def attach_to_plane(self, constraint_rot=True):
"""
Create follicle attached to the place for each input joint
:param constraint_rot: Are the joints will be constraint in rotation on the follicle
:return: Nothing
"""
nomenclature_rig = self.get_nomenclature_rig()
fol_v = 0.5 # Always in the center
#split_value = 1.0 / (len(self.chain_jnt) - 1)
for i, jnt in enumerate(self.chain_jnt):
#fol_u = split_value * i
# TODO: Validate that we don't need to inverse the rotation separately.
jnt_pos = jnt.getMatrix(worldSpace=True).translate
pos, fol_u, fol_v = libRigging.get_closest_point_on_surface(self._ribbon_shape, jnt_pos)
fol_name = nomenclature_rig.resolve("ribbonFollicle{0:02d}".format(i))
fol_shape = libRigging.create_follicle2(self._ribbon_shape, u=fol_u, v=fol_v)
fol = fol_shape.getParent()
fol.rename(fol_name)
if constraint_rot:
pymel.parentConstraint(fol, jnt, mo=True)
else:
pymel.pointConstraint(fol, jnt, mo=True)
self._follicles.append(fol)
def circle(self, joint):
a = 0.25
b = 0.3432
p0 = Point(a + 0.005,0 , -a - 0.005)
p1 = Point(b + 0.05, 0, 0)
p2 = Point(a + 0.005, 0, a + 0.005)
p3 = Point(0, 0, b)
p4 = Point(-a - 0.005, 0, a + 0.005)
p5 = Point(-b - 0.05, 0, 0)
p6 = Point(-a - 0.005, 0, -a - 0.005)
p7 = Point(0, 0, - b)
points = [p0, p1, p2, p3, p4, p5, p6, p7, p0, p1, p2]
pts = []
for point in points:
pts.append(point.getPoint())
pm.curve(per = True, d = 3, p = pts, k = [0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12])
pm.parent("%s" % str(pm.ls(sl = True)[0]), "%s" % str(joint), relative = True)
pm.parent("%s" % str(pm.ls(sl = True)[0]), world = True)
pm.makeIdentity(r = True)
curve = "%s" % str(pm.ls(sl = True)[0])
g = 0
while g < 8:
pm.moveVertexAlongDirection(curve + ".cv[" + str(g) + "]", d = [0,1,0], m = -0.08)
g += 1
group = pm.group(curve)
pm.orientConstraint(curve, joint, mo = True)
handle = joint + "IK"
pm.pointConstraint(curve, handle, mo = True)
def LinkBindNode(self):
'''
Make the actual driving connections between the Bind and Destination Nodes
'''
maintainOffsets = False
# Make the Bind Between the Object
# if BindTrans and BindRots:
# try:
# con=pm.parentConstraint(self.BindNode['Main'], self.DestinationNode, mo=maintainOffsets)
# con.interpType.set(2)
# except:
# raise StandardError('ParentConstraint Bind could not be made')
if self.Settings.BindTrans:
try:
pm.pointConstraint(self.BindNode['Main'], self.DestinationNode, mo=maintainOffsets)
except:
pass
if self.Settings.BindRots:
try:
con = pm.orientConstraint(self.BindNode['Main'], self.DestinationNode, mo=maintainOffsets)
con.interpType.set(2)
except:
pass
#Add the BindMarkers so that we can ID these nodes and connections later
self.AddBindMarkers(self.DestinationNode, self.BindNode['Root'])
def create(self):
pointA = self.startObj
pointB = self.endObj
position = (0,0,0)
# 커브 생성
crv = pm.curve( d=1, p=[ position, position ], k=[0,1] )
self.curve = crv.getShape()
# obj에 커브 쉐입을 종속 시킴 : 커브를 선택해도 오브젝트를 선택한 효과를 줌.
pm.parent( self.curve, pointA, r=True, s=True)
pm.delete( crv )
# target에 locator를 종속 시킴
self.locator = pm.pointCurveConstraint( self.curve+'.ep[1]', ch=True)[0]
self.locator = pm.PyNode(self.locator)
pm.pointConstraint( pointB, self.locator )
# 로케이서 속성 조정
self.locator.getShape().localPosition.set(0,0,0) #이 로케이터는 보이지 않음
self.locator.getShape().v.set(False) #이 로케이터는 보이지 않음
self.locator.v.set(False) #이 로케이터는 보이지 않음
self.locator.setParent(pointA)
self.locator.rename( pointB+'_CONNLOC' )
# 커브쉐입에 어트리뷰트 추가
self.curve.addAttr( 'curveConnectedTo', at='message' )
self.curve.addAttr( 'curveConnectedLOC', at='message' )
# 어트리뷰트 연결
pointB.message >> self.curve.curveConnectedTo
self.locator.message >> self.curve.curveConnectedLOC
def make_stabilized_node(nodeName=None, centered=True):
'''
Very simple proc to generate a Stabilized node for
raw MoCap tracking purposes... First selected node
is used as the Aim axis, second selected is used as this
aim's worldUp
'''
RequiredMarkers = pm.ls(sl=True, l=True)
#pos = pm.xform(WorldUpObj, q=True, ws=True, t=True)
curve = pm.curve(ws=True, d=1, p=(0, 0, 0), k=0)
if centered:
AimAt = RequiredMarkers[0]
WorldUpObj = RequiredMarkers[1]
pm.pointConstraint(RequiredMarkers, curve)
else:
AimAt = RequiredMarkers[1]
WorldUpObj = RequiredMarkers[2]
pm.pointConstraint(RequiredMarkers[0], curve)
pm.aimConstraint((AimAt, curve),
weight=1,
aimVector=(0, 0, 1),
upVector=(0, 1, 0),
worldUpType="object",
worldUpObject=WorldUpObj)
#Snap a curveKnot to the pivot of all referenceMarkers
for node in RequiredMarkers:
pm.curve(curve, a=True, ws=True, p=(pm.xform(node, q=True, ws=True, t=True)))
pm.curve(curve, a=True, ws=True, p=(pm.xform(AimAt, q=True, ws=True, t=True)))
return curve
def bdSwitchFKIK(self):
if 'arm' in self.limb:
print self.side + ' arm FK->IK switch '
for loc in self.ikArmCons:
shadowLoc = pm.ls(self.namespace + self.side + loc + 'LOC')[0]
tempLoc = pm.duplicate(shadowLoc)
pm.parent(tempLoc,w=True)
ikCon = pm.ls(self.namespace + self.side + loc + 'CON',type='transform')[0]
if ikCon.name().find('armIK') > 0:
tempCnstr = pm.parentConstraint(tempLoc,ikCon)
else:
tempCnstr = pm.pointConstraint(tempLoc,ikCon)
pm.delete([tempCnstr,tempLoc])
self.armSwitchCon.attr('ikFkBlend').set(0)
elif 'leg' in self.limb:
print self.side + ' leg FK->IK switch '
for loc in self.ikLegCons:
shadowLoc = pm.ls(self.namespace + self.side + loc + 'LOC')[0]
tempLoc = pm.duplicate(shadowLoc)
pm.parent(tempLoc,w=True)
ikCon = pm.ls(self.namespace + self.side + loc + 'CON',type='transform')[0]
if ikCon.name().find('legIK') > 0:
tempCnstr = pm.parentConstraint(tempLoc,ikCon)
else:
tempCnstr = pm.pointConstraint(tempLoc,ikCon)
pm.delete([tempCnstr,tempLoc])
self.legSwitchCon.attr('ikFkBlend').set(0)
def autoPoleVector( baseJnt=None, endJnt=None, side='L' ): baseJntPos = pm.xform( baseJnt, q=True, t=True, ws=True ) endJntPos = pm.xform( endJnt, q=True, t=True, ws=True ) pm.select(clear=True) poleVectorJnt_one = pm.joint( p=baseJntPos ) poleVectorJnt_two = pm.joint( p=endJntPos ) poleVectorIKstuff = pm.ikHandle( sj = poleVectorJnt_one, ee = poleVectorJnt_two, solver = "ikSCsolver" ) pv = pm.spaceLocator() pv.setParent( poleVectorJnt_two ) pv.translate.set( 0,0,0 ) pvZeros = ZeroGrp( pv ) pm.pointConstraint( poleVectorIKstuff[0], pvZeros[0] ) if side=='L': pv.translateX.set( 1 ) elif side=='R': pv.translateX.set( -1 ) pvZeros[0].setParent( poleVectorJnt_two ) return ( pv, poleVectorIKstuff, (poleVectorJnt_one, poleVectorJnt_two) )
def addSurfaceConstraintToBnd(bnd, surface):
'''
'''
secDrv = bnd.getParent()
matrix = secDrv.getMatrix(worldSpace=True)
# create additional nulls
gc = pm.group(em=True, n=bnd.nodeName().replace('_bnd', '_gc'))
gc_offset = pm.group(em=True, n=bnd.nodeName().replace('_bnd', '_gc_offset'))
acs = pm.group(em=True, n=bnd.nodeName().replace('_bnd', '_acs'))
# point constraint first to get precise position to secDrv
pm.pointConstraint(secDrv, gc)
# geometry constraint to surface
pm.geometryConstraint(surface, gc)
# normal constraint, using secDrv-Y as up
pm.normalConstraint(surface, gc, aim=(0,0,1), u=(0,1,0),
wuo=secDrv, wut='objectrotation', wu=(0,1,0))
# ensure that gc_offset stores offset to secDrv
gc_offset.setMatrix(matrix, worldSpace=True)
acs.setMatrix(matrix, worldSpace=True)
# hierarchy
secDrv | gc | gc_offset | acs | bnd
def AlignBindNode(self, **kws):
'''
Overwrite the default behaviour: Align the newly made BindNode as required for this bind
'''
parentNode = self.SourceNode.listRelatives(p=True)[0]
if parentNode:
#Parent the BindNode to the Source Driver Node
pm.parent(self.BindNode['Root'], self.SourceNode.listRelatives(p=True)[0])
else:
pm.parent(self.BindNode['Root'], self.SourceNode)
self.BindNode['Main'].rotateOrder.set(self.SourceNode.rotateOrder.get())
self.BindNode['Root'].rotateOrder.set(self.DestinationNode.rotateOrder.get())
#Positional Alignment
if self.Settings.AlignToControlTrans:
pm.delete(pm.pointConstraint(self.SourceNode, self.BindNode['Root']))
pm.makeIdentity(self.BindNode['Root'], apply=True, t=1, r=0, s=0)
pm.delete(pm.pointConstraint(self.DestinationNode, self.BindNode['Root']))
if self.Settings.AlignToSourceTrans:
pm.delete(pm.pointConstraint(self.SourceNode, self.BindNode['Root']))
pm.makeIdentity(self.BindNode['Root'], apply=True, t=1, r=0, s=0)
#Rotation Alignment
if parentNode:
pm.orientConstraint(self.SourceNode, self.BindNode['Root'])
if self.Settings.AlignToControlRots:
pm.delete(pm.orientConstraint(self.DestinationNode, self.BindNode['Main']))
if self.Settings.AlignToSourceRots:
pm.delete(pm.orientConstraint(self.SourceNode, self.BindNode['Main']))
def build(self, refs=None, line_target=True, *args, **kwargs):
"""
Will create the ctrl node and it's line target if needed
:param refs: The reference used to attach the line target
:param line_target: Bool to tell if we want a line target
:param args: More args passed to the super class
:param kwargs: More kwargs passed to the super class
:return:
"""
super(CtrlIkSwivel, self).build(*args, **kwargs)
assert (self.node is not None)
ref = next(iter(refs), None) if isinstance(refs, collections.Iterable) else refs
# Create line
if line_target is True and ref is not None:
# Create a spaceLocator so the annotation can hook itself to it.
self._line_locator = pymel.spaceLocator()
locator_shape = self._line_locator.getShape()
pymel.pointConstraint(ref, self._line_locator)
self._line_locator.setParent(self.node)
self._line_locator.hide()
self._line_annotation = pymel.createNode('annotationShape')
annotation_transform = self._line_annotation.getParent()
self._line_annotation.setParent(self.node, relative=True, shape=True)
pymel.connectAttr(locator_shape.worldMatrix, self._line_annotation.dagObjectMatrix[0], force=True)
pymel.delete(annotation_transform)
return self.node
def ExtraControlForJnt( jnts=None ) :
if not jnts:
jnts = pm.ls( sl=True )
else:
jnts = pm.ls( jnts )
for jnt in jnts:
# duplicate joint
pm.select( clear=True )
newJnt = pm.joint( p = [0,0,0], name= '%s_extra'%jnt.name() )
pm.delete( pm.pointConstraint( jnt, newJnt ) )
pm.delete( pm.orientConstraint( jnt, newJnt ) )
pm.parent( newJnt, jnt )
newJnt.jointOrient.set( jnt.jointOrient.get() )
# create control curve for joint
ctrl = CubeCrv( name = '%s_ctrl'%jnt.name() )
pm.delete( pm.pointConstraint( jnt, ctrl ) )
pm.delete( pm.orientConstraint( jnt, ctrl ) )
zeroAndOfs = ZeroGrp( ctrl )
ctrl.translate >> newJnt.translate
ctrl.rotate >> newJnt.rotate
ctrl.scale >> newJnt.scale
# make controls to move with base joints
pm.parentConstraint( jnt, zeroAndOfs[0] )
pm.scaleConstraint( jnt, zeroAndOfs[0] )
def makeNull():
#pm.melGlobals.initVar( 'string[]', 'KinectSkelNames' )
i=0
for i in range(0,24):
pm.spaceLocator(p=(0, 0, 0),n=KinectSkelNames[i])
pm.spaceLocator(p=(0, 0, 0),n="KINECT_HAND")
for i in range(0,15):
point[i] = [0.0,0.0,0.0]
makeSkel()
for i in range(0,15):
pm.rename('joint'+str(i+1), KinectSkelJoints[i]+'_jt')
for i in range(0,15):
pm.pointConstraint( KinectSkelJoints[i], KinectSkelJoints[i]+'_jt' )
pm.orientConstraint( KinectSkelJoints[i], KinectSkelJoints[i]+'_jt' )
#Create Camera
cam = pm.camera()[1]
#print pm.camera(cam, query=True, aspectRatio=True)
cam.setAspectRatio(3)
print cam.getAspectRatio()
def setupStretchyJointSegment(self,root_joint, end_joint):
""" Set up stretchy joint segments"""
## create polevector control
poleVect_cont = pm.spaceLocator(name = self.userSpecifiedName + ":" + root_joint.stripNamespace() + "_poleVectorLocator")
poleVect_cont_grp = pm.group(poleVect_cont, name = self.userSpecifiedName + ":" + root_joint.stripNamespace() + "_poleVectorLocatorGRP")
poleVect_cont.translateY.set(-0.5)
poleVect_cont.visibility.set(0)
## add stretch ik to joints
ik_nodes = self.stretchy_ik(root_joint, end_joint, container = self.module_container, poleVector_object = poleVect_cont)
root_locator = ik_nodes["root_locator"]
end_locator = ik_nodes["end_locator"]
doNotTouch_grp =ik_nodes["doNotTouch_grp"]
## determine the translation control names
parent_trans_cont = self.userSpecifiedName + ":" + root_joint.stripNamespace() + "_translation_control"
child_trans_cont = self.userSpecifiedName + ":" + end_joint.stripNamespace() + "_translation_control"
## point constraint root locator to root joint, end locator to translation control, root_locator to poleVectGroup
pm.pointConstraint(root_joint, root_locator, maintainOffset = False, name = root_locator + "_pointConstraint")
pm.pointConstraint(child_trans_cont, end_locator, maintainOffset = False, name = self.userSpecifiedName + ":" + end_locator.stripNamespace() + "_childTransContConstraint")
pm.parentConstraint(parent_trans_cont, poleVect_cont_grp, maintainOffset = False, name = self.userSpecifiedName + ":" + root_locator.stripNamespace() + "_poleVectorLocatorConstraint")
#utils.addNodeToContainer(self.module_container, [doNotTouch_grp], ihb = True, includeNetwork = True)
return doNotTouch_grp, poleVect_cont_grp
def AlignBindNode(self, **kws):
'''
Overwrite the default behaviour: Align the newly made BindNode as required for this bind
'''
#Parent the BindNode/UpVector Object to the upVectorParent Node
#Parent the AimLocator Object to the Source node -used to modify the AimPoint
pm.parent(self.BindNode['Root'], self.upVectorParent)
pm.parent(self.BindNode['Up'], self.upVectorParent)
pm.parent(self.BindNode['AimOffset'], self.SourceNode)
#self.BindNode['Root'].scale.set(self.Settings.BaseScale,self.Settings.BaseScale,self.Settings.BaseScale)
self.BindNode['Main'].rotateOrder.set(self.SourceNode.rotateOrder.get())
self.BindNode['Root'].rotateOrder.set(self.DestinationNode.rotateOrder.get())
#Aim Alignment
pm.aimConstraint(self.BindNode['AimOffset'], self.BindNode['Root'], aimVector=(0,1,0),upVector=(0,0,1),\
worldUpType="object",worldUpObject=self.BindNode['Up'])
#Positional Alignment
pm.delete(pm.pointConstraint(self.SourceNode, self.BindNode['AimOffset']))
pm.makeIdentity(self.BindNode['AimOffset'], apply=True, t=1, r=1, s=0)
pm.delete(pm.pointConstraint(self.upVectorParent, self.BindNode['Root']))
pm.makeIdentity(self.BindNode['Root'], apply=True, t=1, r=0, s=0)
pm.delete(pm.pointConstraint(self.upVectorParent, self.BindNode['Up']))
pm.makeIdentity(self.BindNode['Up'], apply=True, t=1, r=0, s=0)
pm.delete(pm.pointConstraint(self.DestinationNode, self.BindNode['Root']))
#Rotate Alignment
pm.delete(pm.orientConstraint(self.DestinationNode, self.BindNode['Main']))
def createStickyControl(position, geo, name):
"""
Create sticky control for a transform
@param geo:
@return:
"""
# Create space locator
class ctrl():
def __init__(self, name):
self.ctrl = pm.spaceLocator(name=name)
self.xtra = libUtilities.parZero(self.ctrl, "Xtra")
self.prnt = libUtilities.parZero(self.xtra, "Prnt")
self.prnt.rename(name + "_Prnt")
self.ctrl.rename(name + "_Ctrl")
# Create the ctrl obj
newLoc = ctrl(name)
newLoc.prnt.translate.set(position)
# Create the follice and point contraint
follicle = createFollicle(position, geo)
follicle.rename(name + "_fol")
pm.pointConstraint(follicle, newLoc.prnt)
# Create a translate cycle
md = pm.createNode("multiplyDivide", name=name + "_MD")
md.input2.set([-1, -1, -1])
newLoc.ctrl.translate >> md.input1
md.output >> newLoc.xtra.translate
return newLoc, follicle
def rigCurveConnect( *objs, **kwargs ):
'''
update : 2015-04-15
'''
if objs:
pm.select(objs)
sel = pm.selected( type='transform')
if not sel:
raise
obj = sel[0]
# 삭제
delete = kwargs.get('delete', False)
if delete:
for crvShp in obj.getShapes():
if crvShp.hasAttr('curveConnectedLOC'):
try:
pm.delete( crvShp, crvShp.curveConnectedLOC.inputs() )
except:
pass
return True
# 타겟 가져옴.
target = sel[1]
name = kwargs.get('name') or kwargs.get('n', target+'_CONNCRV' )
position = kwargs.get('position') or kwargs.get('p', (0,0,0) )
# 커브 생성
crvTrans = pm.curve( n=name, d=1, p=[ position, position ], k=[0,1] )
crvShape = crvTrans.getShape()
# obj에 커브 쉐입을 종속 시킴 : 커브를 선택해도 오브젝트를 선택한 효과를 줌.
pm.parent( crvShape, obj, r=True, s=True)
pm.delete( crvTrans )
# target에 locator를 종속 시킴
loc = pm.pointCurveConstraint( crvShape+'.ep[1]', ch=True)[0]
loc = pm.PyNode(loc)
pm.pointConstraint( target, loc )
# 로케이서 속성 조정
loc.getShape().localPosition.set(0,0,0)
loc.getShape().v.set(False)
loc.v.set(False)
loc.setParent(obj)
loc.rename( target+'_CONNLOC' )
# 커브쉐입에 어트리뷰트 추가
crvShape.addAttr( 'curveConnectedTo', at='message' )
crvShape.addAttr( 'curveConnectedLOC', at='message' )
# 어트리뷰트 연결
target.message >> crvShape.curveConnectedTo
loc. message >> crvShape.curveConnectedLOC
return loc
def create_sticky_control(geo,
position,
name,
setup_type="follicle",
free_rotation=True):
"""
Temp setup to create sticky control at position for given geometry
@param setup_type:
@param position (vector) The position in worldspace where this will created
@param geo (pynode) The target geometry
@param name (string) The prefix identifier given to this setup
@param free_rotation (bool) Whether the rotation are free
@return: A dict of control object and object which is constraining.
TODO:
"""
# Create space locator
geo = libUtilities.force_pynode(geo)
# Create the ctrl obj
new_ctrl = libUtilities.Ctrl(name)
tempCtrlShape = utils.buildCtrlShape("Spike")
libUtilities.transfer_shape(tempCtrlShape, new_ctrl.ctrl,True)
libUtilities.fix_shape_name(new_ctrl.ctrl)
pm.delete(tempCtrlShape)
info = {"ctrl": new_ctrl}
if setup_type == "follicle":
new_ctrl.prnt.translate.set(position)
# Create the follice and point constraint
follicle = create_follicle(position, geo)
follicle.rename("{}_fol".format(name))
if free_rotation:
pm.pointConstraint(follicle, new_ctrl.prnt)
else:
pm.parentConstraint(follicle, new_ctrl.prnt)
# Create a translate cycle
info["sticky_source"] = follicle
md = pm.createNode("multiplyDivide", name=name + "_MD")
md.input2.set([-1, -1, -1])
new_ctrl.ctrl.translate >> md.input1
md.output >> new_ctrl.xtra.translate
info["multiplyDivide"] = md
else:
new_info = create_point_on_mesh(geo, position, new_ctrl.prnt, free_rotation)
info.update(new_info)
if free_rotation:
libUtilities.cheap_point_constraint(new_info["locator"],
new_ctrl.prnt)
else:
pm.parentConstraint(new_info["locator"], new_ctrl.prnt)
new_info["locator"].rename("{}_loc".format(name))
new_info["constraint"].rename("{}_popCon".format(name))
return info
def constraintRigJnt(self):
for i in range(self.numJnt):
cnstr = pm.pointConstraint(self.ikJntList[i],self.rigJntList[i],mo=1,weight=1)
cnstr = pm.pointConstraint(self.flcTransformList[i],self.rigJntList[i],mo=1,weight=0)
ikWeight,flcWeight = pm.pointConstraint(cnstr, query=True, weightAliasList=True)
self.stretchRev.outputX >> ikWeight
self.mainCtrl.stretch >> flcWeight
def curveAimBelt(module, crv, aimCrv, numJnts, mo=True, aimVector=(0,1,0), upVector=(0,1,0), worldUpType="vector", worldUpVector=(0,1,0)):
'''Takes two curves, creates joints on the first and aims objects at the second.
Args:
crv (pm.nt.nurbsCurve): nurbs curve to generate things on
aimCrv (pm.nt.nurbsCurve): nurbs curve to aim things to
numJnts (int): number of joints to be generated
other : all of the aim vector constraint settings
Returns list(grp, list(joints))
Usage:
curveAimBelt("path", pm.ls(sl=True)[0], pm.ls(sl=True)[1], 40)
'''
grp = pm.group(em=True, n=module+'_GRP')
aimgrp = pm.group(em=True, n=module+'_AIMDRV_GRP', p=grp)
joints = rig_makeJointsAlongCurve(module+"Drive", crv, numJnts)
ikJoints = rig_makeJointsAlongCurve(module+"IK", crv, numJnts)
skelgrp = pm.group(em=True, n=module+'Skeleton_GRP', p=grp)
ikskelgrp = pm.group(em=True, n=module+'ikJNT_GRP', p=skelgrp)
jntgrp = pm.group(em=True, n=module+'JNT_GRP', p=skelgrp)
clstrGrp = pm.group(em=True, n=module+'Clusters_GRP', p=grp)
crvGrp = pm.group(em=True, n=module+'Curves_GRP', p=grp)
for joint,ikJoint in zip(joints,ikJoints):
joint.setParent(jntgrp)
pociResult = rig_getClosestPointAndPositionOnCurve(joint, crv)
pociResult[2].setParent(aimgrp)
pociOrig = pociResult[0]
poci = pm.nodetypes.PointOnCurveInfo(n=joint+"_POCI")
aimCrv.getShape().attr("worldSpace[0]").connect(poci.inputCurve)
pociOrig.parameter.connect(poci.parameter)
loc = pm.spaceLocator( n=joint+'AIMDRV_GRP' )
loc.setParent(aimgrp)
poci.position.connect(loc.t)
pm.pointConstraint(ikJoint, joint, mo=True)
pm.aimConstraint(loc, joint, mo=mo, aimVector=aimVector, upVector=upVector, worldUpType=worldUpType, worldUpVector=worldUpVector)
ikHandle=pm.ikHandle(sj=ikJoints[0], ee=ikJoints[-1], sol='ikSplineSolver', c=crv, ccv=False, rtm=False)[0]
origClusters = rig_clusterCurve(crv, ends=True)
offsetClusters = rig_clusterCurve(aimCrv, ends=True)
for clstr, oClstr in zip(origClusters, offsetClusters):
pm.parentConstraint(clstr[1], oClstr[1], mo=True)
oClstr[1].visibility.set(0)
clstr[1].setParent(clstrGrp)
oClstr[1].setParent(clstrGrp)
ikJoints[0].setParent(ikskelgrp)
ikskelgrp.visibility.set(0)
crvGrp.visibility.set(0)
crv.setParent(crvGrp)
aimCrv.setParent(crvGrp)
ikHandle.setParent(ikskelgrp)
aimgrp.inheritsTransform.set(0)
return [grp, joints]
def rope_connect():
pm.pointConstraint(sel[0], 'M_start_CTRL' )
pm.pointConstraint(sel[1], 'M_end_CTRL' )
pm.pointConstraint(sel[2], 'M_mid_A_CTRL' )
pm.pointConstraint(sel[3], 'M_mid_CTRL' )
pm.pointConstraint(sel[4], 'M_mid_B_CTRL' )
for obj in sel:
cns_connections = pm.listConnections (type = 'constraint')
pm.delete(cns_connections)
def buildShoulderNoRoll(self):
''' Setup no roll shoulder. Assumes Elbow is child of Shoulder. '''
self.logger.info('buildShoulderNoRoll(): Starting...')
# Get the shoulder / elbow / wrist joint
shldrJ = str(self.ui.shldrJointLineEdit.text())
elbowJ = str(self.ui.elbowJointLineEdit.text())
wristJ = str(self.ui.wristJointLineEdit.text())
parentJ = str(self.ui.jointChainLineEdit.text())
# Get as PyNodes
pm.select(elbowJ,r=1)
elbowJ = pm.ls(sl=1)[0]
pm.select(shldrJ,r=1)
shldrJ = pm.ls(sl=1)[0]
pm.select(wristJ,r=1)
wristJ = pm.ls(sl=1)[0]
#--- No roll rig
nfShldr = self.noRollRig( startJnt=shldrJ )
# Get the nfWrist joint
for each in pm.listRelatives( nfShldr, children=1 ):
if each.type() == 'joint':
nfWrist = each
self.logger.info('buildShoulderNoRoll(): Selected noroll wrist: %s'%nfWrist)
break
#--- Create the spline joint chain
numJoints = self.ui.clavJointLcdNumber.value()
startJ, endJ = self.createJoints( startJnt=shldrJ, endJnt=elbowJ, numJoints=numJoints )
#--- Setup the Ik Spline with Advanced Twist
ikHandle, ikCurve = self.advancedSplineIK( startJ=startJ, endJ=endJ, start=shldrJ,
nfStart=nfShldr )
pm.parentConstraint(shldrJ, ikCurve, mo=True)
#--- Create twist result joint
twistJnt = self.createTwistJnt(jnt=elbowJ, nfJnt=nfShldr, ikHandle=ikHandle)
#--- Create rig grp
grp = pm.group(em=True, name='%s_noroll_grp'%shldrJ)
pm.delete(pm.parentConstraint(shldrJ, grp, mo=False))
pm.parent(nfShldr, grp)
pm.parent(ikHandle, grp)
pm.parent(ikCurve, grp)
clavJ = pm.listRelatives(shldrJ, parent=True)
pm.parentConstraint(clavJ, grp, mo=True)
pm.pointConstraint(shldrJ,nfShldr,mo=True)
pm.parent(startJ, parentJ)
self.logger.info('buildShoulderNoRoll(): End.')
def constraint(self, parent, start, end ):
# 축을 start에 먼저 맞추고,
# 축을 유지한 채로 컨스트레인 검.
pm.delete( pm.parentConstraint(start, self.constMe_to_start) )
pm.parentConstraint(parent, self.constMe_to_parent, mo=True)
pm.pointConstraint(start, self.constMe_to_start)
pm.parentConstraint(end, self.constMe_to_end)
pm.delete( pm.pointConstraint(self.mid_T_anim, self.start_T_anim, self.mid1_T_anim) )
pm.delete( pm.pointConstraint(self.mid_T_anim, self.end_T_anim, self.mid2_T_anim) )
def create_control(node, name='', shape="", axis="", size=1, point=True, orient=True, scale=False, help=False):
node = pm.PyNode(node)
if not shape:
shape = "circle"
if not name:
name = "%s_ctrl" %node.name()
shapeMELs = {
"circle" : "circle -c 0 0 0 -nr 0 1 0 -sw 360 -r 0.5 -d 3 -ut 0 -s 8 -ch 0",
"diamond" : "circle -c 0 0 0 -nr 0 1 0 -sw 360 -r 0.5 -d 1 -ut 0 -s 4 -ch 0",
"square" : "curve -d 1 -p -0.5 0 0.5 -p -0.5 0 -0.5 -p 0.5 0 -0.5 -p 0.5 0 0.5 -p -0.5 0 0.5 -k 0 -k 1 -k 2 -k 3 -k 4",
"global" : "curve -d 3 -p 0 0 0.75 -p 0.25 0 0.5 -p 0.25 0 0.5 -p 0.25 0 0.5 -p 0.375 0 0.5 -p 0.5 0 0.5 -p 0.5 0 0.375 -p 0.5 0 -0.375 -p 0.5 0 -0.5 -p 0.375 0 -0.5 -p -0.375 0 -0.5 -p -0.5 0 -0.5 -p -0.5 0 -0.375 -p -0.5 0 0.375 -p -0.5 0 0.5 -p -0.375 0 0.5 -p -0.25 0 0.5 -p -0.25 0 0.5 -p -0.25 0 0.5 -p 0 0 0.75 -k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 7 -k 8 -k 9 -k 10 -k 11 -k 12 -k 13 -k 14 -k 15 -k 16 -k 17 -k 17 -k 17",
"local" : "curve -d 3 -p 0 0 0.5 -p 0.125 0 0.375 -p 0.125 0 0.375 -p 0.125 0 0.375 -p 0.25 0 0.375 -p 0.375 0 0.375 -p 0.375 0 0.25 -p 0.375 0 -0.25 -p 0.375 0 -0.375 -p 0.25 0 -0.375 -p -0.25 0 -0.375 -p -0.375 0 -0.375 -p -0.375 0 -0.25 -p -0.375 0 0.25 -p -0.375 0 0.375 -p -0.25 0 0.375 -p -0.125 0 0.375 -p -0.125 0 0.375 -p -0.125 0 0.375 -p 0 0 0.5 -k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 7 -k 8 -k 9 -k 10 -k 11 -k 12 -k 13 -k 14 -k 15 -k 16 -k 17 -k 17 -k 17",
"root" : "curve -d 1 -p 0 0 0.325 -p -0.0634045 0 0.318755 -p -0.124372 0 0.300261 -p -0.180561 0 0.270228 -p -0.22981 0 0.22981 -p -0.270228 0 0.180561 -p -0.300261 0 0.124372 -p -0.318755 0 0.0634045 -p -0.325 0 0 -p -0.318755 0 -0.0634045 -p -0.300261 0 -0.124372 -p -0.270228 0 -0.180561 -p -0.22981 0 -0.22981 -p -0.180561 0 -0.270228 -p -0.124372 0 -0.300261 -p -0.0634045 0 -0.318755 -p 0 0 -0.325 -p 0.0634045 0 -0.318755 -p 0.124372 0 -0.300261 -p 0.180561 0 -0.270228 -p 0.22981 0 -0.22981 -p 0.270228 0 -0.180561 -p 0.300261 0 -0.124372 -p 0.318755 0 -0.0634045 -p 0.325 0 0 -p 0.318755 0 0.0634045 -p 0.300261 0 0.124372 -p 0.270228 0 0.180561 -p 0.22981 0 0.22981 -p 0.180561 0 0.270228 -p 0.124372 0 0.300261 -p 0.0634045 0 0.318755 -p 0 0 0.325 -p 0 0 -0.325 -p 0 0 -0.25 -p -0.0487726 0 -0.245197 -p -0.095671 0 -0.23097 -p -0.138893 0 -0.207868 -p -0.176777 0 -0.176777 -p -0.207868 0 -0.138893 -p -0.23097 0 -0.095671 -p -0.245197 0 -0.0487726 -p -0.25 0 0 -p -0.325 0 0 -p 0.325 0 0 -p -0.25 0 0 -p -0.245197 0 0.0487726 -p -0.23097 0 0.095671 -p -0.207868 0 0.138893 -p -0.176777 0 0.176777 -p -0.138893 0 0.207868 -p -0.095671 0 0.23097 -p -0.0487726 0 0.245197 -p 0 0 0.25 -p 0.0487726 0 0.245197 -p 0.095671 0 0.23097 -p 0.138893 0 0.207868 -p 0.176777 0 0.176777 -p 0.207868 0 0.138893 -p 0.23097 0 0.095671 -p 0.245197 0 0.0487726 -p 0.25 0 0 -p 0.245197 0 -0.0487726 -p 0.23097 0 -0.095671 -p 0.207868 0 -0.138893 -p 0.176777 0 -0.176777 -p 0.138893 0 -0.207868 -p 0.095671 0 -0.23097 -p 0.0487726 0 -0.245197 -p 0 0 -0.25 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 7 -k 8 -k 9 -k 10 -k 11 -k 12 -k 13 -k 14 -k 15 -k 16 -k 17 -k 18 -k 19 -k 20 -k 21 -k 22 -k 23 -k 24 -k 25 -k 26 -k 27 -k 28 -k 29 -k 30 -k 31 -k 32 -k 33 -k 34 -k 35 -k 36 -k 37 -k 38 -k 39 -k 40 -k 41 -k 42 -k 43 -k 44 -k 45 -k 46 -k 47 -k 48 -k 49 -k 50 -k 51 -k 52 -k 53 -k 54 -k 55 -k 56 -k 57 -k 58 -k 59 -k 60 -k 61 -k 62 -k 63 -k 64 -k 65 -k 66 -k 67 -k 68 -k 69",
}
if help:
print "################################"
print "- Available Control Shape List -"
for key in shapeMELs:
print key
print "################################"
return
shapeMEL = "%s -n %s" % (shapeMELs[shape], name)
rotations = {'x' : [90, 0 , 0],
'-x' : [-90, 0 , 0],
'y' : [0, 90, 0],
'-y' : [0, -90, 0],
'z' : [0, 0, 90],
'-z' : [0, 0, -90],
}
try:
pm.mel.eval(shapeMEL)
ctrl = pm.PyNode(name)
ctrl.scale.set(size, size, size)
if axis: ctrl.rotate.set(rotations[axis])
pm.makeIdentity(ctrl, apply=True, t=True, r=True, s=True)
pm.delete(pm.parentConstraint(node, ctrl, mo=False))
if point : pm.pointConstraint(ctrl, node, mo=True, name="%s_tConst"%node.name())
if orient : pm.orientConstraint(ctrl, node, mo=True, name="%s_rConst"%node.name())
if scale : pm.scaleConstraint(ctrl, node, mo=True, name="%s_sConst"%node.name())
return ctrl
except Exception as e:
pm.warning("error while creating control %s" %e)
def __finalizeIkChain(self):
'''
Create the ikHandle and the constraints to the control
'''
#create ikHandle
ikHandleName = nameUtils.getUniqueName(self.side, self.baseName, "IK")
self.ikHandle = pm.ikHandle(n = ikHandleName, sj = self.chain[0], ee = self.chain[-1], solver = "ikRPsolver")[0]
#create parent constraint from the ikHandle to the last control
pm.pointConstraint(self.controlsArray[-1].control, self.ikHandle, mo = 1)
#create a pole vector control
pm.poleVectorConstraint(self.controlsArray[0].control, self.ikHandle)
def create( self ):
#
# Create Kinect2 Joints
#
aimer = []
for kjot in self.k2map:
tag = self.k2map[kjot][0]
aimid = self.k2map[kjot][2]
aim = None if aimid is None else self.k2map[aimid][0]
aimv = (1,0,0)
t = pm.xform( tag, q=True, ws=True, t=True )
pm.select( cl=True )
pm.joint( p=t, n=kjot )
if not aim is None:
aimv = (-1,0,0) if pm.getAttr(aim+'.tx') < 0 else aimv
aimer.append(pm.aimConstraint( aim, kjot, aim=aimv, wut='objectrotation', u=(0,1,0), wu=(0,1,0), wuo=tag ))
pm.delete( aimer )
#
# Make Joints Hierarchy
#
for kjot in self.k2map:
parent = self.k2map[kjot][1]
aimid = self.k2map[kjot][2]
if not parent is None:
pm.parent( kjot, self.k2map[kjot][1] )
if aimid is None:
pm.setAttr( kjot+'.jointOrient', (0,0,0) )
# Freeze Transformations
pm.makeIdentity( kjot, a=True, jo=False, t=False, r=True, s=False, n=0, pn=True )
#
# Make Constraint
#
for kjot in self.k2map:
tag = self.k2map[kjot][0]
aimid = self.k2map[kjot][2]
aim = None if aimid is None else self.k2map[aimid][0]
aimv = (1,0,0)
# Aim Constraint
pm.pointConstraint( tag, kjot )
# Aim Constraint
if not aim is None:
aimv = (-1,0,0) if pm.getAttr(aim+'.tx') < 0 else aimv
pm.aimConstraint( aim, kjot, aim=aimv, wut='objectrotation', u=(0,1,0), wu=(0,1,0), wuo=tag )
return
def createPoleVectorLocatorAndLinkingCurve(self): pm.select(cl = True) #PoleVector #---------------------------------------------------- #Create leg ik pole vector loc self.leg_ik_pole_vector_locator = pm.spaceLocator(n = self.prefix +'_leg_ik_pole_vector_locator') pm.select(cl = True) #Group leg ik pole vec self.leg_ik_pole_vector_locator_grp = pm.group(self.leg_ik_pole_vector_locator, n = self.prefix + '_leg_ik_pole_vector_locator_grp') pm.select(cl = True) #Translate leg_ik_pole_vector_locator_grp self.leg_ik_pole_vector_locator_grp.translate.set(self.leg_locator_poleVector_worldCoords) #LinkingCurve #---------------------------------------------------- #Create linking curve loc self.leg_ik_pole_vector_locator_linking_curve_locator = pm.spaceLocator(n = self.prefix +'_leg_ik_pole_vector_locator_linking_curve_locator') pm.select(cl = True) #point con linking curve loc to leg ik j base pm.pointConstraint(self.leg_ik_j_base, self.leg_ik_pole_vector_locator_linking_curve_locator , mo = False) #Create Pole vector Linking Curve self.pole_vector_linking_curve = pm.curve(p = [self.leg_locator_base_worldCoords , self.leg_locator_poleVector_worldCoords], d = 1, n = self.prefix +'_pole_vector_linking_curve') pm.select(cl = True) #make curve not selectable pm.setAttr(self.pole_vector_linking_curve.getShape().overrideEnabled, 1) pm.setAttr(self.pole_vector_linking_curve.getShape().overrideDisplayType, 2) pm.select(cl = True) #Connect loc world space coords to curve points self.leg_ik_pole_vector_locator_linking_curve_locator.getShape().worldPosition[0] >> self.pole_vector_linking_curve.getShape().controlPoints[0] self.leg_ik_pole_vector_locator.getShape().worldPosition[0] >> self.pole_vector_linking_curve.getShape().controlPoints[1] pm.select(cl = True) #Create grp self.pole_vector_linking_curve_grp = pm.group( n = self.prefix +'_pole_vector_linking_curve_grp') pm.select(cl = True) #parent objects in group pm.parent(self.leg_ik_pole_vector_locator_linking_curve_locator, self.pole_vector_linking_curve ,self.pole_vector_linking_curve_grp) pm.select(cl = True)
def add_space(target, prefix):
pin = pm.spaceLocator(name=prefix + "_space_pin")
pin.visibility.set(0)
pm.delete(pm.parentConstraint(target, pin, mo=False))
grp = pm.group(empty=True, name=prefix + "_space")
pm.parent(pin, target, r=True)
pm.pointConstraint(pin, grp, mo=0, name=grp.name() + "_tConst")
pm.orientConstraint(pin, grp, mo=0, name=grp.name() + "_rConst")
return grp
def unique_spine_zero_controller(self):
# Create Root Costrain Jnt Unde Hip cotrol
# Duplicate zero Jnt
tempConst = pm.duplicate(self.joints.zeroJoint, po=True,
name=("Const_" + self.joints.zeroJoint ))
rootConst_jnt = tempConst[0]
pm.parent(rootConst_jnt, self.hipCtrl.drawnNode)
pm.pointConstraint(rootConst_jnt, self.joints.zeroJoint)
pm.orientConstraint(rootConst_jnt, self.joints.zeroJoint)
pm.setAttr(rootConst_jnt.visibility, 0)
self._stuff.append(rootConst_jnt)
def __finalizeFkChainOriCnst(self):
reversedList = list(self.controlsArray)
reversedList.reverse()
for i in range(len(reversedList)):
if i != (len(reversedList)-1):
pm.parent(reversedList[i].controlGrp,reversedList[i+1].control)
#orient cnst
for i,c in enumerate(self.controlsArray):
pm.orientConstraint(c.control,self.chain[i],mo = 1)
if self.pointCnst == 1:
pm.pointConstraint(c.control,self.chain[i],mo = 1)
def addJacketCollarNoRotBinds():
# add collar joint no-rotate
collarjnts = pm.ls(sl=True)
for jnt in collarjnts:
pm.select(cl=True)
noRotJnt = pm.joint(n=jnt.replace('_jnt', '_norot_bnd'))
wMat = jnt.getMatrix(worldSpace=True)
noRotJnt.setMatrix(wMat, worldSpace=True)
pm.makeIdentity(noRotJnt, a=True)
noRotJnt.radius.set(0.5)
grp = jnt.getParent(3)
grp | noRotJnt
pm.pointConstraint(jnt, noRotJnt)
def constrain(self, node_in, constType='point',
targetType='constObj',
maintainOff=0):
"""
:param constType: It can bePoint Orient or Parent
:param targetType: It can be constObj or targetObj
if targetType is constObj node in object Constrain drawnNode
if targetType is targetObj drawnNode Constrain node in object
:param node_in: if it is 1 preserve the constrained object’s position
:param target: it should be constObj or targetObj
:param maintainOffset: if it is 1 preserve the constrained
object’s position
"""
tempConst = None
target, constrained, setObjType = self._validate_targetType(node_in,
targetType)
if constType is 'point':
tempConst = pm.pointConstraint(target, constrained, mo=maintainOff)
if setObjType is 'setConstrainedPoint':
self._constrainedPoint = tempConst
else:
self._targetPoint = tempConst
elif constType is 'orient':
tempConst = pm.orienConstraint(target, constrained, mo=maintainOff)
if setObjType is 'setConstrainedPoint':
self._constrainedOrient = tempConst
else:
self._targetOrient = tempConst
elif constType is 'parent':
tempConst = pm.parentConstraint(target, constrained,
mo=maintainOff)
if setObjType is 'setConstrainedPoint':
self._constrainedParent = tempConst
else:
self._targetParent = tempConst
return tempConst
def createMainNodes(self):
#grps
#chain grp
self.chainGrp = pm.duplicate(self.rigGrp, parentOnly=True)[0]
self.chainGrp.renameNode(name=self.TipName, nodeType='chain')
self.chainGrp.setParent(self.rigGrp)
#horizontal driver
self.horizontalDriver = pm.duplicate(self.chainGrp, parentOnly=True)[0]
self.horizontalDriver.renameNode(name=self.TipName, nodeType='horizDriver')
pm.delete(pm.pointConstraint(self.startJoint, self.horizontalDriver))
#vertical driver
self.verticalDriver = pm.duplicate(self.horizontalDriver, parentOnly=True)[0]
self.verticalDriver.renameNode(name=self.TipName, nodeType='vertDriver')
#main
pm.select(self.horizontalDriver)
self.driver = pm.joint()
self.driver.renameNode(name=self.TipName, nodeType='driver')
self.driver.addCon()
self.driver.getParent().setParent(self.chainGrp)
self.driver.getParent().visibility.set(0)
pm.select(self.driver)
self.main = pm.joint()
self.main.renameNode(name=self.TipName, descriptor='system')
pm.select(self.endJoint)
self.eff = pm.joint()
self.eff.renameNode(name=self.TipName, nodeType='effector')
self.eff.setParent(self.driver)
self.horizontalDriver.setParent(self.chainGrp)
self.verticalDriver.setParent(self.chainGrp)
#connectEye
self.startJoint.rotate.connect(self.driver.getParent().rotate)
def bdLocOnJnt():
selection = pm.ls(sl=1)
if len(selection) != 2:
return
rootJnt = pm.ls(sl=True)[0]
crvPath = pm.ls(sl=True)[1]
allJnt = rootJnt.listRelatives(f=True, ad=True, type='joint')
allJnt = allJnt + [rootJnt]
allJnt.reverse()
locators = []
for jnt in allJnt:
loc = pm.spaceLocator(name=jnt.name().replace('_jnt', '_loc'))
locGrp = pm.group(n=loc.name() + '_grp')
tempCnstr = pm.pointConstraint(jnt, locGrp, mo=0)
pm.delete(tempCnstr)
locators.append(locGrp)
bdMultiMotionPath(crvPath, locators)
bdParentJntToLocs(allJnt)
def bdSwitchFKIK(self, limb, side):
if 'arm' in limb:
print side + ' FK->IK arm switch '
fkWristConObj = pm.ls(side + self.fkArmCons[2] + 'CON')[0]
fkWristPos = fkWristConObj.getTranslation(space='world')
fkWristRot = fkWristConObj.getRotation(space='world')
ikWristConObj = pm.ls(side + self.ikArmCons[0] + 'CON')[0]
ikPVCon = pm.ls(side + self.ikArmCons[1] + 'CON')[0]
ikWristConObj.setTranslation(fkWristPos, space='world')
ikWristConObj.setRotation(fkWristRot, space='world')
# vector fun
fkWristVec = om.MVector(fkWristPos)
fkElbowConObj = pm.ls(side + self.fkArmCons[1] + 'CON')[0]
fkElbowPos = fkElbowConObj.getTranslation(space='world')
fkElbowVec = om.MVector(fkElbowPos)
fkShoulderConObj = pm.ls(side + self.fkArmCons[0] + 'CON')[0]
fkShoulderPos = fkShoulderConObj.getTranslation(space='world')
fkShoulderVec = om.MVector(fkShoulderPos)
fkMidPoint = (fkWristVec + fkShoulderVec) / 2
pvVec = ((fkElbowVec - fkMidPoint) * 4) + fkMidPoint
tempObj = pm.circle(c=[pvVec.x, pvVec.y, pvVec.z])[0]
tempObj.centerPivots()
# ikPVCon.setTranslation([pvVec.x,pvVec.y,pvVec.z],space='world')
tempCnstr = pm.pointConstraint(tempObj, ikPVCon)
pm.delete([tempCnstr, tempObj])
self.armSwitchCon.attr('ikFkBlend').set(0)
def createFootCtrl(self):
"""
Create foot nurbs curve and place in the feel of the character.
The control will have the size from the heel helper to the end foot helper
"""
footCtrl = rigUtils.createRigControl('foot')
pm.rename(footCtrl, self.side + footCtrl)
footCtrl = self.side + footCtrl
# mirror ctrl if we are doing the right side
if self.side == 'R':
pm.scale(footCtrl, (-1, 1, 1))
pm.makeIdentity(footCtrl, a=True, s=True)
# place the foot ctrl in the 3rd rig helper (heel)
pm.delete(pm.pointConstraint(self.side + '_leg_3_rigHelper', footCtrl))
pm.makeIdentity(footCtrl, a=True, t=True)
endFootHelper = pm.PyNode(self.side + '_leg_5_rigHelper')
endFootCtrl = pm.PyNode(self.side + '_foot_ctrl')
# gets the heel helper world position and the bounding box of the foot controller
endFootHelperPos = endFootHelper.getTranslation('world')
bbox = pm.exactWorldBoundingBox(footCtrl)
# gets the correct scale to feet the helpers
scaleFactor = (endFootHelperPos[2] - bbox[5]) + 1
pm.scale(footCtrl, scaleFactor, scaleFactor, scaleFactor)
pm.makeIdentity(footCtrl, a=True, s=True)
# parent the control to the new created foot chain
rigUtils.setControlColor(footCtrl)
pm.parent(self.footJnt, self.side + '_foot_ctrl')
return footCtrl
def clusLoc():
"""
create locator at a centroid position in a ring of edges
how to use:
select edges loop and excute this command
from rigWorkshop.ws_user.jun.utils import clusLoc
reload(clusLoc)
clusLoc.clusLoc()
"""
edges = pm.selected(flatten=True)
#list comprehension
verts = list(set(sum([list(e.connectedVertices()) for e in edges], [])))
#cluster
clusDFM, clusTRN = pm.cluster(verts)
#locator
loc = pm.spaceLocator()
#point constraint
pm.delete(pm.pointConstraint(clusTRN, loc, mo=False))
pm.delete(clusTRN)
def outputPoint(self, constrained=None, maintainOff=None):
if constrained is None and maintainOff is None:
return self._outputPoint
else:
self._outputPoint = pm.pointConstraint(self.drawnNode, constrained,
mo=maintainOff)
def createRivetTweak(mesh,
edgePair,
name,
parent=None,
ctlParent=None,
color=[0, 0, 0],
size=.04,
defSet=None):
"""Create a tweak joint attached to the mesh using a rivet
Args:
mesh (mesh): The object to add the tweak
edgePair (pari list): The edge pairt to create the rivet
name (str): The name for the tweak
parent (None or dagNode, optional): The parent for the tweak
ctlParent (None or dagNode, optional): The parent for the tweak control
color (list, optional): The color for the control
"""
blendShape = blendShapes.getBlendShape(mesh)
inputMesh = blendShape.listConnections(sh=True, t="shape", d=False)[0]
oRivet = rivet.rivet()
base = oRivet.create(inputMesh, edgePair[0], edgePair[1], parent)
# get side
if base.getTranslation(space='world')[0] < -0.01:
side = "R"
elif base.getTranslation(space='world')[0] > 0.01:
side = "L"
else:
side = "C"
nameSide = name + "_tweak_" + side
pm.rename(base, nameSide)
# Joints NPO
npo = pm.PyNode(
pm.createNode("transform", n=nameSide + "_npo", p=ctlParent, ss=True))
pm.pointConstraint(base, npo)
# set proper orientation
pos = base.getTranslation(space="world")
temp = pm.spaceLocator()
pm.parent(temp, base)
temp.attr("ty").set(0)
temp.attr("tz").set(0)
temp.attr("tx").set(1)
lookat = temp.getTranslation(space="world")
up = datatypes.Vector(0, 1, 0)
t = transform.getTransformLookingAt(pos,
lookat,
up,
axis="xy",
negate=False)
npo.setMatrix(t, worldSpace=True)
pm.delete(temp)
# create joints
jointBase = primitive.addJoint(npo, nameSide + "_jnt_lvl")
joint = primitive.addJoint(jointBase, nameSide + "_jnt")
# hidding joint base by changing the draw mode
pm.setAttr(jointBase + ".drawStyle", 2)
if not defSet:
try:
defSet = pm.PyNode("rig_deformers_grp")
except TypeError:
pm.sets(n="rig_deformers_grp")
defSet = pm.PyNode("rig_deformers_grp")
pm.sets(defSet, add=joint)
controlType = "sphere"
o_icon = icon.create(jointBase,
nameSide + "_ctl",
datatypes.Matrix(),
color,
controlType,
w=size)
for t in [".translate", ".scale", ".rotate"]:
pm.connectAttr(o_icon + t, joint + t)
# create the attributes to handlde mirror and symetrical pose
attribute.addAttribute(o_icon,
"invTx",
"bool",
0,
keyable=False,
niceName="Invert Mirror TX")
attribute.addAttribute(o_icon,
"invTy",
"bool",
0,
keyable=False,
niceName="Invert Mirror TY")
attribute.addAttribute(o_icon,
"invTz",
"bool",
0,
keyable=False,
niceName="Invert Mirror TZ")
attribute.addAttribute(o_icon,
"invRx",
"bool",
0,
keyable=False,
niceName="Invert Mirror RX")
attribute.addAttribute(o_icon,
"invRy",
"bool",
0,
keyable=False,
niceName="Invert Mirror RY")
attribute.addAttribute(o_icon,
"invRz",
"bool",
0,
keyable=False,
niceName="Invert Mirror RZ")
attribute.addAttribute(o_icon,
"invSx",
"bool",
0,
keyable=False,
niceName="Invert Mirror SX")
attribute.addAttribute(o_icon,
"invSy",
"bool",
0,
keyable=False,
niceName="Invert Mirror SY")
attribute.addAttribute(o_icon,
"invSz",
"bool",
0,
keyable=False,
niceName="Invert Mirror SZ")
# magic of doritos connection
doritosMagic(mesh, joint, jointBase)
# reset axis and inver behaviour
for axis in "XYZ":
pm.setAttr(jointBase + ".jointOrient" + axis, 0)
pm.setAttr(npo + ".translate" + axis, 0)
pm.setAttr(jointBase + ".translate" + axis, 0)
p = o_icon.getParent().getParent()
pp = p.getParent()
pm.parent(p, w=True)
for axis in "xyz":
p.attr("r" + axis).set(0)
if side == "R":
p.attr("ry").set(180)
p.attr("sz").set(-1)
pm.parent(p, pp)
return o_icon
def addOperators(self):
"""Create operators and set the relations for the component rig
Apply operators, constraints, expressions to the hierarchy.
In order to keep the code clean and easier to debug,
we shouldn't create any new object in this method.
"""
# 1 bone chain Upv ref ==============================
self.ikHandleUpvRef = primitive.addIkHandle(
self.root, self.getName("ikHandleLegChainUpvRef"),
self.legChainUpvRef, "ikSCsolver")
pm.pointConstraint(self.ik_ctl, self.ikHandleUpvRef)
pm.parentConstraint(self.legChainUpvRef[0],
self.ik_ctl,
self.upv_cns,
mo=True)
# Visibilities -------------------------------------
# shape.dispGeometry
# fk
fkvis_node = node.createReverseNode(self.blend_att)
for shp in self.fk0_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk1_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk2_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
# ik
for shp in self.upv_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ikcns_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ik_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.line_ref.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
# IK Solver -----------------------------------------
out = [self.bone0, self.bone1, self.ctrn_loc, self.eff_loc]
o_node = applyop.gear_ikfk2bone_op(out, self.root_ctl, self.ik_ref,
self.upv_ctl, self.fk_ctl[0],
self.fk_ctl[1], self.fk_ref,
self.length0, self.length1,
self.negate)
pm.connectAttr(self.blend_att, o_node + ".blend")
if self.negate:
mulVal = -1
else:
mulVal = 1
node.createMulNode(self.roll_att, mulVal, o_node + ".roll")
# pm.connectAttr(self.roll_att, o_node+".roll")
pm.connectAttr(self.scale_att, o_node + ".scaleA")
pm.connectAttr(self.scale_att, o_node + ".scaleB")
pm.connectAttr(self.maxstretch_att, o_node + ".maxstretch")
pm.connectAttr(self.slide_att, o_node + ".slide")
pm.connectAttr(self.softness_att, o_node + ".softness")
pm.connectAttr(self.reverse_att, o_node + ".reverse")
# Twist references ---------------------------------
o_node = applyop.gear_mulmatrix_op(
self.eff_loc.attr("worldMatrix"),
self.root.attr("worldInverseMatrix"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(o_node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputTranslate",
self.tws2_npo.attr("translate"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(o_node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputRotate", self.tws2_npo.attr("rotate"))
# spline IK for twist jnts
self.ikhUpLegTwist, self.uplegTwistCrv = applyop.splineIK(
self.getName("uplegTwist"),
self.uplegTwistChain,
parent=self.root,
cParent=self.bone0)
self.ikhLowLegTwist, self.lowlegTwistCrv = applyop.splineIK(
self.getName("lowlegTwist"),
self.lowlegTwistChain,
parent=self.root,
cParent=self.bone1)
# references
self.ikhUpLegRef, self.tmpCrv = applyop.splineIK(
self.getName("uplegRollRef"),
self.uplegRollRef,
parent=self.root,
cParent=self.bone0)
self.ikhLowLegRef, self.tmpCrv = applyop.splineIK(
self.getName("lowlegRollRef"),
self.lowlegRollRef,
parent=self.root,
cParent=self.eff_loc)
self.ikhAuxTwist, self.tmpCrv = applyop.splineIK(
self.getName("auxTwist"),
self.auxTwistChain,
parent=self.root,
cParent=self.eff_loc)
# setting connexions for ikhUpLegTwist
self.ikhUpLegTwist.attr("dTwistControlEnable").set(True)
self.ikhUpLegTwist.attr("dWorldUpType").set(4)
self.ikhUpLegTwist.attr("dWorldUpAxis").set(3)
self.ikhUpLegTwist.attr("dWorldUpVectorZ").set(1.0)
self.ikhUpLegTwist.attr("dWorldUpVectorY").set(0.0)
self.ikhUpLegTwist.attr("dWorldUpVectorEndZ").set(1.0)
self.ikhUpLegTwist.attr("dWorldUpVectorEndY").set(0.0)
pm.connectAttr(self.uplegRollRef[0].attr("worldMatrix[0]"),
self.ikhUpLegTwist.attr("dWorldUpMatrix"))
pm.connectAttr(self.bone0.attr("worldMatrix[0]"),
self.ikhUpLegTwist.attr("dWorldUpMatrixEnd"))
# setting connexions for ikhAuxTwist
self.ikhAuxTwist.attr("dTwistControlEnable").set(True)
self.ikhAuxTwist.attr("dWorldUpType").set(4)
self.ikhAuxTwist.attr("dWorldUpAxis").set(3)
self.ikhAuxTwist.attr("dWorldUpVectorZ").set(1.0)
self.ikhAuxTwist.attr("dWorldUpVectorY").set(0.0)
self.ikhAuxTwist.attr("dWorldUpVectorEndZ").set(1.0)
self.ikhAuxTwist.attr("dWorldUpVectorEndY").set(0.0)
pm.connectAttr(self.lowlegRollRef[0].attr("worldMatrix[0]"),
self.ikhAuxTwist.attr("dWorldUpMatrix"))
pm.connectAttr(self.tws_ref.attr("worldMatrix[0]"),
self.ikhAuxTwist.attr("dWorldUpMatrixEnd"))
pm.connectAttr(self.auxTwistChain[1].attr("rx"),
self.ikhLowLegTwist.attr("twist"))
pm.parentConstraint(self.bone1, self.aux_npo, maintainOffset=True)
# scale arm length for twist chain (not the squash and stretch)
arclen_node = pm.arclen(self.uplegTwistCrv, ch=True)
alAttrUpLeg = arclen_node.attr("arcLength")
muldiv_nodeArm = pm.createNode("multiplyDivide")
pm.connectAttr(arclen_node.attr("arcLength"),
muldiv_nodeArm.attr("input1X"))
muldiv_nodeArm.attr("input2X").set(alAttrUpLeg.get())
muldiv_nodeArm.attr("operation").set(2)
for jnt in self.uplegTwistChain:
pm.connectAttr(muldiv_nodeArm.attr("outputX"), jnt.attr("sx"))
# scale forearm length for twist chain (not the squash and stretch)
arclen_node = pm.arclen(self.lowlegTwistCrv, ch=True)
alAttrLowLeg = arclen_node.attr("arcLength")
muldiv_nodeLowLeg = pm.createNode("multiplyDivide")
pm.connectAttr(arclen_node.attr("arcLength"),
muldiv_nodeLowLeg.attr("input1X"))
muldiv_nodeLowLeg.attr("input2X").set(alAttrLowLeg.get())
muldiv_nodeLowLeg.attr("operation").set(2)
for jnt in self.lowlegTwistChain:
pm.connectAttr(muldiv_nodeLowLeg.attr("outputX"), jnt.attr("sx"))
# scale compensation for the first twist join
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix[0]"),
dm_node.attr("inputMatrix"))
pm.connectAttr(dm_node.attr("outputScale"),
self.uplegTwistChain[0].attr("inverseScale"))
pm.connectAttr(dm_node.attr("outputScale"),
self.lowlegTwistChain[0].attr("inverseScale"))
# tangent controls
muldiv_node = pm.createNode("multiplyDivide")
muldiv_node.attr("input2X").set(-1)
pm.connectAttr(self.tws1A_npo.attr("rz"), muldiv_node.attr("input1X"))
muldiv_nodeBias = pm.createNode("multiplyDivide")
pm.connectAttr(muldiv_node.attr("outputX"),
muldiv_nodeBias.attr("input1X"))
pm.connectAttr(self.roundness_att, muldiv_nodeBias.attr("input2X"))
pm.connectAttr(muldiv_nodeBias.attr("outputX"),
self.tws1A_loc.attr("rz"))
if self.negate:
axis = "xz"
else:
axis = "-xz"
applyop.aimCns(self.tws1A_npo,
self.tws0_loc,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
applyop.aimCns(self.lowlegTangentB_loc,
self.lowlegTangentA_npo,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
pm.pointConstraint(self.eff_loc, self.lowlegTangentB_loc)
muldiv_node = pm.createNode("multiplyDivide")
muldiv_node.attr("input2X").set(-1)
pm.connectAttr(self.tws1B_npo.attr("rz"), muldiv_node.attr("input1X"))
muldiv_nodeBias = pm.createNode("multiplyDivide")
pm.connectAttr(muldiv_node.attr("outputX"),
muldiv_nodeBias.attr("input1X"))
pm.connectAttr(self.roundness_att, muldiv_nodeBias.attr("input2X"))
pm.connectAttr(muldiv_nodeBias.attr("outputX"),
self.tws1B_loc.attr("rz"))
if self.negate:
axis = "-xz"
else:
axis = "xz"
applyop.aimCns(self.tws1B_npo,
self.tws2_loc,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
applyop.aimCns(self.uplegTangentA_loc,
self.uplegTangentB_npo,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
# Volume -------------------------------------------
distA_node = node.createDistNode(self.tws0_loc, self.tws1_loc)
distB_node = node.createDistNode(self.tws1_loc, self.tws2_loc)
add_node = node.createAddNode(distA_node + ".distance",
distB_node + ".distance")
div_node = node.createDivNode(add_node + ".output",
self.root_ctl.attr("sx"))
# comp scaling issue
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix"), dm_node + ".inputMatrix")
div_node2 = node.createDivNode(div_node + ".outputX",
dm_node + ".outputScaleX")
self.volDriver_att = div_node2 + ".outputX"
# connecting tangent scaele compensation after volume to
# avoid duplicate some nodes
distA_node = node.createDistNode(self.tws0_loc, self.mid_ctl)
distB_node = node.createDistNode(self.mid_ctl, self.tws2_loc)
div_nodeUpLeg = node.createDivNode(distA_node + ".distance",
dm_node.attr("outputScaleX"))
div_node2 = node.createDivNode(div_nodeUpLeg + ".outputX",
distA_node.attr("distance").get())
pm.connectAttr(div_node2.attr("outputX"), self.tws1A_loc.attr("sx"))
pm.connectAttr(div_node2.attr("outputX"),
self.uplegTangentA_loc.attr("sx"))
div_nodeLowLeg = node.createDivNode(distB_node + ".distance",
dm_node.attr("outputScaleX"))
div_node2 = node.createDivNode(div_nodeLowLeg + ".outputX",
distB_node.attr("distance").get())
pm.connectAttr(div_node2.attr("outputX"), self.tws1B_loc.attr("sx"))
pm.connectAttr(div_node2.attr("outputX"),
self.lowlegTangentB_loc.attr("sx"))
# conection curve
cnts = [
self.uplegTangentA_loc, self.uplegTangentA_ctl,
self.uplegTangentB_ctl, self.kneeTangent_ctl
]
applyop.gear_curvecns_op(self.uplegTwistCrv, cnts)
cnts = [
self.kneeTangent_ctl, self.lowlegTangentA_ctl,
self.lowlegTangentB_ctl, self.lowlegTangentB_loc
]
applyop.gear_curvecns_op(self.lowlegTwistCrv, cnts)
# Tangent controls vis
for shp in self.uplegTangentA_ctl.getShapes():
pm.connectAttr(self.tangentVis_att, shp.attr("visibility"))
for shp in self.uplegTangentB_ctl.getShapes():
pm.connectAttr(self.tangentVis_att, shp.attr("visibility"))
for shp in self.lowlegTangentA_ctl.getShapes():
pm.connectAttr(self.tangentVis_att, shp.attr("visibility"))
for shp in self.lowlegTangentB_ctl.getShapes():
pm.connectAttr(self.tangentVis_att, shp.attr("visibility"))
for shp in self.kneeTangent_ctl.getShapes():
pm.connectAttr(self.tangentVis_att, shp.attr("visibility"))
# Divisions ----------------------------------------
# at 0 or 1 the division will follow exactly the rotation of the
# controler.. and we wont have this nice tangent + roll
for i, div_cns in enumerate(self.div_cns):
if i < (self.settings["div0"] + 2):
mulmat_node = applyop.gear_mulmatrix_op(
self.uplegTwistChain[i] + ".worldMatrix",
div_cns + ".parentInverseMatrix")
lastUpLegDiv = div_cns
else:
o_node = self.lowlegTwistChain[i - (self.settings["div0"] + 2)]
mulmat_node = applyop.gear_mulmatrix_op(
o_node + ".worldMatrix", div_cns + ".parentInverseMatrix")
lastLowLegDiv = div_cns
dm_node = node.createDecomposeMatrixNode(mulmat_node + ".output")
pm.connectAttr(dm_node + ".outputTranslate", div_cns + ".t")
pm.connectAttr(dm_node + ".outputRotate", div_cns + ".r")
# Squash n Stretch
o_node = applyop.gear_squashstretch2_op(
div_cns, None, pm.getAttr(self.volDriver_att), "x")
pm.connectAttr(self.volume_att, o_node + ".blend")
pm.connectAttr(self.volDriver_att, o_node + ".driver")
pm.connectAttr(self.st_att[i], o_node + ".stretch")
pm.connectAttr(self.sq_att[i], o_node + ".squash")
# force translation for last loc arm and foreamr
applyop.gear_mulmatrix_op(self.kneeTangent_ctl.worldMatrix,
lastUpLegDiv.parentInverseMatrix,
lastUpLegDiv, "t")
applyop.gear_mulmatrix_op(self.tws2_loc.worldMatrix,
lastLowLegDiv.parentInverseMatrix,
lastLowLegDiv, "t")
# NOTE: next line fix the issue on meters.
# This is special case becasuse the IK solver from mGear use the
# scale as lenght and we have shear
# TODO: check for a more clean and elegant solution instead of
# re-match the world matrix again
transform.matchWorldTransform(self.fk_ctl[0], self.match_fk0_off)
transform.matchWorldTransform(self.fk_ctl[1], self.match_fk1_off)
transform.matchWorldTransform(self.fk_ctl[0], self.match_fk0)
transform.matchWorldTransform(self.fk_ctl[1], self.match_fk1)
# match IK/FK ref
pm.parentConstraint(self.bone0, self.match_fk0_off, mo=True)
pm.parentConstraint(self.bone1, self.match_fk1_off, mo=True)
return
def startPipe( basename='pipe', pipeRadius = 0.2, jointRadius = 0.02, subdivAxis = 16, subdivJoint = 8, jointLength = .8, connectorRadius = .1, connectorThickness = .2, connectorOffset = .001 ): print basename i=1 name = basename + str(i) while pm.ls( name + '_Jnt0'): i += 1 name = basename + str(i) try: startPos = pm.selected()[0].getTranslation(ws=1) except: startPos = [0,0,0] pm.select(cl=1) rigGrp = pm.group(empty=True, n='%s_RigGrp' % name) geoGrp = pm.group(empty=True, n='%s_GeoGrp' % name) root = pm.joint( name=name+'_Jnt0') trans = pm.group(empty=True, n='%s_Elbow0' % name) pm.pointConstraint( root, trans ) root.scale.lock() root.addAttr( 'globalPipeRadius', defaultValue=pipeRadius, min=.0001 ) root.globalPipeRadius.showInChannelBox(1) root.addAttr( 'globalJointRadius', defaultValue=jointRadius ) root.globalJointRadius.showInChannelBox(1) root.addAttr( 'subdivisionsAxis', at = 'short', defaultValue=subdivAxis, min=4 ) root.subdivisionsAxis.showInChannelBox(1) root.addAttr( 'subdivisionsJoint', at = 'short', defaultValue=subdivJoint ) root.subdivisionsJoint.showInChannelBox(1) root.addAttr( 'globalConnectorRadius', defaultValue=connectorRadius ) root.globalConnectorRadius.showInChannelBox(1) root.addAttr( 'globalConnectorThickness', defaultValue=connectorThickness ) root.globalConnectorThickness.showInChannelBox(1) root.addAttr( 'globalConnectorOffset', min = 0, defaultValue=connectorOffset ) root.globalConnectorOffset.showInChannelBox(1) root.radius.showInChannelBox(0) root.displayHandle = 1 root.setParent(rigGrp) trans.setParent(rigGrp) root.setTranslation( startPos ) root.select() extendPipe(jointLength)
def addOperators(self):
"""Create operators and set the relations for the component rig
Apply operators, constraints, expressions to the hierarchy.
In order to keep the code clean and easier to debug,
we shouldn't create any new object in this method.
"""
# Soft condition
soft_cond_node = node.createConditionNode(self.soft_attr, 0.0001, 4,
0.0001, self.soft_attr)
self.soft_attr_cond = soft_cond_node.outColorR
if self.settings["ikSolver"]:
self.ikSolver = "ikRPsolver"
else:
pm.mel.eval("ikSpringSolver;")
self.ikSolver = "ikSpringSolver"
# 1 bone chain Upv ref ===============================
self.ikHandleUpvRef = primitive.addIkHandle(
self.root, self.getName("ikHandleLegChainUpvRef"),
self.legChainUpvRef, "ikSCsolver")
pm.pointConstraint(self.ik_ctl, self.ikHandleUpvRef)
pm.parentConstraint(self.legChainUpvRef[0], self.upv_cns, mo=True)
# mid joints ================================================
for xjnt, midJ in zip(self.legBones[1:3],
[self.mid1_jnt, self.mid2_jnt]):
node.createPairBlend(None, xjnt, .5, 1, midJ)
pm.connectAttr(xjnt + ".translate", midJ + ".translate", f=True)
pm.parentConstraint(self.mid1_jnt, self.knee_lvl)
pm.parentConstraint(self.mid2_jnt, self.ankle_lvl)
# joint length multiply
multJnt1_node = node.createMulNode(self.boneALenght_attr,
self.boneALenghtMult_attr)
multJnt2_node = node.createMulNode(self.boneBLenght_attr,
self.boneBLenghtMult_attr)
multJnt3_node = node.createMulNode(self.boneCLenght_attr,
self.boneCLenghtMult_attr)
# # IK 3 bones ===============================================
self.ikHandle = primitive.addIkHandle(self.softblendLoc,
self.getName("ik3BonesHandle"),
self.chain3bones, self.ikSolver,
self.upv_ctl)
# TwistTest
if [round(elem, 4)
for elem in transform.getTranslation(self.chain3bones[1])] \
!= [round(elem, 4) for elem in self.guide.apos[1]]:
add_nodeTwist = node.createAddNode(180.0, self.roll_att)
else:
add_nodeTwist = node.createAddNode(0, self.roll_att)
if self.negate:
mulVal = 1
else:
mulVal = -1
node.createMulNode(add_nodeTwist + ".output", mulVal,
self.ikHandle.attr("twist"))
# stable spring solver doble rotation
pm.pointConstraint(self.root_ctl, self.chain3bones[0])
# softIK 3 bones operators
applyop.aimCns(self.aim_tra,
self.ik_ref,
axis="zx",
wupType=4,
wupVector=[1, 0, 0],
wupObject=self.root_ctl,
maintainOffset=False)
plusTotalLength_node = node.createPlusMinusAverage1D([
multJnt1_node.attr("outputX"),
multJnt2_node.attr("outputX"),
multJnt3_node.attr("outputX")
])
subtract1_node = node.createPlusMinusAverage1D(
[plusTotalLength_node.attr("output1D"), self.soft_attr_cond], 2)
distance1_node = node.createDistNode(self.ik_ref, self.aim_tra)
div1_node = node.createDivNode(1.0, self.rig.global_ctl + ".sx")
mult1_node = node.createMulNode(distance1_node + ".distance",
div1_node + ".outputX")
subtract2_node = node.createPlusMinusAverage1D(
[mult1_node.attr("outputX"),
subtract1_node.attr("output1D")], 2)
div2_node = node.createDivNode(subtract2_node + ".output1D",
self.soft_attr_cond)
mult2_node = node.createMulNode(-1, div2_node + ".outputX")
power_node = node.createPowNode(self.softSpeed_attr,
mult2_node + ".outputX")
mult3_node = node.createMulNode(self.soft_attr_cond,
power_node + ".outputX")
subtract3_node = node.createPlusMinusAverage1D([
plusTotalLength_node.attr("output1D"),
mult3_node.attr("outputX")
], 2)
cond1_node = node.createConditionNode(
self.soft_attr_cond, 0, 2, subtract3_node + ".output1D",
plusTotalLength_node + ".output1D")
cond2_node = node.createConditionNode(mult1_node + ".outputX",
subtract1_node + ".output1D", 2,
cond1_node + ".outColorR",
mult1_node + ".outputX")
pm.connectAttr(cond2_node + ".outColorR", self.wristSoftIK + ".tz")
# soft blend
pc_node = pm.pointConstraint(self.wristSoftIK, self.ik_ref,
self.softblendLoc)
node.createReverseNode(self.stretch_attr,
pc_node + ".target[0].targetWeight")
pm.connectAttr(self.stretch_attr,
pc_node + ".target[1].targetWeight",
f=True)
# Stretch
distance2_node = node.createDistNode(self.softblendLoc,
self.wristSoftIK)
mult4_node = node.createMulNode(distance2_node + ".distance",
div1_node + ".outputX")
# bones
for i, mulNode in enumerate(
[multJnt1_node, multJnt2_node, multJnt3_node]):
div3_node = node.createDivNode(mulNode + ".outputX",
plusTotalLength_node + ".output1D")
mult5_node = node.createMulNode(mult4_node + ".outputX",
div3_node + ".outputX")
mult6_node = node.createMulNode(self.stretch_attr,
mult5_node + ".outputX")
node.createPlusMinusAverage1D(
[mulNode.attr("outputX"),
mult6_node.attr("outputX")], 1,
self.chain3bones[i + 1] + ".tx")
# IK 2 bones ===============================================
self.ikHandle2 = primitive.addIkHandle(self.softblendLoc2,
self.getName("ik2BonesHandle"),
self.chain2bones, self.ikSolver,
self.upv_ctl)
node.createMulNode(self.roll_att, mulVal, self.ikHandle2.attr("twist"))
# stable spring solver doble rotation
pm.pointConstraint(self.root_ctl, self.chain2bones[0])
parentc_node = pm.parentConstraint(self.ik2b_ikCtl_ref,
self.ik2b_bone_ref, self.ik2b_blend)
node.createReverseNode(self.fullIK_attr,
parentc_node + ".target[0].targetWeight")
pm.connectAttr(self.fullIK_attr,
parentc_node + ".target[1].targetWeight",
f=True)
# softIK 2 bones operators
applyop.aimCns(self.aim_tra2,
self.ik2b_ik_ref,
axis="zx",
wupType=4,
wupVector=[1, 0, 0],
wupObject=self.root_ctl,
maintainOffset=False)
plusTotalLength_node = node.createPlusMinusAverage1D(
[multJnt1_node.attr("outputX"),
multJnt2_node.attr("outputX")])
subtract1_node = node.createPlusMinusAverage1D(
[plusTotalLength_node.attr("output1D"), self.soft_attr_cond], 2)
distance1_node = node.createDistNode(self.ik2b_ik_ref, self.aim_tra2)
div1_node = node.createDivNode(1, self.rig.global_ctl + ".sx")
mult1_node = node.createMulNode(distance1_node + ".distance",
div1_node + ".outputX")
subtract2_node = node.createPlusMinusAverage1D(
[mult1_node.attr("outputX"),
subtract1_node.attr("output1D")], 2)
div2_node = node.createDivNode(subtract2_node + ".output1D",
self.soft_attr_cond)
mult2_node = node.createMulNode(-1, div2_node + ".outputX")
power_node = node.createPowNode(self.softSpeed_attr,
mult2_node + ".outputX")
mult3_node = node.createMulNode(self.soft_attr_cond,
power_node + ".outputX")
subtract3_node = node.createPlusMinusAverage1D([
plusTotalLength_node.attr("output1D"),
mult3_node.attr("outputX")
], 2)
cond1_node = node.createConditionNode(
self.soft_attr_cond, 0, 2, subtract3_node + ".output1D",
plusTotalLength_node + ".output1D")
cond2_node = node.createConditionNode(mult1_node + ".outputX",
subtract1_node + ".output1D", 2,
cond1_node + ".outColorR",
mult1_node + ".outputX")
pm.connectAttr(cond2_node + ".outColorR", self.ankleSoftIK + ".tz")
# soft blend
pc_node = pm.pointConstraint(self.ankleSoftIK, self.ik2b_ik_ref,
self.softblendLoc2)
node.createReverseNode(self.stretch_attr,
pc_node + ".target[0].targetWeight")
pm.connectAttr(self.stretch_attr,
pc_node + ".target[1].targetWeight",
f=True)
# Stretch
distance2_node = node.createDistNode(self.softblendLoc2,
self.ankleSoftIK)
mult4_node = node.createMulNode(distance2_node + ".distance",
div1_node + ".outputX")
for i, mulNode in enumerate([multJnt1_node, multJnt2_node]):
div3_node = node.createDivNode(mulNode + ".outputX",
plusTotalLength_node + ".output1D")
mult5_node = node.createMulNode(mult4_node + ".outputX",
div3_node + ".outputX")
mult6_node = node.createMulNode(self.stretch_attr,
mult5_node + ".outputX")
node.createPlusMinusAverage1D(
[mulNode.attr("outputX"),
mult6_node.attr("outputX")], 1,
self.chain2bones[i + 1] + ".tx")
# IK/FK connections
for i, x in enumerate(self.fk_ctl):
pm.parentConstraint(x, self.legBonesFK[i], mo=True)
for i, x in enumerate([self.chain2bones[0], self.chain2bones[1]]):
pm.parentConstraint(x, self.legBonesIK[i], mo=True)
pm.pointConstraint(self.ik2b_ik_ref, self.legBonesIK[2])
applyop.aimCns(self.legBonesIK[2],
self.roll_ctl,
axis="xy",
wupType=4,
wupVector=[0, 1, 0],
wupObject=self.legBonesIK[1],
maintainOffset=False)
pm.connectAttr(self.chain3bones[-1].attr("tx"),
self.legBonesIK[-1].attr("tx"))
# foot twist roll
pm.orientConstraint(self.ik_ref, self.legBonesIK[-1], mo=True)
node.createMulNode(-1, self.chain3bones[-1].attr("tx"),
self.ik2b_ik_ref.attr("tx"))
for i, x in enumerate(self.legBones):
node.createPairBlend(self.legBonesFK[i], self.legBonesIK[i],
self.blend_att, 1, x)
# Twist references ----------------------------------------
self.ikhArmRef, self.tmpCrv = applyop.splineIK(
self.getName("legRollRef"),
self.rollRef,
parent=self.root,
cParent=self.legBones[0])
initRound = .001
multVal = 1
multTangent_node = node.createMulNode(self.roundnessKnee_att, multVal)
add_node = node.createAddNode(multTangent_node + ".outputX", initRound)
pm.connectAttr(add_node + ".output", self.tws1_rot.attr("sx"))
for x in ["translate"]:
pm.connectAttr(self.knee_ctl.attr(x), self.tws1_loc.attr(x))
for x in "xy":
pm.connectAttr(self.knee_ctl.attr("r" + x),
self.tws1_loc.attr("r" + x))
multTangent_node = node.createMulNode(self.roundnessAnkle_att, multVal)
add_node = node.createAddNode(multTangent_node + ".outputX", initRound)
pm.connectAttr(add_node + ".output", self.tws2_rot.attr("sx"))
for x in ["translate"]:
pm.connectAttr(self.ankle_ctl.attr(x), self.tws2_loc.attr(x))
for x in "xy":
pm.connectAttr(self.ankle_ctl.attr("r" + x),
self.tws2_loc.attr("r" + x))
# Volume -------------------------------------------
distA_node = node.createDistNode(self.tws0_loc, self.tws1_loc)
distB_node = node.createDistNode(self.tws1_loc, self.tws2_loc)
distC_node = node.createDistNode(self.tws2_loc, self.tws3_loc)
add_node = node.createAddNode(distA_node + ".distance",
distB_node + ".distance")
add_node2 = node.createAddNode(distC_node + ".distance",
add_node + ".output")
div_node = node.createDivNode(add_node2 + ".output",
self.root_ctl.attr("sx"))
# comp scaling
dm_node = node.createDecomposeMatrixNode(self.root.attr("worldMatrix"))
div_node2 = node.createDivNode(div_node + ".outputX",
dm_node + ".outputScaleX")
self.volDriver_att = div_node2 + ".outputX"
# Flip Offset ----------------------------------------
pm.connectAttr(self.ankleFlipOffset_att, self.tws2_loc.attr("rz"))
pm.connectAttr(self.kneeFlipOffset_att, self.tws1_loc.attr("rz"))
# Divisions ----------------------------------------
# at 0 or 1 the division will follow exactly the rotation of the
# controler.. and we wont have this nice tangent + roll
for i, div_cns in enumerate(self.div_cns):
subdiv = False
if i == len(self.div_cns) - 1 or i == 0:
subdiv = 45
else:
subdiv = 45
if i < (self.settings["div0"] + 1):
perc = i * .333 / (self.settings["div0"] + 1.0)
elif i < (self.settings["div0"] + self.settings["div1"] + 2):
perc = i * .333 / (self.settings["div0"] + 1.0)
else:
perc = (.5 + (i - self.settings["div0"] - 3.0) * .5 /
(self.settings["div1"] + 1.0))
if i < (self.settings["div0"] + 2):
perc = i * .333 / (self.settings["div0"] + 1.0)
elif i < (self.settings["div0"] + self.settings["div1"] + 3):
perc = (.333 + (i - self.settings["div0"] - 1) * .333 /
(self.settings["div1"] + 1.0))
else:
perc = (
.666 +
(i - self.settings["div1"] - self.settings["div0"] - 2.0) *
.333 / (self.settings["div2"] + 1.0))
# we neet to offset the ankle and knee point to force the bone
# orientation to the nex bone span
if perc == .333:
perc = .3338
elif perc == .666:
perc = .6669
perc = max(.001, min(.999, perc))
# Roll
cts = [self.tws0_rot, self.tws1_rot, self.tws2_rot, self.tws3_rot]
o_node = applyop.gear_rollsplinekine_op(div_cns, cts, perc, subdiv)
pm.connectAttr(self.resample_att, o_node + ".resample")
pm.connectAttr(self.absolute_att, o_node + ".absolute")
# Squash n Stretch
o_node = applyop.gear_squashstretch2_op(
div_cns, None, pm.getAttr(self.volDriver_att), "x")
pm.connectAttr(self.volume_att, o_node + ".blend")
pm.connectAttr(self.volDriver_att, o_node + ".driver")
pm.connectAttr(self.st_att[i], o_node + ".stretch")
pm.connectAttr(self.sq_att[i], o_node + ".squash")
# Visibilities -------------------------------------
# fk
fkvis_node = node.createReverseNode(self.blend_att)
for ctrl in self.fk_ctl:
for shp in ctrl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
# ik
for ctrl in [self.ik_ctl, self.roll_ctl]:
for shp in ctrl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
# setup leg o_node scale compensate
pm.connectAttr(self.rig.global_ctl + ".scale", self.setup + ".scale")
return
def kiddoRigModules():
print 'Create kiddo rig modules'
bodyModule = rig_module('body')
pm.parent('mainJA_JNT', bodyModule.skeleton)
main = rig_control(name='main',
shape='box',
targetOffset='mainJA_JNT',
constrain='mainJA_JNT',
parentOffset=bodyModule.controls,
scale=(45, 10, 50),
colour='white')
main.gimbal = createCtrlGimbal(main)
main.pivot = createCtrlPivot(main, overrideScale=(10, 10, 10))
upperBody = rig_control(name='upperBody',
shape='box',
modify=1,
targetOffset='mainJA_JNT',
constrainOffset=main.con,
scale=(35, 15, 40),
colour='yellow',
parentOffset=bodyModule.controls,
lockHideAttrs=['tx', 'ty', 'tz'],
rotateOrder=2)
pm.move(upperBody.ctrl.cv, [0, 10, 0], relative=True, objectSpace=True)
upperWaistXYZ = simpleControls(
['upperWaistY_JA_JNT', 'upperWaistZ_JA_JNT', 'upperWaistX_JA_JNT'],
modify=1,
scale=(45, 10, 50),
parentOffset=bodyModule.parts,
lockHideAttrs=['tx', 'ty', 'tz'])
upperWaistY = upperWaistXYZ['upperWaistY_JA_JNT']
upperWaistZ = upperWaistXYZ['upperWaistZ_JA_JNT']
upperWaistX = upperWaistXYZ['upperWaistX_JA_JNT']
pm.hide(upperWaistY.offset, upperWaistZ.offset, upperWaistX.offset)
constrainObject(upperBody.modify, [upperBody.offset, 'worldSpace_GRP'],
upperBody.ctrl, ['main', 'world'],
type='orientConstraint')
constrainObject(upperWaistY.modify, [upperWaistY.offset, 'worldSpace_GRP'],
upperBody.ctrl, ['main', 'world'],
type='orientConstraint',
skip=('x', 'z'))
constrainObject(upperWaistZ.modify, [upperWaistZ.offset, 'worldSpace_GRP'],
upperBody.ctrl, ['main', 'world'],
type='orientConstraint',
skip=('x', 'y'))
constrainObject(upperWaistX.modify, [upperWaistX.offset, 'worldSpace_GRP'],
upperBody.ctrl, ['main', 'world'],
type='orientConstraint',
skip=('z', 'y'))
pm.connectAttr(upperBody.ctrl.rotateX, upperWaistX.ctrl.rotateX)
pm.connectAttr(upperBody.ctrl.rotateY, upperWaistY.ctrl.rotateY)
pm.connectAttr(upperBody.ctrl.rotateZ, upperWaistZ.ctrl.rotateZ)
lowerBody = rig_control(name='lowerBody',
shape='box',
modify=1,
targetOffset='lowerBodyJA_JNT',
constrainOffset=main.con,
scale=(40, 20, 30),
colour='green',
parentOffset=bodyModule.controls,
lockHideAttrs=['tx', 'ty', 'tz', 'rx', 'rz'],
rotateOrder=2)
constrainObject(lowerBody.modify, [lowerBody.offset, 'worldSpace_GRP'],
lowerBody.ctrl, ['main', 'world'],
type='orientConstraint',
skip=('x', 'z'))
pm.parentConstraint(lowerBody.con, 'lowerBodyJA_JNT', mo=True)
pm.move(lowerBody.ctrl.cv, [0, -10, 0], relative=True, objectSpace=True)
biped = rig_biped()
biped.spineConnection = 'upperWaistX_JA_JNT'
biped.pelvisConnection = 'lowerBodyJA_JNT'
biped.centerConnection = 'mainJA_JNT'
for side in ['l', 'r']:
armModule = biped.arm(side, ctrlSize=10)
fingersModule = biped.hand(side, ctrlSize=2.5)
shoulderModule = biped.shoulder(side, ctrlSize=12)
biped.connectArmShoulder(side)
secColour = 'deepskyblue'
if side == 'r':
secColour = 'magenta'
# make leg
legName = side + '_leg'
legModule = rig_module(legName)
hipZJnt = side + '_hipZ_JA_JNT'
hipYJnt = side + '_hipY_JA_JNT'
legJnt = side + '_legJA_JNT'
kneeJnt = side + '_kneeJA_JNT'
ankleJnt = side + '_ankleJA_JNT'
footJnt = side + '_footJA_JNT'
pm.setAttr(hipYJnt + '.rotateOrder', 2)
# chain IK
legJntIK = rig_transform(0,
name=side + '_legIK',
type='joint',
target=legJnt,
parent=legModule.parts).object
kneeJntIK = rig_transform(0,
name=side + '_kneeIK',
type='joint',
target=kneeJnt).object
ankleJntIK = rig_transform(
0,
name=side + '_ankleIK',
type='joint',
target=ankleJnt,
).object
footJntIK = rig_transform(
0,
name=side + '_footIK',
type='joint',
target=footJnt,
).object
chainIK = [legJntIK, kneeJntIK, ankleJntIK, footJntIK]
chainParent(chainIK)
chainIK.reverse()
# create ik
ik = rig_ik(legName, legJntIK, footJntIK, 'ikSpringSolver')
pm.parent(ik.handle, legModule.parts)
# pole vector
legPoleVector = rig_control(side=side,
name='legPV',
shape='pointer',
modify=1,
lockHideAttrs=['rx', 'ry', 'rz'],
targetOffset=[legJnt, footJnt],
parentOffset=legModule.parts,
scale=(2, 2, 2))
pm.delete(pm.aimConstraint(ankleJnt, legPoleVector.offset, mo=False))
kneePos = pm.xform(kneeJnt, translation=True, query=True, ws=True)
poleVectorPos = pm.xform(legPoleVector.con,
translation=True,
query=True,
ws=True)
pvDistance = lengthVector(kneePos, poleVectorPos)
pm.xform(legPoleVector.offset,
translation=[-25, 0, 0],
os=True,
r=True)
pm.poleVectorConstraint(legPoleVector.con, ik.handle) # create pv
#pm.parentConstraint(biped.centerConnection, legPoleVector.offset, mo=True)
pm.parentConstraint(hipYJnt, legPoleVector.offset, mo=True)
if side == 'r':
pm.rotate(legPoleVector.ctrl.cv, 0, -90, 0, r=True, os=True)
else:
pm.rotate(legPoleVector.ctrl.cv, 0, 90, 0, r=True, os=True)
# create foot control
foot = rig_control(side=side,
name='foot',
shape='box',
modify=1,
scale=(13, 13, 13),
parentOffset=legModule.controls,
lockHideAttrs=['rx', 'ry', 'rz'])
pm.delete(pm.pointConstraint(footJnt, foot.offset))
pm.parentConstraint(foot.con, ik.handle, mo=True)
#pm.pointConstraint( foot.con, legPoleVector.modify, mo=True )
foot.gimbal = createCtrlGimbal(foot)
foot.pivot = createCtrlPivot(foot)
constrainObject(
foot.offset,
[biped.pelvisConnection, biped.centerConnection, 'worldSpace_GRP'],
foot.ctrl, ['pelvis', 'main', 'world'],
type='parentConstraint')
pm.setAttr(foot.ctrl.space, 2)
pm.addAttr(foot.ctrl, longName='twist', at='float', k=True)
pm.addAttr(foot.ctrl,
longName='springBiasBottom',
at='float',
min=0,
max=1,
k=True,
dv=0)
pm.addAttr(foot.ctrl,
longName='springBiasTop',
at='float',
min=0,
max=1,
k=True,
dv=0.5)
pm.connectAttr(foot.ctrl.twist, ik.handle.twist)
pm.connectAttr(foot.ctrl.springBiasBottom,
ik.handle +
'.springAngleBias[0].springAngleBias_FloatValue',
f=True)
pm.connectAttr(foot.ctrl.springBiasTop,
ik.handle +
'.springAngleBias[1].springAngleBias_FloatValue',
f=True)
# create hip aims
hipAimZ_loc = rig_transform(0,
name=side + '_hipAimZ',
type='locator',
parent=legModule.parts,
target=hipZJnt).object
footAimZ_loc = rig_transform(0,
name=side + '_footAimZ',
type='locator',
parent=legModule.parts).object
pm.pointConstraint(biped.pelvisConnection, hipAimZ_loc, mo=True)
pm.parentConstraint(foot.con, footAimZ_loc)
# z rotation
hipAimZ = mm.eval('rig_makePiston("' + footAimZ_loc + '", "' +
hipAimZ_loc + '", "' + side + '_hipAimZ");')
hipZ = rig_control(side=side,
name='hipRoll',
shape='sphere',
modify=1,
scale=(5, 5, 7),
parentOffset=legModule.parts,
targetOffset=hipZJnt,
lockHideAttrs=['tx', 'ty', 'tz', 'rx', 'ry'],
rotateOrder=0)
pm.parentConstraint(hipZ.con, hipZJnt, mo=True)
pm.parentConstraint(lowerBody.con, hipZ.offset, mo=True)
rotCon = pm.orientConstraint(hipZ.offset,
hipAimZ_loc,
hipZ.modify,
mo=True,
skip=('x', 'y'))
targetZ = rotCon.getWeightAliasList()
#pm.addAttr(hipZ.ctrl, longName='aim', at='float', k=True, min=0, max=1,
# dv=1)
#pm.connectAttr ( hipZ.ctrl.aim, target )
# y rotation
hipAimY_loc = rig_transform(0,
name=side + '_hipAimY',
type='locator',
parent=legModule.parts,
target=hipYJnt).object
footAimY_loc = rig_transform(0,
name=side + '_footAimY',
type='locator',
parent=legModule.parts).object
pm.pointConstraint(hipZJnt, hipAimY_loc, mo=True)
pm.parentConstraint(foot.con, footAimY_loc)
hipAimY = mm.eval('rig_makePiston("' + footAimY_loc + '", "' +
hipAimY_loc + '", '
'"' + side + '_hipAimY");')
pm.setAttr(side + '_hipAimZ_LOC.rotateOrder', 4)
hipY = rig_control(side=side,
name='hipYaw',
shape='sphere',
modify=2,
scale=(5, 7, 5),
parentOffset=legModule.controls,
targetOffset=hipYJnt,
lockHideAttrs=['tx', 'ty', 'tz', 'rx', 'rz'],
rotateOrder=2)
pm.parentConstraint(hipY.con, hipYJnt, mo=True)
pm.parentConstraint(hipZ.con, hipY.offset, mo=True)
#rotCon = pm.parentConstraint(hipAimY_loc, hipY.modify, mo=True,
# skipTranslate=('x', 'y', 'z'),
# skipRotate=('x', 'z'))
rotCon = pm.orientConstraint(hipY.offset,
hipAimY_loc,
hipY.modify[0],
mo=True,
skip=('x', 'z'))
targetY = rotCon.getWeightAliasList()
pm.addAttr(hipY.ctrl,
longName='aim',
at='float',
k=True,
min=0,
max=1,
dv=1)
pm.connectAttr(hipY.ctrl.aim, targetY[1])
pm.connectAttr(hipY.ctrl.aim, targetZ[1])
connectReverse(name=side + '_leg',
input=(hipY.ctrl.aim, hipY.ctrl.aim, 0),
output=(targetY[0], targetZ[0], 0))
pm.setAttr(rotCon.interpType, 2)
pm.transformLimits(hipY.modify[0], ry=(-30, 10), ery=(1, 1))
pm.addAttr(hipY.ctrl,
longName='aimRotation',
at='float',
k=True,
min=0,
max=10,
dv=0)
pm.addAttr(hipY.ctrl,
longName='limitOutRotation',
at='float',
k=True,
min=0,
max=10,
dv=3)
pm.addAttr(hipY.ctrl,
longName='limitInRotation',
at='float',
k=True,
min=0,
max=10,
dv=0)
hipY.ctrl.limitOutRotation.set(cb=True)
hipY.ctrl.limitInRotation.set(cb=True)
pm.setDrivenKeyframe(hipY.modify[0] + '.minRotYLimit',
cd=hipY.ctrl.limitOutRotation,
dv=0,
v=-45)
pm.setDrivenKeyframe(hipY.modify[0] + '.minRotYLimit',
cd=hipY.ctrl.limitOutRotation,
dv=10,
v=0)
pm.setDrivenKeyframe(hipY.modify[0] + '.maxRotYLimit',
cd=hipY.ctrl.limitInRotation,
dv=0,
v=10)
pm.setDrivenKeyframe(hipY.modify[0] + '.maxRotYLimit',
cd=hipY.ctrl.limitInRotation,
dv=10,
v=0)
rotCon = pm.orientConstraint(hipY.offset,
hipY.modify[0],
hipY.modify[1],
mo=True)
conTargets = rotCon.getWeightAliasList()
pm.setDrivenKeyframe(conTargets[0],
cd=hipY.ctrl.aimRotation,
dv=0,
v=1)
pm.setDrivenKeyframe(conTargets[0],
cd=hipY.ctrl.aimRotation,
dv=10,
v=0)
connectReverse(name=side + '_hipYTarget',
input=(conTargets[0], 0, 0),
output=(conTargets[1], 0, 0))
# constrain shizzle
legTop = rig_transform(0,
name=side + '_legTop',
target=legJnt,
parent=legModule.skeleton).object
pm.setAttr(legTop + '.inheritsTransform', 0)
pm.scaleConstraint('worldSpace_GRP', legTop)
legSkeletonParts = rig_transform(0,
name=side + '_legSkeletonParts',
parent=legTop).object
pm.parent(hipAimY, hipAimZ, legModule.parts)
pm.parent(legJntIK, legJnt, legSkeletonParts)
pm.hide(legJntIK)
pm.parentConstraint(hipYJnt,
legTop,
mo=True,
skipRotate=('x', 'y', 'z'))
#pm.connectAttr(legJntIK+'.rotate', legJnt+'.rotate')
pm.connectAttr(kneeJntIK + '.rotate', kneeJnt + '.rotate')
pm.connectAttr(ankleJntIK + '.rotate', ankleJnt + '.rotate')
multiplyDivideNode('legRotate',
'multiply',
input1=[
legJntIK + '.rotateX', legJntIK + '.rotateY',
legJntIK + '.rotateZ'
],
input2=[1, hipY.ctrl.aim, hipY.ctrl.aim],
output=[
legJnt + '.rotateX', legJnt + '.rotateY',
legJnt + '.rotateZ'
])
pm.parent(hipZJnt, legModule.skeleton)
pm.parent(hipYJnt, legModule.skeleton)
footJnts = [
side + '_heelRotY_JA_JNT', side + '_footRotX_JA_JNT',
side + '_footRotY_JA_JNT', side + '_footRotZ_JA_JNT'
]
footControls = simpleControls(footJnts,
modify=2,
scale=(11, 3, 20),
parentOffset=legModule.parts,
colour=secColour,
lockHideAttrs=['tx', 'ty', 'tz'])
#footControls[side+'']
ankle = rig_control(side=side,
name='ankle',
shape='box',
modify=1,
scale=(10, 6, 8),
colour=secColour,
parentOffset=legModule.controls,
targetOffset=side + '_footRotZ_JA_JNT',
lockHideAttrs=['tx', 'ty', 'tz', 'ry'])
pm.parentConstraint(footJnt, ankle.offset, mo=True)
heel = footControls[side + '_heelRotY_JA_JNT']
footRotX = footControls[side + '_footRotX_JA_JNT']
footRotY = footControls[side + '_footRotY_JA_JNT']
footRotZ = footControls[side + '_footRotZ_JA_JNT']
pm.parent(heel.offset, legModule.controls)
heel.ctrl.rotateX.setKeyable(False)
heel.ctrl.rotateX.setLocked(True)
heel.ctrl.rotateZ.setKeyable(False)
heel.ctrl.rotateZ.setLocked(True)
pm.parentConstraint(footRotY.con, heel.modify[0], mo=True)
pm.parentConstraint(footRotZ.con, footRotY.modify[0], mo=True)
pm.parentConstraint(footRotX.con, footRotZ.modify[0], mo=True)
footSpace = footJnt
if side == 'l':
footSpace = rig_transform(0,
name='l_footSpace',
parent=legModule.parts,
target=footJnt).object
pm.setAttr(footSpace + '.rotateX', 0)
pm.parentConstraint(footJnt, footSpace, mo=True)
toeSpaceList = ('lowerBody', 'foot', 'main', 'world')
constrainObject(heel.modify[1], [
biped.pelvisConnection, footSpace, biped.centerConnection,
'worldSpace_GRP'
],
heel.ctrl,
toeSpaceList,
type='orientConstraint',
skip=('x', 'z'))
constrainObject(footRotX.modify[0], [
biped.pelvisConnection, footSpace, biped.centerConnection,
'worldSpace_GRP'
],
footRotX.ctrl,
toeSpaceList,
type='orientConstraint',
skip=('y', 'z'))
constrainObject(footRotZ.modify[1], [
biped.pelvisConnection, footSpace, biped.centerConnection,
'worldSpace_GRP'
],
footRotZ.ctrl,
toeSpaceList,
type='orientConstraint',
skip=('x', 'y'))
pm.connectAttr(ankle.ctrl.rotateX, footRotX.ctrl.rotateX)
#pm.connectAttr( ankle.ctrl.rotateY, heel.ctrl.rotateY )
#connectNegative(ankle.ctrl.rotateY, heel.ctrl.rotateY)
pm.connectAttr(ankle.ctrl.rotateZ, footRotZ.ctrl.rotateZ)
pm.addAttr(ankle.ctrl,
ln='SPACES',
at='enum',
enumName='___________',
k=True)
ankle.ctrl.SPACES.setLocked(True)
pm.addAttr(ankle.ctrl,
ln='rollSpace',
at='enum',
enumName='lowerBody:foot:main:world',
k=True)
#pm.addAttr(ankle.ctrl, ln='yawSpace', at='enum',
# enumName='lowerBody:foot:main:world', k=True)
pm.addAttr(ankle.ctrl,
ln='pitchSpace',
at='enum',
enumName='lowerBody:foot:main:world',
k=True)
pm.connectAttr(ankle.ctrl.rollSpace, footRotX.ctrl.space)
#pm.connectAttr( ankle.ctrl.yawSpace, heel.ctrl.space)
pm.connectAttr(ankle.ctrl.pitchSpace, footRotZ.ctrl.space)
pm.addAttr(ankle.ctrl,
ln='MOTION',
at='enum',
enumName='___________',
k=True)
ankle.ctrl.MOTION.setLocked(True)
pm.addAttr(ankle.ctrl,
longName='footFangs',
at='float',
k=True,
min=0,
max=10,
dv=0)
pm.addAttr(ankle.ctrl,
longName='toeFangs',
at='float',
k=True,
min=0,
max=10,
dv=0)
fangsJnt = pm.PyNode(side + '_toeFangsJA_JNT')
toeFangsJnt = pm.PyNode(side + '_footFangsJA_JNT')
fangsTranslate = fangsJnt.translate.get()
pm.setDrivenKeyframe(fangsJnt.translateX,
cd=ankle.ctrl.footFangs,
dv=0,
v=fangsTranslate[0])
pm.setDrivenKeyframe(fangsJnt.translateY,
cd=ankle.ctrl.footFangs,
dv=0,
v=fangsTranslate[1])
pm.setDrivenKeyframe(fangsJnt.translateZ,
cd=ankle.ctrl.footFangs,
dv=0,
v=fangsTranslate[2])
pm.move(0, 1.5, 0, fangsJnt, r=True, os=True)
fangsTranslate = fangsJnt.translate.get()
pm.move(0, -1.5, 0, fangsJnt, r=True, os=True)
pm.setDrivenKeyframe(fangsJnt.translateX,
cd=ankle.ctrl.footFangs,
dv=10,
v=fangsTranslate[0])
pm.setDrivenKeyframe(fangsJnt.translateY,
cd=ankle.ctrl.footFangs,
dv=10,
v=fangsTranslate[1])
pm.setDrivenKeyframe(fangsJnt.translateZ,
cd=ankle.ctrl.footFangs,
dv=10,
v=fangsTranslate[2])
# foot fangs
fangsTranslate = toeFangsJnt.translate.get()
pm.setDrivenKeyframe(toeFangsJnt.translateX,
cd=ankle.ctrl.toeFangs,
dv=0,
v=fangsTranslate[0])
pm.setDrivenKeyframe(toeFangsJnt.translateY,
cd=ankle.ctrl.toeFangs,
dv=0,
v=fangsTranslate[1])
pm.setDrivenKeyframe(toeFangsJnt.translateZ,
cd=ankle.ctrl.toeFangs,
dv=0,
v=fangsTranslate[2])
pm.move(0, 0, -4.7, toeFangsJnt, r=True, os=True)
fangsTranslate = toeFangsJnt.translate.get()
pm.move(0, 0, 4.7, toeFangsJnt, r=True, os=True)
pm.setDrivenKeyframe(toeFangsJnt.translateX,
cd=ankle.ctrl.toeFangs,
dv=10,
v=fangsTranslate[0])
pm.setDrivenKeyframe(toeFangsJnt.translateY,
cd=ankle.ctrl.toeFangs,
dv=10,
v=fangsTranslate[1])
pm.setDrivenKeyframe(toeFangsJnt.translateZ,
cd=ankle.ctrl.toeFangs,
dv=10,
v=fangsTranslate[2])
pm.addAttr(ankle.ctrl,
longName='toeCapRotate',
at='float',
k=True,
dv=0)
if side == 'l':
pm.connectAttr(ankle.ctrl.toeCapRotate,
'l_footCapJA_JNT.rotateX',
f=True)
else:
connectReverse(ankle.ctrl.toeCapRotate, 'r_footCapJA_JNT.rotateX')
# simple controls
legSidesSimpleControls(legModule, side, secColour)
armSidesSimpleControls(armModule, side, secColour)
# asymettrical controls
bodySimpleControls(bodyModule)
def squishySplineIk(startLoc, endLoc):
ikJoints = list()
startJoint = pmc.createNode('joint')
adv.alignObjects(startJoint, startLoc)
endJoint = pmc.createNode('joint')
adv.alignObjects(endJoint, endLoc)
pmc.parent(endJoint, startJoint)
startJoint.orientJoint('xzy', secondaryAxisOrient='zup')
pmc.makeIdentity(endJoint, apply=True, jointOrient=True)
Splitter.doSplit(startJoint, 10)
ikJoints.append(startJoint)
ikJoints.extend(reversed(startJoint.getChildren(ad=True, type='joint')))
for i, ikj in enumerate(ikJoints):
ikj.radius.set(2)
ikj.rename('ikj_spine{0:02d}'.format(i))
# Create second set of joints
rigJoints = adv.makeDuplicateJoints(joints=ikJoints, search='ikj_', replace='local_rig_', connectBone=False)
# HACK I haven't figured out how to create SDK nodes procedurally,
# so making some dummy locs to make the curve I need
a = pmc.createNode('transform')
b = pmc.createNode('transform')
pmc.setKeyframe(a.ty, t=0, value=2.5, inTangentType='flat', outTangentType='flat')
pmc.setKeyframe(a.ty, t=10, value=0, inTangentType='flat', outTangentType='flat')
pmc.keyTangent(a.ty, index=[0], inAngle=0)
pmc.keyTangent(a.ty, index=[1], inAngle=-30)
pmc.keyTangent(a.ty, index=[0], outAngle=0)
pmc.keyTangent(a.ty, index=[1], outAngle=-30)
animSquashCurve = a.ty.listConnections()[0]
animSquashCurve.output.disconnect(a.ty)
animSquashCurve.rename('squash_ramp')
pmc.setKeyframe(a.tx, t=0, value=0, inTangentType='flat', outTangentType='flat')
pmc.setKeyframe(a.tx, t=5, value=1, inTangentType='flat', outTangentType='flat')
pmc.setKeyframe(a.tx, t=10, value=0, inTangentType='flat', outTangentType='flat')
animTwistCurve = a.tx.listConnections()[0]
animTwistCurve.output.disconnect(a.tx)
animTwistCurve.rename('twist_ramp')
pmc.delete(a, b)
animControls = dict()
animControls['lower_spine'] = adv.makeControlNode('ctl_lower_spine', targetObject=rigJoints[2], alignRotation=False)
animControls['middle_spine'] = adv.makeControlNode('ctl_middle_spine')
animControls['upper_spine'] = adv.makeControlNode('ctl_upper_spine', targetObject=rigJoints[-2],
alignRotation=False)
animControls['lower_spine'][0].rotateOrder.set(adv.ROO_YXZ)
animControls['middle_spine'][0].rotateOrder.set(adv.ROO_YXZ)
animControls['upper_spine'][0].rotateOrder.set(adv.ROO_YXZ)
pmc.pointConstraint(animControls['lower_spine'][0], animControls['upper_spine'][0],
animControls['middle_spine'][1], mo=False)
pmc.orientConstraint(animControls['lower_spine'][0], animControls['upper_spine'][0],
animControls['middle_spine'][1], mo=False)
splineIk = pmc.ikHandle(sj=ikJoints[0], ee=ikJoints[-1], sol='ikSplineSolver', parentCurve=False,
createCurve=True, simplifyCurve=True, numSpans=2, rootOnCurve=False, n='sik_spine')
splineIkHandle = splineIk[0]
spline = splineIk[2]
spline.rename('crv_spine')
clusterJoints = list()
clusterJoints.append(pmc.createNode('joint', n='clj_spine0'))
pmc.parentConstraint(animControls['lower_spine'][0], clusterJoints[-1])
clusterJoints.append(pmc.createNode('joint', n='clj_spine1'))
pmc.parentConstraint(animControls['middle_spine'][0], clusterJoints[-1])
clusterJoints.append(pmc.createNode('joint', n='clj_spine2'))
pmc.parentConstraint(animControls['upper_spine'][0], clusterJoints[-1])
pmc.skinCluster(clusterJoints, spline, maximumInfluences=3)
pmc.parentConstraint(animControls['lower_spine'][0], ikJoints[0], maintainOffset=True)
for clj in clusterJoints:
clj.radius.set(3)
splineIkHandle.dTwistControlEnable.set(1)
splineIkHandle.dWorldUpType.set(4)
splineIkHandle.dWorldUpAxis.set(0)
splineIkHandle.dWorldUpVector.set([0.0, 0.0, 1.0])
splineIkHandle.dWorldUpVectorEnd.set([0.0, 0.0, 1.0])
animControls['lower_spine'][0].worldMatrix[0].connect(splineIkHandle.dWorldUpMatrix)
animControls['upper_spine'][0].worldMatrix[0].connect(splineIkHandle.dWorldUpMatrixEnd)
normalizeNode = stretchySplineIk(splineIkHandle, useScale=True, globalScaleAttr='ctl_main.size')
sqrtScale = pmc.createNode('multiplyDivide', n='sqrt_spine_scale')
sqrtScale.operation.set(3)
sqrtScale.input2X.set(0.5)
normalizeNode.outputX.connect(sqrtScale.input1X)
invScale = pmc.createNode('multiplyDivide', n='div_spine_inverse_scale')
invScale.operation.set(2)
invScale.input1X.set(1.0)
sqrtScale.outputX.connect(invScale.input2X)
jointGroups = list()
for i, jnt in enumerate(rigJoints):
preTransform = adv.zeroOut(jnt, 'pre')
jointGroups.append(preTransform)
ikNode = adv.zeroOut(jnt, 'hlp_ik')
pmc.pointConstraint(ikJoints[i], ikNode)
pmc.orientConstraint(ikJoints[i], ikNode)
twistNode = adv.zeroOut(jnt, 'hlp_twist')
twistCache = pmc.createNode('frameCache', n='frm_{0}_twist'.format(jnt))
animTwistCurve.output.connect(twistCache.stream)
twistCache.varyTime.set(i)
rotateMultiplier = pmc.createNode('multiplyDivide', n='mul_{0}_twist'.format(jnt.shortName()))
twistCache.varying.connect(rotateMultiplier.input2X)
animControls['middle_spine'][0].rotateY.connect(rotateMultiplier.input1X)
rotateMultiplier.outputX.connect(twistNode.rotateX)
volumeCache = pmc.createNode('frameCache', n='frm_{0}_volume'.format(jnt.shortName()))
animSquashCurve.output.connect(volumeCache.stream)
volumeCache.varyTime.set(i)
pow_ = pmc.createNode('multiplyDivide', n='pow_{0}'.format(jnt.shortName()))
pow_.operation.set(3)
invScale.outputX.connect(pow_.input1X)
volumeCache.varying.connect(pow_.input2X)
pow_.outputX.connect(jnt.scaleY)
pow_.outputX.connect(jnt.scaleZ)
pmc.group(animControls['lower_spine'][1], animControls['upper_spine'][1], animControls['middle_spine'][1],
n='grp_spine_anim')
pmc.group(splineIkHandle, spline, n='grp_spine_rig_systems')
pmc.group(clusterJoints, startJoint, n='grp_spine_system_joints')
pmc.group(jointGroups, n='grp_spine_bind_joints')
return rigJoints
def rigCurveConnect(*objs, **kwargs):
'''
update : 2015-04-15
update : 2016-11-03
'''
if objs:
pm.select(objs)
sel = pm.selected(type='transform')
if not sel:
raise
obj = sel[0]
#
# 삭제
#
delete = kwargs.get('delete', False)
if delete:
deleteList = []
for crvShp in obj.getShapes():
if crvShp.hasAttr('curveConnectedLOC'):
deleteList = [
crvShp,
crvShp.curveConnectedLOC.inputs(),
crvShp.history(type='nurbsCurve')[-1]
]
if deleteList:
pm.delete(deleteList)
print deleteList
return
#
# 생성
#
# 타겟 가져옴.
target = sel[1]
position = kwargs.get('position') or kwargs.get('p', (0, 0, 0))
# 커브 생성
crvTrans = pm.curve(d=1, p=[position, position], k=[0, 1])
crvShape = crvTrans.getShape()
# obj에 커브 쉐입을 종속 시킴 : 커브를 선택해도 오브젝트를 선택한 효과를 줌.
pm.parent(crvShape, obj, r=True, s=True)
pm.delete(crvTrans)
crvShape.rename(obj + 'Shape')
# target에 locator를 종속 시킴
loc, leastSquaresModifier = pm.pointCurveConstraint(crvShape + '.ep[1]',
ch=True)
loc = pm.PyNode(loc)
leastSquaresModifier = pm.PyNode(leastSquaresModifier)
const = pm.pointConstraint(target, loc)
# 로케이서 속성 조정
loc.getShape().localPosition.set(0, 0, 0)
loc.getShape().v.set(False)
loc.v.set(False)
loc.setParent(obj)
loc.rename(target + '_locator#')
const.rename(target + '_pointConst#')
# 커브쉐입에 어트리뷰트 추가 (깔끔 삭제용)
crvShape.addAttr('curveConnectedTo', at='message')
crvShape.addAttr('curveConnectedLOC', at='message')
crvShape.addAttr('curveConnectedOrgShape', at='message')
# 어트리뷰트 연결
target.message >> crvShape.curveConnectedTo
loc.message >> crvShape.curveConnectedLOC
# 선택
pm.select(obj)
return loc
def cycleTweak(name,
edgePair,
mirrorAxis,
baseMesh,
rotMesh,
transMesh,
setupParent,
ctlParent,
jntOrg=None,
grp=None,
iconType="square",
size=.025,
color=13,
ro=datatypes.Vector(1.5708, 0, 1.5708 / 2)):
"""The command to create a cycle tweak.
A cycle tweak is a tweak that cycles to the parent position but doesn't
create a cycle of dependency. This type of tweaks
are very useful to create facial tweakers.
Args:
name (string): Name for the cycle tweak
edgePair (list): List of edge pair to attach the cycle tweak
mirrorAxis (bool): If true, will mirror the x axis behaviour.
baseMesh (Mesh): The base mesh for the cycle tweak.
rotMesh (Mesh): The mesh that will support the rotation transformations
for the cycle tweak
transMesh (Mesh): The mesh that will support the translation and scale
transformations for the cycle tweak
setupParent (dagNode): The parent for the setup objects
ctlParent (dagNode): The parent for the control objects
jntOrg (None or dagNode, optional): The parent for the joints
grp (None or set, optional): The set to add the controls
iconType (str, optional): The controls shape
size (float, optional): The control size
color (int, optional): The control color
ro (TYPE, optional): The control shape rotation offset
Returns:
multi: the tweak control and the list of related joints.
"""
# rotation sctructure
rRivet = rivet.rivet()
rBase = rRivet.create(
baseMesh, edgePair[0], edgePair[1], setupParent, name + "_rRivet_loc")
pos = rBase.getTranslation(space="world")
# translation structure
tRivetParent = pm.createNode("transform",
n=name + "_tRivetBase",
p=ctlParent)
tRivetParent.setMatrix(datatypes.Matrix(), worldSpace=True)
tRivet = rivet.rivet()
tBase = tRivet.create(transMesh,
edgePair[0],
edgePair[1],
tRivetParent,
name + "_tRivet_loc")
# create the control
tweakBase = pm.createNode("transform", n=name + "_tweakBase", p=ctlParent)
tweakBase.setMatrix(datatypes.Matrix(), worldSpace=True)
tweakNpo = pm.createNode("transform", n=name + "_tweakNpo", p=tweakBase)
tweakBase.setTranslation(pos, space="world")
tweakCtl = icon.create(tweakNpo,
name + "_ctl",
tweakNpo.getMatrix(worldSpace=True),
color,
iconType,
w=size,
d=size,
ro=ro)
inverseTranslateParent(tweakCtl)
pm.pointConstraint(tBase, tweakBase)
# rot
rotBase = pm.createNode("transform", n=name + "_rotBase", p=setupParent)
rotBase.setMatrix(datatypes.Matrix(), worldSpace=True)
rotNPO = pm.createNode("transform", n=name + "_rot_npo", p=rotBase)
rotJointDriver = pm.createNode("transform",
n=name + "_rotJointDriver",
p=rotNPO)
rotBase.setTranslation(pos, space="world")
node.createMulNode([rotNPO.attr("tx"),
rotNPO.attr("ty"),
rotNPO.attr("tz")],
[-1, -1, -1],
[rotJointDriver.attr("tx"),
rotJointDriver.attr("ty"),
rotJointDriver.attr("tz")])
pm.pointConstraint(rBase, rotNPO)
pm.connectAttr(tweakCtl.r, rotNPO.r)
pm.connectAttr(tweakCtl.s, rotNPO.s)
# transform
posNPO = pm.createNode("transform", n=name + "_pos_npo", p=setupParent)
posJointDriver = pm.createNode("transform",
n=name + "_posJointDriver",
p=posNPO)
posNPO.setTranslation(pos, space="world")
pm.connectAttr(tweakCtl.t, posJointDriver.t)
# mirror behaviour
if mirrorAxis:
tweakBase.attr("ry").set(tweakBase.attr("ry").get() + 180)
rotBase.attr("ry").set(rotBase.attr("ry").get() + 180)
posNPO.attr("ry").set(posNPO.attr("ry").get() + 180)
tweakBase.attr("sz").set(-1)
rotBase.attr("sz").set(-1)
posNPO.attr("sz").set(-1)
# create joints
rJoint = rigbits.addJnt(rotJointDriver, jntOrg, True, grp)
tJoint = rigbits.addJnt(posJointDriver, jntOrg, True, grp)
# add to rotation skin
# TODO: add checker to see if joint is in the skincluster.
rSK = skin.getSkinCluster(rotMesh)
pm.skinCluster(rSK, e=True, ai=rJoint, lw=True, wt=0)
# add to transform skin
# TODO: add checker to see if joint is in the skincluster.
tSK = skin.getSkinCluster(transMesh)
pm.skinCluster(tSK, e=True, ai=tJoint, lw=True, wt=0)
return tweakCtl, [rJoint, tJoint]
def makeSpline(self,
name,
suffixCtrl='ctrl',
suffixJnt='jnt',
suffixGrp='grp',
suffixDrv='drv',
charSize=1.0,
numControls=3,
controlType='cube',
numDrivens=5,
drivenType='joint',
constrainMid=False,
mainSetName='setMUSCLERIGS',
rigSetSuffix='RIG',
muscleSplineName='tpMuscleSpline',
controlsGrpSuffix='controls',
jointsGrpSuffix='joints',
rootSuffix='root',
autoSuffix='auto',
lockScale=True,
lockJiggleAttributes=False):
"""
Makes a muscle spline rig
:param str prefix: Prefix for the muscle setup
:param str name: Name for the muscle setup
:param str suffixCtrl: Suffix for controls objects of the muscle setup
:param str suffixJnt: Suffix for joints objects of the muscle setup
:param int numControls: Number of controls for the muscle rig setup
:param float charSize: Number that controls the global scale of the muscle setup
:param int numControls: Number of control curves for the muscle setup
:param str controlType: Name of the control type we want to use for the controls (cube, circleY, null)
:param int numDrivens: Number of deformations joints for the muscle setup
:param str drivenType: Name of the control type we want to use for the controls (cube, circleY, null)
:param bool constrainMid: True if you want to constraint the mid control to the start and end controls
:return: None
"""
test = pm.pluginInfo('MayaMuscle.mll', query=True, loaded=True)
if not pm.pluginInfo('MayaMuscle.mll', query=True, loaded=True):
print 'Maya Muscle plugin is not loaded. Trying to load ...'
try:
pm.loadPlugin('MayaMuscle.mll')
except:
pm.error('Impossible to load Maya Muscle plugin ...')
return
baseName = name
if not pm.objExists(mainSetName):
pm.sets(name=mainSetName, empty=True)
setRig = 'set' + baseName + rigSetSuffix
if not pm.objExists(setRig):
pm.sets(name=setRig, empty=True)
pm.sets(setRig, include=mainSetName)
if pm.objExists(muscleSplineName + '_' + baseName) or pm.objExists(
baseName + '_' + muscleSplineName + '_' + suffixGrp):
msgBox = QMessageBox()
msgBox.setWindowTitle('Muscle/Spline Already Exists')
msgBox.setText(
'A Muscle or Spline with the given name "Spline" already exists.\nPlease choose a different name.'
)
msgBox.exec_()
pm.error(
'Muscle spline {0} already exists'.format(baseName + '_' +
muscleSplineName))
return False
# Make main group
self.mainGrp = pm.group(name=baseName + '_' + muscleSplineName + '_' +
suffixGrp,
empty=True,
world=True)
pm.sets(setRig, include=self.mainGrp)
# Create spline node
self.splineNode = pm.createNode('cMuscleSpline',
name=baseName + '_' +
muscleSplineName + 'Shape')
self.splineNodeXForm = pm.rename(
pm.listRelatives(self.splineNode, parent=True, type='transform'),
baseName + '_' + muscleSplineName)
self.splineNodeXForm.inheritsTransform.set(False)
pm.parent(self.splineNodeXForm, self.mainGrp)
for attr in ['DISPLAY', 'TANGENTS', 'LENGTH']:
pm.setAttr(self.splineNode + '.' + attr, lock=True)
for xform in ['t', 'r', 's']:
for axis in ['x', 'y', 'z']:
pm.setAttr(self.splineNodeXForm + '.' + xform + axis,
lock=True,
keyable=False)
pm.connectAttr("time1.outTime",
self.splineNode + '.inTime',
force=True)
pm.sets(setRig, include=self.splineNode)
# Make some interesting attributes of the cMuscleSpline node available to the user through channel box
pm.addAttr(self.splineNode, longName='curLen', keyable=True)
pm.addAttr(self.splineNode, longName='pctSquash', keyable=True)
pm.addAttr(self.splineNode, longName='pctStretch', keyable=True)
self.splineNode.curLen.connect(self.splineNode.outLen)
self.splineNode.pctSquash.connect(self.splineNode.outPctSquash)
self.splineNode.pctStretch.connect(self.splineNode.outPctStretch)
# Create group for the controls
self.controlsGrp = pm.group(name=baseName + '_' + muscleSplineName +
'_' + controlsGrpSuffix,
empty=True,
world=True)
self.controlsGrp.inheritsTransform.set(True)
pm.parent(self.controlsGrp, self.mainGrp)
for xform in ['t', 'r', 's']:
for axis in ['x', 'y', 'z']:
pm.setAttr(self.controlsGrp + '.' + xform + axis,
lock=True,
keyable=False)
pm.sets(setRig, include=self.controlsGrp)
# Create drivens group
self.drivensGrp = pm.group(name=baseName + '_' + muscleSplineName +
'_' + jointsGrpSuffix,
empty=True,
world=True)
self.drivensGrp.inheritsTransform.set(False)
pm.parent(self.drivensGrp, self.mainGrp)
for xform in ['t', 'r', 's']:
for axis in ['x', 'y', 'z']:
pm.setAttr(self.drivensGrp + '.' + xform + axis,
lock=True,
keyable=False)
pm.sets(setRig, include=self.drivensGrp)
# Create controls
self.controls = []
self.consGrps = []
self.rootGrps = []
for i in range(numControls):
ctrlName = baseName + '_' + muscleSplineName + '_' + str(
i) + '_' + suffixCtrl
ctrl = tpMuscleSplineCtrl(ctrlName, controlType, charSize)
self.controls.append(ctrl)
# Create root and auto groups
rootGrp = pm.group(name=ctrlName.replace(suffixCtrl, rootSuffix),
empty=True,
world=True)
consGrp = pm.group(name=ctrlName.replace(suffixCtrl, autoSuffix),
empty=True,
world=True)
self.rootGrps.append(rootGrp)
self.consGrps.append(consGrp)
ctrl.root = rootGrp
ctrl.auto = consGrp
# Place the controls and its groups vertically on the Y axis
for toTransform in [ctrl.control, rootGrp, consGrp]:
pm.xform(toTransform,
translation=(0, i * charSize, 0),
absolute=True,
worldSpace=True)
# Parent all the controls
pm.parent(ctrl.control, consGrp)
pm.parent(consGrp, rootGrp)
pm.parent(rootGrp, self.controlsGrp)
# Color the controls
if ctrl.control.getShape() is not None:
ctrl.control.getShape().overrideEnabled.set(True)
ctrl.control.getShape().overrideColor.set(17)
# Make middle controls jiggle by default
jiggle = 1.0
if (i == 0 or i == numControls - 1):
jiggle = 0.0
pm.addAttr(ctrl.control,
longName='tangentLength',
shortName='tanlen',
minValue=0.0,
defaultValue=1.0,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggle',
shortName='jig',
defaultValue=jiggle,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleX',
shortName='jigX',
defaultValue=jiggle,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleY',
shortName='jigY',
defaultValue=jiggle,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleZ',
shortName='jigZ',
defaultValue=jiggle,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleImpact',
shortName='jigimp',
defaultValue=(0.5 * jiggle),
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleImpactStart',
shortName='jigimpst',
defaultValue=1000,
keyable=True)
pm.addAttr(ctrl.control,
longName='jiggleImpactStop',
shortName='jigimpsp',
defaultValue=0.001,
keyable=True)
pm.addAttr(ctrl.control,
longName='cycle',
shortName='cyc',
minValue=1.0,
defaultValue=12.0,
keyable=True)
pm.addAttr(ctrl.control,
longName='rest',
shortName='rst',
minValue=1.0,
defaultValue=24.0,
keyable=True)
for attr in [
'tangentLength', 'jiggle', 'jiggleX', 'jiggleX', 'jiggleY',
'jiggleZ', 'jiggleImpact', 'jiggleImpactStart',
'jiggleImpactStop', 'cycle', 'rest'
]:
pm.setAttr(ctrl.control + '.' + attr,
lock=lockJiggleAttributes)
if lockScale:
# Unlock controls scale
for xform in ['s']:
for axis in ['x', 'y', 'z']:
pm.setAttr(ctrl.control + '.' + xform + axis,
lock=True,
keyable=False)
pm.setAttr(ctrl.control + '.visibility', lock=True, keyable=False)
# Connect the attributes
pm.connectAttr(
ctrl.control + '.worldMatrix',
self.splineNode + '.controlData[' + str(i) + '].insertMatrix')
pm.connectAttr(
ctrl.control + '.tangentLength',
self.splineNode + '.controlData[' + str(i) + '].tangentLength')
pm.connectAttr(
ctrl.control + '.jiggle',
self.splineNode + '.controlData[' + str(i) + '].jiggle')
pm.connectAttr(
ctrl.control + '.jiggleX',
self.splineNode + '.controlData[' + str(i) + '].jiggleX')
pm.connectAttr(
ctrl.control + '.jiggleY',
self.splineNode + '.controlData[' + str(i) + '].jiggleY')
pm.connectAttr(
ctrl.control + '.jiggleZ',
self.splineNode + '.controlData[' + str(i) + '].jiggleZ')
pm.connectAttr(
ctrl.control + '.jiggleImpact',
self.splineNode + '.controlData[' + str(i) + '].jiggleImpact')
pm.connectAttr(
ctrl.control + '.jiggleImpactStart', self.splineNode +
'.controlData[' + str(i) + '].jiggleImpactStart')
pm.connectAttr(
ctrl.control + '.jiggleImpactStop', self.splineNode +
'.controlData[' + str(i) + '].jiggleImpactStop')
pm.connectAttr(
ctrl.control + '.cycle',
self.splineNode + '.controlData[' + str(i) + '].cycle')
pm.connectAttr(
ctrl.control + '.rest',
self.splineNode + '.controlData[' + str(i) + '].rest')
# # For each in-between control (not in the start and end control) we will use the constraint group above it and constraint it to the top and bottom
# # groups. Doing this, mid controls will follow top and end controls. Also, we will aim constraints so in-between controls always aim starta and end
# # controls
blend = ""
if constrainMid:
for i in range(1, numControls - 1):
# Get point constraint weight and create point constraint for intermediate controls
pct = 1.0 * i / (numControls - 1.0)
pm.pointConstraint(self.controls[0].control,
self.consGrps[i],
weight=(1.0 - pct))
pm.pointConstraint(self.controls[numControls - 1].control,
self.consGrps[i],
weight=pct)
# Create aim groups
# We create one for the forward aim and another one for the back aim, then we have to
# orient between both at the right amount
grpAimFwd = pm.group(name=baseName + '_aimFwd_' + str(i) +
'_' + suffixGrp,
empty=True,
world=True)
grpAimBck = pm.group(name=baseName + '_aimBack_' + str(i) +
'_' + suffixGrp,
empty=True,
world=True)
for grp in [grpAimFwd, grpAimBck]:
snap(grp, self.controls[i].control)
pm.sets(setRig,
include=[self.rootGrps[i], grpAimFwd, grpAimBck])
# Aim Forward group will aim the last control and Aim Back group will aim to the first control
# This will give a twist behaviour on the aim groups
aCons = pm.aimConstraint(
self.controls[numControls - 1].control,
grpAimFwd,
weight=1,
aimVector=(0, 1, 0),
upVector=(1, 0, 0),
worldUpVector=(1, 0, 0),
worldUpType="objectrotation",
worldUpObject=self.controls[numControls - 1].control)
bCons = pm.aimConstraint(
self.controls[0].control,
grpAimBck,
weight=1,
aimVector=(0, -1, 0),
upVector=(1, 0, 0),
worldUpVector=(1, 0, 0),
worldUpType="objectrotation",
worldUpObject=self.controls[0].control)
pm.sets(setRig, include=[aCons, bCons])
# Now we drive the aims with the up info (we do this, only once) ...
if i == 1:
# We make sure that the up axis attribute exists on the cMuscleNode ...
if pm.objExists(self.splineNode + '.upAxis') != True:
pm.addAttr(self.splineNode,
at="enum",
longName="upAxis",
enumName="X-Axis=0:Z-Axis=1",
keyable=True)
# We use this blend to select the return the Z axis (vector 0,0,1) or X axis (vector 1,0,0)
blend = pm.createNode('blendColors',
name=baseName + '_' +
muscleSplineName + '_Aim_blend')
self.splineNode.upAxis.connect(blend.blender)
blend.color1.set(0, 0, 1)
blend.color2.set(1, 0, 0)
pm.sets(setRig, include=blend)
# Each aim constraint up vector will follow the up axis attribute of the cMuscleSpineNode
# We can switch between Z or X up axis if you get flipping when rotatig controls
for cons in [aCons, bCons]:
blend.output.connect(cons.upVector)
blend.output.connect(cons.worldUpVector)
# Aim groups also will follow start and end controls (so it will be positioned at the same position of its respective control)
pConsFwd = pm.pointConstraint(self.controls[0].control,
grpAimFwd,
weight=(1.0 - pct))
pConsFwd = pm.pointConstraint(self.controls[numControls -
1].control,
grpAimFwd,
weight=pct)
pConsBack = pm.pointConstraint(self.controls[0].control,
grpAimBck,
weight=(1.0 - pct))
pConsBack = pm.pointConstraint(self.controls[numControls -
1].control,
grpAimBck,
weight=pct)
pm.sets(setRig, include=[pConsFwd, pConsBack])
# The auto groups will follow the orientation of the aim groups
# So, the controls (wihch are child of the auto groups) will follow the aim orientaiton
oCons = pm.orientConstraint(grpAimBck,
self.consGrps[i],
weight=(1.0 - pct))
oCons.interpType.set(2)
oCons = pm.orientConstraint(grpAimFwd,
self.consGrps[i],
weight=pct)
oCons.interpType.set(2)
pm.sets(setRig, include=oCons)
# At the end, we create root grops for each one of the aim groups (so its xfrorms are zeroed out)
grpAimFwdRoot = pm.group(name=baseName + '_' +
muscleSplineName + '_grpAimFwd_' +
rootSuffix,
empty=True,
world=True)
grpAimBckRoot = pm.group(name=baseName + '_' +
muscleSplineName + '_grpAimBck_' +
rootSuffix,
empty=True,
world=True)
snap(grpAimFwdRoot, grpAimFwd)
snap(grpAimBckRoot, grpAimBck)
# snap(grpAimFwd, grpAimFwdRoot)
# snap(grpAimBck, grpAimBckRoot)
pm.sets(setRig, include=[grpAimFwdRoot, grpAimBckRoot])
pm.parent(grpAimFwdRoot, self.rootGrps[i])
pm.parent(grpAimFwd, grpAimFwdRoot)
pm.parent(grpAimBckRoot, self.rootGrps[i])
pm.parent(grpAimBck, grpAimFwdRoot)
self.drivens = []
for i in range(numDrivens):
# Get normalized values between 0 and 1 and the correct name
u = i / (numDrivens - 1.0)
name = baseName + '_' + muscleSplineName + '_' + str(
i) + '_' + suffixDrv
if drivenType == "joint":
self.drivens.append(pm.joint(name=name))
elif drivenType == "circleY":
ctrl = pm.circle(name=name,
degree=3,
center=[0, 0, 0],
normal=[0, 1, 0],
sweep=360,
radius=1.0 * charSize,
useTolerance=False,
sections=8,
constructionHistory=False)[0]
self.drivens.append(ctrl)
else:
self.drivens.append(pm.group(name=name, empty=True,
world=True))
pm.select(clear=True)
pm.addAttr(self.drivens[i],
longName="uValue",
minValue=0.0,
maxValue=1.0,
defaultValue=u,
keyable=True)
pm.parent(self.drivens[i], self.drivensGrp)
pm.sets(setRig, include=self.drivens[i])
pm.connectAttr(self.drivens[i] + '.uValue',
self.splineNode + '.readData[' + str(i) + '].readU',
force=True)
pm.connectAttr(self.drivens[i] + '.rotateOrder',
self.splineNode + '.readData[' + str(i) +
'].readRotOrder',
force=True)
pm.connectAttr(self.splineNode + '.outputData[' + str(i) +
'].outTranslate',
self.drivens[i] + '.translate',
force=True)
pm.connectAttr(self.splineNode + '.outputData[' + str(i) +
'].outRotate',
self.drivens[i] + '.rotate',
force=True)
len = self.splineNode.outLen.get()
self.splineNode.lenDefault.set(len)
self.splineNode.lenSquash.set(len * 0.5)
self.splineNode.lenStretch.set(len * 2.0)
pm.select(self.mainGrp)
return self.splineNode
def addOperators(self):
"""Create operators and set the relations for the component rig
Apply operators, constraints, expressions to the hierarchy.
In order to keep the code clean and easier to debug,
we shouldn't create any new object in this method.
"""
# 1 bone chain Upv ref ===========================
self.ikHandleUpvRef = primitive.addIkHandle(
self.root, self.getName("ikHandleLegChainUpvRef"),
self.legChainUpvRef, "ikSCsolver")
pm.pointConstraint(self.ik_ctl, self.ikHandleUpvRef)
pm.parentConstraint(self.legChainUpvRef[0],
self.ik_ctl,
self.upv_cns,
mo=True)
# Visibilities -------------------------------------
# shape.dispGeometry
# fk
fkvis_node = node.createReverseNode(self.blend_att)
for shp in self.fk0_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk1_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk2_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
# ik
for shp in self.upv_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ikcns_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ik_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.line_ref.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
# IK Solver -----------------------------------------
out = [self.bone0, self.bone1, self.ctrn_loc, self.eff_loc]
o_node = applyop.gear_ikfk2bone_op(out, self.root_ctl, self.ik_ref,
self.upv_ctl, self.fk_ctl[0],
self.fk_ctl[1], self.fk_ref,
self.length0, self.length1,
self.negate)
pm.connectAttr(self.blend_att, o_node + ".blend")
if self.negate:
mulVal = -1
else:
mulVal = 1
node.createMulNode(self.roll_att, mulVal, o_node + ".roll")
pm.connectAttr(self.scale_att, o_node + ".scaleA")
pm.connectAttr(self.scale_att, o_node + ".scaleB")
pm.connectAttr(self.maxstretch_att, o_node + ".maxstretch")
pm.connectAttr(self.slide_att, o_node + ".slide")
pm.connectAttr(self.softness_att, o_node + ".softness")
pm.connectAttr(self.reverse_att, o_node + ".reverse")
# Twist references ---------------------------------
self.ikhArmRef, self.tmpCrv = applyop.splineIK(
self.getName("legRollRef"),
self.rollRef,
parent=self.root,
cParent=self.bone0)
pm.pointConstraint(self.mid_ctl, self.tws1_loc, maintainOffset=False)
pm.connectAttr(self.mid_ctl.scaleX, self.tws1_loc.scaleX)
pm.connectAttr(self.mid_ctl.scaleX, self.tws1B_loc.scaleX)
applyop.oriCns(self.mid_ctl, self.tws1_rot, maintainOffset=False)
applyop.oriCns(self.mid_ctl, self.tws1B_rot, maintainOffset=False)
if self.negate:
axis = "xz"
axisb = "-xz"
else:
axis = "-xz"
axisb = "xz"
applyop.aimCns(self.tws1_loc,
self.root_ctl,
axis=axis,
wupType=4,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
applyop.aimCns(self.tws1B_loc,
self.eff_loc,
axis=axisb,
wupType=4,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
pm.pointConstraint(self.thick_ctl,
self.tws1B_loc,
maintainOffset=False)
pm.pointConstraint(self.eff_loc, self.tws2_loc, maintainOffset=False)
pm.scaleConstraint(self.eff_loc, self.tws2_loc, maintainOffset=False)
applyop.oriCns(self.bone1, self.tws2_loc, maintainOffset=False)
applyop.oriCns(self.tws_ref, self.tws2_rot)
self.tws0_loc.setAttr("sx", .001)
self.tws2_loc.setAttr("sx", .001)
add_node = node.createAddNode(self.roundness_att, .001)
pm.connectAttr(add_node + ".output", self.tws1_rot.attr("sx"))
pm.connectAttr(add_node + ".output", self.tws1B_rot.attr("sx"))
# Volume -------------------------------------------
distA_node = node.createDistNode(self.tws0_loc, self.tws1_loc)
distB_node = node.createDistNode(self.tws1_loc, self.tws2_loc)
add_node = node.createAddNode(distA_node + ".distance",
distB_node + ".distance")
div_node = node.createDivNode(add_node + ".output",
self.root_ctl.attr("sx"))
# comp scaling issue
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix"), dm_node + ".inputMatrix")
div_node2 = node.createDivNode(div_node + ".outputX",
dm_node + ".outputScaleX")
self.volDriver_att = div_node2 + ".outputX"
if self.settings["extraTweak"]:
for tweak_ctl in self.tweak_ctl:
for shp in tweak_ctl.getShapes():
pm.connectAttr(self.tweakVis_att, shp.attr("visibility"))
# Divisions ----------------------------------------
# at 0 or 1 the division will follow exactly the rotation of the
# controler.. and we wont have this nice tangent + roll
b_twist = False
for i, div_cns in enumerate(self.div_cns):
subdiv = False
if self.settings["supportJoints"]:
if i == len(self.div_cns) - 1 or i == 0:
subdiv = 45
else:
subdiv = 10
if i < (self.settings["div0"] + 1):
perc = i * .5 / (self.settings["div0"] + 1.0)
elif i < (self.settings["div0"] + 2):
perc = .49
subdiv = 45
elif i < (self.settings["div0"] + 3):
perc = .50
subdiv = 45
elif i < (self.settings["div0"] + 4):
b_twist = True
perc = .51
subdiv = 45
else:
perc = (.5 + (i - self.settings["div0"] - 3.0) * .5 /
(self.settings["div1"] + 1.0))
else:
subdiv = 40
if i < (self.settings["div0"] + 1):
perc = i * .5 / (self.settings["div0"] + 1.0)
elif i < (self.settings["div0"] + 2):
b_twist = True
perc = .501
else:
perc = .5 + \
(i - self.settings["div0"] - 1.0) * .5 / \
(self.settings["div1"] + 1.0)
perc = max(.001, min(.990, perc))
# mid twist distribution
if b_twist:
mid_twist = self.tws1B_rot
else:
mid_twist = self.tws1_rot
# Roll
if self.negate:
o_node = applyop.gear_rollsplinekine_op(
div_cns, [self.tws2_rot, mid_twist, self.tws0_rot],
1.0 - perc, subdiv)
else:
o_node = applyop.gear_rollsplinekine_op(
div_cns, [self.tws0_rot, mid_twist, self.tws2_rot], perc,
subdiv)
pm.connectAttr(self.resample_att, o_node + ".resample")
pm.connectAttr(self.absolute_att, o_node + ".absolute")
# Squash n Stretch
o_node = applyop.gear_squashstretch2_op(
div_cns, None, pm.getAttr(self.volDriver_att), "x")
pm.connectAttr(self.volume_att, o_node + ".blend")
pm.connectAttr(self.volDriver_att, o_node + ".driver")
pm.connectAttr(self.st_att[i], o_node + ".stretch")
pm.connectAttr(self.sq_att[i], o_node + ".squash")
# NOTE: next line fix the issue on meters.
# This is special case becasuse the IK solver from mGear use
# the scale as lenght and we have shear
# TODO: check for a more clean and elegant solution instead of
# re-match the world matrix again
# transform.matchWorldTransform(self.fk_ctl[0], self.match_fk0_off)
# transform.matchWorldTransform(self.fk_ctl[1], self.match_fk1_off)
# transform.matchWorldTransform(self.fk_ctl[0], self.match_fk0)
# transform.matchWorldTransform(self.fk_ctl[1], self.match_fk1)
# match IK/FK ref
pm.parentConstraint(self.bone0, self.match_fk0_off, mo=True)
pm.parentConstraint(self.bone1, self.match_fk1_off, mo=True)
# connect_reader
pm.parentConstraint(self.bone0, self.readerA, mo=True)
pm.parentConstraint(self.bone1, self.readerB, mo=True)
# connect auto thickness
if self.negate and not self.settings["mirrorMid"]:
d_val = -180 / self.length1
else:
d_val = 180 / self.length1
div_thick_node = node.createDivNode(self.knee_thickness_att, d_val)
node.createMulNode(div_thick_node.outputX, self.readerB.rx,
self.thick_lvl.tx)
return
def create(cntrlList=[], axis='x', num=0):
if not cntrlList:
cntrlList = pm.selected()
if not cntrlList:
pm.warning('Must select controls to create sine tool on')
return
#variables
cubePos = -.5
axis = axis.upper()
time = pm.PyNode('time1')
cubeList = []
digitList = []
sineList = pm.ls('*sineTool_grp*', type='transform')
#num are the cubes, if its 0 the the cubes will be the same as the cntrls (default accuracy)
if num == 0:
num = len(cntrlList)
#distance between each cube
if num == 1:
cubeDist = 0.0
else:
cubeDist = 1 / (float(num - 1))
#figure out what prefix our SineTool will have, allows up to 10 sinetool in one scene at a time
if sineList != []:
for sine in sineList:
for x in sine:
if x.isdigit() == True:
digitList.append(x)
prefix = 'SN' + str(int(max(digitList)) + 1) + axis
else:
prefix = 'SN1' + axis
#master group
sineTool = pm.group(name=prefix + 'sineTool_grp', empty=True)
#Sine Cntrl
sineCntrl = pm.circle(n=prefix + 'sineController', ch=False)[0]
pm.parent(sineCntrl, sineTool)
#adding atributes to sineCntrl
pm.addAttr(sineCntrl,
longName='outputVisibility',
k=True,
min=0,
max=1,
dv=1,
at='bool')
pm.addAttr(sineCntrl,
longName='resultVisibility',
k=True,
min=0,
max=1,
dv=1,
at='bool')
pm.addAttr(sineCntrl, longName='sineLength', k=True)
pm.addAttr(sineCntrl, longName='sineValue', k=True)
pm.addAttr(sineCntrl, longName='sineSpeed', k=True)
pm.addAttr(sineCntrl, longName='_', k=True, at='enum', en='_')
pm.addAttr(sineCntrl, longName='proportion', k=True, dv=1)
sineCntrl._.lock()
#groups to keep everything separated
sineValueMaster = pm.group(name=prefix + 'sineValue_grp',
empty=True,
parent=sineCntrl)
outputGrp = pm.group(name=prefix + 'sineOutput_grp',
empty=True,
parent=sineTool)
resultGrp = pm.group(name=prefix + 'sineResult_grp',
empty=True,
parent=sineTool)
#connecting time and visibility
sineMult = pm.shadingNode('multiplyDivide', n='sineSpeedMult', au=True)
time.outTime >> sineMult.input1X
sineCntrl.sineSpeed >> sineMult.input2X
sineMult.outputX >> sineValueMaster.rz
sineCntrl.outputVisibility >> sineValueMaster.visibility
sineCntrl.resultVisibility >> resultGrp.visibility
for i in range(num):
#for the first sineValueGrp we make, parent it to the master group. Parent the rest to the previous sineValueGrp
if i == 0:
sineValueGrp = pm.group(name=prefix + 'sineValue_grp_' + str(1),
empty=True,
parent=sineValueMaster)
else:
sineValueGrp = pm.group(name=prefix + 'sineValue_grp_' +
str(i + 1),
empty=True,
parent=sineValueGrp)
#makes locators that will be the points in our circle
sineLoc = pm.spaceLocator(name=prefix + 'sineLoc_' + str(i + 1))
pm.parent(sineLoc, sineValueGrp)
sineCntrl.sineLength >> sineValueGrp.rz
sineCntrl.sineValue >> sineLoc.tx
#makes outputs so that we can grab the Y value of our locators in world space
output = pm.group(name=prefix + 'sineOutput_' + str(i + 1),
empty=True,
parent=outputGrp)
pm.pointConstraint(sineLoc, output)
#the cube is a visual representation of our output
cube = pm.polyCube(d=.1,
w=.1,
h=.1,
ch=False,
n=prefix + 'sineResult_' + str(i + 1))[0]
pm.parent(cube, resultGrp)
cube.tx.set(cubePos)
cubePos = cubePos + cubeDist
#add influence attribute to control how much each cube is influenced by our outputs
pm.addAttr(sineCntrl,
longName='influence_' + str(i + 1),
k=True,
min=0,
max=1,
dv=((i + 1) / float(num))**2)
influenceMult = pm.shadingNode('multiplyDivide',
n=prefix + 'influenceMult_' +
str(i + 1),
au=True)
output.ty >> influenceMult.input1X
pm.connectAttr(sineCntrl + '.influence_' + str(i + 1),
influenceMult.input2X)
influenceMult.outputX >> cube.ty
cubeList.append(cube)
#place the sine tool in the middle of our selected cntrls and gets the distance between the cntrls
distance = placeSine(sineTool, cntrlList)
#set the attribute proportion to be distance/10
sineCntrl.proportion.set(distance / float(10))
#create our offsets that are the groups that will be rotated, these will be parents of our cntrls
offsetList = offsetCreator(cntrlList, name=prefix + 'offset')
for cntrl, offset in zip(cntrlList, offsetList):
distanceList = []
#for each cntrl, get how far each cube is from the cntrl
for cube in cubeList:
distanceList.append(getDistance(cube, cntrl))
#the minCube is the closest cube to the current cntrl
minCube = cubeList[distanceList.index(min(distanceList))]
#connect each cube with our offsets based on whatever axis we specified
proportionMult = pm.shadingNode('multiplyDivide',
n=prefix + 'sineProportion' + offset +
'Mult',
au=True)
pm.connectAttr(minCube + '.ty', proportionMult.input1X)
pm.connectAttr(sineCntrl.proportion, proportionMult.input2X)
pm.connectAttr(proportionMult.outputX, offset + '.rotate' + axis)
pm.select(clear=True)
pm.select(sineCntrl)
def extendPipe( jointLength=1 ):
defaultLength = 3.0
currJnt = ''
name = ''
root = ''
newJnts = []
for sel in pm.selected():
sel.select()
# for now, there's no branching, so we find the deepest joint
try:
currJnt = sel
name = currJnt.split('_')[0]
root = pm.nt.Joint( '%s_Jnt0' % name )
except:
raise "select an object on the pipe that you want to extend"
# naming
#----------
num = int(currJnt.extractNum())
try:
twoPrev = int(currJnt.getParent().getParent().extractNum())
except:
twoPrev = num-2
try:
prev = int(currJnt.getParent().extractNum())
except:
prev = num-1
curr = num
new = int(currJnt.nextUniqueName().extractNum())
print "extending from", currJnt, new
branchNum = len(currJnt.getChildren())
#print '%s has %s children' % (currJnt, branchNum)
if branchNum:
print "new segment is a branching joint"
currJnt.addAttr( 'pipeLengthInBtwn%s' % branchNum, min=0 )
#currJnt.attr( 'pipeLengthInBtwn%s' % branchNum ).showInChannelBox(1)
#print twoPrev, prev, curr, new
rigGrp = '%s_RigGrp' % name
geoGrp = '%s_GeoGrp' % name
# new skeletal joint
#---------------------
if new>1:
prevJnt = pm.nt.Joint( '%s_Jnt%s' % (name, prev) )
pos = 2*currJnt.getTranslation(ws=1) - prevJnt.getTranslation(ws=1)
else:
prevJnt = None
pos = currJnt.getTranslation(ws=1) + [0,defaultLength,0]
newJnt = pm.joint( p=pos, n= '%s_Jnt%s' % (name, new) )
# re-orient the last created joint, which is considered our current joint
pm.joint( currJnt, e=1, zeroScaleOrient=1, secondaryAxisOrient='yup', orientJoint='xyz')
# pymel method: NEEDS FIXING
#currJnt.setZeroScaleOrient(1)
#currJnt.setSecondaryAxisOrient('yup') # Flag secondaryAxisOrient can only be used in conjunction with orientJoint flag.
#currJnt.setOrientJoint('xyz')
newJnt.scale.lock()
newJnt.addAttr( 'pipeLength',
defaultValue=jointLength, min=.0001 )
newJnt.pipeLength.showInChannelBox(1)
newJnt.addAttr( 'pipeLengthInBtwn0', min=0 )
#newJnt.attr( 'pipeLengthInBtwn0' ).showInChannelBox(1)
newJnt.addAttr( 'pipeLeadIn', dv=0, min=0 )
newJnt.pipeLeadIn.showInChannelBox(1)
newJnt.addAttr( 'radiusMultiplier', dv=1, min=0 )
newJnt.radiusMultiplier.showInChannelBox(1)
newJnt.displayHandle = 1
newJnt.radius.showInChannelBox(0)
# bend hierarchy
#-----------------
trans = pm.group( empty=1, n='%s_Elbow%s' % (name, new))
trans.rotateOrder = 1
pm.aimConstraint( currJnt, trans,
aimVector = [0, -1, 0],
upVector = [-1, 0, 0]
)
pm.pointConstraint( newJnt, trans )
trans.setParent( rigGrp )
# keep the end joint oriented along the joint chain so that it can be slid back
# and forth to change the length of the current pipe segment
pm.delete( pm.orientConstraint( trans, newJnt ) )
# Main Pipe
#------------
pipe, pipeHist = pm.polyCylinder( height = 1, radius=1,
name = '%s_Geo%s' % (name, new) )
pipeHist = pipeHist.rename( '%s_GeoHist%s' % (name, new) )
pipe.setPivots( [0, -.5, 0], r=1 )
root.globalPipeRadius >> pipe.sx
root.globalPipeRadius >> pipe.sz
pipeHist.createUVs = 3 # normalize and preserve aspect ratio
root.subdivisionsAxis >> pipeHist.subdivisionsAxis
# Pipe Connectors
#-------------
pipeConn1, pipeConnHist1 = pm.polyCylinder( height = .1, radius=1,
name = '%s_Connector1AGeo%s' % (name, new) )
pipeConnHist1 = pipeConnHist1.rename( '%s_Connector1AHist%s' % (name, new) )
pipeConn1.setPivots( [0, -.05, 0], r=1 )
pipeConn1.setParent( pipe, relative=True )
pipeConn1.rotate.lock()
root.subdivisionsAxis >> pipeConnHist1.subdivisionsAxis
pipeConn2, pipeConnHist2 = pm.polyCylinder( height = .1, radius=1,
name = '%s_Connector2AGeo%s' % (name, new) )
pipeConnHist2 = pipeConnHist2.rename( '%s_Connector2AHist%s' % (name, new) )
pipeConn2.setPivots( [0, .05, 0], r=1 )
pipeConn2.setParent( pipe, relative=True )
pipeConn2.rotate.lock()
root.subdivisionsAxis >> pipeConnHist2.subdivisionsAxis
pipeConn1, pipeConnHist1 = pm.polyCylinder( height = .1, radius=1,
name = '%s_Connector1BGeo%s' % (name, new) )
pipeConnHist1 = pipeConnHist1.rename( '%s_Connector1BHist%s' % (name, new) )
pipeConn1.setPivots( [0, -.05, 0], r=1 )
pipeConn1.setParent( pipe, relative=True )
pipeConn1.rotate.lock()
pipeConn1.visibility = 0
root.subdivisionsAxis >> pipeConnHist1.subdivisionsAxis
pipeConn2, pipeConnHist2 = pm.polyCylinder( height = .1, radius=1,
name = '%s_Connector2BGeo%s' % (name, new) )
pipeConnHist2 = pipeConnHist2.rename( '%s_Connector2BHist%s' % (name, new) )
pipeConn2.setPivots( [0, .05, 0], r=1 )
pipeConn2.setParent( pipe, relative=True )
pipeConn2.rotate.lock()
pipeConn2.visibility = 0
root.subdivisionsAxis >> pipeConnHist2.subdivisionsAxis
pipe.setParent( geoGrp )
#constraints
pm.pointConstraint( currJnt, pipe )
aim = pm.aimConstraint( newJnt, pipe )
aim.offsetZ = -90
# convert the previous pipe joint into a bendy joint
if new > 1:
currElbow = pm.PyNode('%s_Elbow%s' % (name, curr) )
pipeLoc = pm.spaceLocator( n= '%s_PipeDummy%s' % (name, new) )
pipeLoc.hide()
tweak = pm.group(n='%s_ElbowTweak%s' % (name, new))
tweak.rotateOrder = 2
#tweak.translate = currElbow.translate.get()
tweak.setParent( currElbow, r=1 )
pm.aimConstraint( prevJnt, tweak,
aimVector = [1, 0, 0],
upVector = [0, -1, 0],
skip=['z', 'x'] )
# Pipe Joint
#------------
pipeJnt, pipeJntHist = pm.polyCylinder( height = 1, radius=1,
name = '%s_JntGeo%s' % (name, new),
subdivisionsAxis = 20,
subdivisionsHeight = 30 )
pipeJnt.setParent( geoGrp )
pipeJnt.sy = jointLength
pipeJnt.visibility = 0
pipeJntHist = pipeJntHist.rename( '%s_JntGeoHist%s' % (name, new) )
pipeJntHist.createUVs = 3 # normalize and preserve aspect ratio
root.subdivisionsAxis >> pipeJntHist.subdivisionsAxis
root.subdivisionsJoint >> pipeJntHist.subdivisionsHeight
# constraints
pm.parentConstraint( pipeLoc, pipeJnt )
pipeJnt.translate.lock()
pipeJnt.rotate.lock()
#pipeJnt.scale.lock()
aim = pm.PyNode('%s_Elbow%s_aimConstraint1' % (name, curr))
aim.setWorldUpType( 2 )
aim.setWorldUpObject( newJnt )
bend, bendHandle = pm.nonLinear( '%s_JntGeo%s' % (name, new),
type='bend' )
bendHandle = pm.nt.Transform(bendHandle).rename( '%s_BendHandle%s' % (name, new) )
bendHandle.sx =.5
bendHandle.hide()
bend.rename( '%s_Bend%s' % (name, new) )
pm.parentConstraint( '%s_ElbowTweak%s' % (name, new), bendHandle )
aim = '%s_ElbowTweak%s_aimConstraint1' % (name, new)
#aim.worldUpType.set( 1 )
pm.aimConstraint( aim, e=1, worldUpType='object', worldUpObject=newJnt )
bendHandle.setParent(rigGrp)
expr = """
float $v1[];
$v1[0] = %(name)s_Elbow%(twoPrev)s.translateX - %(name)s_Elbow%(prev)s.translateX;
$v1[1] = %(name)s_Elbow%(twoPrev)s.translateY - %(name)s_Elbow%(prev)s.translateY;
$v1[2] = %(name)s_Elbow%(twoPrev)s.translateZ - %(name)s_Elbow%(prev)s.translateZ;
float $v2[];
$v2[0] = %(name)s_Elbow%(curr)s.translateX - %(name)s_Elbow%(prev)s.translateX;
$v2[1] = %(name)s_Elbow%(curr)s.translateY - %(name)s_Elbow%(prev)s.translateY;
$v2[2] = %(name)s_Elbow%(curr)s.translateZ - %(name)s_Elbow%(prev)s.translateZ;
float $mag = sqrt ( $v2[0]*$v2[0] + $v2[1]*$v2[1] + $v2[2]*$v2[2] );
float $angleData[] = `angleBetween -v1 $v1[0] $v1[1] $v1[2] -v2 $v2[0] $v2[1] $v2[2] `;
float $angle = $angleData[3];
if ( !equivalentTol($angle,180.0, 0.1) )
{
float $jointDeg = 180 - $angle;
float $jointRad = -1 * deg_to_rad( $jointDeg );
%(name)s_Bend%(curr)s.curvature = $jointRad/2;
%(name)s_ElbowTweak%(curr)s.rotateZ = $jointDeg/2;
%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s = %(name)s_Jnt%(prev)s.pipeLength;
float $pipeLength = %(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s;
float $centerAngleRad = deg_to_rad(90 -$angle/2);
float $delta = 0;
float $pipeLengthRatio = 1;
if ($centerAngleRad > 0.0) {
float $radius = .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s/ $centerAngleRad;
$delta = $radius - ($radius * cos( $centerAngleRad ));
$pipeLengthRatio = .5 * $pipeLength / ( $radius * sin( $centerAngleRad ) );
$pipeLength *= $pipeLengthRatio;
}
%(name)s_PipeDummy%(curr)s.translateX = -1*$delta;
%(name)s_BendHandle%(curr)s.scaleX = .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s;
%(name)s_BendHandle%(curr)s.scaleY = %(name)s_BendHandle%(curr)s.scaleX;
%(name)s_BendHandle%(curr)s.scaleZ = %(name)s_BendHandle%(curr)s.scaleX;
%(name)s_JntGeo%(curr)s.scaleY = $pipeLength * (1.0+%(name)s_Jnt%(curr)s.pipeLeadIn);
%(name)s_JntGeo%(curr)s.scaleX = %(name)s_Jnt0.globalPipeRadius + %(name)s_Jnt0.globalJointRadius;
%(name)s_JntGeo%(curr)s.scaleZ = %(name)s_JntGeo%(curr)s.scaleX;
%(name)s_JntGeo%(curr)s.visibility = 1;
%(name)s_Connector1BGeo%(curr)s.visibility=1;
%(name)s_Connector2BGeo%(curr)s.visibility=1;
}
else
{
%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s = 0;
%(name)s_JntGeo%(curr)s.scaleY = 0;
%(name)s_JntGeo%(curr)s.visibility = 0;
%(name)s_Connector1BGeo%(curr)s.visibility=0;
%(name)s_Connector2BGeo%(curr)s.visibility=0;
}
%(name)s_Connector1AGeo%(curr)s.scaleY = %(name)s_Jnt0.globalConnectorThickness * (1/%(name)s_Geo%(curr)s.scaleY);
%(name)s_Connector2AGeo%(curr)s.scaleY = %(name)s_Connector1AGeo%(curr)s.scaleY;
%(name)s_Connector1AGeo%(curr)s.translateY = -.5 + %(name)s_Connector1AHist%(curr)s.height/2 + .1*%(name)s_Jnt0.globalConnectorOffset;
%(name)s_Connector2AGeo%(curr)s.translateY = 0.5 - %(name)s_Connector1AHist%(curr)s.height/2 - .1*%(name)s_Jnt0.globalConnectorOffset;
%(name)s_Connector1AGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector1AGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2AGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2AGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector1BGeo%(curr)s.scaleY = %(name)s_Jnt0.globalConnectorThickness * (1/%(name)s_Geo%(curr)s.scaleY);
%(name)s_Connector2BGeo%(curr)s.scaleY = %(name)s_Connector1BGeo%(curr)s.scaleY;
%(name)s_Connector1BGeo%(curr)s.translateY = -.5 + %(name)s_Connector1BHist%(curr)s.height/2 - .1*%(name)s_Jnt0.globalConnectorOffset - .1*%(name)s_Connector1BGeo%(curr)s.scaleY;
%(name)s_Connector2BGeo%(curr)s.translateY = 0.5 - %(name)s_Connector1BHist%(curr)s.height/2 + .1*%(name)s_Jnt0.globalConnectorOffset + .1*%(name)s_Connector1BGeo%(curr)s.scaleY;
%(name)s_Connector1BGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector1BGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2BGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2BGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Geo%(curr)s.scaleY = $mag - .5*%(name)s_Jnt%(curr)s.pipeLengthInBtwn0 - .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s;
normalize($v2);
%(name)s_Geo%(curr)s_pointConstraint1.offsetX = .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s * $v2[0];
%(name)s_Geo%(curr)s_pointConstraint1.offsetY = .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s * $v2[1];
%(name)s_Geo%(curr)s_pointConstraint1.offsetZ = .5*%(name)s_Jnt%(prev)s.pipeLengthInBtwn%(branch)s * $v2[2];
""" % { 'twoPrev' : prev,
'prev' : curr,
'curr' : new,
'new' : new+1,
'name': name,
'branch': branchNum
}
#print expr
print 'editing %s_PipeExpr%s' % (name, new)
#expression( '%s_PipeExpr%s' % (name, curr), e=1, s=expr, ae=1 )
pm.expression( s=expr, ae=1, n = '%s_PipeExpr%s' % (name, new) )
# special case for first joint
else:
expr = """
float $x = %(newJnt)s.tx;
float $y = %(newJnt)s.ty;
float $z = %(newJnt)s.tz;
float $mag = sqrt ( $x*$x + $y*$y + $z*$z );
%(name)s_Geo%(curr)s.sy = $mag - .5*%(newJnt)s.pipeLengthInBtwn0;
%(name)s_Connector1AGeo%(curr)s.scaleY = %(name)s_Jnt0.globalConnectorThickness * 1/%(name)s_Geo%(curr)s.scaleY;
%(name)s_Connector2AGeo%(curr)s.scaleY = %(name)s_Connector1AGeo%(curr)s.scaleY;
%(name)s_Connector1AGeo%(curr)s.translateY = -.5 + %(name)s_Connector1AHist%(curr)s.height/2 + .1*%(name)s_Jnt0.globalConnectorOffset;
%(name)s_Connector2AGeo%(curr)s.translateY = 0.5 - %(name)s_Connector1AHist%(curr)s.height/2 - .1*%(name)s_Jnt0.globalConnectorOffset;
%(name)s_Connector1AGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector1AGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2AGeo%(curr)s.scaleX = 1 + %(name)s_Jnt0.globalConnectorRadius;
%(name)s_Connector2AGeo%(curr)s.scaleZ = 1 + %(name)s_Jnt0.globalConnectorRadius;
""" % { 'newJnt': newJnt,
'curr' : new,
'name': name
}
print 'creating %s_PipeExpr1' % (name)
pm.expression( s=expr, ae=1, n = '%s_PipeExpr1' % (name))
'''
expr = """
%(pipeJnt)s.scaleX = %(root)s.globalPipeRadius + %(root)s.globalJointRadius;
%(pipeJnt)s.scaleZ = %(pipeJnt)s.scaleX;
""" % { 'pipeJnt': pipeJnt,
'root' : '%s_Jnt0' % (name) }
print 'creating %s_PipeExpr%s' % (name, new)
expression( s=expr, ae=1, n = '%s_PipeExpr%s' % (name, new))
'''
pipe.translate.lock()
pipe.rotate.lock()
#pipe.scale.lock()
newJnts.append( newJnt )
pm.select(newJnts)
def getTargets(target):
target = pointConstraint(target, q=True, tl=True)[0]
extra = None
constraint = None
return target, extra, constraint
def addOperators(self):
"""Create operators and set the relations for the component rig
Apply operators, constraints, expressions to the hierarchy.
In order to keep the code clean and easier to debug,
we shouldn't create any new object in this method.
"""
# 1 bone chain Upv ref ==============================================
self.ikHandleUpvRef = primitive.addIkHandle(
self.root,
self.getName("ikHandleArmChainUpvRef"),
self.armChainUpvRef,
"ikSCsolver")
pm.pointConstraint(self.ik_ctl,
self.ikHandleUpvRef)
pm.parentConstraint(self.armChainUpvRef[0],
self.upv_cns,
mo=True)
# Visibilities -------------------------------------
# fk
fkvis_node = node.createReverseNode(self.blend_att)
for shp in self.fk0_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk1_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk2_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
# ik
for shp in self.upv_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ikcns_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ik_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
if self.settings["ikTR"]:
for shp in self.ikRot_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
# Controls ROT order -----------------------------------
attribute.setRotOrder(self.fk0_ctl, "XZY")
attribute.setRotOrder(self.fk1_ctl, "XYZ")
attribute.setRotOrder(self.fk2_ctl, "YZX")
attribute.setRotOrder(self.ik_ctl, "XYZ")
# IK Solver -----------------------------------------
out = [self.bone0, self.bone1, self.ctrn_loc, self.eff_loc]
o_node = applyop.gear_ikfk2bone_op(out,
self.root,
self.ik_ref,
self.upv_ctl,
self.fk_ctl[0],
self.fk_ctl[1],
self.fk_ref,
self.length0,
self.length1,
self.negate)
if self.settings["ikTR"]:
# connect the control inputs
outEff_dm = o_node.listConnections(c=True)[-1][1]
inAttr = self.ikRot_npo.attr("translate")
outEff_dm.attr("outputTranslate") >> inAttr
outEff_dm.attr("outputScale") >> self.ikRot_npo.attr("scale")
dm_node = node.createDecomposeMatrixNode(o_node.attr("outB"))
dm_node.attr("outputRotate") >> self.ikRot_npo.attr("rotate")
# rotation
mulM_node = applyop.gear_mulmatrix_op(
self.ikRot_ctl.attr("worldMatrix"),
self.eff_loc.attr("parentInverseMatrix"))
intM_node = applyop.gear_intmatrix_op(o_node.attr("outEff"),
mulM_node.attr("output"),
o_node.attr("blend"))
dm_node = node.createDecomposeMatrixNode(intM_node.attr("output"))
dm_node.attr("outputRotate") >> self.eff_loc.attr("rotate")
transform.matchWorldTransform(self.fk2_ctl, self.ikRot_cns)
# scale: this fix the scalin popping issue
intM_node = applyop.gear_intmatrix_op(
self.fk2_ctl.attr("worldMatrix"),
self.ik_ctl_ref.attr("worldMatrix"),
o_node.attr("blend"))
mulM_node = applyop.gear_mulmatrix_op(
intM_node.attr("output"),
self.eff_loc.attr("parentInverseMatrix"))
dm_node = node.createDecomposeMatrixNode(mulM_node.attr("output"))
dm_node.attr("outputScale") >> self.eff_loc.attr("scale")
pm.connectAttr(self.blend_att, o_node + ".blend")
if self.negate:
mulVal = -1
else:
mulVal = 1
node.createMulNode(self.roll_att, mulVal, o_node + ".roll")
pm.connectAttr(self.scale_att, o_node + ".scaleA")
pm.connectAttr(self.scale_att, o_node + ".scaleB")
pm.connectAttr(self.maxstretch_att, o_node + ".maxstretch")
pm.connectAttr(self.slide_att, o_node + ".slide")
pm.connectAttr(self.softness_att, o_node + ".softness")
pm.connectAttr(self.reverse_att, o_node + ".reverse")
# Twist references ---------------------------------
pm.pointConstraint(self.mid_ctl_twst_ref,
self.tws1_npo, maintainOffset=False)
pm.connectAttr(self.mid_ctl.scaleX, self.tws1_loc.scaleX)
pm.orientConstraint(self.mid_ctl_twst_ref,
self.tws1_npo, maintainOffset=False)
o_node = applyop.gear_mulmatrix_op(self.eff_loc.attr(
"worldMatrix"), self.root.attr("worldInverseMatrix"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(o_node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputTranslate",
self.tws2_npo.attr("translate"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(o_node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputRotate", self.tws2_npo.attr("rotate"))
o_node = applyop.gear_mulmatrix_op(
self.eff_loc.attr("worldMatrix"),
self.tws2_rot.attr("parentInverseMatrix"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(o_node + ".output", dm_node + ".inputMatrix")
attribute.setRotOrder(self.tws2_rot, "XYZ")
pm.connectAttr(dm_node + ".outputRotate", self.tws2_rot + ".rotate")
self.tws0_rot.setAttr("sx", .001)
self.tws2_rot.setAttr("sx", .001)
add_node = node.createAddNode(self.roundness_att, .001)
pm.connectAttr(add_node + ".output", self.tws1_rot.attr("sx"))
pm.connectAttr(self.armpit_roll_att, self.tws0_rot + ".rotateX")
# Roll Shoulder
applyop.splineIK(self.getName("rollRef"), self.rollRef,
parent=self.root, cParent=self.bone0)
# Volume -------------------------------------------
distA_node = node.createDistNode(self.tws0_loc, self.tws1_loc)
distB_node = node.createDistNode(self.tws1_loc, self.tws2_loc)
add_node = node.createAddNode(distA_node + ".distance",
distB_node + ".distance")
div_node = node.createDivNode(add_node + ".output",
self.root.attr("sx"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix"), dm_node + ".inputMatrix")
div_node2 = node.createDivNode(div_node + ".outputX",
dm_node + ".outputScaleX")
self.volDriver_att = div_node2 + ".outputX"
if self.settings["extraTweak"]:
for tweak_ctl in self.tweak_ctl:
for shp in tweak_ctl.getShapes():
pm.connectAttr(self.tweakVis_att, shp.attr("visibility"))
# Divisions ----------------------------------------
# at 0 or 1 the division will follow exactly the rotation of the
# controler.. and we wont have this nice tangent + roll
for i, div_cns in enumerate(self.div_cns):
if i < (self.settings["div0"] + 1):
perc = i * .5 / (self.settings["div0"] + 1.0)
elif i < (self.settings["div0"] + 2):
perc = .49
elif i < (self.settings["div0"] + 3):
perc = .50
elif i < (self.settings["div0"] + 4):
perc = .51
else:
perc = .5 + \
(i - self.settings["div0"] - 3.0) * .5 / \
(self.settings["div1"] + 1.0)
perc = max(.001, min(.990, perc))
# Roll
if self.negate:
o_node = applyop.gear_rollsplinekine_op(
div_cns, [self.tws2_rot, self.tws1_rot, self.tws0_rot],
1 - perc, 40)
else:
o_node = applyop.gear_rollsplinekine_op(
div_cns, [self.tws0_rot, self.tws1_rot, self.tws2_rot],
perc, 40)
pm.connectAttr(self.resample_att, o_node + ".resample")
pm.connectAttr(self.absolute_att, o_node + ".absolute")
# Squash n Stretch
o_node = applyop.gear_squashstretch2_op(
div_cns, None, pm.getAttr(self.volDriver_att), "x")
pm.connectAttr(self.volume_att, o_node + ".blend")
pm.connectAttr(self.volDriver_att, o_node + ".driver")
pm.connectAttr(self.st_att[i], o_node + ".stretch")
pm.connectAttr(self.sq_att[i], o_node + ".squash")
# match IK/FK ref
pm.parentConstraint(self.bone0, self.match_fk0_off, mo=True)
pm.parentConstraint(self.bone1, self.match_fk1_off, mo=True)
if self.settings["ikTR"]:
transform.matchWorldTransform(self.ikRot_ctl, self.match_ikRot)
transform.matchWorldTransform(self.fk_ctl[2], self.match_fk2)
return
def getTargets(target):
constraints = listRelatives(target, type='pointConstraint')
target = tuple(pointConstraint(constraints[0], q=True, tl=True))
extra = None
constraint = None
return target, extra, constraint
def addOperators(self):
# Visibilities -------------------------------------
# fk
fkvis_node = nod.createReverseNode(self.blend_att)
for shp in self.fk0_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk1_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
for shp in self.fk2_ctl.getShapes():
pm.connectAttr(fkvis_node + ".outputX", shp.attr("visibility"))
# ik
for shp in self.upv_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ikcns_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
for shp in self.ik_ctl.getShapes():
pm.connectAttr(self.blend_att, shp.attr("visibility"))
# Controls ROT order -----------------------------------
att.setRotOrder(self.fk0_ctl, "XZY")
att.setRotOrder(self.fk1_ctl, "XYZ")
att.setRotOrder(self.fk2_ctl, "YZX")
att.setRotOrder(self.ik_ctl, "ZYX")
# IK Solver -----------------------------------------
out = [self.bone0, self.bone1, self.ctrn_loc, self.eff_loc]
node = aop.gear_ikfk2bone_op(out, self.root, self.ik_ref, self.upv_ctl,
self.fk_ctl[0], self.fk_ctl[1],
self.fk_ref, self.length0, self.length1,
self.negate)
pm.connectAttr(self.blend_att, node + ".blend")
pm.connectAttr(self.roll_att, node + ".roll")
pm.connectAttr(self.scale_att, node + ".scaleA")
pm.connectAttr(self.scale_att, node + ".scaleB")
pm.connectAttr(self.maxstretch_att, node + ".maxstretch")
pm.connectAttr(self.slide_att, node + ".slide")
pm.connectAttr(self.softness_att, node + ".softness")
pm.connectAttr(self.reverse_att, node + ".reverse")
# Twist references ---------------------------------
node = aop.gear_mulmatrix_op(self.eff_loc.attr("worldMatrix"),
self.root.attr("worldInverseMatrix"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputTranslate",
self.tws2_npo.attr("translate"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(node + ".output", dm_node + ".inputMatrix")
pm.connectAttr(dm_node + ".outputRotate", self.tws2_npo.attr("rotate"))
#spline IK for twist jnts
self.ikhArmTwist, self.armTwistCrv = aop.splineIK(
self.getName("armTwist"),
self.armTwistChain,
parent=self.root,
cParent=self.bone0)
self.ikhForearmTwist, self.forearmTwistCrv = aop.splineIK(
self.getName("forearmTwist"),
self.forearmTwistChain,
parent=self.root,
cParent=self.bone1)
#references
self.ikhArmRef, self.tmpCrv = aop.splineIK(self.getName("armRollRef"),
self.armRollRef,
parent=self.root,
cParent=self.bone0)
self.ikhForearmRef, self.tmpCrv = aop.splineIK(
self.getName("forearmRollRef"),
self.forearmRollRef,
parent=self.root,
cParent=self.eff_loc)
self.ikhAuxTwist, self.tmpCrv = aop.splineIK(self.getName("auxTwist"),
self.auxTwistChain,
parent=self.root,
cParent=self.eff_loc)
#setting connexions for ikhArmTwist
self.ikhArmTwist.attr("dTwistControlEnable").set(True)
self.ikhArmTwist.attr("dWorldUpType").set(4)
self.ikhArmTwist.attr("dWorldUpAxis").set(3)
self.ikhArmTwist.attr("dWorldUpVectorZ").set(1.0)
self.ikhArmTwist.attr("dWorldUpVectorY").set(0.0)
self.ikhArmTwist.attr("dWorldUpVectorEndZ").set(1.0)
self.ikhArmTwist.attr("dWorldUpVectorEndY").set(0.0)
pm.connectAttr(self.armRollRef[0].attr("worldMatrix[0]"),
self.ikhArmTwist.attr("dWorldUpMatrix"))
pm.connectAttr(self.bone0.attr("worldMatrix[0]"),
self.ikhArmTwist.attr("dWorldUpMatrixEnd"))
#setting connexions for ikhAuxTwist
self.ikhAuxTwist.attr("dTwistControlEnable").set(True)
self.ikhAuxTwist.attr("dWorldUpType").set(4)
self.ikhAuxTwist.attr("dWorldUpAxis").set(3)
self.ikhAuxTwist.attr("dWorldUpVectorZ").set(1.0)
self.ikhAuxTwist.attr("dWorldUpVectorY").set(0.0)
self.ikhAuxTwist.attr("dWorldUpVectorEndZ").set(1.0)
self.ikhAuxTwist.attr("dWorldUpVectorEndY").set(0.0)
pm.connectAttr(self.forearmRollRef[0].attr("worldMatrix[0]"),
self.ikhAuxTwist.attr("dWorldUpMatrix"))
pm.connectAttr(self.eff_loc.attr("worldMatrix[0]"),
self.ikhAuxTwist.attr("dWorldUpMatrixEnd"))
pm.connectAttr(self.auxTwistChain[1].attr("rx"),
self.ikhForearmTwist.attr("twist"))
pm.parentConstraint(self.bone1, self.aux_npo, maintainOffset=True)
#scale arm length for twist chain (not the squash and stretch)
arclen_node = pm.arclen(self.armTwistCrv, ch=True)
alAttrArm = arclen_node.attr("arcLength")
muldiv_nodeArm = pm.createNode("multiplyDivide")
pm.connectAttr(arclen_node.attr("arcLength"),
muldiv_nodeArm.attr("input1X"))
muldiv_nodeArm.attr("input2X").set(alAttrArm.get())
muldiv_nodeArm.attr("operation").set(2)
for jnt in self.armTwistChain:
pm.connectAttr(muldiv_nodeArm.attr("outputX"), jnt.attr("sx"))
#scale forearm length for twist chain (not the squash and stretch)
arclen_node = pm.arclen(self.forearmTwistCrv, ch=True)
alAttrForearm = arclen_node.attr("arcLength")
muldiv_nodeForearm = pm.createNode("multiplyDivide")
pm.connectAttr(arclen_node.attr("arcLength"),
muldiv_nodeForearm.attr("input1X"))
muldiv_nodeForearm.attr("input2X").set(alAttrForearm.get())
muldiv_nodeForearm.attr("operation").set(2)
for jnt in self.forearmTwistChain:
pm.connectAttr(muldiv_nodeForearm.attr("outputX"), jnt.attr("sx"))
#scale compensation for the first twist join
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix[0]"),
dm_node.attr("inputMatrix"))
pm.connectAttr(dm_node.attr("outputScale"),
self.armTwistChain[0].attr("inverseScale"))
pm.connectAttr(dm_node.attr("outputScale"),
self.forearmTwistChain[0].attr("inverseScale"))
#tangent controls
muldiv_node = pm.createNode("multiplyDivide")
muldiv_node.attr("input2X").set(-1)
pm.connectAttr(self.tws1A_npo.attr("rz"), muldiv_node.attr("input1X"))
muldiv_nodeBias = pm.createNode("multiplyDivide")
pm.connectAttr(muldiv_node.attr("outputX"),
muldiv_nodeBias.attr("input1X"))
pm.connectAttr(self.roundness_att, muldiv_nodeBias.attr("input2X"))
pm.connectAttr(muldiv_nodeBias.attr("outputX"),
self.tws1A_loc.attr("rz"))
if self.negate:
axis = "xz"
else:
axis = "-xz"
aop.aimCns(self.tws1A_npo,
self.tws0_loc,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
aop.aimCns(self.forearmTangentB_loc,
self.forearmTangentA_npo,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
pm.pointConstraint(self.eff_loc, self.forearmTangentB_loc)
muldiv_node = pm.createNode("multiplyDivide")
muldiv_node.attr("input2X").set(-1)
pm.connectAttr(self.tws1B_npo.attr("rz"), muldiv_node.attr("input1X"))
muldiv_nodeBias = pm.createNode("multiplyDivide")
pm.connectAttr(muldiv_node.attr("outputX"),
muldiv_nodeBias.attr("input1X"))
pm.connectAttr(self.roundness_att, muldiv_nodeBias.attr("input2X"))
pm.connectAttr(muldiv_nodeBias.attr("outputX"),
self.tws1B_loc.attr("rz"))
if self.negate:
axis = "-xz"
else:
axis = "xz"
aop.aimCns(self.tws1B_npo,
self.tws2_loc,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
aop.aimCns(self.armTangentA_loc,
self.armTangentB_npo,
axis=axis,
wupType=2,
wupVector=[0, 0, 1],
wupObject=self.mid_ctl,
maintainOffset=False)
# Volume -------------------------------------------
distA_node = nod.createDistNode(self.tws0_loc, self.tws1_loc)
distB_node = nod.createDistNode(self.tws1_loc, self.tws2_loc)
add_node = nod.createAddNode(distA_node + ".distance",
distB_node + ".distance")
div_node = nod.createDivNode(add_node + ".output",
self.root.attr("sx"))
dm_node = pm.createNode("decomposeMatrix")
pm.connectAttr(self.root.attr("worldMatrix"), dm_node + ".inputMatrix")
div_node2 = nod.createDivNode(div_node + ".outputX",
dm_node + ".outputScaleX")
self.volDriver_att = div_node2 + ".outputX"
# connecting tangent scaele compensation after volume to aboid duplicate some nodes ------------------------------
distA_node = nod.createDistNode(self.tws0_loc, self.mid_ctl)
distB_node = nod.createDistNode(self.mid_ctl, self.tws2_loc)
div_nodeArm = nod.createDivNode(distA_node + ".distance",
dm_node.attr("outputScaleX"))
div_node2 = nod.createDivNode(div_nodeArm + ".outputX",
distA_node.attr("distance").get())
pm.connectAttr(div_node2.attr("outputX"), self.tws1A_loc.attr("sx"))
pm.connectAttr(div_node2.attr("outputX"),
self.armTangentA_loc.attr("sx"))
div_nodeForearm = nod.createDivNode(distB_node + ".distance",
dm_node.attr("outputScaleX"))
div_node2 = nod.createDivNode(div_nodeForearm + ".outputX",
distB_node.attr("distance").get())
pm.connectAttr(div_node2.attr("outputX"), self.tws1B_loc.attr("sx"))
pm.connectAttr(div_node2.attr("outputX"),
self.forearmTangentB_loc.attr("sx"))
#conection curve
aop.gear_curvecns_op(self.armTwistCrv, [
self.armTangentA_loc, self.armTangentA_ctl, self.armTangentB_ctl,
self.elbowTangent_ctl
])
aop.gear_curvecns_op(self.forearmTwistCrv, [
self.elbowTangent_ctl, self.forearmTangentA_ctl,
self.forearmTangentB_ctl, self.forearmTangentB_loc
])
#Tangent controls vis
pm.connectAttr(self.tangentVis_att,
self.armTangentA_ctl.attr("visibility"))
pm.connectAttr(self.tangentVis_att,
self.armTangentB_ctl.attr("visibility"))
pm.connectAttr(self.tangentVis_att,
self.forearmTangentA_ctl.attr("visibility"))
pm.connectAttr(self.tangentVis_att,
self.forearmTangentB_ctl.attr("visibility"))
pm.connectAttr(self.tangentVis_att,
self.elbowTangent_ctl.attr("visibility"))
# Divisions ----------------------------------------
# at 0 or 1 the division will follow exactly the rotation of the controler.. and we wont have this nice tangent + roll
for i, div_cns in enumerate(self.div_cns):
if i < (self.settings["div0"] + 2):
mulmat_node = aop.gear_mulmatrix_op(
self.armTwistChain[i] + ".worldMatrix",
div_cns + ".parentInverseMatrix")
else:
mulmat_node = aop.gear_mulmatrix_op(
self.forearmTwistChain[i - (self.settings["div0"] + 2)] +
".worldMatrix", div_cns + ".parentInverseMatrix")
dm_node = nod.createDecomposeMatrixNode(mulmat_node + ".output")
pm.connectAttr(dm_node + ".outputTranslate", div_cns + ".t")
pm.connectAttr(dm_node + ".outputRotate", div_cns + ".r")
# Squash n Stretch
node = aop.gear_squashstretch2_op(div_cns, None,
pm.getAttr(self.volDriver_att),
"x")
pm.connectAttr(self.volume_att, node + ".blend")
pm.connectAttr(self.volDriver_att, node + ".driver")
pm.connectAttr(self.st_att[i], node + ".stretch")
pm.connectAttr(self.sq_att[i], node + ".squash")
# return
# NOTE: next line fix the issue on meters.
# This is special case becasuse the IK solver from mGear use the scale as lenght and we have shear
# TODO: check for a more clean and elegant solution instead of re-match the world matrix again
tra.matchWorldTransform(self.fk_ctl[0], self.match_fk0_off)
tra.matchWorldTransform(self.fk_ctl[1], self.match_fk1_off)
tra.matchWorldTransform(self.fk_ctl[0], self.match_fk0)
tra.matchWorldTransform(self.fk_ctl[1], self.match_fk1)
# match IK/FK ref
pm.parentConstraint(self.bone0, self.match_fk0_off, mo=True)
pm.parentConstraint(self.bone1, self.match_fk1_off, mo=True)
def build(cls, targets, spaceName, spaceContainer, extraInfo, control,
space):
if not spaceName:
spaceName = 'freeform'
trueTarget = group(em=True,
name=pdil.simpleName(control, '{0}_freeform'),
p=spaceContainer)
pdil.dagObj.matchTo(
trueTarget, control
) # It's actually important so this can follow correctly. (line copied from MULTI_ORIENT)
# Put proxies in a group that follows the "local" space. Honestly this math doesn't make
# sense but it gives the results JH wants, which are sensible.
proxyGrp = group(em=True,
name=pdil.simpleName(control, '{0}_freeformProxies'),
p=spaceContainer)
pdil.dagObj.matchTo(proxyGrp, control)
parentConstraint(cls.getProxy(control), proxyGrp, mo=True)
rProxies = []
tProxies = []
for t, (mode, w) in zip(targets, extraInfo):
d = duplicate(trueTarget)[0]
d.rename(pdil.simpleName(t) + '_freeform')
d.setParent(proxyGrp)
if mode == cls.ORIENT:
orientConstraint(t, d, mo=True)
rProxies.append((d, w))
elif mode == cls.POINT:
pointConstraint(t, d, mo=True)
tProxies.append((d, w))
elif mode == cls.PARENT:
parentConstraint(t, d, mo=True)
rProxies.append((d, w))
tProxies.append((d, w))
elif mode == cls.POINT_ORIENT:
orientConstraint(t, d, mo=True)
pointConstraint(t, d, mo=True)
rProxies.append((d, w))
tProxies.append((d, w))
elif mode == cls.PARENT_TRANS:
parentConstraint(t, d, mo=True, sr=['x', 'y', 'z'])
tProxies.append((d, w))
if rProxies:
rConstraint = parentConstraint([p[0] for p in rProxies],
trueTarget,
mo=True,
st=['x', 'y', 'z'])
rConstraint.addAttr('rotTarget', at='bool', dv=True)
rConstraint.interpType.set(2)
attrs = rConstraint.getWeightAliasList()
for v, attr in zip([p[1] for p in rProxies], attrs):
attr.set(v)
else:
# If there were no rotate targets, use the parent joint or group
proxy = cls.getProxy(control)
if proxy:
const = parentConstraint(proxy,
trueTarget,
mo=True,
st=['x', 'y', 'z'])
const.addAttr('mo_ignore', at='bool', dv=True)
if tProxies:
tConstraint = parentConstraint([p[0] for p in tProxies],
trueTarget,
mo=True,
sr=['x', 'y', 'z'])
attrs = tConstraint.getWeightAliasList()
for v, attr in zip([p[1] for p in tProxies], attrs):
attr.set(v)
else:
# If there were no translate targets, use the parent joint or group
proxy = cls.getProxy(control)
if proxy:
const = parentConstraint(proxy,
trueTarget,
mo=True,
sr=['x', 'y', 'z'])
const.addAttr('mo_ignore', at='bool', dv=True)
return trueTarget, spaceName
def clusLoc2(debugLevel="DEBUG"):
"""create locator or position selected joint at a centroid position in a ring of edges
how to use:
from rigWorkshop.ws_user.jun.utils import clusLoc
reload(clusLoc)
clusLoc.clusLoc2()
"""
# set debug level
logger.setLevel(debugLevel)
sel = pm.selected(flatten=True)
verts = []
edges = []
TRNs = []
for s in sel:
sortMe = s.__class__.__name__
if sortMe == "Joint" or sortMe == "transform":
TRNs.append(s)
if sortMe == "MeshVertex":
verts.append(s)
if sortMe == "MeshEdge":
edges.append(s)
# convert egdes to vertex
if edges:
edgeVerts = list(
set(sum([list(e.connectedVertices()) for e in edges], [])))
verts = verts + edgeVerts
logger.debug("verts = %s" % verts)
logger.debug("TRNs = %s" % TRNs)
clusDef, clusTRN = pm.cluster(verts)
if not TRNs:
loc = pm.spaceLocator()
TRNs.append(loc)
logger.debug("Locator %s has been created" % TRNs)
for TRN in TRNs:
#hierarchy issues prepped
parent = TRN.getParent()
logger.debug("parent is %s " % parent)
children = TRN.getChildren(type="transform")
logger.debug("children is %s " % children)
if parent:
TRN.setParent(world=True)
for child in children:
child.setParent(world=True)
pm.delete(pm.pointConstraint(clusTRN, TRN, mo=False))
for child in children:
child.setParent(TRN)
if parent:
TRN.setParent(parent)
pm.delete(clusTRN)
logger.debug("Done!!")
def inputPoint(self, target=None, maintainOff=None):
if target is None and maintainOff is None:
return self._inputPoint
else:
self._inputPoint = pm.pointConstraint(target, self.drawnNode,
mo=maintainOff)
def connectTargets(self):
'Create point constraint to all of the targets'
pm.pointConstraint(self.targetList, self.name, weight=0.0)
def gizmoRigModules():
print 'Create gizmo rig modules'
biped = rig_biped()
biped.elbowAxis = 'ry'
biped.spine(ctrlSize=6)
biped.pelvis(ctrlSize=5)
biped.neck(ctrlSize=2.5)
biped.head(ctrlSize=5)
for side in ['l', 'r']:
armModule = biped.arm(side, ctrlSize=3)
fingersModule = biped.hand(side, ctrlSize=0.5)
shoulderModule = biped.shoulder(side, ctrlSize=2)
biped.connectArmShoulder(side)
legModule = biped.leg(side, ctrlSize=3)
toesModule = biped.foot(side, ctrlSize=0.5)
biped.connectLegPelvis()
# make tail
'''
tailModule = rig_ikChainSpline('tail', 'tailJA_JNT', ctrlSize=1, parent='pelvisJA_JNT',
numIkControls=4, numFkControls=4)
chainList = rig_chain('tailJOTip_JNT').chain
print '====== MAKING TAIL TIP =============='
fkCtrls = fkControlChain(chainList, modify=1, scale=[1, 1, 1], directCon=1)
for fk in fkCtrls:
pm.parent(fk.offset, tailModule.controls)
'''
tailModule = rig_ikChainSpline('tail',
'tailHiJA_JNT',
ctrlSize=1,
parent='pelvisJA_JNT',
numIkControls=12,
numFkControls=12)
# tail upgrade
tailJnts = pm.listRelatives('tailskeleton_GRP', type='joint')
for i in range(1, len(tailJnts)):
tailNme = tailJnts[i].stripNamespace()
tailIK = tailJnts[i]
tailFK = tailNme.replace('IK', 'FK')
tailFK = tailFK.replace('_JNT', '')
constrainObject(tailFK + 'Modify2_GRP',
[tailIK, tailFK + 'Modify1_GRP'],
tailFK + '_CTRL', ['IK', 'parent'],
type='parentConstraint')
pm.parentConstraint('tailFKACon_GRP', 'tailBaseIKOffset_GRP', mo=True)
constrainObject('tailMidAIKOffset_GRP',
['tailFKACon_GRP', 'pelvisCon_GRP', 'worldSpace_GRP'],
'tailMidAIK_CTRL', ['base', 'pelvis', 'world'],
type='parentConstraint')
constrainObject('tailMidBIKOffset_GRP', [
'tailFKACon_GRP', 'tailMidAIKCon_GRP', 'pelvisCon_GRP',
'worldSpace_GRP'
],
'tailMidBIK_CTRL', ['base', 'FK', 'pelvis', 'world'],
type='parentConstraint')
constrainObject('tailTipIKOffset_GRP', [
'tailFKACon_GRP', 'tailMidBIKCon_GRP', 'pelvisCon_GRP',
'worldSpace_GRP'
],
'tailTipIK_CTRL', ['base', 'FK', 'pelvis', 'world'],
type='parentConstraint')
tailPointer = rig_control(name='tailPointer',
shape='pyramid',
scale=(1, 2, 1),
lockHideAttrs=['rx', 'ry', 'rz'],
colour='white',
parentOffset=tailModule.controls,
rotateOrder=2)
pm.delete(pm.parentConstraint('tailHiJEnd_JNT', tailPointer.offset))
constrainObject(
tailPointer.offset,
['pelvisCon_GRP', 'spineFullBodyCon_GRP', 'worldSpace_GRP'],
tailPointer.ctrl, ['pelvis', 'fullBody', 'world'],
type='parentConstraint')
tailPointerBase = rig_transform(0,
name='tailPointerBase',
type='locator',
parent=tailModule.parts,
target='tailFKA_CTRL').object
tailPointerTip = rig_transform(0,
name='tailPointerTip',
type='locator',
parent=tailModule.parts,
target=tailPointer.con).object
pm.rotate(tailPointerBase, 0, 0, -90, r=True, os=True)
pm.rotate(tailPointerTip, 0, 0, -90, r=True, os=True)
pm.parentConstraint('pelvisCon_GRP', tailPointerBase, mo=True)
pm.parentConstraint(tailPointer.con, tailPointerTip, mo=True)
tailPointerTop = mm.eval('rig_makePiston("' + tailPointerBase + '", "' +
tailPointerTip + '", "tailPointerAim");')
pm.orientConstraint(tailPointerBase.replace('LOC', 'JNT'),
'tailFKAModify2_GRP',
mo=True)
pm.parent('tailMidAIKOffset_GRP', 'tailMidBIKOffset_GRP',
'tailTipIKOffset_GRP', tailModule.controls)
pm.parent(tailJnts, tailModule.skeleton)
pm.parent('tail_cMUS', 'tailBaseIKOffset_GRP', tailPointerTop,
tailModule.parts)
pm.setAttr(tailModule.skeleton + '.inheritsTransform', 0)
# build facial
facialModule = rig_module('facial')
pm.parent(facialModule.top, 'rigModules_GRP')
# build shape locators
for side in ['l', 'r']:
muzzleCtrl = fourWayShapeControl(
side + '_muzzleShape_LOC',
(side + 'MuzzleUp', side + 'MuzzleDown', side + 'MuzzleForward',
side + 'MuzzleBack'),
'headShapeWorld_GRP',
ctrlSize=1)
pm.rotate(muzzleCtrl.ctrl.cv, 0, 0, 90, r=True, os=True)
pm.rotate(muzzleCtrl.ctrl.cv, -45, 0, 0, r=True, os=True)
browCtrl = twoWayShapeControl(side + '_browShape_LOC',
(side + 'BrowUp', side + 'BrowDown'),
'headShapeWorld_GRP',
ctrlSize=0.8)
pm.rotate(browCtrl.ctrl.cv, 90, 0, 0, r=True, os=True)
pm.rotate(browCtrl.ctrl.cv, 0, -75, 0, r=True, os=True)
blinkCtrl = oneWayShapeControl(side + '_blinkShape_LOC',
side + 'Blink',
'headShapeWorld_GRP',
ctrlSize=0.5)
if side == 'r':
pm.rotate(blinkCtrl.ctrl.cv, 0, 0, 180, r=True, os=True)
#pm.move(blinkCtrl.ctrl.cv, 0, -0.4, 0, relative=True)
#pm.parent( muzzleCtrl.offset, browCtrl.offset , blinkCtrl.offset ,facialModule.controls)
pm.parent('headShapeWorld_GRP', facialModule.controls)
pm.parentConstraint('headJA_JNT', 'headShapeWorld_GRP')
# build simple controllers
facialLocalWorldControllers(facialModule, 'headJAWorld_GRP', ctrlSize=0.1)
pm.parentConstraint('headJA_JNT', 'headJAWorld_GRP')
pm.parent('headJAWorld_GRP', facialModule.controlsSec)
pm.move(pm.PyNode('noseTwk_CTRL').cv, 0.15, 0, 0, r=True, os=True)
pm.scale(pm.PyNode('noseTwk_CTRL').cv, 2.5, 2.5, 2.5)
# jaw control
jawControl = rig_control(name='jaw',
shape='circle',
scale=(2, 2, 2),
lockHideAttrs=['rx'],
parentOffset=facialModule.controls,
colour='white')
pm.rotate(jawControl.ctrl.cv, -90, 0, 0, r=True, os=True)
pm.move(jawControl.ctrl.cv, 2, 0, 0, r=True, os=True)
pm.delete(pm.parentConstraint('jawJA_JNT', jawControl.offset))
pm.parentConstraint('headJA_JNT', jawControl.offset, mo=True)
pm.parent('jawHeadOffset_LOC', jawControl.offset)
pm.pointConstraint(jawControl.con, 'jawHeadOffset_LOC', mo=True)
facialLoc = 'facialShapeDriver_LOC'
rig_animDrivenKey(jawControl.ctrl.rotateY, (0, 35), facialLoc + '.jawOpen',
(0, 1))
rig_animDrivenKey(jawControl.ctrl.rotateY, (0, -5),
facialLoc + '.jawClosed', (0, 1))
rig_animDrivenKey(jawControl.ctrl.rotateZ, (0, -10),
facialLoc + '.rJawSide', (0, 1))
rig_animDrivenKey(jawControl.ctrl.rotateZ, (0, 10),
facialLoc + '.lJawSide', (0, 1))
pm.transformLimits(jawControl.ctrl, ry=(-5, 35), ery=(1, 1))
pm.transformLimits(jawControl.ctrl, rz=(-10, 10), erz=(1, 1))
pm.transformLimits(jawControl.ctrl, tx=(-0.1, 0.1), etx=(1, 1))
pm.transformLimits(jawControl.ctrl, ty=(-0.1, 0.1), ety=(1, 1))
pm.transformLimits(jawControl.ctrl, tz=(0, 0.1), etz=(1, 1))
upperLipCtrls = pm.ls("*upperLip*Twk*CTRL")
for c in upperLipCtrls:
pm.scale(c.cv, 0.6, 0.6, 0.6, r=True)
pm.move(c.cv, 0, 0, 0.3, r=True)
pm.move(c.cv, 0, 0.1, 0, r=True)
lowerLipCtrls = pm.ls("*lowerLip*Twk*CTRL")
for c in lowerLipCtrls:
pm.scale(c.cv, 0.6, 0.6, 0.6, r=True)
pm.move(c.cv, 0, 0, 0.3, r=True)
pm.move(c.cv, 0, -0.1, 0, r=True)
pm.setAttr(facialModule.parts + '.inheritsTransform', 0)
pm.parent('tongueControls_GRP', facialModule.controls)
# eye controls
eyeModule = rig_module('eye')
pm.parent(eyeModule.top, 'rigModules_GRP')
eyeControl = rig_control(name='eye',
shape='circle',
modify=1,
parentOffset=eyeModule.controls,
scale=(1, 1, 1),
rotateOrder=2,
lockHideAttrs=['rx', 'ry', 'rz'])
pm.delete(pm.parentConstraint('eyeAim_LOC', eyeControl.offset))
#pm.parentConstraint( 'headCon_GRP', eyeControl.offset, mo=True )
pm.rotate(eyeControl.ctrl.cv, 90, 0, 0, r=True, os=True)
pm.select(eyeControl.ctrl.cv[1], r=True)
pm.select(eyeControl.ctrl.cv[5], add=True)
pm.scale(0, 0, 0, r=True)
constrainObject(eyeControl.offset, ['headCon_GRP', 'worldSpace_GRP'],
eyeControl.ctrl, ['head', 'world'],
type='parentConstraint')
pm.parent('eyeAim_LOC', eyeControl.con)
pm.hide('eyeAim_LOC')
for side in ('l', 'r'):
eyeBase = rig_transform(0,
name=side + '_eyeBase',
type='locator',
target=side + '_eyeJA_JNT',
parent=eyeModule.parts).object
eyeTarget = rig_transform(0,
name=side + '_eyeTarget',
type='locator',
target='eyeAim_LOC',
parent=eyeModule.parts).object
pm.parentConstraint('headJA_JNT', eyeBase, mo=True)
pm.parentConstraint('eyeAim_LOC', eyeTarget, mo=True)
eyeAimTop = mm.eval('rig_makePiston("' + eyeBase + '", "' + eyeTarget +
'", '
'"' + side + '_eyeAim");')
pm.orientConstraint(side + '_eyeBase_JNT',
side + '_eyeJA_JNT',
mo=True)
pm.parent(eyeAimTop, eyeModule.parts)
upperEyeControl = rig_control(
side=side,
name='eyeUpper',
shape='circle',
modify=1,
parentOffset=eyeModule.controlsSec,
scale=(0.1, 0.1, 0.1),
constrain=side + '_upperEyeLidRotateOffset_GRP',
rotateOrder=2,
directCon=1,
lockHideAttrs=['tx', 'ty', 'tz', 'rx', 'ry'])
pm.delete(
pm.parentConstraint(side + '_eyeLocalOffset_GRP',
upperEyeControl.offset))
pm.delete(
pm.pointConstraint(side + '_eyeJA_JNT', upperEyeControl.offset))
lowerEyeControl = rig_control(
side=side,
name='eyeLower',
shape='circle',
modify=1,
parentOffset=eyeModule.controlsSec,
scale=(0.1, 0.1, 0.1),
constrain=side + '_lowerEyeLidRotateOffset_GRP',
rotateOrder=2,
directCon=1,
lockHideAttrs=['tx', 'ty', 'tz', 'rx', 'ry'])
pm.delete(
pm.parentConstraint(side + '_eyeLocalOffset_GRP',
lowerEyeControl.offset))
pm.delete(
pm.pointConstraint(side + '_eyeJA_JNT', lowerEyeControl.offset))
'''
eyeControl = rig_control(side=side, name='eye', shape='circle', modify=1,
parentOffset=eyeModule.controls, scale=(1,1,1),
rotateOrder=2, lockHideAttrs=['rx', 'ry', 'rz'])
'''
# ear controls
chainEars = rig_chain(side + '_earJA_JNT').chain
earCtrls = fkControlChain(
[side + '_earJA_JNT', side + '_earJB_JNT', side + '_earJC_JNT'],
modify=0,
scale=[0.8, 0.8, 0.8],
directCon=0)
# parent ears to headJA_JNT
for ctrl in earCtrls:
pm.parent(ctrl.parent, 'headControlsSecondary_GRP')
def cyroShoulderUpgrade(side='', ctrlSize=1):
name = side + '_quadShoulder'
module = rig_module(name)
ctrlSizeHalf = [ctrlSize / 2.0, ctrlSize / 2.0, ctrlSize / 2.0]
ctrlSize = [ctrlSize, ctrlSize, ctrlSize]
shoulderControl = rig_control(side=side,
name='quadShoulder',
shape='pyramid',
targetOffset=side + '_clavicleJA_JNT',
modify=1,
parentOffset=module.controls,
lockHideAttrs=['rx', 'ry', 'rz'],
scale=ctrlSize,
rotateOrder=0)
clavPos = pm.xform(side + '_clavicleJA_JNT',
translation=True,
query=True,
ws=True)
armPos = pm.xform(side + '_scapulaJA_JNT',
translation=True,
query=True,
ws=True)
clavLength = lengthVector(armPos, clavPos)
if side == 'l':
pm.move(pm.PyNode(shoulderControl.offset),
clavLength,
0,
0,
r=True,
os=True)
else:
pm.move(pm.PyNode(shoulderControl.offset),
-1 * clavLength,
0,
0,
r=True,
os=True)
pm.rotate(pm.PyNode(shoulderControl.offset), 0, 0, -90, r=True, os=True)
pm.parentConstraint('spineJF_JNT', shoulderControl.offset, mo=True)
clavicleAim = rig_transform(0,
name=side + '_clavicleAim',
type='locator',
parent=module.parts,
target=side + '_clavicleJA_JNT').object
armAim = rig_transform(0,
name=side + '_quadShoulderAim',
type='locator',
parent=module.parts).object
pm.pointConstraint('spineJF_JNT', clavicleAim, mo=True)
pm.pointConstraint(shoulderControl.con, armAim)
quadShoulderAimTop = mm.eval('rig_makePiston("' + clavicleAim + '", "' +
armAim + '", "' + side +
'_quadShoulderAim");')
#pm.orientConstraint( clavicleAim, side+'_shoulder_CTRL', mo=True )
pm.delete(pm.listRelatives(side + '_shoulderOffset_GRP',
type='constraint'))
pm.parentConstraint(clavicleAim, side + '_shoulderOffset_GRP', mo=True)
pm.addAttr(shoulderControl.ctrl,
longName='followArm',
at='float',
k=True,
min=0,
max=10,
defaultValue=1)
pm.connectAttr(shoulderControl.ctrl.followArm,
side + '_shoulder_CTRL.followArm')
baseLimit = 15
pm.transformLimits(shoulderControl.ctrl,
tx=(-1 * baseLimit, baseLimit),
etx=(1, 1))
pm.transformLimits(shoulderControl.ctrl,
ty=(-1 * baseLimit, baseLimit),
ety=(1, 1))
pm.transformLimits(shoulderControl.ctrl,
tz=(-1 * baseLimit, baseLimit),
etz=(1, 1))
scapulaControl = rig_control(side=side,
name='quadScapula',
shape='box',
targetOffset=side + '_scapulaJEnd_JNT',
modify=1,
parentOffset=module.controls,
lockHideAttrs=['rx', 'ry', 'rz'],
scale=ctrlSize,
rotateOrder=0)
pm.delete(
pm.orientConstraint(side + '_scapulaJA_JNT', scapulaControl.offset))
scapulaAim = rig_transform(0,
name=side + '_quadScapulaAim',
type='locator',
parent=module.parts).object
scapulaEndAim = rig_transform(0,
name=side + '_quadScapulaEndAim',
type='locator',
parent=module.parts).object
pm.delete(pm.parentConstraint(side + '_scapulaJA_JNT', scapulaAim))
pm.pointConstraint(side + '_clavicleJA_JNT', scapulaAim, mo=True)
pm.pointConstraint(scapulaControl.con, scapulaEndAim)
pm.delete(pm.orientConstraint(side + '_scapulaJA_JNT', scapulaEndAim))
quadScapulaAimTop = mm.eval('rig_makePiston("' + scapulaAim + '", "' +
scapulaEndAim + '", "' + side +
'_quadScapulaAim");')
#pm.parentConstraint( side+'_clavicleJA_JNT', 'spineJE_JNT', scapulaControl.offset, mo=True )
constrainObject(scapulaControl.offset,
[side + '_clavicleJA_JNT', 'spineJE_JNT'],
'', [],
type='parentConstraint',
doSpace=0,
setVal=(0.5, 1))
baseLimit = 5
pm.transformLimits(scapulaControl.ctrl,
tx=(-1 * baseLimit, baseLimit),
etx=(1, 1))
pm.transformLimits(scapulaControl.ctrl,
ty=(-1 * baseLimit, baseLimit),
ety=(1, 1))
pm.transformLimits(scapulaControl.ctrl,
tz=(-1 * baseLimit, baseLimit),
etz=(1, 1))
pm.orientConstraint(scapulaAim, side + '_scapulaJA_JNT', mo=True)
pm.hide(side + '_shoulderOffset_GRP')
pm.parent(quadShoulderAimTop, quadScapulaAimTop, module.parts)
def AddWorldLocalSpace(**kwargs):
"""
select control object and a world control object, then run this. see script editor for more info.
1. first parent your control under the default control ( for example: parent your hand_IK_ctrl under torso_ctrl )
2. select control object that you want to add the "local-world" space switch for ( for example: hand_IK_ctrl )
3. shift select the object you as world ( for example: main_control or COG_control )
4. run this
"""
ctrl = kwargs.setdefault(
'ctrl') # object you want to create space switch for
worldCtrl = kwargs.setdefault('worldCtrl') # world space node
point = kwargs.setdefault(False)
orient = kwargs.setdefault(False)
objs = pm.ls(sl=True)
if len(objs) != 2:
pm.error(helpMessage)
ctrl = objs[0]
worldCtrl = objs[1]
# create three zero groups matching the transfrom of selected control
zeroGrp = pm.group(empty=True, name='%s_space' % ctrl.name())
pm.delete(pm.pointConstraint(ctrl, zeroGrp))
pm.delete(pm.orientConstraint(ctrl, zeroGrp))
localGrp = pm.duplicate(zeroGrp)[0]
pm.rename(localGrp, '%s_spacelocal' % ctrl.name())
worldGrp = pm.duplicate(zeroGrp)[0]
pm.rename(worldGrp, '%s_spaceworld' % ctrl.name())
# parent one under first parent and the other under second parent
ctrlParent = ctrl.getParent()
pm.parent(zeroGrp, ctrlParent)
pm.parent(localGrp, ctrlParent)
pm.parent(worldGrp, worldCtrl)
pm.parent(ctrl, zeroGrp)
# orient constraint zero group with two copied nulls as drivers
if orient:
const = pm.orientConstraint(worldGrp, localGrp, zeroGrp)
elif point:
const = pm.pointConstraint(worldGrp, localGrp, zeroGrp)
else: #parent
const = pm.parentConstraint(worldGrp, localGrp, zeroGrp)
# add parentTo attribute with value '---------' and lock it
pm.addAttr(ctrl, ln='parentTo', keyable=True, at="enum", en='---------')
pm.setAttr(ctrl.parentTo, lock=True)
# make world_local attribute with the range 0-1 and connect it second weight of orient constraint
pm.addAttr(ctrl,
ln='world_local',
nn='world <---> local',
keyable=True,
at="double",
min=0.0,
max=1.0)
ctrl.world_local >> const.attr(('%sW1' % localGrp.name()))
# create reverse and connect it to second weight
revNode = pm.createNode('reverse', name='%s_worldlocal_rev' % ctrl.name())
ctrl.world_local >> revNode.inputX
revNode.outputX >> const.attr('%sW0' % worldGrp.name())
