbsCurve',p=tempTr)
mc.connectAttr(self.surfaceAttr,tempCurve+'.create')
self.uSpans=mc.getAttr(tempCurve+'.spansU')
self.vSpans=mc.getAttr(tempCurve+'.spansV')
mc.disconnectAttr(self.surfaceAttr,tempCurve+'.create')
mc.delete(tempTr)
orderedTrs=[]
orderedCtrls=[]
if self.distribute not in ['u','v']: #calculate the axis of distribution
if len(self.trs)!=0:
mc.connectAttr(self.surfaceAttr,cpos+'.inputSurface')
uMin=100
vMin=100
uMax=0
vMax=0
uPosList=[]
vPosList=[]
for i in range(0,self.number):
orderedTrs.append('')
orderedCtrls.append('')
t=self.trs[i]
if mc.objExists(t): # find the closest point
if self.hasGeometry:
center=mc.objectCenter(t)
mc.setAttr(cpos+'.ip',*center)
posCenter,uCenter,vCenter=mc.getAttr(cpos+'.p')[0],mc.getAttr(cpos+'.u'),mc.getAttr(cpos+'.v')
rp=mc.xform(t,ws=True,q=True,rp=True)
mc.setAttr(cpos+'.ip',*rp)
posRP,uRP,vRP=mc.getAttr(cpos+'.p')[0],mc.getAttr(cpos+'.u'),mc.getAttr(cpos+'.v')
# see which is closer - object center or rotate pivot
if self.hasGeometry:
distCenter=distanceBetween(posCenter,center)
distRP=distanceBetween(posRP,rp)
if self.hasGeometry==False or abs(distCenter)>abs(distRP) :
uPosList.append(uRP)
vPosList.append(vRP)
if uRP<uMin: uMin=uRP
if uRP>uMax: uMax=uRP
if vRP<vMin: vMin=vRP
if vRP>vMax: vMax=vRP
else:
uPosList.append(uCenter)
vPosList.append(vCenter)
if uCenter<uMin: uMin=uCenter
if uCenter>uMax: uMax=uCenter
if vCenter<vMin: vMin=vCenter
if vCenter>vMax: vMax=vCenter
cfsi=mc.createNode('curveFromSurfaceIso')
mc.connectAttr(self.surfaceAttr,cfsi+'.is')
mc.setAttr(cfsi+'.idr',0)
mc.setAttr(cfsi+'.iv',.5)
mc.setAttr(cfsi+'.r',True)
mc.setAttr(cfsi+'.rv',True)
if len(self.trs)!=0:
mc.setAttr(cfsi+'.min',uMin)
mc.setAttr(cfsi+'.max',uMax)
ci=mc.createNode('curveInfo')
mc.connectAttr(cfsi+'.oc',ci+'.ic')
uLength=mc.getAttr(ci+'.al')
mc.setAttr(cfsi+'.idr',1)
if len(self.trs)!=0:
mc.setAttr(cfsi+'.min',vMin)
mc.setAttr(cfsi+'.max',vMax)
vLength=mc.getAttr(ci+'.al')
mc.delete(cfsi,ci)
if uLength>vLength:
self.distribute='u'
if len(self.trs)!=0:
searchList=uPosList
orderedList=uPosList[:]
orderedList.sort()
else:
self.distribute='v'
if len(self.trs)!=0:
searchList=vPosList
orderedList=vPosList[:]
orderedList.sort()
reverseTrs=False
orderIDList=[]
for n in range(0,self.number):
s=searchList[n]
for i in range(0,self.number):
if s==orderedList[i] and i not in orderIDList:
orderIDList.append(i)
orderedTrs[i]=self.trs[n]
orderedCtrls[i]=self.ctrls[n]
if n==0 and i>len(self.trs)/2:
reverseTrs=True
break
if reverseTrs:
orderedTrs.reverse()
self.trs=orderedTrs
orderedCtrls.reverse()
self.ctrls=orderedCtrls
else:
self.trs=orderedTrs
self.ctrls=orderedCtrls
if self.rebuild: # interactive rebuild, maintains even parameterization over the rivet surface, use with caution
if self.distribute=='u':
self.surfaceAttr=mel.eval('zenUniformSurfaceRebuild("'+self.surfaceAttr+'",'+str(self.uSpans*2)+',-1)')+'.outputSurface'
else:
self.surfaceAttr=mel.eval('zenUniformSurfaceRebuild("'+self.surfaceAttr+'",-1,'+str(self.vSpans*2)+')')+'.outputSurface'
if not mc.isConnected(self.surfaceAttr,cpos+'.inputSurface'):
mc.connectAttr(self.surfaceAttr,cpos+'.inputSurface',f=True)
if self.taper=='distance' or self.createAimCurve or self.closestPoint=='geometry': # find the closest points ( and antipodes )
for i in range(0,self.number):
t=self.trs[i]
cp=ClosestPoints(self.surfaceAttr,t)
self.ClosestPoints.append(cp)
if self.taper=='distance' or self.createAimCurve: # antipodes are used for lattice allignment and curve calculations
antipodes.append(cp.getAntipodes(1))
if self.taper!='none' or self.scale!='none': # measures scale with scaling
cfsiLength=mc.createNode('curveFromSurfaceIso')
ciLength=mc.createNode('curveInfo')
lengthMultiplierNode=mc.createNode('multDoubleLinear')
mc.setAttr(cfsiLength+'.relative',True)
mc.setAttr(cfsiLength+'.relativeValue',True)
if self.distribute=='u':
mc.setAttr(cfsiLength+'.isoparmDirection',0)
else:
mc.setAttr(cfsiLength+'.isoparmDirection',1)
mc.setAttr(cfsiLength+'.minValue',0)
mc.setAttr(cfsiLength+'.maxValue',1)
mc.setAttr(cfsiLength+".isoparmValue",.5)
mc.connectAttr(self.surfaceAttr,cfsiLength+'.inputSurface')
if mc.objExists(self.spaceTr):
lengthCurve=mc.createNode('nurbsCurve',p=self.spaceTr)
lengthCurveTG=mc.createNode('transformGeometry')
mc.connectAttr(self.spaceTr+'.worldMatrix[0]',lengthCurveTG+'.txf')
mc.connectAttr(cfsiLength+'.outputCurve',lengthCurveTG+'.ig')
mc.connectAttr(lengthCurveTG+'.og',lengthCurve+'.create')
mc.connectAttr(lengthCurve+'.worldSpace',ciLength+'.inputCurve')
mc.setAttr(lengthCurve+'.intermediateObject',True)
cleanup.extend([lengthCurveTG,cfsiLength])
else:
mc.connectAttr(cfsiLength+'.outputCurve',ciLength+'.inputCurve')
mc.connectAttr(ciLength+'.al',lengthMultiplierNode+'.i1')
mc.setAttr(lengthMultiplierNode+'.i2',1.0/float(mc.getAttr(ciLength+'.al')))
lengthMultiplier=lengthMultiplierNode+'.o'
uvPos=[]
closestDistanceToCenter=Decimal('infinity')
centerMostRivetID=0
closestDistancesToCenter=[Decimal('infinity'),Decimal('infinity')]
centerMostRivetIDs=[0,0]
uvMultipliers=[]
aimGroups=[]
for i in range(0,self.number):
pTrs=mc.listRelatives(self.trs[i],p=True)
parentTr=''
if len(iterable(pTrs))>0:
parentTr=pTrs[0]
t=self.trs[i]
c=self.ctrls[i]
r=mc.createNode('transform',n='Rivet#')
wsMatrices.append(mc.xform(t,q=True,ws=True,m=True))
if self.constraint: mc.setAttr(r+'.inheritsTransform',False)
if not mc.objExists(c):
c=t
if not mc.objExists(t):
c=r
if not mc.objExists(c+'.zenRivet'):
mc.addAttr(c,at='message',ln='zenRivet',sn='zriv')
mc.connectAttr(r+'.message',c+'.zriv',f=True)
if not mc.objExists(c+'.uPos'):
mc.addAttr(c,k=True,at='double',ln='uPos',dv=50)
if not mc.objExists(c+'.vPos'):
mc.addAttr(c,k=True,at='double',ln='vPos',dv=50)
if self.closestPoint=='geometry':
up,vp=self.ClosestPoints[i].uvs[0]
else:
if mc.objExists(t):
if self.hasGeometry:
center=mc.objectCenter(t)
mc.setAttr(cpos+'.ip',*center)
posCenter,uCenter,vCenter=mc.getAttr(cpos+'.p')[0],mc.getAttr(cpos+'.u'),mc.getAttr(cpos+'.v')
rp=mc.xform(t,ws=True,q=True,rp=True)
mc.setAttr(cpos+'.ip',*rp)
posRP,uRP,vRP=mc.getAttr(cpos+'.p')[0],mc.getAttr(cpos+'.u'),mc.getAttr(cpos+'.v')
if self.hasGeometry:
distCenter=distanceBetween(posCenter,center)
distRP=distanceBetween(posRP,rp)
if self.hasGeometry==False or abs(distCenter)>abs(distRP):
up=uRP
vp=vRP
else:
up=uCenter
vp=vCenter
elif len(distribute)>0:
if self.distribute=='u':
up=(i+1)/self.number
vp=.5
else:
up=.5
vp=(i+1)/self.number
if up>float(self.uSpans)-.01: up=float(self.uSpans)-.01
if vp>float(self.vSpans)-.01: vp=float(self.vSpans)-.01
if up<.01: up=.01
if vp<.01: vp=.01
uvPos.append((up,vp))
if up<.5 and self.distribute=='u' and Decimal(str(abs(.5-up)))<Decimal(str(closestDistancesToCenter[0])):
closestDistancesToCenter[0]=abs(.5-up)
centerMostRivetIDs[0]=i
if up>.5 and self.distribute=='u' and Decimal(str(abs(.5-up)))<Decimal(str(closestDistancesToCenter[1])):
closestDistancesToCenter[1]=abs(.5-up)
centerMostRivetIDs[1]=i
if up<.5 and self.distribute=='v' and Decimal(str(abs(.5-vp)))<Decimal(str(closestDistancesToCenter[0])):
closestDistancesToCenter[0]=abs(.5-vp)
centerMostRivetIDs[0]=i
if up>.5 and self.distribute=='v' and Decimal(str(abs(.5-vp)))<Decimal(str(closestDistancesToCenter[1])):
closestDistancesToCenter[1]=abs(.5-vp)
centerMostRivetIDs[1]=i
mc.setAttr(c+'.uPos',up*100)
mc.setAttr(c+'.vPos',vp*100)
posi=mc.createNode('pointOnSurfaceInfo')
mc.setAttr((posi+".caching"),True)
#mc.setAttr((posi+".top"),True)
multiplyU=mc.createNode('multDoubleLinear')
mc.connectAttr(c+".uPos",multiplyU+".i1")
mc.setAttr(multiplyU+'.i2',.01)
multiplyV=mc.createNode('multDoubleLinear')
mc.connectAttr(c+".vPos",multiplyV+".i1")
mc.setAttr(multiplyV+'.i2',.01)
uvMultipliers.append([multiplyU,multiplyV])
mc.connectAttr(self.surfaceAttr,posi+".inputSurface");
mc.connectAttr(multiplyU+".o",posi+".parameterU")
mc.connectAttr(multiplyV+".o",posi+".parameterV")
dm=mc.createNode('decomposeMatrix')
mc.setAttr(dm+'.caching',True)
fbfm=mc.createNode('fourByFourMatrix')
mc.setAttr(fbfm+'.caching',True)
mc.connectAttr(posi+'.nnx',fbfm+'.in00')
mc.connectAttr(posi+'.nny',fbfm+'.in01')
mc.connectAttr(posi+'.nnz',fbfm+'.in02')
mc.connectAttr(posi+'.nux',fbfm+'.in10')
mc.connectAttr(posi+'.nuy',fbfm+'.in11')
mc.connectAttr(posi+'.nuz',fbfm+'.in12')
mc.connectAttr(posi+'.nvx',fbfm+'.in20')
mc.connectAttr(posi+'.nvy',fbfm+'.in21')
mc.connectAttr(posi+'.nvz',fbfm+'.in22')
mc.connectAttr(posi+'.px',fbfm+'.in30')
mc.connectAttr(posi+'.py',fbfm+'.in31')
mc.connectAttr(posi+'.pz',fbfm+'.in32')
if self.constraint:# and not self.parent:
mc.connectAttr(fbfm+'.output',dm+'.inputMatrix')
else:
multMatrix=mc.createNode('multMatrix')
mc.connectAttr(r+'.parentInverseMatrix',multMatrix+'.i[1]')
mc.connectAttr(fbfm+'.output',multMatrix+'.i[0]')
mc.connectAttr(multMatrix+'.o',dm+'.inputMatrix')
mc.connectAttr(dm+'.outputTranslate',r+'.t')
mc.connectAttr(dm+'.outputRotate',r+'.r')
if t!=r:
if self.createAimCurve:
aimGroup=mc.createNode('transform',n='rivetAimGrp#')
mc.parent(aimGroup,t,r=True)
mc.parent(aimGroup,r)
if self.keepPivot or self.closestPoint=='pivot':
mc.xform(aimGroup,ws=True,piv=mc.xform(t,q=True,ws=True,rp=True))
else:
mc.xform(aimGroup,ws=True,piv=self.ClosestPoints[i][1])
self.aimGroups.append(aimGroup)
if self.constraint:
if self.parent: # parent and constraint == ParentSpace
self.parentSpaces.append(ParentSpace(t,r))
pc=self.parentSpaces[i].parentConstraint
sc=self.parentSpaces[i].scaleConstraint
skip=['x']
if\
(
(self.distribute=='v' and 'length' in self.scaleDirection) or
(self.distribute=='u' and 'width' in self.scaleDirection) or
t in self.skipScaleObjects
):
skip.append('y')
if\
(
(self.distribute=='u' and 'length' in self.scaleDirection) or
(self.distribute=='v' and 'width' in self.scaleDirection) or
t in self.skipScaleObjects
):
skip.append('z')
mc.scaleConstraint(sc,e=True,sk=skip)
if t in self.skipRotateObjects:
mc.parentConstraint(pc,e=True,sr=('x','y','z'))
if t in self.skipTranslateObjects:
mc.parentConstraint(pc,e=True,st=('x','y','z'))
else: #just constraint
if t in self.skipRotateObjects:
pc=mc.parentConstraint(r,t,sr=('x','y','z'),mo=True)[0]#
if t in self.skipTranslateObjects:
pc=mc.parentConstraint(r,t,st=('x','y','z'),mo=self.mo)[0]
if t not in self.skipRotateObjects and t not in self.skipTranslateObjects:
pc=mc.parentConstraint(r,t,mo=self.mo)[0]
pcTargets=mc.parentConstraint(pc,q=True,tl=True)
pcIDs=[]
nsc=listNodeConnections(r,pc,s=False,d=True)
for n in range(0,len(nsc)):
if len(nsc[n])==2 and mc.objExists(nsc[n][-1]):
pcID=getIDs(nsc[n][-1])
if isinstance(pcID,int):
pcIDs.append(pcID)
pcIDs=removeDuplicates(pcIDs)
for pcID in pcIDs:
mc.connectAttr(self.worldMatrix,pc+'.tg['+str(pcID)+'].tpm',f=True)
mc.connectAttr(dm+'.outputTranslate',pc+'.tg['+str(pcID)+'].tt',f=True)
mc.connectAttr(dm+'.outputRotate',pc+'.tg['+str(pcID)+'].tr',f=True)
cleanup.append(r)
if self.parent:
scTargets=mc.scaleConstraint(sc,q=True,tl=True)
scIDs=[]
nsc=listNodeConnections(r,sc,s=False,d=True)
for n in range(0,len(nsc)):
if len(nsc[n])==2 and mc.objExists(nsc[n][-1]):
scIDs.append(getIDs(nsc[n][-1]))
scIDs=removeDuplicates(scIDs)
scMD=mc.createNode('multiplyDivide')
mc.setAttr(scMD+'.i1',1,1,1)
mc.setAttr(scMD+'.i2',1,1,1)
for scID in scIDs:
mc.connectAttr(self.worldMatrix,sc+'.tg['+str(scID)+'].tpm',f=True)
#mc.connectAttr(scMD+'.o',sc+'.tg['+str(scID)+'].ts',f=True)
mc.connectAttr(scMD+'.ox',sc+'.tg['+str(scID)+'].tsx',f=True)
mc.connectAttr(scMD+'.oy',sc+'.tg['+str(scID)+'].tsy',f=True)
mc.connectAttr(scMD+'.oz',sc+'.tg['+str(scID)+'].tsz',f=True)
r=self.parentSpaces[i][0]
#xfm=mc.xform(r,q=True,ws=True,m=True)
#mc.setAttr(r+'.inheritsTransform',False)
#mc.xform(r,m=xfm)
#mc.connectAttr(self.surfaceMatrix,multMatrix+'.i[1]',f=True)#self.parentSpaces[i][0]+'.parentInverseMatrix'
elif self.createAimCurve:
mc.parent(t,w=True)
mc.setAttr(t+'.inheritsTransform',False)
mc.parent(t,r,r=True)
else:
mc.parent(t,r)
if mc.objExists(parentTr) and (self.parent or self.createAimCurve) and not self.constraint:
if not (parentTr in iterable(mc.listRelatives(r,p=True))):
if mc.getAttr(r+'.inheritsTransform')==True:
mc.parent(r,parentTr,r=True)
else:
mc.parent(r,parentTr)
if mc.getAttr(r+'.inheritsTransform')==False:
dm=mc.createNode('decomposeMatrix')
mc.connectAttr(parentTr+'.worldMatrix',dm+'.inputMatrix')
mc.connectAttr(dm+'.os',t+'.s',f=True)
if self.taper!='none' or self.scale!='none':
cfsiU=mc.createNode('curveFromSurfaceIso')
mc.setAttr(cfsiU+'.relative',True)
mc.setAttr(cfsiU+'.relativeValue',True)
mc.setAttr(cfsiU+'.isoparmDirection',0)
mc.setAttr(cfsiU+'.minValue',0)
mc.setAttr(cfsiU+'.maxValue',1)
mc.connectAttr(multiplyV+".o",cfsiU+".isoparmValue")
mc.connectAttr(self.surfaceAttr,cfsiU+'.inputSurface')
cfsiV=mc.createNode('curveFromSurfaceIso')
mc.setAttr(cfsiV+'.relative',True)
mc.setAttr(cfsiV+'.relativeValue',True)
mc.setAttr(cfsiV+'.isoparmDirection',1)
mc.setAttr(cfsiV+'.minValue',0)
mc.setAttr(cfsiV+'.maxValue',1)
mc.connectAttr(multiplyV+".o",cfsiV+".isoparmValue")
mc.connectAttr(self.surfaceAttr,cfsiV+'.inputSurface')
subtractNode=mc.createNode('addDoubleLinear')
mc.setAttr(subtractNode+'.i1',-(1/(self.number*2)))
addNode=mc.createNode('addDoubleLinear')
mc.setAttr(addNode+'.i1',1/(self.number*2))
addSubClampNode=mc.createNode('clamp')
mc.setAttr(addSubClampNode+'.min',0,0,0)
mc.setAttr(addSubClampNode+'.max',1,1,1)
mc.connectAttr(subtractNode+'.o',addSubClampNode+'.inputR')
mc.connectAttr(addNode+'.o',addSubClampNode+'.inputG')
if self.distribute=='u':
mc.connectAttr(multiplyU+".o",subtractNode+".i2")
mc.connectAttr(multiplyU+".o",addNode+".i2")
mc.connectAttr(addSubClampNode+'.outputR',cfsiU+'.minValue')
mc.connectAttr(addSubClampNode+'.outputG',cfsiU+'.maxValue')
else:
mc.connectAttr(multiplyV+".o",subtractNode+".i2")
mc.connectAttr(multiplyV+".o",addNode+".i2")
mc.connectAttr(addSubClampNode+'.outputR',cfsiV+'.minValue')
mc.connectAttr(addSubClampNode+'.outputG',cfsiV+'.maxValue')
ciU=mc.createNode('curveInfo')
mc.connectAttr(cfsiU+'.outputCurve',ciU+'.inputCurve')
ciV=mc.createNode('curveInfo')
mc.connectAttr(cfsiV+'.outputCurve',ciV+'.inputCurve')
mdlU=mc.createNode('multDoubleLinear')
mc.connectAttr(ciU+'.al',mdlU+'.i1')
mc.setAttr(mdlU+'.i2',1/float(mc.getAttr(ciU+'.al')))
mdlV=mc.createNode('multDoubleLinear')
mc.connectAttr(ciV+'.al',mdlV+'.i1')
mc.setAttr(mdlV+'.i2',1/float(mc.getAttr(ciV+'.al')))
if not mc.objExists(c+'.minScaleWidth'): mc.addAttr(c,ln='minScaleWidth',at='double',k=True,min=0,dv=self.minScaleWidth)
if not mc.objExists(c+'.maxScaleWidth'): mc.addAttr(c,ln='maxScaleWidth',at='double',k=True,min=0,dv=self.maxScaleWidth)
if not mc.objExists(c+'.minScaleLength'): mc.addAttr(c,ln='minScaleLength',at='double',k=True,min=0,dv=self.minScaleLength)
if not mc.objExists(c+'.maxScaleLength'): mc.addAttr(c,ln='maxScaleLength',at='double',k=True,min=0,dv=self.maxScaleLength)
clampNode=mc.createNode('clamp')
minScaleLengthNode=mc.createNode('multDoubleLinear')
maxScaleLengthNode=mc.createNode('multDoubleLinear')
minScaleWidthNode=mc.createNode('multDoubleLinear')
maxScaleWidthNode=mc.createNode('multDoubleLinear')
mc.connectAttr(c+'.minScaleLength',minScaleLengthNode+'.i1')
mc.connectAttr(lengthMultiplier,minScaleLengthNode+'.i2')
mc.connectAttr(c+'.maxScaleLength',maxScaleLengthNode+'.i1')
mc.connectAttr(lengthMultiplier,maxScaleLengthNode+'.i2')
mc.connectAttr(c+'.minScaleWidth',minScaleWidthNode+'.i1')
mc.connectAttr(lengthMultiplier,minScaleWidthNode+'.i2')
mc.connectAttr(c+'.maxScaleWidth',maxScaleWidthNode+'.i1')
mc.connectAttr(lengthMultiplier,maxScaleWidthNode+'.i2')
if self.distribute=='u':
mc.connectAttr(minScaleLengthNode+'.o',clampNode+'.minR')
mc.connectAttr(maxScaleLengthNode+'.o',clampNode+'.maxR')
mc.connectAttr(minScaleWidthNode+'.o',clampNode+'.minG')
mc.connectAttr(maxScaleWidthNode+'.o',clampNode+'.maxG')
else:
mc.connectAttr(minScaleWidthNode+'.o',clampNode+'.minR')
mc.connectAttr(maxScaleWidthNode+'.o',clampNode+'.maxR')
mc.connectAttr(minScaleLengthNode+'.o',clampNode+'.minG')
mc.connectAttr(maxScaleLengthNode+'.o',clampNode+'.maxG')
mc.connectAttr(mdlU+'.o',clampNode+'.ipr')
mc.connectAttr(mdlV+'.o',clampNode+'.ipg')
if self.scale=='relative' and self.parent:#or len(self.scaleDirection)<2:#
if\
(
(self.distribute=='u' and 'length' in self.scaleDirection) or
(self.distribute=='v' and 'width' in self.scaleDirection)
):
if self.constraint:
mc.connectAttr(clampNode+'.opr',scMD+'.i1y')
else:
mc.connectAttr(clampNode+'.opr',r+'.sy',f=True)
if\
(
(self.distribute=='v' and 'length' in self.scaleDirection) or
(self.distribute=='u' and 'width' in self.scaleDirection)
):
if self.constraint:
mc.connectAttr(clampNode+'.opg',scMD+'.i1z')
else:
mc.connectAttr(clampNode+'.opg',r+'.sz',f=True)
elif self.taper!='none' and self.parent:
#self.autoFlexGroups
mc.setAttr(t+'.sx',lock=True)
mc.setAttr(t+'.sy',lock=True)
mc.setAttr(t+'.sz',lock=True)
mc.setAttr(t+'.tx',lock=True)
mc.setAttr(t+'.ty',lock=True)
mc.setAttr(t+'.tz',lock=True)
mc.setAttr(t+'.rx',lock=True)
mc.setAttr(t+'.ry',lock=True)
mc.setAttr(t+'.rz',lock=True)
aimTr=mc.createNode('transform',p=t)
mc.xform(aimTr,ws=True,t=antipodes[i])
#mc.setAttr(db+'.p1',*self.ClosestPoints[i][0])
#mc.setAttr(db+'.p2',*antipodes[i])
axisLength=distanceBetween(self.ClosestPoints[i][0],antipodes[i])#mc.getAttr(db+'.d')
ffd,lattice,latticeBase=mc.lattice(t,divisions=(2,2,2),objectCentered=True,ol=1)
latticeLowEndPoints=mc.ls(lattice+'.pt[0:1][0:0][0:1]',fl=True)
latticeHighEndPoints=mc.ls(lattice+'.pt[0:1][1:1][0:1]',fl=True)
mc.parent(latticeBase,lattice)
mc.setAttr(lattice+'.sy',axisLength)
lattices.append([ffd,lattice,latticeBase])
mc.parent(lattice,t)
mc.xform(lattice,ws=True,a=True,t=mc.xform(r,q=True,ws=True,a=True,rp=True))
mc.xform(lattice,os=True,a=True,ro=(0,0,0))
mc.move(0,axisLength/2,0,lattice,r=True,os=True,wd=True)
xSum,ySum,zSum=0,0,0
for p in latticeLowEndPoints:
px,py,pz=mc.pointPosition(p,w=True)
xSum+=px
ySum+=py
zSum+=pz
mc.xform(lattice,ws=True,piv=(xSum/len(latticeLowEndPoints),ySum/len(latticeLowEndPoints),zSum/len(latticeLowEndPoints)))
mc.xform(latticeBase,ws=True,piv=(xSum/len(latticeLowEndPoints),ySum/len(latticeLowEndPoints),zSum/len(latticeLowEndPoints)))
ac=mc.aimConstraint(aimTr,lattice,aim=(0,1,0),wut='objectrotation',wuo=r,u=(0,0,1),mo=False)
mc.delete(ac)
ac=mc.aimConstraint(aimTr,aimGroup,aim=(0,1,0),wut='objectrotation',wuo=r,u=(0,0,1),mo=False)
mc.delete(ac,aimTr)
lowEndCluster,lowEndClusterHandle=mc.cluster(latticeLowEndPoints)[:2]
highEndCluster,highEndClusterHandle=mc.cluster(latticeHighEndPoints)[:2]
lowEndClusterHandleShape=mc.listRelatives(lowEndClusterHandle,c=True)[0]
highEndClusterHandleShape=mc.listRelatives(highEndClusterHandle,c=True)[0]
#mc.parent(highEndClusterHandle,t)
if mc.isConnected(lowEndClusterHandleShape+'.clusterTransforms[0]',lowEndCluster+'.clusterXforms'):
mc.disconnectAttr(lowEndClusterHandleShape+'.clusterTransforms[0]',lowEndCluster+'.clusterXforms')
if mc.isConnected(highEndClusterHandleShape+'.clusterTransforms[0]',highEndCluster+'.clusterXforms'):
mc.disconnectAttr(highEndClusterHandleShape+'.clusterTransforms[0]',highEndCluster+'.clusterXforms')
self.autoFlexGroups.append\
(
(
mc.createNode('transform',n='rivetBaseAutoFlex#',p=r),
mc.createNode('transform',n='rivetEndAutoFlex#',p=aimGroup)
)
)
self.handles.append\
(
(
mc.createNode('transform',n='rivetBaseCtrl#',p=self.autoFlexGroups[i][0]),
mc.createNode('transform',n='rivetEndCtrl#',p=self.autoFlexGroups[i][1])
)
)
self.handleShapes.append\
(
(
mc.createNode('locator',p=self.handles[i][0]),
mc.createNode('locator',p=self.handles[i][1])
)
)
mc.setAttr(self.handleShapes[i][0]+'.los',.5,.5,.5)
mc.setAttr(self.handleShapes[i][1]+'.los',.5,.5,.5)
mc.xform(self.autoFlexGroups[i][0],ws=True,a=True,t=mc.xform(t,q=True,ws=True,rp=True))
mc.xform(self.autoFlexGroups[i][0],ws=True,a=True,piv=mc.xform(t,q=True,ws=True,rp=True))
for bp in self.bindPoses: mc.dagPose((self.handles[i][0],self.handles[i][1]),a=True,n=bp)
mc.xform(self.autoFlexGroups[i][1],ws=True,t=antipodes[i])
mc.hide(lattice)
mc.connectAttr(self.handles[i][0]+'.worldInverseMatrix[0]',lowEndCluster+'.bindPreMatrix',f=True)
mc.disconnectAttr(self.handles[i][0]+'.worldInverseMatrix[0]',lowEndCluster+'.bindPreMatrix')
mc.connectAttr(self.handles[i][0]+'.worldMatrix[0]',lowEndCluster+'.matrix',f=True)
mc.connectAttr(self.handles[i][1]+'.worldInverseMatrix[0]',highEndCluster+'.bindPreMatrix',f=True)
mc.disconnectAttr(self.handles[i][1]+'.worldInverseMatrix[0]',highEndCluster+'.bindPreMatrix')
mc.connectAttr(self.handles[i][1]+'.worldMatrix[0]',highEndCluster+'.matrix',f=True)
aimGroups.append(aimGroup)
if self.distribute=='u':
mc.connectAttr(clampNode+'.opr',self.autoFlexGroups[i][0]+'.sy')
else:
mc.connectAttr(clampNode+'.opg',self.autoFlexGroups[i][0]+'.sz')
mc.delete([lowEndClusterHandle,highEndClusterHandle])
self.rivets.append(r)
if self.createAimCurve and self.parent:
pmm=mc.createNode('pointMatrixMult')
arcPoints=[]
ids=[0,centerMostRivetIDs[0],centerMostRivetIDs[1],-1]
for id in ids:
measureTr=mc.createNode('transform')
aimTr=mc.createNode('transform',p=self.trs[id])
mc.parent(measureTr,self.trs[id])
mc.xform(aimTr,ws=True,t=antipodes[id])
mc.xform(measureTr,ws=True,t=mc.xform(self.rivets[id],q=True,ws=True,a=True,rp=True))
#mc.xform(measureTr,os=True,a=True,ro=(0,0,0),s=(1,1,1))
ac=mc.aimConstraint(aimTr,measureTr,aim=(0,1,0),wut='objectrotation',wuo=self.rivets[id],u=(0,0,1),mo=False)
mc.delete(ac,aimTr)
mc.connectAttr(measureTr+'.worldInverseMatrix',pmm+'.inMatrix',f=True)
maxYID=-1
maxY=0.0
yVal=0.0
for i in range(0,self.number):
mc.setAttr(pmm+'.ip',*antipodes[i])
yVal=mc.getAttr(pmm+'.oy')
if yVal>maxY:
maxY=yVal
maxYID=i
mc.setAttr(pmm+'.ip',*antipodes[maxYID])
oy=mc.getAttr(pmm+'.oy')
mc.setAttr(pmm+'.ip',*antipodes[id])
ox=mc.getAttr(pmm+'.ox')
oz=mc.getAttr(pmm+'.oz')
mc.connectAttr(measureTr+'.worldMatrix',pmm+'.inMatrix',f=True)
mc.setAttr(pmm+'.ip',ox,oy,oz)
ap=mc.getAttr(pmm+'.o')[0]
arcPoints.append(ap)
mc.disconnectAttr(measureTr+'.worldMatrix',pmm+'.inMatrix')
mc.delete(measureTr)
mc.delete(pmm)
arcCtrlArg=arcPoints
arcCtrlKeys={'arcWeight':self.arcWeight,'p':self.parents,'sp':self.softParents}
for k in arcCtrlKeys:
if type(arcCtrlKeys[k]).__name__=='NoneType':
del(arcCtrlKeys[k])
self.ArcCtrl=ArcCtrl(*arcCtrlArg,**arcCtrlKeys)
mc.addAttr(self.ArcCtrl[0],at='bool',ln='showHandles',k=True,dv=False)
mc.setAttr(self.ArcCtrl[0]+'.showHandles',k=False,cb=True)
mc.setAttr(self.ArcCtrl[0]+'.v',k=False,cb=True)
mc.setAttr(self.ArcCtrl[1]+'.v',k=False,cb=True)
for h in self.handles:
mc.connectAttr(self.ArcCtrl[0]+'.showHandles',h[0]+'.v')
mc.connectAttr(self.ArcCtrl[0]+'.showHandles',h[1]+'.v')
for bp in self.bindPoses: mc.dagPose(self.ArcCtrl,a=True,n=bp)
cpoc=mc.createNode('closestPointOnCurve')
mc.connectAttr(self.ArcCtrl.outputCurve,cpoc+'.inCurve')
for i in range(0,self.number):
aimTr=mc.createNode('transform')
poci=mc.createNode('pointOnCurveInfo')
dm=mc.createNode('decomposeMatrix')
fbfm=mc.createNode('fourByFourMatrix')
mc.connectAttr(poci+'.nnx',fbfm+'.in00')
mc.connectAttr(poci+'.nny',fbfm+'.in01')
mc.connectAttr(poci+'.nnz',fbfm+'.in02')
mc.connectAttr(poci+'.ntx',fbfm+'.in10')
mc.connectAttr(poci+'.nty',fbfm+'.in11')
mc.connectAttr(poci+'.ntz',fbfm+'.in12')
mc.connectAttr(self.ArcCtrl.outputNormal+'X',fbfm+'.in20')
mc.connectAttr(self.ArcCtrl.outputNormal+'Y',fbfm+'.in21')
mc.connectAttr(self.ArcCtrl.outputNormal+'Z',fbfm+'.in22')
mc.connectAttr(poci+'.px',fbfm+'.in30')
mc.connectAttr(poci+'.py',fbfm+'.in31')
mc.connectAttr(poci+'.pz',fbfm+'.in32')
mc.connectAttr(fbfm+'.output',dm+'.inputMatrix')
mc.connectAttr(dm+'.outputTranslate',aimTr+'.t')
mc.connectAttr(dm+'.outputRotate',aimTr+'.r')
mc.setAttr(cpoc+'.ip',*antipodes[i])
cpu=mc.getAttr(cpoc+'.u')
mc.setAttr(poci+'.parameter',cpu)
mc.connectAttr(self.ArcCtrl.outputCurve,poci+'.inputCurve')
ac=mc.aimConstraint(aimTr,self.aimGroups[i],aim=(0,1,0),wut='objectrotation',wuo=aimTr,u=(0,0,1),mo=not(self.realign))[0]
disconnectNodes(aimTr,ac)
mc.connectAttr(fbfm+'.output',ac+'.worldUpMatrix',f=True)
mc.connectAttr(dm+'.ot',ac+'.target[0].targetTranslate',f=True)
mc.delete(aimTr)
sc=mc.createNode('subCurve')
mc.setAttr(sc+'.relative',True)
mc.setAttr(sc+'.minValue',0)
mc.setAttr(sc+'.maxValue',1)
mc.connectAttr(self.ArcCtrl.outputCurve,sc+'.ic')
if self.distribute=='u':
uMultAttr=uvMultipliers[i][0]+".o"
else:
uMultAttr=uvMultipliers[i][1]+".o"
#adjust for offset
multOffsetCalc=mc.createNode('multDoubleLinear')
mc.setAttr(multOffsetCalc+'.i1',1/mc.getAttr(uMultAttr))
mc.connectAttr(uMultAttr,multOffsetCalc+'.i2')
multOffset=mc.createNode('multDoubleLinear')
mc.setAttr(multOffset+'.i1',cpu)
mc.connectAttr(multOffsetCalc+'.o',multOffset+'.i2')
mc.connectAttr(multOffset+'.o',poci+'.parameter',f=True)
subtractNode=mc.createNode('addDoubleLinear')
mc.setAttr(subtractNode+'.i1',-(1.0/(self.number*2)))
addNode=mc.createNode('addDoubleLinear')
mc.setAttr(addNode+'.i1',1.0/(self.number*2))
addSubClampNode=mc.createNode('clamp')
mc.setAttr(addSubClampNode+'.min',0,0,0)
mc.setAttr(addSubClampNode+'.max',1,1,1)
mc.connectAttr(subtractNode+'.o',addSubClampNode+'.inputR')
mc.connectAttr(addNode+'.o',addSubClampNode+'.inputG')
mc.connectAttr(multOffset+".o",subtractNode+".i2")
mc.connectAttr(multOffset+".o",addNode+".i2")
mc.connectAttr(addSubClampNode+'.outputR',sc+'.minValue')
mc.connectAttr(addSubClampNode+'.outputG',sc+'.maxValue')
ciU=mc.createNode('curveInfo')
mc.connectAttr(sc+'.outputCurve',ciU+'.inputCurve')
mdlU=mc.createNode('multDoubleLinear')
mc.connectAttr(ciU+'.al',mdlU+'.i1')
mc.setAttr(mdlU+'.i2',1/float(mc.getAttr(ciU+'.al')))
clampNode=mc.createNode('clamp')
if not mc.objExists(c+'.minScaleEnd'): mc.addAttr(self.ctrls[i],ln='minScaleEnd',at='double',k=True,min=0,max=1,dv=0)
if not mc.objExists(c+'.maxScaleEnd'): mc.addAttr(self.ctrls[i],ln='maxScaleEnd',at='double',k=True,min=0,dv=1)
mc.connectAttr(self.ctrls[i]+'.minScaleEnd',clampNode+'.minR')
mc.connectAttr(self.ctrls[i]+'.maxScaleEnd',clampNode+'.maxR')
mc.connectAttr(mdlU+'.o',clampNode+'.ipr')
if self.distribute=='u':
mc.connectAttr(clampNode+'.opr',self.autoFlexGroups[i][1]+'.sz')
else:
mc.connectAttr(clampNode+'.opr',self.autoFlexGroups[i][1]+'.sy')
mc.delete(cpoc)
if self.parent:
self[:]=self.rivets
else:
self[:]=self.trs
#if self.mo:
# #for i in len(self.trs):
# #try: mc.xform(t,q=True,ws=True,m=wsMatrices[i]))
# #except: pass
cleanup.append(cpos)
for c in cleanup:
if mc.objExists(c):
disconnectNodes(c)
mc.delete(c)
if self.snapToSurface:
if self.createAimCurve or self.taper:
for i in range(0,self.number):
mc.xform(self.handles[i][0],ws=True,t=mc.xform(self.rivets[i],q=True,ws=True,rp=True))
mc.xform(self.trs[i],ws=True,rp=mc.xform(self.rivets[i],q=True,ws=True,rp=True))
else:
for i in range(0,self.number):
mc.xform(self.trs[i],ws=True,t=mc.xform(self.rivets[i],q=True,ws=True,rp=True))
mc.xform(self.trs[i],ws=True,ro=mc.xform(self.rivets[i],q=True,ws=True,ro=True))
def create(self):
mc.cycleCheck(e=False)
if mc.objExists(self.parent):
self.group=mc.createNode('transform',n=uniqueNames(self.name),p=self.parent)
else:
self.group=mc.createNode('transform',n=uniqueNames(self.name))
self.jointParent=''
if len(iterable(mc.listRelatives(self.joints[0],p=True)))>0:
self.jointParent=mc.listRelatives(self.joints[0],p=True)[0]
else:
self.jointParent=mc.createNode('transform',n=uniqueNames(self.name+'CtrlJointGroup'))
mc.parent(self.joints[0],self.jointParent)
cMuscleObjects=[]
# create control joints
self.ctrlJoints=[]
for j in self.joints:
cj=mc.createNode('joint',p=j,n=uniqueNames(self.name+'CtrlJoint'))
if len(self.ctrlJoints)==0:
mc.parent(cj,self.group)
if mc.objExists(self.jointParent):
self.jointParent=mc.rename(ParentSpace(cj,self.jointParent)[0],self.name+'CtrlJoints')
else:
self.jointParent=mc.rename(ParentSpace(cj)[0],self.name+'CtrlJoints')
else:
mc.parent(cj,self.ctrlJoints[-1])
mc.setAttr(cj+'.r',*mc.getAttr(j+'.r')[0])
mc.setAttr(cj+'.jo',*mc.getAttr(j+'.jo')[0])
self.originalRotations[cj+'.r']=list(mc.getAttr(cj+'.r')[0])
mc.setAttr(j+'.r',0,0,0)
mc.setAttr(cj+'.r',0,0,0)
mc.setAttr(cj+'.s',1,1,1)
mc.setAttr(cj+'.radius',mc.getAttr(j+'.radius')*1.5)#0)
mc.setAttr(cj+'.ovc',10)
mc.connectAttr(j+'.pa',cj+'.pa')
if self.joints.index(j)<len(self.joints)-1:
childList=removeAll\
(
iterable(mc.listRelatives(self.joints[self.joints.index(j)+1],c=True,ad=True))+[self.joints[self.joints.index(j)+1]],
iterable(mc.listRelatives(j,c=True,ad=True))+[j]
)
chList=childList
for c in chList:
if mc.nodeType(c) not in ['transform','joint','cMuscleObject']:
childList.remove(c)
if mc.nodeType(c) in ['transform','joint']:
for a in ['.t','.tx','.ty','.tz','.r','.rx','.ry','.rz']:
if mc.connectionInfo(c+a,id=True) or mc.getAttr(c+a,l=True) or mc.getAttr(c+'.io'):
childList.remove(c)
break
if j==self.joints[-2]:
childList.append(self.joints[-1])
for jc in childList:
if mc.nodeType(jc)=='transform' or mc.nodeType(jc)=='joint':
if jc in self.joints[:-1]:
mc.parentConstraint(cj,jc,mo=True)
else:
mc.parentConstraint(cj,jc,sr=('x','y','z'),mo=True)
elif 'cMuscle' in mc.nodeType(jc):
cMuscleObjects.append(jc)
else:
mc.parentConstraint(cj,j,st=('x','y','z'),mo=True)
self.ctrlJoints.append(cj)
mc.hide(self.jointParent)
mc.setAttr(self.ctrlJoints[1]+'.ssc',False)
# create ik
self.ikHandle,self.endEffector=mc.ikHandle(sol='ik2Bsolver',sj=self.ctrlJoints[0],ee=self.ctrlJoints[-1],n=uniqueNames(self.name+'Handle'))
self.endEffector=mc.rename(self.endEffector,self.name+'Effector')
mc.setAttr(self.ikHandle+'.snapEnable',False)
mc.hide(self.ikHandle)
mc.setAttr(self.ikHandle+'.ikBlend',0)
for j in self.originalRotations:
if isIterable(self.originalRotations[j]):
mc.setAttr(j,*self.originalRotations[j])
else:
mc.setAttr(j,self.originalRotations[j])
# look for twist joints
if self.twist:
skipAxis=removeAll(self.orientAxis,['x','y','z'])
twistJoints=removeAll([self.joints[-2],self.joints[-1]],hierarchyBetween(self.joints[-2],self.joints[-1],type='joint'))
for i in range(0,len(twistJoints)):
tj=twistJoints[i]
oc=mc.orientConstraint(self.ctrlJoints[-1],tj,sk=skipAxis,mo=True)
if i>0:
oc=mc.orientConstraint(self.ctrlJoints[-2],tj,sk=skipAxis,mo=True)
wal=mc.orientConstraint(oc,q=True,wal=True)
distToBend=distanceBetween(self.ctrlJoints[-2],tj)
distToEnd=distanceBetween(self.ctrlJoints[-1],tj)
mc.setAttr(oc+'.'+wal[-1],distToEnd/(distToBend+distToEnd))
mc.setAttr(oc+'.'+wal[-2],distToBend/(distToBend+distToEnd))
# make stretchy
db=mc.createNode('distanceBetween')
mc.connectAttr(self.ctrlJoints[0]+'.t',db+'.p1')
pmm1=mc.createNode('pointMatrixMult')
pmm2=mc.createNode('pointMatrixMult')
mc.connectAttr(self.ikHandle+'.t',pmm1+'.ip')
mc.connectAttr(self.ikHandle+'.pm[0]',pmm1+'.im')
mc.connectAttr(pmm1+'.o',pmm2+'.ip')
mc.connectAttr(self.ctrlJoints[0]+'.pim[0]',pmm2+'.im')
mc.connectAttr(pmm2+'.o',db+'.p2')
mdl=mc.createNode('multDoubleLinear')
mc.connectAttr(db+'.d',mdl+'.i1')
mc.setAttr(mdl+'.i2',1.0/mc.getAttr(db+'.d'))
cn=mc.createNode('clamp')
for i in range(0,3):
c=['r','g','b'][i]
a=['x','y','z'][i]
mc.connectAttr(mdl+'.o',cn+'.ip'+c)
mc.setAttr(cn+'.mn'+c,1)
mc.connectAttr(mdl+'.o',cn+'.mx'+c)
mc.connectAttr(cn+'.op'+c,self.ctrlJoints[0]+'.s'+a)
for cmo in cMuscleObjects:
mdlcm=mc.createNode('multDoubleLinear')
mc.setAttr(mdlcm+'.i1',mc.getAttr(cmo+'.length'))
mc.connectAttr(cn+'.op'+['r','g','b'][['x','y','z'].index(self.orientAxis)],mdlcm+'.i2')
mc.connectAttr(mdlcm+'.o',cmo+'.length')
# create control objects or set control object pivots
poleOffset=distanceBetween(self.ctrlJoints[1],self.ctrlJoints[0])*2
for i in range(0,len(self.controlObjects)-1):
if mc.objExists(self.controlObjects[i]):
mc.xform(self.controlObjects[i],ws=True,piv=mc.xform(self.ctrlJoints[-1],q=True,ws=True,rp=True))
else:
if 'r' not in self.handleOptions[i] and 'radius' not in self.handleOptions[i]:
self.handleOptions[i]['r']=distanceBetween(self.ctrlJoints[-1],self.ctrlJoints[0])/4
if 'name' not in self.handleOptions[i] and 'n' not in self.handleOptions[i]:
self.handleOptions[i]['n']=self.joints[i]+'_ctrl'
if 'x' not in self.handleOptions[i] and 'xform' not in self.handleOptions[i]:
self.handleOptions[i]['xform']=self.joints[i]
if 'aim' not in self.handleOptions[i] and 'a' not in self.handleOptions[i]:
self.handleOptions[i]['aim']=self.aimVector
self.handleOptions[i]['parent']=self.group
self.handleOptions[-i]['pointTo']=self.joints[i]
self.handleOptions[i]['aimAt']=self.joints[i]
self.handles.append(Handle(**self.handleOptions[i]))
self.controlObjects[i]=(self.handles[-1].transforms[-1])
if not mc.objExists(self.controlObjects[-1]):
if 'name' not in self.handleOptions[-1] and 'n' not in self.handleOptions[-1]:
self.handleOptions[-1]['n']=self.joints[1]+'_aimCtrl'
if 'x' not in self.handleOptions[-1] and 'xform' not in self.handleOptions[-1]:
self.handleOptions[-1]['x']=self.ctrlJoints[1]
if 'aim' not in self.handleOptions[i] and 'a' not in self.handleOptions[i]:
self.handleOptions[i]['aim']=self.poleVector
self.handleOptions[-1]['parent']=self.group
self.handleOptions[-1]['pointTo']=self.joints[1]
self.handleOptions[-1]['aimAt']=self.joints[1]
self.handles.append(Handle(**self.handleOptions[-1]))
self.controlObjects[-1]=(self.handles[-1].transforms[-1])
mc.move\
(
poleOffset*(self.poleVector[0]),
poleOffset*(self.poleVector[1]),
poleOffset*(self.poleVector[2]),
self.controlObjects[-1],
r=True,os=True,wd=True
)
# add and set control attributes
mc.setAttr(self.controlObjects[-1]+'.v',k=False)
for attr in ['.sx','.sy','.sz']:
mc.setAttr(self.controlObjects[-1]+attr,l=True,k=False,cb=False)
mc.setAttr(self.ikHandle+attr,l=True,k=False,cb=False)
for attr in ['.rx','.ry','.rz']:
mc.setAttr(self.controlObjects[-1]+attr,k=False,cb=False)
for attr in ['.tx','.ty','.tz']:
mc.setAttr(self.group+attr,l=True,k=False,cb=False)
mc.setAttr(self.controlObjects[0]+attr,l=True,k=False,cb=False)
mc.setAttr(self.ikHandle+'.v',k=False,cb=False)
for attr in ['.tx','.ty','.tz']:
mc.setAttr(self.controlObjects[1]+attr,l=True,k=False,cb=False)
if not mc.objExists(self.controlObjects[-2]+'.twist'):
mc.addAttr(self.controlObjects[-2],at='doubleAngle',ln='twist',k=True)
if not mc.objExists(self.controlObjects[-2]+'.sway') and self.sway:
mc.addAttr(self.controlObjects[-2],at='doubleAngle',ln='sway',k=1)
if not mc.objExists(self.controlObjects[-2]+'.stretch'):
mc.addAttr(self.controlObjects[-2],at='double',ln='stretch',k=1,dv=self.stretch,min=0)
if not mc.objExists(self.controlObjects[-2]+'.squash'):
mc.addAttr(self.controlObjects[-2],at='double',ln='squash',k=1,dv=self.squash,min=0,max=99)
if not mc.objExists(self.controlObjects[-2]+'.ikSwitch'):
mc.addAttr(self.controlObjects[-2],at='enum',ln='ikSwitch',en='ik:fk',k=True,dv=1)# if self.switch=='fk' else 0
#sway control
if self.sway:
adl=mc.createNode('addDoubleLinear')
mc.connectAttr(self.ctrlJoints[1]+'.r'+self.poleAxis,adl+'.i1')
mc.connectAttr(self.controlObjects[-2]+'.sway',adl+'.i2')
childList=removeAll\
(
iterable(mc.listRelatives(self.joints[2],c=True,ad=True)),
iterable(mc.listRelatives(self.joints[1],c=True,ad=True))
)+[self.joints[2],self.joints[1]]
for c in childList:
if mc.nodeType(c)=='transform' or mc.nodeType(c)=='joint':
pc=mc.parentConstraint(c,q=True)
nc=listNodeConnections(self.ctrlJoints[1],pc,s=True,d=True)
for conn in nc:
if conn[0]==self.ctrlJoints[1]+'.rotate':
mc.disconnectAttr(conn[0],conn[1])
for a in removeAll(self.poleAxis,['x','y','z']):
mc.connectAttr(conn[0]+a.upper(),conn[1]+a.upper(),f=True)
mc.connectAttr(adl+'.o',conn[1]+self.poleAxis.upper(),f=True)
# ik/fk switch
for i in range(0,3):
c=['r','g','b'][i]
a=['x','y','z'][i]
adl=mc.createNode('addDoubleLinear')
mdl1=mc.createNode('multDoubleLinear')
mc.setAttr(mdl1+'.i2',.01)
mdl2=mc.createNode('multDoubleLinear')
mc.setAttr(mdl2+'.i2',.01)
revNode=mc.createNode('reverse')
mc.setAttr(adl+'.i1',1)
mc.connectAttr( mdl1+'.o',adl+'.i2')
mc.connectAttr(self.controlObjects[-2]+'.stretch',mdl1+'.i1')
mc.connectAttr( mdl2+'.o',revNode+'.ix')
mc.connectAttr(self.controlObjects[-2]+'.squash',mdl2+'.i1')
mc.connectAttr(adl+'.o',cn+'.mx'+c,f=True)
mc.connectAttr(revNode+'.ox',cn+'.mn'+c,f=True)
if not mc.objExists(self.controlObjects[-2]+'.zenPreviousIKState'):
if self.switch=='fk':
mc.addAttr(self.controlObjects[-2],at='long',ln='zenPreviousIKState',k=0,dv=1)
else:
mc.addAttr(self.controlObjects[-2],at='long',ln='zenPreviousIKState',k=0,dv=0)
if not mc.objExists(self.controlObjects[-2]+'.zenPreviousIKParent'):
if self.switch=='fk':
mc.addAttr(self.controlObjects[-2],at='long',ln='zenPreviousIKParent',k=0,dv=1)
else:
mc.addAttr(self.controlObjects[-2],at='long',ln='zenPreviousIKParent',k=0,dv=0)
for i in range(0,2):
for c in mc.listRelatives(self.controlObjects[i],s=True):
mc.connectAttr(self.controlObjects[-2]+'.ikSwitch',c+'.v')
mc.connectAttr(self.controlObjects[-2]+'.twist',self.ikHandle+'.twist')
rev=mc.createNode('reverse')
mc.connectAttr(self.controlObjects[-2]+'.ikSwitch',rev+'.ix')
mc.connectAttr(rev+'.ox',self.ikHandle+'.ikBlend')
for c in mc.listRelatives(self.controlObjects[-1],s=True):
mc.connectAttr(rev+'.ox',c+'.v')
# parent spaces
for i in [0,1,2]:
if(mc.objExists(self.jointParent)and i in [0,2]):
ParentSpace(self.controlObjects[i],self.jointParent)
else:
ParentSpace(self.controlObjects[i],self.controlObjects[i-1])
ParentSpace(self.controlObjects[-1],self.controlObjects[-2])
if mc.objExists(self.jointParent):
ParentSpace(self.controlObjects[-1],self.jointParent).setParent(self.jointParent)
ParentSpace(self.controlObjects[-2],self.jointParent).setParent(self.jointParent)
else:
ParentSpace(self.controlObjects[-1],self.controlObjects[0])
if self.switch=='fk':
ParentSpace(self.controlObjects[2],self.controlObjects[1])
for co in self.controlObjects[2:]:
freeze(co,t=True)
mc.aimConstraint\
(
self.ctrlJoints[1],self.controlObjects[-1],
aim=(self.aimVector[0],self.aimVector[1],self.aimVector[2]),
wuo=self.ctrlJoints[1],
wut='objectrotation',
mo=True
)
if mc.objExists(self.jointParent):
mc.setAttr(self.controlObjects[0]+'.parentTo',l=True,k=False,cb=False)
mc.setAttr(self.controlObjects[1]+'.parentTo',l=True,k=False,cb=False)
#constraints
orientConstraints=['','','']
for i in [2,1,0]:
orientConstraints[i]=mc.orientConstraint(self.controlObjects[i],self.ctrlJoints[i],mo=True)[0]
mc.setAttr(self.controlObjects[i]+'.v',k=False)
for attr in ['.sx','.sy','.sz']:
mc.setAttr(self.controlObjects[i]+attr,l=True,k=False,cb=False)
if i==1:
if not self.sway:
mc.setAttr(self.controlObjects[i]+'.r'+self.poleAxis,l=True,k=False,cb=False)
mc.setAttr(self.controlObjects[i]+'.r'+self.orientAxis,l=True,k=False,cb=False)
self.poleVectorConstraint=mc.poleVectorConstraint(self.controlObjects[-1],self.ikHandle)[0]
for oc in orientConstraints[:-1]:
octl=mc.orientConstraint(oc,q=True,tl=True)
ocwal=mc.orientConstraint(oc,q=True,wal=True)
weightAlias=ocwal[octl.index(self.controlObjects[orientConstraints.index(oc)])]
mc.connectAttr(self.controlObjects[-2]+'.ikSwitch',oc+'.'+weightAlias)
mc.parent(self.ikHandle,self.controlObjects[2],r=False)
if self.switch=='ik':
mc.setAttr(self.controlObjects[-2]+'.ikSwitch',0)
# link for asset detection
if 'zenIkFkLimbCtrls' not in mc.listAttr(self.group):
mc.addAttr(self.group,ln='zenIkFkLimbCtrls',at='message',m=True)
if 'zenIkFkLimbCtrlJoints' not in mc.listAttr(self.group):
mc.addAttr(self.group,ln='zenIkFkLimbCtrlJoints',at='message',m=True)
for co in self.controlObjects:
if 'zenCtrl' not in mc.listAttr(co):
mc.addAttr(co,ln='zenCtrl',at='message')
mc.connectAttr(co+'.zenCtrl',self.group+'.zenIkFkLimbCtrls['+str(firstOpenPlug(self.group+'.zenIkFkLimbCtrls'))+']')
for cj in self.ctrlJoints:
if 'zenCtrl' not in mc.listAttr(cj):
mc.addAttr(cj,ln='zenCtrl',at='message')
mc.connectAttr(cj+'.zenCtrl',self.group+'.zenIkFkLimbCtrlJoints['+str(firstOpenPlug(self.group+'.zenIkFkLimbCtrlJoints'))+']')
for bp in self.bindPoses:
for co in self.controlObjects:
mc.dagPose(co,a=True,n=bp)
self[:]=[self.group]+self.controlObjects
mc.cycleCheck(e=True)
mc.select(self[-2])
def addAttributes(self,**keywords):
#organize:
sortedKeywords=sortBy\
(
keywords,
[
'position',
'scale',
'sweep',
'spin',
'radius',
'normal'
]
)
for k in sortedKeywords:
attrVal=eval('self.'+k)
if isIterable(attrVal):
attrType='double3'
else:
attrType='double'
if k in self.attributeTypes:
attrType=self.attributeTypes[k]
else:
self.attributeTypes[k]=attrType
if not k in mc.listAttr(self.shapes[-1]):
if k in self.attributeShortNames:
mc.addAttr(self.shapes[-1],ln=k,sn=self.attributeShortNames[k],at=attrType)
else:
mc.addAttr(self.shapes[-1],ln=k,at=attrType)
if isIterable(attrVal):
subAttrType=attrType[:-1]
if k in self.attributeShortNames:
mc.addAttr(self.shapes[-1],ln=k+'X',sn=self.attributeShortNames[k]+'x',at=subAttrType,p=k)
mc.addAttr(self.shapes[-1],ln=k+'Y',sn=self.attributeShortNames[k]+'y',at=subAttrType,p=k)
mc.addAttr(self.shapes[-1],ln=k+'Z',sn=self.attributeShortNames[k]+'z',at=subAttrType,p=k)
else:
mc.addAttr(self.shapes[-1],ln=k+'X',at=subAttrType,p=k)
mc.addAttr(self.shapes[-1],ln=k+'Y',at=subAttrType,p=k)
mc.addAttr(self.shapes[-1],ln=k+'Z',at=subAttrType,p=k)
mc.setAttr(self.shapes[-1]+'.'+k+'X',k=False,cb=True)
mc.setAttr(self.shapes[-1]+'.'+k+'Y',k=False,cb=True)
mc.setAttr(self.shapes[-1]+'.'+k+'Z',k=False,cb=True)
if k in self.attributeLimits:
mc.addAttr(self.shapes[-1]+'.'+k+'X',e=True,min=self.attributeLimits[k][0][0],max=self.attributeLimits[k][-1][0])
mc.addAttr(self.shapes[-1]+'.'+k+'Y',e=True,min=self.attributeLimits[k][0][1],max=self.attributeLimits[k][-1][1])
mc.addAttr(self.shapes[-1]+'.'+k+'Z',e=True,min=self.attributeLimits[k][0][2],max=self.attributeLimits[k][-1][2])
else:
if k in self.attributeLimits:
mc.addAttr(self.shapes[-1]+'.'+k,e=True,min=self.attributeLimits[k][0],max=self.attributeLimits[k][-1])
if isIterable(attrVal):
mc.setAttr(self.shapes[-1]+'.'+k,*attrVal,**{'cb':True,'k':False})
else:
mc.setAttr(self.shapes[-1]+'.'+k,attrVal,k=False,cb=True)
if isIterable(keywords[k]):
connectTo=keywords[k]
else:
connectTo=[keywords[k]]
for c in connectTo:
if isinstance(connectTo,dict):
for cc in connectTo:
if not mc.isConnected(self.shapes[-1]+'.'+k+cc,connectTo[cc]):
mc.connectAttr(self.shapes[-1]+'.'+k+cc,connectTo[cc],f=True)
else:
if not mc.isConnected(self.shapes[-1]+'.'+k,c):
mc.connectAttr(self.shapes[-1]+'.'+k,c,f=True)
def __init__(self,*args,**keywords):
#defaults
self.parent=''
self.transforms=[]
self.name=''
self.pointTo=''
self.aimAt=''
self.aim=[0,1,0]
self.up=[0,0,1]
self.pivot=[]
self.type='locator'
self.shape=''
self.shapes=[]
self.radius=1
self.sweep=90
self.position=[0,0,0]
self.scale=[1,1,1]
self.xform=''
self.spin=0
self.xformMatrix=[]
self.freeze=False
self.softParent=''
# attributes
self.parentSpaces=[]
self.shortNames=\
{
'p':'parent',
'f':'freeze',
'n':'name',
'tan':'tangent',
'pv':'pivot',
'piv':'pivot',
'tr':'transform',
'pct':'parentCtrl',
'pctrl':'parentCtrl',
'ctrl':'control',
'rad':'radius',
'r':'radius',
'sw':'sweep',
'pos':'position',
't':'type',
'x':'xform',
'aa':'aimAt',
'sp':'softParent'
}
self.attributeTypes=\
{
'normal':'float3',
'up':'double3',
'aim':'double3',
'sweep':'double',
'spin':'double'
}
self.attributeLimits=\
{
'normal':[[-1,-1,-1],[1,1,1]],
'up':[[-1,-1,-1],[1,1,1]],
'aim':[[-1,-1,-1],[1,1,1]],
'sweep':[0,180],
'spin':[-225,135],
'radius':[0,10000000]
}
self.attributeShortNames=\
{
'position':'pos',
'radius':'rad',
'spin':'sp',
'sweep':'sw',
'normal':'nr'
}
for k in keywords:
if k in self.shortNames:
exec('self.'+self.shortNames[k]+'=keywords[k]')
elif k in self.__dict__:
exec('self.'+k+'=keywords[k]')
if len(args)==0 and not mc.objExists(self.xform): args=mc.ls(sl=True)
sel=[]
for a in args:
if isIterable(a):
sel.extend(a)
else:
sel.append(a)
for s in sel:
if mc.ls(s)==mc.ls(s,type='transform'):
self.transforms.append(mc.ls(s)[0])
elif mc.ls(s)==mc.ls(s,type='shape'):
self.transforms.append(mc.ls(s)[0])
# parse options
if self.name=='': self.name='Handle#'
if not isIterable(self.position):
if isinstance(self.position,basestring) and mc.objExists(self.position):
if len(iterable(self.position.split('.')))>1:
try:
self.position=mc.pointPosition(self.position)
except:
self.position=mc.pointPosition(self.position+'.rp')
else:
self.position=mc.pointPosition(self.position+'.rp')
elif len(self.position)<3:
self.position=[0.0,0.0,0.0]
if self.transforms==[]:
if 'freeze' not in keywords and 'f' not in keywords:
self.freeze=True
if mc.objExists(self.xform):
self.transforms.append(mc.createNode('transform',n=self.name,p=self.xform))
mc.setAttr(self.transforms[-1]+'.r',0,0,0)
else:
self.transforms.append(mc.createNode('transform',n=self.name))
if mc.objExists(self.parent):
mc.parent(self.transforms[-1],self.parent)
else:
mc.parent(self.transforms[-1],w=True)
"""if mc.objExists(self.xform):
xfm=mc.xform(self.xform,q=True,ws=True,a=True,m=True)
wsro=mc.xform(self.xform,q=True,ws=True,ro=True)
wst=mc.xform(self.xform,q=True,ws=True,t=True)
wsrp=mc.xform(self.xform,q=True,ws=True,rp=True)
wsra=mc.xform(self.xform,q=True,ws=True,ra=True)
wssp=mc.xform(self.xform,q=True,ws=True,sp=True)
print self.transforms[-1]
print xfm
mc.xform(self.transforms[-1],ws=True,a=True,m=xfm)
mc.xform(self.transforms[-1],ws=True,ro=wsro)
mc.xform(self.transforms[-1],ws=True,t=wst)
mc.xform(self.transforms[-1],ws=True,rp=wsrp)
mc.xform(self.transforms[-1],ws=True,ra=wsra)
mc.xform(self.transforms[-1],ws=True,sp=wssp)
print mc.xform(self.transforms[-1],q=True,a=True,ws=True,m=True)"""
elif mc.objExists(self.parent):
for t in self.transforms:
mc.parent(t,self.parent)
if mc.objExists(self.softParent):
for t in self.transforms:
self.parentSpaces.append(ParentSpace(t,self.softParent))
if self.freeze:
freeze(self.transforms[-1],t=True)
if mc.objExists(self.pointTo):
self.aimCurve=mc.createNode('nurbsCurve',p=self.transforms[0])
if len(self.shapes)==0:
exec('self.mk'+self.type[0].upper()+self.type[1:]+'()')
if mc.objExists(self.pointTo):
self.mkAim()
for t in self.transforms:
if not 'zenHandleShape' in mc.listAttr(t):
mc.addAttr(t,ln='zenHandleShape',m=True,at='message')
for s in self.shapes:
if not 'zenHandle' in mc.listAttr(s):
mc.addAttr(s,ln='zenHandle',at='message')
for t in self.transforms:
for s in self.shapes:
mc.connectAttr\
(
s+'.zenHandle',
t+'.zenHandleShape['+str(firstOpenPlug(t+'.zenHandleShape'))+']'
)
if len(self.transforms)>1:
for t in self.transforms[1:]:
pass
self[:]=self.shapes
def __init__(self,*args,**keywords):
#default options
self.targets=[]
self.origin='local'
self.frontOfChain=True
self.deleteTargets=False
self.base=[]
self.baseIndex=0
self.useExisting=True
self.controlObjects=[]
self.controlAttributes=[]
self.before=False
self.after=False
self.name='blendShape#'
self.goals=[] # use to specify exact goal weights for each target in each target list
self.range=[[0,10]] # use to specify range of goals for each target
self.weights=[0]
self.prune=False
self.baseIndex=0
self.createControlObject=False
self.control=True
# any of the following abbreviations can be substituted
self.shortNames=\
{
'o':'origin',
'foc':'frontOfChain',
'dt':'deleteTargets',
'b':'base',
'ue':'useExisting',
'co':'controlObjects',
'control':'controlObjects',
'ca':'controlAttributes',
'n':'name',
'g':'goals',
'goal':'goals',
'gm':'goalMax',
'p':'prune',
'r':'range',
't':'targets',
'w':'weights',
'c':'control'
}
unusedKeys={}
for k in keywords:
if k in self.shortNames:
exec('self.'+self.shortNames[k]+'=keywords[k]')
elif k in self.__dict__:
exec('self.'+k+'=keywords[k]')
else:
unusedKeys[k]=keywords[k]
self.controlObjects=iterable(self.controlObjects)
if not isIterable(self.range[0]): self.range=[self.range]
if len(args)==0: args=mc.ls(sl=True)
sel=[]
for a in args:
if isinstance(a,basestring) and mc.objExists(a) and mc.nodeType(a)=='blendShape':
self.append(a)
self.base=mc.blendShape(a,q=True,g=True)
for i in range(0,len(self.base)): self.base[i]=shape(self.base[i])
break
else:
sel.append(a)
if len(self.base)>self.baseIndex and mc.objExists(self.base[self.baseIndex]):
self.targets.extend(removeAll([self[0],self.base[self.baseIndex]],sel))
else:
self.targets.extend(sel[:-1])
self.base=[shape(args[-1])]
if self.useExisting and len(self[:])==0: self.find()
if len(self)==0: self.create()
self.addTargets(**self.__dict__)
def deferExec(*args,**keywords):
#defaults
melCommand=False
repeatable=True
showErrors=True
shortNames={
'mel':'melCommand',
're':'repeatable',
'se':'showErrors'
}
if len(args)==0: return
for k in keywords:
if k in locals():
exec(k+'=keywords[k]')
elif k in shortNames:
exec(shortNames[k]+'=keywords[k]')
zdc=MelGlobalVar('zenDelayedCommands')
dcStr=zdc.get()
if isinstance(dcStr,basestring):
dc=dcStr.split(';')
else:
dcStr=''
dc=[]
dcsjVar=MelGlobalVar('zenDelayedCommandsSJ')
dcsj=dcsjVar.get()
if type(dcsj).__name__=='NoneType':
dcsj=''
for a in args:
if not repeatable:
dc.remove(a)
if isinstance(a,basestring):
if melCommand:
dc.append(a)
else:
lines=a.split('\n')
if len(lines)==1:
dc.append('python('+melEncode(a)+')')
else:
pyCmd='python(\n'
for l in lines:
pyCmd+=melEncode(l+'\n')+'+\n'
pyCmd=pyCmd[:-2]+')'
dc.append(pyCmd)
sjExists=False
if isIterable(dc) and len(dc)>0 and isinstance(dcsj,(int,long,float)) and dcsj!=0 and mel.eval('scriptJob -ex '+str(dcsj)):
sjExists=True
dc=removeAll([''],dc)
zdc.set(';'.join(dc))
if not(sjExists):
cmd=(
'scriptJob \n'+
' -ro true\n'+
' -e "idle" \n'+
' (\n'+
' '+melEncode('string $zenDeferExec_errCmds[]={};\n')+'+\n'+
' '+melEncode('for($c in (stringArrayRemoveDuplicates(stringToStringArray($zenDelayedCommands,\";\"))))\n')+'+\n'+
' '+melEncode('{\n')+'+\n'+
' '+melEncode(' if(catch(`eval($c)`)) $zenDeferExec_errCmds[size($zenDeferExec_errCmds)]=$c;\n')+'+\n'+
' '+melEncode('}\n')+'+\n'+
' '+melEncode('for($c in $zenDeferExec_errCmds) warning("errors encountered: \\n"+$c+"\\n");\n')+'+\n'+
' '+melEncode('$zenDelayedCommands="";\n')+'+\n'+
' '+melEncode('$zenDelayedCommandsSJ=0;\n')+'\n'+
' )'
)
dcsjVar.set(mel.eval(cmd))
def __init__(self, *args, **keywords):
# default options
self.controlObjects = [""]
self.baseShapes = [""]
self.influences = []
self.deformed = []
self.nurbsSamples = [10.0]
self.smoothness = [0.0]
self.nurbsSamples = [10]
self.wrapSmoothness = [1]
self.exclusiveBind = True
self.maxDistance = 0
self.calculateMaxDistance = False
self.smooth = -1
self.smoothType = 0
self.wrapOptions = {
"name": "",
"before": False,
"after": False,
"split": False,
"frontOfChain": False,
"parallel": False,
"prune": False,
}
self.shortNames = {
"co": "controlObject",
"bsa": "baseShapeAttr",
"dsa": "deformShapeAttr",
"d": "deformed",
"n": "name",
"bf": "before",
"af": "after",
"sp": "split",
"foc": "frontOfChain",
"par": "parallel",
"pr": "prune",
"eb": "exclusiveBind",
"md": "maxDistance",
"cmd": "calculateMaxDistance",
}
# attributes
self.inputType = []
for k in keywords:
if k in self.__dict__:
exec("self." + k + "=keywords[k]")
elif k in self.wrapOptions:
exec('self.wrapOptions["' + k + '"]=keywords[k]')
elif k in self.shortNames:
if shortNames[k] in self.__dict__:
exec("self." + shortNames[k] + "=keywords[k]")
elif shortNames[k] in self.wrapOptions:
exec('self.wrapOptions["' + shortNames[k] + '"]=keywords[k]')
if isinstance(self.smoothType, basestring) and self.smoothType in ["exponential", "linear"]:
self.smoothType = ["exponential", "linear"].index(self.smoothType)
self.influences = iterable(self.influences)
self.baseShapes = iterable(self.baseShapes)
self.deformed = iterable(self.deformed)
# parse arguments
if len(args) == 0 and (len(self.influences) == 0 or len(self.deformed) == 0):
args = mc.ls(sl=True)
sel = []
for a in args:
if (
isinstance(a, basestring)
and len(a.split(".")) > 1
and str(mc.getAttr(a, type=True)) in ["mesh", "nurbsCurve", "nurbsSurface"]
) or (
isIterable(a)
and len(mc.ls(a, o=True)) > 0
and mc.nodeType(mc.ls(a, o=True)[0]) in ["mesh", "nurbsCurve", "nurbsSurface"]
):
sel.append(a)
elif isinstance(a, basestring) and mc.nodeType(shape(a)) in ["mesh", "nurbsCurve", "nurbsSurface"]:
sel.append(shape(a))
if len(self.influences) == 0 and len(self.deformed) == 0:
self.influences = sel[:-1]
self.deformed = sel[-1:]
elif len(self.influences) == 0 and len(self.deformed) > 0:
self.influences = sel
elif len(self.influences) > 0 and len(self.deformed) == 0:
self.deformed = sel
self.create()
self.addInfluences(
nurbsSamples=self.nurbsSamples,
wrapSmoothness=self.wrapSmoothness,
controlObjects=self.controlObjects,
smooth=self.smooth,
smoothType=self.smoothType,
*self.influences
)
def __init__(self,*args,**keywords):
# default options
self.name='limb'
self.stretch=20
self.squash=0
self.twist=True # performs auto detect
self.sway=True
self.switch='ik' # initial ik/fk switch state
self.handleOptions=[{'type':'doubleEllipse','spin':-180},{'type':'doubleEllipse','spin':-90},{'type':'doubleEllipse'},{'type':'locator'}]
self.tol=1.0 # angle tolerance for preferred angles
self.parent=''
self.shortNames=\
{
'n':'name',
'p':'parent',
'sp':'softParent',
'co':'controlObjects',
'ho':'handleOptions'
}
# attributes
self.controlObjects=['','','','']
self.bindPoses=[]
self.joints=[]
self.group=''
self.orientAxis=''
self.bendAxis=''
self.poleAxis=''
self.ctrlJoints=[]
self.handles=[]
self.endEffector=''
self.ikHandle=''
self.jointParent=''
self.jointParent=''
self.originalRotations={}
self.bendDirection=0
self.poleVector=[]
self.poleVectorWorld=[]
self.upVector=[]
self.aimVector=[]
self.parentSpaces=[]
for k in keywords:
if k in self.__dict__:
exec('self.'+k+'=keywords[k]')
elif k in self.shortNames:
exec('self.'+self.shortNames[k]+'=keywords[k]')
uniqueNames(re=True)
if len(args)==0:
args=mc.ls(sl=True)
sel=[]
for a in args:
sel.extend(iterable(a))
sel=hierarchyOrder(sel)
# parse options
defualtHandleOptions=[{'type':'doubleEllipse','spin':-180},{'type':'doubleEllipse','spin':-90},{'type':'doubleEllipse'},{'type':'locator'}]
i=len(self.handleOptions)
while len(self.handleOptions)<4:
self.handleOption.append(defualtHandleOptions[i])
i+=1
if isinstance(self.handleOptions,dict):
self.handleOptions=[self.handleOptions,self.handleOptions,self.handleOptions]
elif isIterable(self.handleOptions):
if len(self.handleOptions)==0:
self.handleOptions.append({})
while len(self.handleOptions)<3:
self.handleOptions.append(self.handleOptions[-1])
else:
self.handleOptions=[{},{},{}]
self.controlObjects=iterable(self.controlObjects)
self.orientAxis=self.orientAxis.lower()
self.baseTwist=''
self.hierarchy=[]
if len(sel)>2:
for j in sel[:-1]:
if len(hierarchyBetween(j,sel[-1]))>len(self.hierarchy):
self.hierarchy=hierarchyBetween(j,sel[-1])
closest=9e999
for s in removeAll([self.hierarchy[0],self.hierarchy[-1]],sel):
if\
(
len(iterable(mc.listRelatives(self.hierarchy[0],p=True)))==0 or
s in mc.listRelatives(mc.listRelatives(self.hierarchy[0],p=True)[0],c=True,type='joint')
):
dist=distanceBetween(s,self.hierarchy[0])
if dist<closest:
closest=dist
self.baseTwist=s
else:
self.hierarchy=hierarchyBetween(sel[0],sel[-1])
self.bindPoses=iterable(getBindPoses(self.hierarchy))
self.joints=['','','']
if len(self.hierarchy)<3:
raise Exception('There are no joints between your start and end joint. No IK created.')
self.joints[0]=self.hierarchy[0]
self.joints[-1]=self.hierarchy[-1]
# find the orientation axis
self.orientAxis='x'
axisLen={'x':0,'y':0,'z':0}
for j in self.hierarchy[1:]:
for a in ['x','y','z']:
axisLen[a]+=abs(mc.getAttr(j+'.t'+a))
if axisLen[a]>axisLen[self.orientAxis]:
self.orientAxis=a
# find bend joint and pole vector
self.originalRotations={}
for j in self.hierarchy[1:-1]: # check to see if any have a non-zero preferred angle
for a in removeAll(self.orientAxis,['x','y','z']):
if abs(mc.getAttr(j+'.pa'+a))>=self.tol:
self.originalRotations[j+'.r'+a]=mc.getAttr(j+'.r'+a)
mc.setAttr(j+'.r'+a,mc.getAttr(j+'.pa'+a))
greatestAngle=0
for j in self.hierarchy[1:-1]:
jPos=mc.xform(j,q=True,ws=True,rp=True)
prevJPos=mc.xform(self.hierarchy[self.hierarchy.index(j)-1],q=True,ws=True,rp=True)
nextJPos=mc.xform(self.hierarchy[self.hierarchy.index(j)+1],q=True,ws=True,rp=True)
vAngle=mc.angleBetween(v1=normalize(jPos[0]-prevJPos[0],jPos[1]-prevJPos[1],jPos[2]-prevJPos[2]),v2=normalize(nextJPos[0]-jPos[0],nextJPos[1]-jPos[1],jPos[2]-jPos[2]))[-1]
if abs(vAngle)>greatestAngle:
greatestAngle=abs(vAngle)
self.joints[1]=j
mp=midPoint\
(
self.hierarchy[0],self.hierarchy[-1],
bias=\
(
distanceBetween(self.hierarchy[0],self.joints[1])/
(distanceBetween(self.hierarchy[0],self.joints[1])+distanceBetween(self.joints[1],self.hierarchy[-1]))
)
)
bendPoint=mc.xform(self.joints[1],q=True,ws=True,rp=True)
self.poleVectorWorld=normalize\
(
bendPoint[0]-mp[0],
bendPoint[1]-mp[1],
bendPoint[2]-mp[2]
)
pmm=mc.createNode('pointMatrixMult')
mc.setAttr(pmm+'.vm',True)
mc.connectAttr(self.joints[1]+'.worldInverseMatrix',pmm+'.im')
mc.setAttr(pmm+'.ip',*self.poleVectorWorld)
self.poleVector=mc.getAttr(pmm+'.o')[0]
disconnectNodes(pmm)
mc.delete(pmm)
greatestLength=0.0
for i in [0,1,2]:
if abs(self.poleVector[i])>greatestLength and ['x','y','z'][i]!=self.orientAxis:
self.poleAxis=['x','y','z'][i]
greatestLength=abs(self.poleVector[i])
self.bendDirection=-abs(self.poleVector[i])/self.poleVector[i]
for r in self.originalRotations:
mc.setAttr(r,self.originalRotations[r])
preferredAngleWarning=False
if not mc.objExists(self.joints[1]):
preferredAngleWarning=True
mp=midPoint(self.hierarchy[0],self.hierarchy[-1])
cd=9e999
dist=0
for j in self.hierarchy[1:-1]:
dist=distanceBetween(j,mp)
if dist<cd:
cd=dist
self.joints[1]=j
self.bendAxis=removeAll(self.orientAxis,['z','y','x'])[0]
if self.poleAxis=='': self.poleAxis=removeAll([self.orientAxis,self.bendAxis],['x','y','z'])[0]
if self.bendAxis=='': self.bendAxis=removeAll([self.orientAxis,self.poleAxis],['x','y','z'])[0]
if self.orientAxis=='': self.orientAxis=removeAll([self.bendAxis,self.poleAxis],['x','y','z'])[0]
if self.poleAxis=='x': self.poleVector=[-self.bendDirection,0.0,0.0]
if self.poleAxis=='y': self.poleVector=[0.0,-self.bendDirection,0.0]
if self.poleAxis=='z': self.poleVector=[0.0,0.0,-self.bendDirection]
if self.bendAxis=='x': self.upVector=[-self.bendDirection,0.0,0.0]
if self.bendAxis=='y': self.upVector=[0.0,-self.bendDirection,0.0]
if self.bendAxis=='z': self.upVector=[0.0,0.0,-self.bendDirection]
if self.orientAxis=='x': self.aimVector=[self.bendDirection,0.0,0.0]
if self.orientAxis=='y': self.aimVector=[0.0,self.bendDirection,0.0]
if self.orientAxis=='z': self.aimVector=[0.0,0.0,self.bendDirection]
if mc.objExists(self.baseTwist):
conn=False
for a in ['.r','.rx','.ry','.rz']:
if mc.connectionInfo(self.baseTwist+a,id=True):
conn=True
if not conn:
mc.orientConstraint(self.joints[0],self.baseTwist,sk=self.orientAxis)
# load ik2Bsolver - ikRPSolver does not work well with this setup
mel.eval('ik2Bsolver')
self.create()
if preferredAngleWarning:
raise Warning('Warning: Joints are co-linear and no preferred angles were set. Results may be unpredictable.')
def midPoint(*args, **keywords): # weighted midPoint
world = False
local = False
bias = 0.5 # 0.0==point1, 1.0==point2
shortNames = {"w": "world", "l": "local", "b": "bias"}
for k in keywords:
if k in locals():
exec(k + "=keywords[k]")
if k in shortNames:
exec(shortNames[k] + "=keywords[k]")
if not (world or local):
world = True
if len(args) == 0:
args = mc.ls(sl=True)
if len(args) == 0:
return
p = []
for a in args:
if isIterable(a) and len(a) >= 3 and isinstance(a[0], (float, long, int)) and len(a) >= 3:
p.append(a)
elif isinstance(a, basestring) and mc.objExists(a):
if len(a.split(".")) > 1:
try:
p.append(mc.pointPosition(a, w=world, l=local))
except:
if mc.nodeType(mc.ls(a, o=True)) == "mesh":
for v in iterable(mc.ls(mc.polyListComponentConversion(a, tv=True), fl=True)):
p.append(mc.pointPosition(v, w=world, l=local))
else:
try:
p.append(mc.pointPosition(a + ".rp", w=world, l=local))
except:
err = True
if len(p) < 1:
return
if len(p) == 1:
return p[0]
mp = [0.0, 0.0, 0.0]
if len(p) == 2: # use bias
mp = (
(float(p[0][0]) * (1 - bias) + float(p[-1][0]) * bias),
(float(p[0][1]) * (1 - bias) + float(p[-1][1]) * bias),
(float(p[0][2]) * (1 - bias) + float(p[-1][2]) * bias),
)
else: # disregard bias
for pp in p:
mp = (
mp[0] + (float(pp[0]) * (1.0 / float(len(p)))),
mp[1] + (float(pp[1]) * (1.0 / float(len(p)))),
mp[2] + (float(pp[2]) * (1.0 / float(len(p)))),
)
return mp
def __init__(self,*args,**keywords):
#check to make sure unique names are used in scene
uniqueNames(iterable(mc.ls(type='dagNode')),re=True)
#default options
self.number=1 #if there are no transforms, create this many rivets
self.distribute=''
self.parents=['','']
self.rebuild=False
self.taper='none' # none, normal, distance
self.scale='none' # none, uniform, or relative
self.scaleDirection=['length','width'] # length, width
self.createAimCurve=False
self.aimCurve=''
self.handles=[]
self.handleShapes=[]
self.autoFlexGroups=[]
self.mo=True # maintain offset
self.ctrls=[] #by default control attributes are placed on given transforms
self.keepPivot=True
self.snapToSurface=False
self.realign=False
self.rivets=[]
self.ClosestPoints=[]
self.aimGroups=[]
self.softParents=[]
self.ArcCtrl=[]
self.arcWeight=.5
self.closestPoint='' # geometry, pivot
self.organize=True
self.constraint=False # use a parent constraint
self.parent=False # create a transform and parent objects to it
self.spaceTr=''
self.surfaceAttr=''
self.bindPoses=[]
self.parentSpaces=[]
self.hasGeometry=True
self.skipRotate=[]
self.skipTranslate=[]
self.skipScale=[]
self.skipScaleObjects=[]
self.skipRotateObjects=[]
self.skipTranslateObjects=[]
self.minScaleWidth=0
self.maxScaleWidth=1
self.minScaleLength=0
self.maxScaleLength=1
self.surfaceMatrix=''
self.surfaceInverseMatrix=''
self.worldMatrix=''
self.trs=[]
self.uSpans=-1
self.vSpans=-1
self.skins=[]
self.shortNames=\
{
'sd':'scaleDirection',
'p':'parents',
'sp':'softParents'
}
sel=[]
if len(args)==0:
sel=mc.ls(sl=True)
for a in args:
sel.extend(iterable(a))
self.bindPoses=iterable(getBindPoses(sel))
if len(self.bindPoses)>0:
goToDagPose(self.bindPoses[0])
self.edges=PolyEdgeList(sel,f=True)
self.trs=removeDuplicates(mc.ls(self.edges.etcObj,tr=True))
if len(self.edges)==0: #look for a surface or surface attribute
reversedObjList=getReversed(self.edges.etcObj)
for obj in reversedObjList:
if len(obj.split('.'))>1 and mc.getAttr(obj,type=True)=='nurbsSurface':
self.surfaceAttr=obj
obj=mc.ls(self.surfaceAttr,o=True)[0]
if mc.nodeType(obj)=='nurbsSurface':
self.uSpans=mc.getAttr(obj+'.spansU')
self.vSpans=mc.getAttr(obj+'.spansV')
self.spaceTr=mc.listRelatives(obj,p=True)[0]
break
elif mc.nodeType(obj)=='nurbsSurface':
self.surfaceAttr=obj+'.worldSpace[0]'
self.spaceTr=mc.listRelatives(obj,p=True)[0]
self.uSpans=mc.getAttr(obj+'.spansU')
self.vSpans=mc.getAttr(obj+'.spansV')
self.trs.remove(obj)
break
else:
children=mc.listRelatives(obj,c=True,s=True,ni=True,type='nurbsSurface')
if isIterable(children) and len(children)>0:
self.spaceTr=mc.ls(obj)[0]
self.surfaceAttr=children[0]+'.worldSpace[0]'
self.uSpans=mc.getAttr(children[0]+'.spansU')
self.vSpans=mc.getAttr(children[0]+'.spansV')
self.trs.remove(obj)
break
else:
self.spaceTr=self.edges.getTr()
for k in keywords:
if k in self.__dict__:
exec('self.'+k+'=keywords[k]')
elif k in self.shortNames:
exec('self.'+self.shortNames[k]+'=keywords[k]')
if len(iterable(self.parents))==1:
self.parents=[iterable(self.parents)[0],iterable(self.parents)[0]]
if len(iterable(self.softParents))==1:
self.softParents=[iterable(self.softParents)[0],iterable(self.softParents)[0]]
if len(self.ctrls)==0:
self.ctrls=self.trs
while len(self.ctrls)<len(self.trs):
self.ctrls.append(self.ctrls[-1])
if len(self.skipRotate)>0:
for i in self.skipRotate:
self.skipRotateObjects.append(self.trs[self.skipRotate[i]])
if len(self.skipTranslate)>0:
for i in self.skipTranslate:
self.skipTranslateObjects.append(self.trs[self.skipTranslate[i]])
if len(self.skipScale)>0:
for i in self.skipScale:
self.skipScaleObjects.append(self.trs[self.skipScale[i]])
if len(self.trs)>0:
for t in self.trs:
shCount=len\
(
removeDuplicates(mc.listRelatives(t,c=True,type='nurbsSurface'))+
removeDuplicates(mc.listRelatives(t,c=True,type='nurbsCurve'))+
removeDuplicates(mc.listRelatives(t,c=True,type='mesh'))
)
if shCount==0:
self.hasGeometry=False
self.closestPoint='pivot'
break
if self.closestPoint=='' and self.hasGeometry: # default to pivot if using snap to surface, otherwise defualts to geometry
if self.snapToSurface:
self.closestPoint='pivot'
else:
self.closestPoint='geometry'
if len(self.trs)!=0:
self.number=len(self.trs)
if len(self.ctrls)<len(self.trs):
self.ctrls=self.trs
if not self.parent and not self.constraint:
self.parent=True
if self.createAimCurve:
self.parent=True
#self.constraint=False
#find the root joint if present
try:
joints=removeDuplicates(mc.listConnections(iterable(mc.ls(iterable(mc.listHistory(self.surfaceAttr)))),type='joint'))
if len(joints)>0: self.spaceTr=hierarchyOrder(joints)[0]
except:
pass
self.create()