def blendJoints(self):
# for jointA, jointB, joint, count in zip(self.subIKA.jointSystem.pyJoints,
# self.subIKB.jointSystem.pyJoints,
# self.jointSystem.joints,
# range(len(self.jointSystem.joints))):
jointRange = range(len(self.jointSystem.jointList[0:self.endJointNumber]))
for count in jointRange:
jointA = self.subIKA.jointSystem.pyJoints[count]
jointB = self.subIKB.jointSystem.pyJoints[count]
joint = self.jointSystem.joints[count]
pairBlend = core.MetaRig(part=joint.part, side=self.side, endSuffix='PairBlend', nodeType='pairBlend')
pairPyNode = pairBlend.pynode
connectAttrs = ['Rotate', 'Translate']
if count == jointRange[-1]:
connectAttrs.remove('Rotate')
for attr in connectAttrs:
attrLower = attr.lower()
jointA.attr(attrLower) >> pairPyNode.attr('in{}1'.format(attr))
jointB.attr(attrLower) >> pairPyNode.attr('in{}2'.format(attr))
pairPyNode.attr('out{}'.format(attr)) >> joint.pynode.attr(attrLower)
self.blendAttr >> pairPyNode.weight
def skinCtrlCurve(self):
crvSkinJnts = []
# Iterate through main controls
if not self.mainCtrls:
self.breakpoint("No Main controls found")
for ctrl in self.mainCtrls:
# Create Joint and snap and parent to the control
curveJoint = joints.Joint(side=ctrl.side,
part=ctrl.part,
endSuffix="CurveJoint")
curveJoint.rotateOrder = self.rotateOrder
curveJoint.snap(ctrl.mNode)
ctrl.addChild(curveJoint.mNode)
ctrl.addSupportNode(curveJoint, "IkSkinJoint")
# Connect as support joint
crvSkinJnts.append(curveJoint)
crvJoints = [jnt.pynode for jnt in crvSkinJnts]
skinCluster = libUtilities.skinGeo(self.ikDriveCurve, crvJoints)
skinClusterMeta = core.MetaRig(skinCluster.name())
skinClusterMeta.part = self.part
self.addSupportNode(skinClusterMeta, "IkSkin")
self.transferPropertiesToChild(skinClusterMeta, "IkSkin")
skinClusterMeta.resetName()
# Help Joint system
self.driveJointSystem = joints.JointSystem(side=self.side,
part="%sHelpJoints" %
self.part)
self.driveJointSystem.rigType = "Help"
self.driveJointSystem.joints = crvSkinJnts
self.driveJointSystem.rebuild_joint_data()
def joints(self, jointList):
if not isinstance(jointList[0], basestring):
jointList = [joint.mNode for joint in jointList]
jointAttr = "SUP_Joints"
self.connectChildren(jointList, jointAttr, cleanCurrent=True)
if isinstance(jointList[0], core.MetaRig):
self.metaCache[jointAttr] = jointList
else:
self.metaCache[jointAttr] = [
core.MetaRig(joint) for joint in jointList
]
def buildRoll(self, attr, jointTarget):
rollName = "{}Roll".format(attr)
roll = core.MovableSystem(part=self.part, side=self.side, endSuffix=rollName)
roll.addParent(snap=False, endSuffix="{}Prnt".format(rollName))
roll.snap(self.jointSystem.joints[jointTarget].mNode)
self.RollSystem.addSupportNode(roll, rollName)
inverseMeta = core.MetaRig(part="{}{}".format(self.part, attr),
side=self.side,
endSuffix="InverseMD",
nodeType="multiplyDivide")
self.mainIK.pynode.attr(attr) >> inverseMeta.pynode.input1X
inverseMeta.pynode.outputX >> roll.pynode.attr("r{}".format(self.bendAxis.lower()))
self.RollSystem.addSupportNode(inverseMeta, "{}MD".format(attr))
return roll
def connectTwist(self):
# Create plusMinusAverage which control the final twist
twistPlusMinus = core.MetaRig(side=self.side,
part="%sTwist" % self.part,
endSuffix="PMA",
nodeType="plusMinusAverage")
# Create multiplyDivide which would counter twist for the top control
multiplyDivide = core.MetaRig(side=self.side,
part="%sCounterTwist" % self.part,
endSuffix="MD",
nodeType="multiplyDivide")
multiplyDivide.input2X = -1
if self.mirrorBehaviour:
# This will add one extra MD. So just keep it for now
self.mainCtrls[0].addCounterTwist()
self.mainCtrls[2].addCounterTwist()
# Connect the top control to the twist
self.mainCtrls[2].getTwistDriver(
self.twistAxis) >> twistPlusMinus.pynode.input1D[0]
# Connect to the bottom controller to the counter twist and roll
self.mainCtrls[0].getTwistDriver(
self.twistAxis) >> multiplyDivide.pynode.input1X
multiplyDivide.pynode.outputX >> twistPlusMinus.pynode.input1D[1]
# Connect IK Handle twist and roll
twistPlusMinus.pynode.output1D >> self.ikHandle.pynode.twist
self.mainCtrls[0].getTwistDriver(
self.twistAxis) >> self.ikHandle.pynode.roll
# Add PMA and MD as supprt node
self.ikHandle.rootTwistMode = True
self.ikHandle.addSupportNode(twistPlusMinus, "Twist")
self.ikHandle.addSupportNode(multiplyDivide, "CounterTwist")
def buildSolver(self):
jntSystem = self.ikJointSystem
# Build the main single degree curve
baseCurve = utils.createCurve(jntSystem.positions, degree=1)
baseCurve.rename(utils.nameMe(self.side, self.part, "CtrlCurve"))
self.controlCurve = core.MovableSystem(baseCurve.name())
self.controlCurve.part = self.part
self.transferPropertiesToChild(self.controlCurve, "CtrlCurve")
self.controlCurve.resetName()
# Build the bspline ik curve
curve_name = utils.nameMe(self.side, self.part, "BaseCurve")
# Sometimes bSpline might generate less CVs as the source....Investigate
ikCurve, fitNode = pm.fitBspline(baseCurve,
ch=1,
tol=0.01,
n=curve_name)
if len(ikCurve.getCVs()) != len(jntSystem.positions):
pm.delete(ikCurve)
ikCurve = utils.createCurve(jntSystem.positions)
ikCurve.rename(curve_name)
self.bSpline = False
self.ikCurve = core.MovableSystem(ikCurve.name())
self.ikCurve.part = self.part
self.transferPropertiesToChild(self.ikCurve, "BaseCurve")
if self.bSpline:
fitNodeMeta = core.MetaRig(fitNode.name())
fitNodeMeta.part = self.part
self.ikCurve.addSupportNode(fitNodeMeta, "BaseDriver")
self.ikCurve.transferPropertiesToChild(fitNodeMeta, "FitNode")
fitNodeMeta.resetName()
# Build the spline IK
name = utils.nameMe(self.side, self.part, "IkHandle")
startJoint = jntSystem.joints[0].shortName()
endJoint = jntSystem.joints[-1].shortName()
# noinspection PyArgumentList
ikHandle = pm.ikHandle(name=name,
sj=startJoint,
ee=endJoint,
sol="ikSplineSolver",
curve=ikCurve,
createCurve=False,
freezeJoints=False,
rootOnCurve=True)[0]
ikHandleMeta = core.MovableSystem(ikHandle.name(), nodeType="IkHandle")
self.transferPropertiesToChild(ikHandleMeta, "IkHandle")
ikHandleMeta.part = "IkHandle"
ikHandleMeta.v = False
ikHandleMeta.addParent()
self.ikHandle = ikHandleMeta
def buildTemplates(templateData):
builderDict = {}
for info in templateData:
info = Info(info)
builder = Builder(part=info.part, side=info.side)
builder.importData = info
builder.rebuild()
builderDict[info.part] = builder
for builder in builderDict.values():
if builder.importData.parent:
if pm.objExists(builder.importData.parent):
metaLoc = core.MetaRig(builder.importData.parent)
builder.setBuildParent(metaLoc)
return builderDict
def buildBlendCtrl(self):
# Build Blendcontrol
self.blender = self.createCtrlObj('{}Blend'.format(self.part), createXtra=False, addGimbal=False)
self.blender.lockDefaultAttributes()
# Create reverse node
self.inverse = core.MetaRig(side=self.side, part=self.part, endSuffix="Inverse", nodeType="reverse")
# Attribute based on the system type
libUtilities.addFloatAttr(self.blender.pynode, self.subSystems)
# Connect the inverse node
self.blendAttr >> self.inverse.pynode.inputX
# Add the constraint blend type attr
libUtilities.addDivAttr(self.blender.pynode, "Interpolation", "interpType")
self.blender.addAttr("type", attrType='enum', enumName="Average:Shortest:Longest:")
interpADL = core.MetaRig(side=self.side, part=self.part, endSuffix="InterpADL", nodeType="addDoubleLinear")
interpADL.pynode.input2.set(1)
self.blender.pynode.attr("type") >> interpADL.pynode.input1
self.blender.addSupportNode(interpADL, "InterpADL")
def _get_joint_twist_average_(jointMeta, axis):
pmaHelp = jointMeta.getSupportNode("rotateAverage")
# If none are found
if not pmaHelp:
pmaHelp = core.MetaRig(side=self.side,
part=jointMeta.part,
endSuffix="RotateAverage",
nodeType="plusMinusAverage")
jointMeta.addSupportNode(pmaHelp, "rotateAverage")
pmaHelp.pynode.attr(
"output3D%s" % axis.lower()) >> jointMeta.pynode.attr(
"rotate%s" % axis.upper())
currentConnect = pmaHelp.pynode.input3D.numConnectedElements()
return pmaHelp.pynode.input3D[currentConnect].attr("input3D%s" %
axis.lower())
def buildDevSolver(self):
super(SubControlSpine, self).buildSolver()
# Blendshape
self.controlCurve.select()
self.ikCurve.select(add=True)
# Give a temporary name as this interferes with the metaConnections
currentName = self.controlCurve.shortName()
self.ikDriveCurve.rename("SpineDriver")
# Blendshape
blendShape = pm.blendShape(
name=utils.nameMe(self.side, self.part, "BlendShape"))[0]
blendShape.setWeight(0, 1)
# Rename the control back
self.ikDriveCurve.rename(currentName)
# Convert a blendnode to meta
blendNodeMeta = core.MetaRig(blendShape.name())
self.controlCurve.addSupportNode(blendNodeMeta, "baseDriver")
self.controlCurve.transferPropertiesToChild(blendNodeMeta,
"BlendShape")
def blendJoints(self):
# Replicate the joint based off A
self.jointSystem = self.subSystemA.jointSystem.replicate(part=self.part, side=self.side, endSuffix=self.rigType)
# Constraints System
for i in range(len(self.jointSystem) - 1):
# Joint Aliases
joint = self.jointSystem.joints[i]
jointA = self.subSystemA.jointSystem.joints[i]
jointB = self.subSystemB.jointSystem.joints[i]
# Hide the SubJoints
jointA.v = 0
jointB.v = 0
if i:
pairConstraint = pm.PyNode(
joint.addConstraint(jointA, "orient", zeroOut=False))
joint.addConstraint(jointB, "orient", zeroOut=False)
else:
# Constraints the first node
pairConstraint = pm.PyNode(joint.addConstraint(jointA, zeroOut=False))
joint.addConstraint(jointB, zeroOut=False)
# Reverse node in first
self.inverse.pynode.outputX >> pairConstraint.w0
# Connect the interpType
self.interpAttr >> pairConstraint.interpType
# Direct connection in second
self.blendAttr >> pairConstraint.w1
if self.subSystemA.isDeformable:
pairBlend = core.MetaRig(part=joint.part, side=self.side,
endSuffix='PairBlend',
nodeType='pairBlend')
pairPyNode = pairBlend.pynode
jointA.pynode.attr("scale") >> pairPyNode.attr('inTranslate1')
jointB.pynode.attr("scale") >> pairPyNode.attr('inTranslate2')
pairPyNode.attr('outTranslate') >> joint.pynode.attr("scale")
self.blendAttr >> pairPyNode.weight
def addStretch(self):
super(IkSpine, self).addStretch()
"""
arcMainNode = mc.rename(mc.arclen(IKCrvLenMain, ch=1), self.name + "_" + self.sfx + "_arcLenMain")
mc.connectAttr(arcMainNode + ".arcLength", stMD + ".input2X")
"""
arcLen = pm.arclen(self.mainCurve.pynode, constructionHistory=True)
arcLenMeta = core.MetaRig(arcLen)
arcLenMeta.part = self.part
self.transferPropertiesToChild(arcLenMeta, "ArcLen")
arcLenMeta.resetName()
self.stretchSystem.setInitialValue(arcLenMeta.pynode.arcLength.get())
self.stretchSystem.connectTrigger(arcLenMeta.pynode.arcLength)
# Connect Stretch Joint
self.connectStretchJoints()
self.mainCtrls[0].addDivAttr("stretch", "strDiv")
self.mainCtrls[0].addFloatAttr("Amount", sn="amount")
amountAttr = self.mainCtrls[0].pynode.amount
self.stretchSystem.connectAmount(amountAttr)
amountAttr.set(1)
def connectTwist(self):
self.calculateTwistWeights()
# JointMeta
def _get_joint_twist_average_(jointMeta, axis):
pmaHelp = jointMeta.getSupportNode("rotateAverage")
# If none are found
if not pmaHelp:
pmaHelp = core.MetaRig(side=self.side,
part=jointMeta.part,
endSuffix="RotateAverage",
nodeType="plusMinusAverage")
jointMeta.addSupportNode(pmaHelp, "rotateAverage")
pmaHelp.pynode.attr(
"output3D%s" % axis.lower()) >> jointMeta.pynode.attr(
"rotate%s" % axis.upper())
currentConnect = pmaHelp.pynode.input3D.numConnectedElements()
return pmaHelp.pynode.input3D[currentConnect].attr("input3D%s" %
axis.lower())
# Skiplist
# skipAxis = [self.rollAxis, self.bendAxis]
# for axis in ["x", "y", "z"]:
# if axis != self.primaryAxis[0]:
# skipAxis.append(axis)
# Iterate through the weightMap/Joints
for weightMap, joint in zip(
self.twistMap,
range(len(self.jointSystem) -
int(self.evaluateLastJointBool))):
# Do not add weight
for singleWeight, ctrl in zip(weightMap, self.mainCtrls):
if singleWeight == 1:
rotateDriver = ctrl.getRotateDriver(self.twistAxis)
rotateDriver >> self.jointSystem.joints[joint].pynode.attr(
"rotate%s" % self.twistAxis.upper())
elif singleWeight != 0.0:
# Get the input PMA for the joint
rotateAverage = _get_joint_twist_average_(
self.jointSystem.joints[joint], self.twistAxis)
# Get Rotate Driver
rotateDriver = ctrl.getRotateDriver(self.twistAxis)
wm_name = "WeightManager{}".format(self.twistAxis)
# Create a Weight MD
weightManager = core.MetaRig(
side=ctrl.side,
part="{0}{1}".format(
self.jointSystem.joints[joint].part.capitalize(),
ctrl.part.capitalize()),
endSuffix=wm_name,
nodeType="multiplyDivide")
# Add it as support node to joint
self.jointSystem.joints[joint].getSupportNode(
"rotateAverage").addSupportNode(
weightManager, wm_name)
# Connect the Rotate Driver
rotateDriver >> weightManager.pynode.input1X
# Set the weight
weightManager.pynode.input2X.set(singleWeight)
# Connect to the rotateAverage
weightManager.pynode.outputX >> rotateAverage
def buildSubControls(self):
if self.devSpine:
return
subCtrls = []
npc = libUtilities.create_npc_node(self.ikDriveCurve)
# Initialise the groups that will stay at the base and metaise them
subCtrlGrp = None
for newGrp in ["subCtrlGrp", "rideOnLocGrp"]:
newGrpMeta = core.MovableSystem(side=self.side,
part=self.part,
endSuffix=newGrp.capitalize())
newGrpMeta.rotateOrder = self.rotateOrder
self.addSupportNode(newGrpMeta, newGrp.capitalize())
newGrpMeta.setParent(self.infoGrp)
exec("{} = newGrpMeta".format(newGrp))
# Iterate through all the control curve
for i in range(self.ikDriveCurve.numCVs()):
ikCV = self.ikCurve.pynode.cv[i]
# Set the subpart name
SubPart = "{}Sub{}".format(self.part, i)
# Get the CV position
joint = self.jointSystem.joints[i].pynode
npc.inPosition.set(libUtilities.get_world_space_pos(joint))
# Create a new control object
subCtrl = self.createCtrlObj(SubPart,
shape="Ball",
createXtra=False,
addGimbal=False)
subCtrls.append(subCtrl)
# Add a ctrl locator
subCtrl.addSpaceLocator(parent=True)
subCtrl.locator.v = False
subCtrl.addZeroPrnt()
# Create the point on curve node
poc = core.MetaRig(part=SubPart,
side=self.side,
endSuffix="POC",
nodeType="pointOnCurveInfo")
subCtrl.addSupportNode(poc, "PointOnCurve")
poc.parameter = npc.parameter.get()
self.ikDriveCurve.worldSpace >> poc.pynode.inputCurve
poc.pynode.position >> subCtrl.zeroPrnt.pynode.translate
# Control to the CV
subCtrl.zeroPrnt.snap(self.jointSystem.joints[i], True, False)
subCtrl.prnt.snap(self.jointSystem.joints[i], False)
# # Apply a cheap point constraint
# libUtilities.cheap_point_constraint(rideOnloc.pynode, subCtrl.zeroPrnt.pynode)
# Connect the space locator to the IK Curve
libUtilities.snap(subCtrl.locator.pynode, ikCV, rotate=False)
libUtilities.cheap_point_constraint(subCtrl.locator.pynode, ikCV)
# Lock the rotate and scale
subCtrl.lockRotate()
subCtrl.lockScale()
# Add to parent
subCtrl.setParent(subCtrlGrp)
# Delete the nearest point on curve
pm.delete(npc)
# Append the control
self.subCtrls = subCtrls
def buildHipSpaceSwitch(self, aimJoint):
# Create a helper joint
pm.select(cl=1)
self.aimHelper = core.MovableSystem(part=aimJoint.part, side=self.side, endSuffix="AimHelper")
# self.aimHelper.jointOrient = firstJoint.jointOrient
self.aimHelper.rotateOrder = aimJoint.rotateOrder
# Align with the first joint
self.aimHelper.snap(aimJoint.pynode)
# Figure out the up vector position.
second_joint_position = self.jointSystem.positions[self.hipEndJointNumber]
hipIkPoleVector = self.hipIKHandle.poleVector if self.hipIkSolver == "RotatePlane" else None
default_pole_vector = libVector.vector(list(hipIkPoleVector or self.ikHandle.poleVector))
# noinspection PyTypeChecker
aimPosition = list(((default_pole_vector * [30, 30, 30] * ([self.scaleFactor] * 3)) + second_joint_position))
if hipIkPoleVector:
upVector = core.Ctrl(part="{}PV".format(aimJoint.part),
side=self.side,
endSuffix="HipPV",
shape="Locator")
upVector.build()
self.addRigCtrl(upVector, "HipPV")
upVector.constrainedNode.pynode.setTranslation(aimPosition)
pvCon = pm.poleVectorConstraint(upVector.mNode, self.hipIKHandle.mNode, weight=1)
self.constraintToMetaConstraint(pvCon, "HipPVCon", "poleVectorConstraint")
self.secondHipIK.addDivAttr("Show", "showPV")
self.secondHipIK.addBoolAttr("PoleVector", "pvVis")
self.secondHipIK.pynode.pvVis >> upVector.pynode.getShape().visibility
upVector.lockRotate()
upVector.lockScale()
else:
upVector = core.MovableSystem(part=aimJoint.part, side=self.side, endSuffix="UpVector")
self.aimHelper.addSupportNode(upVector, "UpVector")
upVector.constrainedNode.pynode.setTranslation(aimPosition)
# Aim Constraint at mainIk Handle
aimConArgs = [self.mainIK.pynode, self.aimHelper.pynode]
aimConKwgs = {"mo": False, "wut": "object", "wuo": upVector.mNode}
pm.delete(pm.aimConstraint(*aimConArgs, **aimConKwgs))
self.aimHelper.addParent(endSuffix="AimHelperPrnt")
aimCon = pm.aimConstraint(*aimConArgs, **aimConKwgs)
self.constraintToMetaConstraint(aimCon, "HipAimCon", "HipAim")
# Setup the space switching
constraintType = 'orient'
if self.hipIkSolver != "Single":
constraintType = "parent"
self.aimHelper.prnt.v = False
# Orient Constraint the Hip Constraint
ikJoint = joints.Joint(part=self.part, side=self.side, endSuffix="HipIkFollow")
ikJoint.v = False
ikJoint.rotateOrder = self.rotateOrder
ikJoint.setParent(aimJoint)
ikJoint.snap(aimJoint)
libUtilities.freeze_rotation(ikJoint.pynode)
ikJoint.setParent(self.aimHelper)
self.hipIK.addConstraint(ikJoint.pynode, constraintType, mo=True, weightAlias="IK")
# Create a base joint
hipIKCon = getattr(self.hipIK, "{}Constraint".format(constraintType))
hipIKCon.pynode.w0.set(0)
homeJoint = joints.Joint(part=self.part, side=self.side, endSuffix="HomeJnt")
homeJoint.v = False
homeJoint.rotateOrder = self.rotateOrder
homeJoint.setParent(aimJoint)
homeJoint.snap(aimJoint)
libUtilities.freeze_rotation(homeJoint.pynode)
homeJoint.setParent(self)
# Add another contraint
self.hipIK.addConstraint(homeJoint, constraintType, mo=True, weightAlias=self.part)
# Blend between the two constraint
self.inverse = core.MetaRig(side=self.side, part=self.part, endSuffix="Inverse", nodeType="reverse")
# Attribute based on the system type
libUtilities.addDivAttr(self.hipIK.pynode, "SpaceSwitch")
attrName = "IK_Parent"
libUtilities.addFloatAttr(self.hipIK.pynode, attrName)
blendAttr = self.hipIK.pynode.attr(attrName)
# Connect the inverse node
blendAttr >> self.inverse.pynode.inputX
self.inverse.pynode.outputX >> hipIKCon.pynode.w0
blendAttr >> hipIKCon.pynode.w1
# Point constrain the first joint
aimJoint.addConstraint(self.hipIK, 'point')
return upVector