def setController(self, node=None): # If controller already set, just add to that one. Otherwise assume a switch and delete old connections first if not node is None: # TODO # Remove connections from previous (use category?) if self.controller: if self.dev: print '\n' self.deleteControllerAttributes() self.controller = node self.updateRigNode() if not hasAttr(self.controller, 'spaceSwitchRigNode'): addAttr(self.controller, ct=self.attrCategory, ln='spaceSwitchRigNode', at='message', k=self.dev) if not isConnected(self.rigNode.message, self.controller.spaceSwitchRigNode): self.rigNode.message.connect(self.controller.spaceSwitchRigNode) # if not hasAttr(self.controller, 'controlVis'): # addAttr(self.controller, ct=self.attrCategory, ln='controlVis', at='short', min=0, max=1, k=1, dv=self.dev) # self.controller.controlVis.connect(self.rigNode.controlVis) # if not hasAttr(self.controller, 'indicVis'): # addAttr(self.controller, ct=self.attrCategory, ln='indicVis', at='short', min=0, max=1, k=1, dv=self.dev) # self.controller.indicVis.connect(self.rigNode.indicVis) # enumName = addAttr(self.enumAttrA, q=1, enumName=1) enumName = self.enumAttrA.getEnums() enumAttrAName = self.enumAttrA.longName() enumAttrBName = self.enumAttrB.longName() if not hasAttr(self.controller, enumAttrAName): utils.cbSep(self.controller, ct=self.attrCategory) addAttr(self.controller, ct=self.attrCategory, ln=enumAttrAName, at='enum', enumName='0:1', k=1) self.controller.attr(enumAttrAName).setEnums(enumName) if not hasAttr(self.controller, enumAttrBName): addAttr(self.controller, ct=self.attrCategory, ln=enumAttrBName, at='enum', enumName='0:1', dv=1, k=1) self.controller.attr(enumAttrBName).setEnums(enumName) blendAttrName =self.blendAttr.longName() if not hasAttr(self.controller, blendAttrName): addAttr(self.controller, ct=self.attrCategory, ln=blendAttrName, min=0, max=1, dv=self.dev, k=1) self.controllerEnumAttrA = self.controller.attr(enumAttrAName) self.controllerEnumAttrB = self.controller.attr(enumAttrBName) self.controllerBlendAttr = self.controller.attr(blendAttrName) if not isConnected(self.controllerEnumAttrA, self.enumAttrA): self.controllerEnumAttrA.connect(self.enumAttrA) if not isConnected(self.controllerEnumAttrB, self.enumAttrB): self.controllerEnumAttrB.connect(self.enumAttrB) if not isConnected(self.controllerBlendAttr, self.blendAttr): self.controllerBlendAttr.connect(self.blendAttr)
def boxRig():
'''creates a useful control for blendshapes, with attributes for adjusting size and result values built in.'''
rigGroup = createNode('transform', n=names.get('rigGroup', 'rnm_rigGroup'))
rb.cbSep(rigGroup)
addAttr(rigGroup, ln='boxVis', at='short', min=0, max=1, dv=1)
rigGroup.boxVis.set(cb=1)
compAttrs = [
'minBounds',
'maxBounds',
'newMinBounds',
'newMaxBounds',
'outputPos',
'outputNeg'
]
for attribute in compAttrs:
rb.cbSep(rigGroup)
addAttr(rigGroup, ln=attribute, at='compound', numberOfChildren=3, k=1)
addAttr(rigGroup, ln='%sX' % attribute, at='float', p=attribute, k=1)
addAttr(rigGroup, ln='%sY' % attribute, at='float', p=attribute, k=1)
addAttr(rigGroup, ln='%sZ' % attribute, at='float', p=attribute, k=1)
def __init__(self, fitNode):
self.dev = True
try:
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'lips':
raise Exception('Incorrect rig type: %s' %
fitNode.rigType.get())
jointsList = fitNode.jointsList.get()
buildRig.rig.__init__(self, fitNode)
# Move rigGroup
xform(self.rigGroup, ws=1, m=xform(jointsList[0], q=1, ws=1, m=1))
# fitNode attributes
inbetweenJoints = 2
if hasAttr(self.fitNode, 'inbetweenJoints'):
inbetweenJoints = self.fitNode.inbetweenJoints.get()
numJointsList = [int(inbetweenJoints + 1), int(inbetweenJoints)]
shapes = fitNode.shapes.get()
# Mirroring
mirror = False
# if self.fitNode.side.get() == 2:
# mirror=True
# else:
# mirror=False
# if self.fitNode.mirror.get() is False:
# mirror=False
# Per joint mirroring
mirrorList = []
for jnt in jointsList:
if jnt.autoMirror.get() is False:
mirrorList.append(False)
elif jnt.side.get() == 2:
mirrorList.append(True)
else:
mirrorList.append(False)
self.crvs = []
# Naming
self.globalName = fitNode.globalName.get()
self.subNames = []
# for node in jointsList:
# self.subNames.append(node.nodeName())
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
print 'subnames:'
print self.subNames
self.naming(0)
self.names = utils.constructNames(self.namesDict)
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('lips', l=1)
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ct='publish',
ln='tangentCtrlsVis',
min=0,
max=1,
dv=0,
at='short',
k=1)
setAttr(self.rigNode.tangentCtrlsVis, k=0, cb=1)
addAttr(self.rigNode,
ct='publish',
ln='offsetsCtrlsVis',
min=0,
max=1,
dv=0,
at='short',
k=1)
setAttr(self.rigNode.offsetsCtrlsVis, k=0, cb=1)
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ln='upAxis',
at='enum',
enumName='Y=1:Z=2',
dv=1,
k=1)
addAttr(self.rigNode,
ln='tangentsDistanceScaling',
softMinValue=0,
softMaxValue=1,
dv=0.5,
k=1)
# ========================= Vis Mults =========================
# allVis Mults
debugVisMult = createNode('multDoubleLinear',
n=self.names.get('debugVisMult',
'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
tangentVisMult = createNode('multDoubleLinear',
n=self.names.get(
'tangentVisMult',
'rnm_tangentVisMult'))
self.tangentVis = tangentVisMult.o
self.rigNode.allVis >> tangentVisMult.i1
self.rigNode.tangentCtrlsVis >> tangentVisMult.i2
self.step(tangentVisMult, 'tangentVisMult')
offsetsVisMult = createNode('multDoubleLinear',
n=self.names.get(
'offsetsVisMult',
'rnm_offsetsVisMult'))
self.offsetsVis = offsetsVisMult.o
self.rigNode.allVis >> offsetsVisMult.i1
self.rigNode.offsetsCtrlsVis >> offsetsVisMult.i2
self.step(offsetsVisMult, 'offsetsVisMult')
# ========================= World Group =========================
worldGroup = createNode('transform',
n=self.names.get('worldGroup',
'rnm_worldGroup'),
p=self.rigGroup)
self.worldGroup = worldGroup
self.step(worldGroup, 'worldGroup')
worldGroup.inheritsTransform.set(0)
xform(worldGroup, rp=[0, 0, 0], ro=[0, 0, 0], ws=1)
controlGroup = createNode('transform',
n=self.names.get('controlGroup',
'rnm_controlGroup'),
p=self.rigGroup)
self.step(controlGroup, 'controlGroup')
self.lipCtrls = []
# For each joint, create a control
for i, jnt in enumerate(jointsList):
lipCtrl = self.createControlHeirarchy(
transformSnap=jnt,
selectionPriority=0,
mirrorStart=mirrorList[i],
mirror=mirrorList[i],
name=self.names.get('lipCtrl', 'rnm_lipCtrl'),
shape=shapes[i],
par=controlGroup,
ctrlParent=controlGroup,
jntBuf=False)
self.lipCtrls.append(lipCtrl)
baseLipJnt, leftLipJnt, topLipJnt, rightLipJnt, botLipJnt = jointsList # TODO: determine in some other way?
baseLipCtrl, leftLipCtrl, topLipCtrl, rightLipCtrl, botLipCtrl = self.lipCtrls # TODO: determine in some other way?
#=========================== Bezier Setup =================================
jointGroupings = [[leftLipJnt, topLipJnt, rightLipJnt],
[leftLipJnt, botLipJnt, rightLipJnt]]
ctrlGroupings = [[leftLipCtrl, topLipCtrl, rightLipCtrl],
[leftLipCtrl, botLipCtrl, rightLipCtrl]]
bezierRigGroups = []
crvs = []
for i in range(2):
bezierRigGroup = self.buildBezierSetup(
transforms=jointGroupings[i],
ctrlTransforms=ctrlGroupings[i],
follow=False,
twist=True,
bias=False,
twistAxisChoice=0,
doNeutralize=True,
mirror=False,
bezChain=True, # ?
)
self.rigNode.tangentsDistanceScaling.connect(
bezierRigGroup.tangentsDistanceScaling)
bezierRigGroups.append(bezierRigGroup)
crvs.append(bezierRigGroup.curve.get())
for ctrl in self.bendCtrls:
ctrl.neutralize.set(1)
ctrl.magnitude.set(1)
print crvs
# =========================== CurvePath =================================
# create a result curve based on the postion on both curve inputs
# blendCurve0 = duplicate(crvs[0], n=self.names.get('blendCurve0', 'rnm_blendCurve0'), rc=True)
# self.step(blendCurve0, 'blendCurve0')
# curveBS = blendShape(crvs[1], crvs[0])
# raise
# =========================== CurvePath Rig =================================
crvPathRigs = []
for i in range(2):
crvPathRig = self.buildCurvePartitionsSetup(
crvs[i],
partitionParams=bezierRigGroups[i].uValues.get(),
numJointsList=numJointsList,
mirror=False,
createOffsetControls=True,
rotationStyle='curve',
twist=True)
crvPathRigs.append(crvPathRig)
results = crvPathRig.results.get()
self.offsetsVis.connect(crvPathRig.v)
for j in range(3):
bezierRigGroups[i].attr('uValues%s' % j).connect(
crvPathRig.attr('partitionParameter%s' % j))
print 'LEN'
print len(self.twistAdds)
print len(self.bendCtrls)
for i in range(len(self.bendCtrls)):
print '\n%s' % i
# addAttr(self.bendCtrls[i], ln='twist', k=1)
rangeStart = True if i == 0 else False
rangeEnd = True if i == (len(self.bendCtrls) -
1) else False
if not rangeEnd:
self.bendCtrls[i].twist.connect(
self.twistAdds[i].input2D[0].getChildren()[0])
if not rangeStart:
self.bendCtrls[i].twist.connect(
self.twistAdds[i - 1].input2D[0].getChildren()[1])
if not rangeEnd:
self.socket(self.bendCtrls[i]).twist.connect(
self.twistAdds[i].input2D[1].getChildren()[0])
if not rangeStart:
self.socket(self.bendCtrls[i]).twist.connect(
self.twistAdds[i - 1].input2D[1].getChildren()[1])
for i, res in enumerate(results):
# Create a bind joint for each result transform (special naming for midJoints)
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
if mirror:
res.scaleZ.set(-1)
res.rotateZ.set(180)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=res)
self.step(bind, 'bind')
# xform(bind, ws=1, ro=xform(jointsList[0], q=1, ws=1, ro=1))
self.bindList.append(bind)
bind.rotate.set(0, 0, 0)
bind.jointOrient.set(0, 0, 0)
# bind.attr('type').set(18)
# bind.otherType.set('%s' % i)
# bind.drawLabel.set(1)
bind.hide()
#=========================== Finalize =================================
finally:
try:
self.setController(bezierRigGroups[0], self.rigGroup)
self.setController(bezierRigGroups[1], self.rigGroup)
self.setController(crvPathRig, self.rigGroup)
except:
pass
try:
self.constructSelectionList(selectionName='bendCtrls',
selectionList=self.bendCtrls)
self.constructSelectionList(selectionName='tangentCtrls',
selectionList=self.tangentCtrls)
self.constructSelectionList(selectionName='offsetCtrls',
selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def __init__(self, fitNode=None, rigNode=None):
if fitNode is None and rigNode is None:
raise Exception('No data specified.')
elif fitNode is None:
self.rigNode = rigNode
# Put any attributes needed for initialized rigs here
else:
try:
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'bezierIK':
raise Exception('Incorrect rig type: %s' % fitNode.rigType.get())
self.crvs = []
buildRig.rig.__init__(self, fitNode)
# fitNode attributes
doFK = False
doOffsetFK = False # end joint orient failure
doParametric = True
doSplineIK = False
#
doStretchLimit = False
#
doVolume = False
doStretchLimit = self.fitNode.stretchLimits.get()
style = self.fitNode.style.get(asString=True)
if style == 'FK Only':
doSplineIK = False
doParametric = False
elif style == 'IK Only':
doFK = False
if doStretchLimit:
doSplineIK = True
elif style == 'IK to FK' or style == ' IK to FK':
doFK = True
doOffsetFK = True
if doStretchLimit:
doSplineIK = True
else:
doFK=True
doSplineIK = True
doParametric = True
# if doFK:
# raise Exception(style)
if not all([doParametric, doSplineIK]):
doStretchLimit = False
if not doFK:
doOffsetFK = False
jointsList = self.fitNode.jointsList.get()
numJoints = self.fitNode.resultPoints.get()+1
pointInput = self.fitNode.outputJoints.inputs()[:self.fitNode.resultPoints.get()+2]
fkShapes = self.fitNode.fkShapes.get()
ikShapes = [self.fitNode.startShape.get(), self.fitNode.endShape.get()]
tan1 = self.fitNode.tangent1.get()
tan2 = self.fitNode.tangent2.get()
orientation = self.fitNode.orientation.get(asString=True)
bindEnd = False
doBind = self.fitNode.bind.get()
if not doBind:
bindEnd = False
# Mirroring
if self.fitNode.side.get() == 2:
mirror=True
else:
mirror=False
if self.fitNode.mirror.get() is False:
mirror=False
# Move rigGroup
xform(self.rigGroup, ws=1, m=xform(jointsList[0], q=1, ws=1, m=1))
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
# NAMING
self.naming(0)
self.names = utils.constructNames(self.namesDict)
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('bezier', l=1)
utils.cbSep(self.rigNode)
if doFK and not doOffsetFK:
addAttr(self.rigNode, ct='publish', k=1, dv=0, min=0, max=1, ln='fkIk', nn='FK/IK')
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode, ct='publish', ln='autoVis', nn='FK/IK Auto Vis', at='short', min=0, max=1, dv=1)
setAttr(self.rigNode.autoVis, keyable=False, channelBox=True)
if doFK:
addAttr(self.rigNode, ct='publish', ln='fkVis', nn='FK Vis', at='short', min=0, max=1, dv=1)
setAttr(self.rigNode.fkVis, keyable=False, channelBox=True)
addAttr(self.rigNode, ct='publish', ln='ikVis', nn='IK Vis', at='short', min=0, max=1, dv=1)
setAttr(self.rigNode.ikVis, keyable=False, channelBox=True)
if doParametric or doSplineIK:
addAttr(self.rigNode, ct='publish', ln='offsetCtrlsVis', at='short', min=0, max=1, dv=0, k=1)
setAttr(self.rigNode.offsetCtrlsVis, keyable=False, channelBox=True)
utils.cbSep(self.rigNode, ct='publish')
# addAttr(self.rigNode, ln='bendCtrlsVis', nn='Bend Ctrl Vis', at='short', min=0, max=1, dv=1, k=1)
# setAttr(self.rigNode.bendCtrlsVis, k=0, cb=1)
addAttr(self.rigNode, ct='publish', ln='tangentCtrlsVis', min=0, max=1, dv=0, at='short', k=1)
setAttr(self.rigNode.tangentCtrlsVis, k=0, cb=1)
addAttr(self.rigNode, ln='tangentsDistanceScaling', softMinValue=0, softMaxValue=1, dv=0.5, k=1)
# addAttr(self.rigNode, ln='neutralizeAll', min=0, max=1, dv=1, k=1)
if doStretchLimit:
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode, ct='publish', ln='stretch', softMinValue=0, softMaxValue=1, dv=1, k=1)
addAttr(self.rigNode, ct='publish', ln='squash', softMinValue=0, softMaxValue=1, dv=1, k=1)
addAttr(self.rigNode, ct='publish', ln='restLength', min=0.01, dv=1, k=1)
# addAttr(self.rigNode, ln='currentNormalizedLength', dv=0)
# self.rigNode.currentNormalizedLength.set(k=0, cb=1)
if doVolume:
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode, ct='publish', ln='volume', min=0, max=1, dv=0.5, keyable=True)
if not hasAttr(self.rigNode, 'upAxis'):
utils.cbSep(self.rigNode)
addAttr(self.rigNode,ln='upAxis', at='enum', enumName='Y=1:Z=2', dv=1, k=1)
# ========================= Vis Mults =========================
# allVis Mults
ikVisMult = createNode('multDoubleLinear', n=self.names.get('ikVisMult', 'rnm_ikVisMult'))
self.rigNode.allVis >> ikVisMult.i1
self.rigNode.ikVis >> ikVisMult.i2
self.step(ikVisMult, 'ikVisMult')
self.ikVis = ikVisMult.o
if doFK:
fkVisMult = createNode('multDoubleLinear', n=self.names.get('fkVisMult', 'rnm_fkVisMult'))
self.rigNode.allVis >> fkVisMult.i1
self.rigNode.fkVis >> fkVisMult.i2
self.step(fkVisMult, 'fkVisMult')
self.fkVis = fkVisMult.o
debugVisMult = createNode('multDoubleLinear', n=self.names.get('debugVisMult', 'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
if doFK and not doOffsetFK:
#=================== FK/IK Autovis Setup =========================
self.sectionTag = 'fkIkAutoVis'
fkIkAutoMult = createNode('multDoubleLinear', n=self.names.get('fkIkAutoMult', 'rnm_fkIkAutoMult'))
self.rigNode.allVis >> fkIkAutoMult.i1
self.rigNode.autoVis >> fkIkAutoMult.i2
self.step(fkIkAutoMult, 'fkIkAutoMult')
fkCond = createNode('condition', n=self.names.get('fkCond', 'rnm_fkCond'))
fkCond.operation.set(4)
fkCond.secondTerm.set(0.9)
fkCond.colorIfTrue.set(1,1,1)
fkCond.colorIfFalse.set(0,0,0)
connectAttr(self.rigNode.fkIk, fkCond.firstTerm)
self.step(fkCond, 'fkCond')
ikCond = createNode('condition', n=self.names.get('ikCond', 'rnm_ikCond'))
fkCond.operation.set(4)
fkCond.secondTerm.set(0.9)
fkCond.colorIfTrue.set(1,1,1)
fkCond.colorIfFalse.set(0,0,0)
connectAttr(self.rigNode.fkIk, ikCond.firstTerm)
self.step(ikCond, 'ikCond')
fkAutoCond = createNode('condition', n=self.names.get('fkAutoCond', 'rnm_fkAutoCond'))
self.fkVis = fkAutoCond.outColorR
fkAutoCond.operation.set(0)
fkAutoCond.secondTerm.set(1)
connectAttr(fkIkAutoMult.o, fkAutoCond.firstTerm)
connectAttr(fkCond.outColorR, fkAutoCond.colorIfTrueR)
connectAttr(fkVisMult.o, fkAutoCond.colorIfFalseR)
connectAttr(fkVisMult.o, fkAutoCond.colorIfFalseG)
self.step(fkAutoCond, 'fkAutoCond')
ikAutoCond = createNode('condition', n=self.names.get('ikAutoCond', 'rnm_ikAutoCond'))
self.ikVis = ikAutoCond.outColorR
ikAutoCond.operation.set(0)
ikAutoCond.secondTerm.set(1)
connectAttr(fkIkAutoMult.o, ikAutoCond.firstTerm)
connectAttr(ikCond.outColorR, ikAutoCond.colorIfTrueR)
connectAttr(ikVisMult.o, ikAutoCond.colorIfFalseR)
connectAttr(ikVisMult.o, ikAutoCond.colorIfFalseG)
self.step(ikAutoCond, 'ikAutoCond')
# ========================= World Group =========================
worldGroup = createNode('transform', n=self.names.get('worldGroup', 'rnm_worldGroup'), p=self.rigGroup)
self.worldGroup = worldGroup
self.ikVis.connect(self.worldGroup.v)
self.step(worldGroup, 'worldGroup')
worldGroup.inheritsTransform.set(0)
xform(worldGroup, rp=[0,0,0], ro=[0,0,0], ws=1)
#=========================== FK Setup =================================
# if doFK:
# fkGroup = self.buildFkSetup(shapes=[fkShapes[0]], transforms=[jointsList[0]], mirror=mirror)
# for fkCtrl in self.fkCtrls:
# fkCtrl.message.connect(self.rigNode.fkCtrl)
#==========================================================================
#=========================== Bezier Setup =================================
bezierTransforms = []
if str(orientation) == 'world':
for trans in range(2):
bezierTransforms.append(createNode('transform', p=[jointsList[0], jointsList[-1]][trans]))
xform(bezierTransforms[trans], ro=[0,0,0], ws=1)
twistAxisChoice = 0 # Get from fitNode
if self.fitNode.orientation.get(asString=1) == 'world':
twistAxisChoice = self.fitNode.orientChoice.get() # Get from fitNode
bezierRigGroup = self.buildBezierSetup(
transforms=[jointsList[0], jointsList[-1]],
ctrlTransforms=bezierTransforms if bezierTransforms else None,
defaultTangents=[[None, tan1], [tan2, None]],
shapes=ikShapes,
follow=False,
twist=True,
bias=False,
twistAxisChoice=twistAxisChoice,
mirror=mirror,
# doStrength=True
)
self.ikVis.connect(bezierRigGroup.v)
bezierRigGroup.controlsVis.set(1)
if str(orientation) == 'world':
delete(bezierTransforms)
# Chest orientation
endOriCtrlSS = buildRig.spaceSwitch(
constraintType='orient',
controller = self.bendCtrls[1],
constrained= self.bendCtrls[1].const.get(),
prefix = self.names.get('endOriCtrlSS', 'rnm_endOriCtrlSS'),
p=self.rigGroup,
# p=self.ssGroup,
targets=[self.rigsGroup, self.bendCtrls[1].buf.get()],
labels=['World', 'Parent'],
offsets=True,
)
endOriCtrlSS.setDefaultBlend(1)
self.rigNode.tangentsDistanceScaling.connect(bezierRigGroup.tangentsDistanceScaling)
# if doFK:
# self.matrixConstraint(self.fkCtrls[-1], bezierRigGroup, r=1, s=1)
displaySmoothness(self.crvs[0], pointsWire=16)
if doParametric:
# Motion path groups
crvPathRig = self.buildCurvePartitionsSetup(
self.crvs[0],
nameVars='0',
partitionParams=[0, 1],
numJointsList=[numJoints],
mirror=mirror,
createOffsetControls=(False if doStretchLimit else True),
rotationStyle=(None if doStretchLimit else 'aim'),
twist=(False if doStretchLimit else True),
bindEnd=True
)
results = crvPathRig.results.get()
if doSplineIK:
ikSplineRig = self.buildIKSplineSetup(
crv=self.crvs[0],
points=pointInput,
mirror=mirror,
selectionPriority=2,
)
results = ikSplineRig.results.get()
# # =========================== Twist ===========================
# #### Bend ctrls
if doParametric and not doStretchLimit:
self.bendCtrls[0].twist.connect( self.twistAdds[0].input2D[0].getChildren()[0])
self.socket(self.bendCtrls[0]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[0])
self.bendCtrls[1].twist.connect( self.twistAdds[0].input2D[0].getChildren()[1])
self.socket(self.bendCtrls[1]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[1])
if doSplineIK:
self.bendCtrls[0].twist.connect( self.twistAdds[0].input2D[0].getChildren()[0])
self.socket(self.bendCtrls[0]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[0])
self.bendCtrls[1].twist.connect( self.twistAdds[0].input2D[0].getChildren()[1])
self.socket(self.bendCtrls[1]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[1])
# Squash and stretch limits
if doStretchLimit:
staticLocatorsGroup = createNode('transform', n=self.names.get('staticLocatorsGroup', 'rnm_staticLocatorsGroup'), p=ikSplineRig)
self.step(staticLocatorsGroup, 'staticLocatorsGroup')
bezLocs = []
staticBezLocs = []
i=0
print '\n'
print crvPathRig.results.get()
print ikSplineRig.results.get()
for bezPoint, ikJnt in zip(crvPathRig.results.get(), ikSplineRig.results.get()):
# if i==4:
# raise Exception('4')
bezLoc2 = createNode('locator', n='%s_dist_LOC' % bezPoint, p=bezPoint)
self.step(bezLoc2, 'bezLoc')
bezLoc2.hide()
bezLocs.append(bezLoc2)
#
staticBezPoint = createNode('transform', n=self.names.get('staticBezPoint', 'rnm_staticBezPoint'), p=staticLocatorsGroup)
self.step(staticBezPoint, 'staticBezPoint')
utils.snap(bezPoint, staticBezPoint)
staticBezLoc2 = createNode('locator', n='%s_dist_LOC' % staticBezPoint, p=staticBezPoint)
self.step(staticBezLoc2, 'staticBezLoc')
staticBezLoc2.hide()
staticBezLocs.append(staticBezLoc2)
if not i==0: # Skip 0
# Distance
bezLoc1 = bezLocs[i-1]
staticBezLoc1 = staticBezLocs[i-1]
bezDist = createNode('distanceBetween', n=self.names.get('bezDist', 'rnm_bezDist'))
self.step(bezDist, 'bezDist')
bezLoc1.worldPosition.connect(bezDist.point1)
bezLoc2.worldPosition.connect(bezDist.point2)
# Static distance
staticBezDist = createNode('distanceBetween', n=self.names.get('staticBezDist', 'rnm_staticBezDist'))
self.step(staticBezDist, 'staticBezDist')
staticBezLoc1.worldPosition.connect(staticBezDist.point1)
staticBezLoc2.worldPosition.connect(staticBezDist.point2)
# # Mult static by rig input
staticBezDistMult = createNode('multDoubleLinear', n=self.names.get('staticBezDistMult', 'rnm_staticBezDistMult'))
self.step(staticBezDistMult, 'staticBezDistMult')
staticBezDist.distance.connect(staticBezDistMult.i1)
self.rigNode.restLength.connect(staticBezDistMult.i2)
# Normalize
normalizeDiv = createNode('multiplyDivide', n=self.names.get('normalizeDiv', 'rnm_normalizeDiv'))
self.step(normalizeDiv, 'normalizeDiv')
normalizeDiv.operation.set(2)
bezDist.distance.connect(normalizeDiv.input1X)
staticBezDistMult.output.connect(normalizeDiv.input2X)
# Stretch
stretchBlend = createNode( 'blendTwoAttr', n=self.names.get('stretchBlend', 'rnm_stretchBlend') )
self.step(stretchBlend, 'stretchBlend')
stretchBlend.i[0].set(1)
normalizeDiv.outputX.connect(stretchBlend.i[1])
self.rigNode.stretch.connect(stretchBlend.ab)
# Squash
squashBlend = createNode( 'blendTwoAttr', n=self.names.get('squashBlend', 'rnm_squashBlend') )
self.step(squashBlend, 'squashBlend')
squashBlend.i[0].set(1)
normalizeDiv.outputX.connect(squashBlend.i[1])
self.rigNode.squash.connect(squashBlend.ab)
# Squash/Stretch combiner
squashStretchCond = createNode( 'condition', n=self.names.get('stretchBlend', 'rnm_stretchBlend') )
self.step(squashStretchCond, 'squashStretchCond')
squashStretchCond.operation.set(2) # Greater Than
normalizeDiv.outputX.connect(squashStretchCond.firstTerm)
squashStretchCond.secondTerm.set(1)
stretchBlend.o.connect(squashStretchCond.colorIfTrueR)
squashBlend.o.connect(squashStretchCond.colorIfFalseR)
restLengthMult = createNode('multDoubleLinear', n=self.names.get('restLengthMult', 'rnm_restLengthMult'))
self.step(restLengthMult, 'restLengthMult')
squashStretchCond.outColorR.connect(restLengthMult.i1)
self.rigNode.restLength.connect(restLengthMult.i2)
denormalizeMult = createNode('multDoubleLinear', n=self.names.get('denormalizeMult', 'rnm_denormalizeMult'))
self.step(denormalizeMult, 'denormalizeMult')
denormalizeMult.i1.set(bezDist.distance.get())
restLengthMult.o.connect(denormalizeMult.i2)
denormalizeMult.o.connect(ikJnt.tx)
i=i+1
results = ikSplineRig.results.get()
if doFK:
fkGroup = self.buildFkSetup(shapes=fkShapes, transforms=results, mirror=mirror)
self.fkVis.connect(fkGroup.v)
# FK Offset Option
if doOffsetFK:
boneIndic = utils.boneIndic(self.fkCtrls[-1], results[-1], blackGrey=1)[0]
self.debugVis.connect(boneIndic.v)
# Create an external result chain with edits (for bend control)
# Regular ik spline won't allow changes to orientation within heirarchy, but heirarchy still needs to be preserved to allow
# edits to fk offset controls (no constraints)
splineHierarchy = []
for i, point in enumerate(results):
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
splineRetarget = createNode( 'transform', n=self.names.get('splineRetarget', 'rnm_splineRetarget'), p=splineHierarchy[i-1] if i else ikSplineRig )
print splineRetarget
self.step(splineRetarget, 'splineRetarget')
splineHierarchy.append(splineRetarget)
if i==0:
self.matrixConstraint(point, splineRetarget, t=1, s=1, offset=False)
self.matrixConstraint(self.bendCtrls[0], splineRetarget, t=0, r=1, offset=False)
splineRetarget.t.connect(self.fkCtrls[i].buf.get().t)
splineRetarget.r.connect(self.fkCtrls[i].buf.get().r)
splineRetarget.s.connect(self.fkCtrls[i].buf.get().s)
elif point == results[-1] :
self.matrixConstraint(point, splineRetarget, t=1, s=1, offset=False)
self.matrixConstraint(self.bendCtrls[-1], splineRetarget, t=0, r=1, offset=False)
# endSS = buildRig.simpleSpaceSwitch(
# constraintType='orient',
# controller=self.fkCtrls[i],
# constrained=self.fkCtrls[i],
# prefix = self.names.get('endSS', 'rnm_endSS'),
# targets=[point, self.bendCtrls[-1]],
# labels=['Default', 'IK'],
# offsets=True,
# )
splineRetarget.t.connect(self.fkCtrls[i].buf.get().t)
splineRetarget.r.connect(self.fkCtrls[i].buf.get().r)
splineRetarget.s.connect(self.fkCtrls[i].buf.get().s)
else:
self.matrixConstraint(point, splineRetarget, t=1, r=1, s=1, offset=False)
# FK chain driven by IK rig
splineRetarget.t.connect(self.fkCtrls[i].buf.get().t)
splineRetarget.r.connect(self.fkCtrls[i].buf.get().r)
splineRetarget.s.connect(self.fkCtrls[i].buf.get().s)
results = self.fkCtrls
# FK/IK Switch Option
else:
fkIkGroup = createNode('transform', n=self.names.get('fkIkGroup', 'rnm_fkIkGroup'), p=self.rigGroup)
self.step(fkIkGroup, 'fkIkGroup')
switchGroup = createNode('transform', n=self.names.get('switchGroup','rnm_switchGroup'), p=fkIkGroup)
self.step(switchGroup, 'switchGroup')
self.publishList.append(switchGroup)
# ENTRANCE
fkEntrance = createNode('transform', n=self.names.get('fkEntrance', 'rnm_fkEntrance'), p=fkIkGroup)
self.step(fkEntrance, 'fkEntrance')
utils.snap(self.fkCtrls[0], fkEntrance)
self.matrixConstraint(self.fkCtrls[0], fkEntrance, t=1, r=0, s=0)
ikEntrance = createNode('transform', n=self.names.get('ikEntrance', 'rnm_ikEntrance'), p=fkIkGroup)
self.step(ikEntrance, 'ikEntrance')
utils.snap(results[0], ikEntrance)
self.matrixConstraint(results[0], ikEntrance, t=1, r=0, s=0)
self.matrixConstraint(self.bendCtrls[0], ikEntrance, t=0, r=1, s=1, offset=True)
rigEntrance = createNode('transform', n=self.names.get('rigEntrance', 'rnm_rigEntrance'), p=fkIkGroup)
self.step(rigEntrance, 'rigEntrance')
utils.snap(results[0], rigEntrance)
rigEntranceScaleBlend = createNode('blendColors', n=self.names.get('rigEntranceScaleBlend', 'rnm_rigEntranceScaleBlend'))
self.step(rigEntranceScaleBlend, 'rigEntranceScaleBlend')
fkEntrance.scale.connect(rigEntranceScaleBlend.color1)
ikEntrance.scale.connect(rigEntranceScaleBlend.color2)
self.rigNode.fkIk.connect(rigEntranceScaleBlend.blender)
rigEntranceScaleBlend.output.connect(rigEntrance.scale)
fkIkStartSS = buildRig.simpleSpaceSwitch(
constraintType='parent',
constrained= rigEntrance,
prefix = self.names.get('fkIkStartSS', 'rnm_fkIkStartSS'),
targets=[fkEntrance, ikEntrance],
labels=['FK', 'IK'],
offsets=True,
)
self.rigNode.fkIk.connect(fkIkStartSS.blendAttr)
self.matrixConstraint(ikEntrance, rigEntrance, t=0, r=0, s=1)
# EXIT
fkExit = createNode('transform', n=self.names.get('fkExit', 'rnm_fkExit'), p=fkIkGroup)
self.step(fkExit, 'fkExit')
utils.snap(self.fkCtrls[-1], fkExit)
self.matrixConstraint(self.fkCtrls[-1], fkExit, t=1, r=1, s=0)
ikExit = createNode('transform', n=self.names.get('ikExit', 'rnm_ikExit'), p=fkIkGroup)
self.step(ikExit, 'ikExit')
utils.snap(results[-1], ikExit)
self.matrixConstraint(results[-1], ikExit, t=1, r=0, s=0)
self.matrixConstraint(self.bendCtrls[-1], ikExit, t=0, r=1, s=1, offset=True)
rigExit = createNode('transform', n=self.names.get('rigExit', 'rnm_rigExit'), p=fkIkGroup)
self.step(rigExit, 'rigExit')
utils.snap(results[0], rigExit)
fkIkEndSS = buildRig.simpleSpaceSwitch(
constraintType='parent',
constrained= rigExit,
prefix = self.names.get('fkIkEndSS', 'rnm_fkIkEndSS'),
targets=[fkExit, ikExit],
labels=['FK', 'IK'],
offsets=True,
)
self.rigNode.fkIk.connect(fkIkEndSS.blendAttr)
rigExitScaleBlend = createNode('blendColors', n=self.names.get('rigExitScaleBlend', 'rnm_rigExitScaleBlend'))
self.step(rigExitScaleBlend, 'rigExitScaleBlend')
fkExit.scale.connect(rigExitScaleBlend.color1)
ikExit.scale.connect(rigExitScaleBlend.color2)
self.rigNode.fkIk.connect(rigExitScaleBlend.blender)
rigExitScaleBlend.output.connect(rigExit.scale)
# Points
switches = []
for i, point in enumerate(results):
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
# result transforms
switch = createNode('transform', n=self.names.get('switch', 'rnm_switch'), p=switchGroup)
utils.snap(point, switch)
self.step(switch, 'switch')
switches.append(switch)
fkIkSwitchSS = buildRig.simpleSpaceSwitch(
constrained= switch,
controller=self.rigNode.fkIk,
targets=[self.fkCtrls[i], results[i]],
labels=['FK', 'IK'],
prefix = self.names.get('fkIkSwitchSS', 'rnm_fkIkSwitchSS'),
constraintType='parent',
offsets=True,
)
# self.rigNode.fkIk.connect(fkIkSwitchSS.rigNode.parentSpaceBlend)
offsetResults = []
# Offset controls
for i, point in enumerate(results):
ctrlParent = None
if doOffsetFK:
ctrlParent = self.fkCtrls[i]
else:
ctrlParent = offsetResults[i-1] if i else switchGroup
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
par = self.fkCtrls[i] if doOffsetFK else switches[i]
offsetCtrl = self.createControlHeirarchy(
name=self.names.get('offsetCtrl', 'rnm_offsetCtrl'),
transformSnap=self.fkCtrls[i],
selectionPriority=2,
ctrlParent=ctrlParent,
outlinerColor = (0,0,0),
par=par)
offsetResults.append(offsetCtrl)
self.rigNode.offsetCtrlsVis.connect(offsetCtrl.buf.get().v)
results = offsetResults
results = self.buildScaleLengthSetup(scaleInputs=self.bendCtrls, distanceInputs=[results[0], results[1]], nodes=results, settingsNode=self.rigNode)
rigEntranceBuf = createNode('transform', n=self.names.get('rigEntranceBuf', 'rnm_rigEntranceBuf'), p=self.rigGroup)
self.step(rigEntranceBuf, 'rigEntranceBuf')
utils.snap(results[0], rigEntranceBuf)
# if style == 'IK Only' or style == 'IK to FK':
if style == 'IK Only':
self.matrixConstraint(self.bendCtrls[0], rigEntranceBuf, t=0, r=1, s=0, offset=False)
self.matrixConstraint(results[0].getParent(), rigEntranceBuf, t=1, r=0, s=1, offset=False)
else:
self.matrixConstraint(results[0].getParent(), rigEntranceBuf, t=1, r=1, s=1, offset=False)
rigEntrance = createNode('transform', n=self.names.get('rigEntrance', 'rnm_rigEntrance'), p=rigEntranceBuf)
self.step(rigEntrance, 'rigEntrance')
self.bendCtrls[0].twist.connect(rigEntrance.rx)
rigExitBuf = createNode('transform', n=self.names.get('rigExitBuf', 'rnm_rigExitBuf'), p=self.rigGroup)
self.step(rigExitBuf, 'rigExitBuf')
utils.snap(results[0], rigExitBuf)
if style == 'IK Only':
self.matrixConstraint(self.bendCtrls[-1], rigExitBuf, t=0, r=1, s=0, offset=False)
self.matrixConstraint(results[-1].getParent(), rigExitBuf, t=1, r=0, s=1, offset=False)
else:
self.matrixConstraint(results[-1].getParent(), rigExitBuf, t=1, r=1, s=1, offset=False)
rigExit = createNode('transform', n=self.names.get('rigExit', 'rnm_rigExit'), p=rigExitBuf)
self.step(rigExit, 'rigExit')
self.bendCtrls[-1].twist.connect(rigExit.rx)
results.insert(0, rigEntrance)
results.append(rigExit)
# results = []
print 'Results:'
print results
for i, point in enumerate(results):
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
if mirror:
point = self.socket(point)
# ctrl.rotateY.set(-180)
# ctrl.scaleX.set(-1)
point.message.connect(self.rigNode.socketList, na=1)
# self.socketList.append(point)
if doBind:
bind = createNode('joint', n=self.names.get('bind', 'rnm_bind'), p=point)
self.bindList.append(bind)
self.step(bind, 'bind')
bind.hide()
# rigExit = createNode('transform', n=self.names.get('rigExit', 'rnm_rigExit'), p=self.rigGroup)
# self.step(rigExit, 'rigExit')
# self.socket(rigExit).message.connect(self.rigNode.socketList, na=1)
# utils.snap(point, rigExit)
# self.matrixConstraint(point, rigExit, t=1, r=1, s=1, offset=True)
# if bindEnd:
# # # rig exit bind
# rigExitBind = createNode( 'joint', n=self.names.get( 'rigExitBind', 'rnm_rigExitBind'), p=rigExit )
# self.step(rigExitBind, 'rigExitBind')
# self.bindList.append(rigExitBind)
# rigExitBind.hide()
#=========================== Finalize =================================
except:
raise
finally:
# try:
# for bendCtrl in self.bendCtrls:
# attrs = bendCtrl.s.getChildren()
# for a in attrs:
# a.set(l=1, k=0)
# except:
# pass
# try:
# self.setController(fkGroup, self.rigGroup)
# self.setController(bezierRigGroup, self.rigGroup)
# except:
# pass
try:
self.constructSelectionList(selectionName='bendCtrls', selectionList=self.bendCtrls)
self.constructSelectionList(selectionName='tangentCtrls', selectionList=self.tangentCtrls)
self.constructSelectionList(selectionName='offsetCtrls', selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes', selectionList=self.freezeList)
except:
pass
self.finalize()
def coneAngleReader(base,
target,
prefix=None,
suffix=None,
targetOffset=1.0,
coneAxis=(0, 0, -1),
forwardAxis=(1, 0, 0),
coneAngle=90):
nodeList = []
freezeList = []
dev = 1
if prefix is None:
prefix = target.shortName()
names = {
'axisGroup': '%s_angleReader_GRP' % (prefix),
'baseVecProd': '%s_base_VP' % (prefix),
'targetVecProd': '%s_target_VP' % (prefix),
'angle': '%s_ANGBETW' % (prefix),
'mult': '%s_MULT' % (prefix),
'div': '%s_DIV' % (prefix),
'cond': '%s_COND' % (prefix),
'rev': '%s_REV' % (prefix),
'coneBuf': '%s_cone_BUF' % (prefix),
'previewCone': '%s_previewCone_GEO' % (prefix),
'radExpression': '%s_rad_EXPR' % (prefix),
'heightExpression': '%s_height_EXPR' % (prefix),
'transYExpression': '%s_transY_EXPR' % (prefix)
}
if dev: print names
axisGroup = createNode('transform',
n=names.get('axisGroup', 'rnm_axisGroup'),
p=base)
nodeList.append(axisGroup)
pointConstraint(target, axisGroup)
if dev: print axisGroup
baseVecProd = createNode('vectorProduct',
n=names.get('baseVecProd', 'rnm_baseVecProd'))
nodeList.append(baseVecProd)
axisGroup.worldMatrix.connect(baseVecProd.matrix)
baseVecProd.operation.set(3)
baseVecProd.normalizeOutput.set(1)
baseVecProd.input1.set(coneAxis)
if dev: print baseVecProd
targetVecProd = createNode('vectorProduct',
n=names.get('targetVecProd',
'rnm_targetVecProd'))
nodeList.append(targetVecProd)
target.worldMatrix.connect(targetVecProd.matrix)
targetVecProd.operation.set(3)
targetVecProd.normalizeOutput.set(1)
targetVecProd.input1.set(forwardAxis)
if dev: print targetVecProd
#reader custom attributes
if not hasAttr(target,
'coneAngle%s' % suffix.capitalize()) and not hasAttr(
target, 'value%s' % suffix.capitalize()):
rb.cbSep(target)
if not hasAttr(axisGroup, 'coneAngle%s' % suffix.capitalize()):
addAttr(axisGroup,
ln='coneAngle%s' % suffix.capitalize(),
at='double',
min=1,
max=359,
dv=coneAngle,
k=True)
if not hasAttr(axisGroup, 'value%s' % suffix.capitalize()):
addAttr(axisGroup, ln='value%s' % suffix.capitalize(), k=1)
axisGroup.attr('value%s' % suffix.capitalize()).set(k=0, cb=1)
coneAngleAttr = axisGroup.attr('coneAngle%s' % suffix.capitalize())
coneValueAttr = axisGroup.attr('value%s' % suffix.capitalize())
# Angle between
angle = createNode('angleBetween', n=names.get('angle', 'rnm_angle'))
nodeList.append(angle)
baseVecProd.output >> angle.vector1
targetVecProd.output >> angle.vector2
if dev: print angle
# Multiply
mult = createNode('multDoubleLinear', n=names.get('mult', 'rnm_mult'))
nodeList.append(mult)
coneAngleAttr >> mult.input1
mult.i2.set(0.5)
if dev: print mult
div = createNode('multiplyDivide', n=names.get('div', 'rnm_div'))
nodeList.append(div)
angle.angle >> div.input1X
mult.o >> div.input2X
div.operation.set(2)
if dev: print div
cond = createNode('condition', n=names.get('cond', 'rnm_cond'))
nodeList.append(cond)
div.outputX >> cond.firstTerm
div.outputX >> cond.colorIfTrueR
cond.secondTerm.set(1.0)
cond.operation.set(4)
if dev: print cond
# reverse
rev = createNode('reverse', n=names.get('rev', 'rnm_rev'))
nodeList.append(rev)
cond.outColor >> rev.input
rev.outputX >> coneValueAttr
if dev: print rev
# Cone preview
coneBuf = createNode('transform',
n=names.get('coneBuf', 'rnm_coneBuf'),
p=axisGroup)
nodeList.append(coneBuf)
if dev: print coneBuf
coneHeight = 1.0
previewConeTransform, previewCone = polyCone(n=names.get(
'previewCone', 'rnm_previewCone'),
r=1,
h=coneHeight,
sx=12,
sy=1,
sz=0,
ax=(0, -1, 0),
rcp=0,
cuv=3,
ch=1)
nodeList.append(previewConeTransform)
nodeList.append(previewCone)
previewConeTransform.overrideEnabled.set(1)
previewConeTransform.overrideDisplayType.set(2)
previewConeTransform.overrideShading.set(0)
parent(previewConeTransform, coneBuf)
previewConeTransform.translate.set([0, 0, 0])
previewConeTransform.rotate.set([0, 0, 0])
previewCone.createUVs.set(0)
if dev: print previewConeTransform
if dev: print previewCone
coneOri = createNode('transform', p=target)
coneOri.translate.set(coneAxis)
if dev: print coneOri
aim = aimConstraint(coneOri,
coneBuf,
aimVector=[0, 1, 0],
upVector=[0, 1, 0],
worldUpVector=forwardAxis,
worldUpObject=target,
worldUpType='objectRotation')
delete(aim)
delete(coneOri)
# Expressions
radExpression = expression(
s='%s=sind(%s*0.5)' % (previewCone.radius, coneAngleAttr),
o=previewCone,
ae=1,
uc='all',
name=names.get('radExpression', 'rnm_radExpression'))
heightExpression = expression(
s='%s=cosd(%s*0.5)' % (previewCone.height, coneAngleAttr),
o=previewCone,
ae=1,
uc='all',
name=names.get('heightExpression', 'rnm_heightExpression'))
transYExpression = expression(
s='%s=(%s/2)' % (previewConeTransform.translateY, previewCone.height),
o=previewCone,
ae=1,
uc='all',
name=names.get('transYExpression', 'rnm_transYExpression'))
if dev: print radExpression
if dev: print heightExpression
if dev: print transYExpression
nodeList.extend([radExpression, heightExpression, transYExpression])
# Finalize
rb.messageConnect(axisGroup, 'rigNodes', nodeList, 'angleReader')
if len(freezeList):
if not dev:
rb.lockAndHide(
freezeList,
['tx', 'ty', 'tz', 'rx', 'ry', 'rz', 'sx', 'sy', 'sz'])
col.setOutlinerRGB(freezeList, [0.36, 0.58, 0.64])
select(target)
def __init__(self, fitNode=None, rigNode=None):
if fitNode is None and rigNode is None:
raise Exception('No data specified.')
elif fitNode is None:
self.rigNode = rigNode
# Put any attributes needed for initialized rigs here
else:
try:
jointsList = fitNode.jointsList.get()
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'aimIK':
raise Exception('Incorrect rig type: %s' %
fitNode.rigType.get())
if fitNode.hasAttr('inbetweenJoints'):
inbetweenJoints = fitNode.inbetweenJoints.get()
else:
inbetweenJoints = 0
self.crvs = []
buildRig.rig.__init__(self, fitNode)
jointsList = fitNode.jointsList.get()
orientControlsList = [
fitNode.startOriCtrl.get(),
fitNode.endOriCtrl.get()
]
# Move rigGroup
xform(self.rigGroup,
ws=1,
m=xform(jointsList[0], q=1, ws=1, m=1))
# fitNode attributes
bindEnd = self.fitNode.bindEnd.get()
doFK = self.fitNode.fkEnable.get()
ikEndInherit = self.fitNode.ikEndInherit.get()
doStretch = self.fitNode.doStretch.get()
doTwist = self.fitNode.doTwist.get()
doVolume = self.fitNode.doVolume.get()
doScaling = self.fitNode.doScaling.get()
twistAxis = 0
if doFK:
fkShape = (self.fitNode.fkShape.get()
if self.fitNode.fkVis.get() else None)
else:
fkShape = None
ikShapes = [(self.fitNode.startShape.get()
if self.fitNode.ikVisStart.get() else None),
self.fitNode.endShape.get()
if self.fitNode.ikVisEnd.get() else None]
doIkStartCtrl = self.fitNode.ikVisStart.get()
doIkEndCtrl = self.fitNode.ikVisEnd.get()
twistAxisChoice = 0
# up = None:
up = self.fitNode.up.get()
# Mirroring
if self.fitNode.side.get() == 2:
mirror = True
else:
mirror = False
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
# print 'subnames:'
# print self.subNames
self.naming()
self.names = utils.constructNames(self.namesDict)
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('aimIK', l=1)
utils.cbSep(self.rigNode)
if doFK:
addAttr(self.rigNode,
ct='publish',
ln='fkVis',
nn='FK Vis',
at='short',
min=0,
max=1,
dv=1)
setAttr(self.rigNode.fkVis, keyable=False, channelBox=True)
addAttr(self.rigNode,
ct='publish',
ln='ikVis',
nn='IK Vis',
at='short',
min=0,
max=1,
dv=1)
setAttr(self.rigNode.ikVis, keyable=False, channelBox=True)
addAttr(self.rigNode,
ct='publish',
ln='offsetCtrlsVis',
min=0,
max=1,
dv=0,
keyable=1)
self.rigNode.offsetCtrlsVis.set(k=0, cb=1)
if doStretch:
addAttr(self.rigNode,
ct='publish',
ln='squash',
min=0,
max=1,
dv=1,
keyable=1)
addAttr(self.rigNode,
ct='publish',
ln='stretch',
min=0,
max=1,
dv=1,
keyable=1)
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode,
ct='publish',
ln='restLength',
min=0.01,
dv=1,
keyable=1)
addAttr(self.rigNode,
ct='publish',
ln='currentNormalizedLength',
min=0,
dv=1,
keyable=1)
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode,
ln='upAxis',
at='enum',
enumName='Y=1:Z=2',
dv=2,
k=1)
addAttr(self.rigNode,
ln='iKCtrlStart',
nn='IK Ctrl Start',
at='message')
addAttr(self.rigNode,
ln='iKCtrlEnd',
nn='IK Ctrl End',
at='message')
addAttr(self.rigNode,
ln='fkCtrl',
nn='FK Ctrl Start',
at='message')
# ========================= Vis Mults =========================
# allVis Mults
if doFK:
fkVisMult = createNode('multDoubleLinear',
n=self.names.get(
'fkVisMult', 'rnm_fkVisMult'))
self.rigNode.allVis >> fkVisMult.i1
self.rigNode.fkVis >> fkVisMult.i2
self.step(fkVisMult, 'fkVisMult')
self.fkVis = fkVisMult.o
ikVisMult = createNode('multDoubleLinear',
n=self.names.get(
'ikVisMult', 'rnm_ikVisMult'))
self.rigNode.allVis >> ikVisMult.i1
self.rigNode.ikVis >> ikVisMult.i2
self.step(ikVisMult, 'ikVisMult')
self.ikVis = ikVisMult.o
# offsetVisMult = createNode('multDoubleLinear', n=self.names.get('offsetVisMult', 'rnm_offsetVisMult'))
# self.rigNode.allVis >> offsetVisMult.i1
# self.rigNode.ikVis >> offsetVisMult.i2
# self.step(offsetVisMult, 'offsetVisMult')
# self.offsetVis = offsetVisMult.o
debugVisMult = createNode('multDoubleLinear',
n=self.names.get(
'debugVisMult',
'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
# ========================= World Group =========================
# worldGroup = createNode('transform', n=self.names.get('worldGroup', 'rnm_worldGroup'), p=self.rigGroup)
# self.worldGroup = worldGroup
# self.step(worldGroup, 'worldGroup')
# worldGroup.inheritsTransform.set(0)
# xform(worldGroup, rp=[0,0,0], ro=[0,0,0], ws=1)
#
self.ssGroup = createNode('transform',
n=self.names.get(
'ssGroup', 'rnm_ssGroup'),
p=self.rigGroup)
self.step(self.ssGroup, 'ssGroup')
# =========================== FK Setup =================================
if doFK:
fkGroup = self.buildFkSetup(shapes=[fkShape],
transforms=[jointsList[0]],
mirror=mirror)
self.fkVis.connect(fkGroup.v)
for fkCtrl in self.fkCtrls:
if self.dev:
print '\n\n'
print '%s' % self.rigsGroup
print '%s' % fkCtrl.buf.get()
fkCtrl.message.connect(self.rigNode.fkCtrl)
fkOriCtrlSS = buildRig.spaceSwitch(
constraintType='orient',
controller=fkCtrl,
constrained=fkCtrl.const.get(),
prefix=self.names.get('fkOriCtrlSS',
'rnm_fkOriCtrlSS'),
# p=self.rigGroup,
p=self.ssGroup,
targets=[self.rigsGroup,
fkCtrl.buf.get()],
labels=['World', 'Parent'],
offsets=True,
)
fkOriCtrlSS.setDefaultBlend(1)
# =========================== Aim Ik Setup =================================
aimIKGroup = self.buildAimIkSetup(
source=orientControlsList[0],
dest=orientControlsList[1],
worldUpLocation=up,
inbetweenJoints=inbetweenJoints,
controller=self.rigNode,
sourceShape=ikShapes[0],
destShape=ikShapes[1],
registerControls=[bool(doIkStartCtrl),
bool(doIkEndCtrl)],
stretch=doStretch,
twist=doTwist,
volume=doVolume,
scaling=doScaling,
twistAxisChoice=twistAxisChoice)
self.ikVis.connect(aimIKGroup.v)
aimIKGroup.results.get()[0].message.connect(
self.rigNode.socketList, na=1)
aimIKGroup.results.get()[1].message.connect(
self.rigNode.socketList, na=1)
# if doIkStartCtrl:
# startOriCtrlSS = buildRig.spaceSwitch(
# constraintType='orient',
# controller = self.aimCtrls[0],
# constrained= self.aimCtrls[0].const.get(),
# prefix = self.names.get('startOriCtrlSS', 'rnm_startOriCtrlSS'),
# p=self.ssGroup,
# targets=[self.rigsGroup, self.aimCtrls[0].buf.get()],
# labels=['World', 'Parent'],
# offsets=True,
# )
# startOriCtrlSS.setDefaultBlend(1)
# if doIkEndCtrl:
# endOriCtrlSS = buildRig.spaceSwitch(
# constraintType='orient',
# controller = self.aimCtrls[1],
# constrained= self.aimCtrls[1].const.get(),
# prefix = self.names.get('endOriCtrlSS', 'rnm_endOriCtrlSS'),
# p=self.ssGroup,
# # p=self.ssGroup,
# targets=[self.rigsGroup, self.aimCtrls[1].buf.get()],
# labels=['World', 'Parent'],
# offsets=True,
# )
# endOriCtrlSS.setDefaultBlend(1)
self.aimCtrls[0].message.connect(self.rigNode.iKCtrlStart)
self.aimCtrls[1].message.connect(self.rigNode.iKCtrlEnd)
if doFK:
self.matrixConstraint(self.socket(fkCtrl),
aimIKGroup,
r=1,
s=1,
offset=False)
for i, trans in enumerate(aimIKGroup.results.get()):
# If end is not being bound, skip last
if not bindEnd:
if trans is aimIKGroup.results.get()[-1]:
break
# Create a bind joint for each result transform (special naming for midJoints)
if inbetweenJoints:
n = i
else:
n = 0
self.naming(i=i, n=n)
self.names = utils.constructNames(self.namesDict)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=trans)
self.step(bind, 'bind')
xform(bind, ws=1, ro=xform(jointsList[0], q=1, ws=1, ro=1))
self.bindList.append(bind)
bind.hide()
# Create an exit node
self.rigExit = createNode('transform',
n=self.names.get(
'rigExit', 'rnm_rigExit'),
p=self.rigGroup)
# End result for translation, end control for rotation and scale
# T
self.matrixConstraint(self.socket(
aimIKGroup.results.get()[-1]),
self.rigExit,
t=1,
offset=False)
# R (snap offset from jointsList)
utils.snap(jointsList[-1], self.socket(self.aimCtrls[1]))
self.matrixConstraint(self.socket(self.aimCtrls[1]),
self.rigExit,
t=0,
r=1,
s=1,
offset=False)
self.step(self.rigExit, 'rigExit')
self.rigExit.message.connect(self.rigNode.socketList, na=1)
self.naming(i=2)
self.names = utils.constructNames(self.namesDict)
doFootRoll = False
if hasAttr(self.fitNode, 'subNode'):
if self.fitNode.subNode.get():
if self.fitNode.subNode.get().rigType.get(
) == 'footRoll':
if self.fitNode.subNode.get().build.get():
if self.dev:
print 'FOOTROLL:'
print self.fitNode.subNode.get()
doFootRoll = True
if not doFootRoll:
if bindEnd:
# No need for exit bind if there's a rigExtension (expand to include hand rig when it's done)
rigExitBind = createNode('joint',
n=self.names.get(
'rigExitBind',
'rnm_rigExitBind'),
p=self.rigExit)
self.step(rigExitBind, 'rigExitBind')
self.bindList.append(rigExitBind)
rigExitBind.hide()
else:
# self.buildFootRollSetup(self.fitNode.subNode.get()) AIMIK
pass
#=========================== Finalize =================================
finally:
try:
if doFK:
for fkCtrl in self.fkCtrls:
self.socket(fkCtrl).message.connect(
self.rigNode.socketList, na=1)
except:
pass
try:
if doFK:
self.setController(fkRigGroup, self.rigGroup)
self.setController(aimIKGroup, self.rigGroup)
except:
pass
try:
if doFK:
self.constructSelectionList(selectionName='fkCtrls',
selectionList=self.fkCtrls)
self.constructSelectionList(selectionName='aimCtrls',
selectionList=self.aimCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def __init__(self, fitNode=None, rigNode=None):
if fitNode is None and rigNode is None:
raise Exception('No data specified.')
elif fitNode is None:
self.rigNode = rigNode
# Put any attributes needed for initialized rigs here
else:
jointsList = fitNode.jointsList.get()
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'chain':
raise Exception('Incorrect rig type: %s' %
fitNode.rigType.get())
self.crvs = []
buildRig.rig.__init__(self, fitNode)
jointsList = fitNode.jointsList.get()
# Move rigGroup
xform(self.rigGroup, ws=1, m=xform(jointsList[0], q=1, ws=1, m=1))
# fitNode attributes
fkShapes = self.fitNode.fkShapes.get()
ikShapes = self.fitNode.ikShapes.get()
doCloseLoop = False
if hasAttr(self.fitNode, 'closeLoop'):
doCloseLoop = bool(self.fitNode.closeLoop.get())
doFK = True
if hasAttr(self.fitNode, 'doFK'):
doFK = bool(self.fitNode.doFK.get())
doBend = True
if hasAttr(self.fitNode, 'doBend'):
doBend = bool(self.fitNode.doBend.get())
autoTwist = True
if hasAttr(self.fitNode, 'autoTwist'):
autoTwist = bool(self.fitNode.autoTwist.get())
doOffsets = True
if hasAttr(self.fitNode, 'offsets'):
doOffsets = bool(self.fitNode.offsets.get())
fkTwist = True
if hasAttr(self.fitNode, 'fkTwist'):
fkTwist = bool(self.fitNode.fkTwist.get())
if not doFK:
fkTwist = False
doBias = False
if hasAttr(self.fitNode, 'doBias'):
doBias = bool(self.fitNode.doBias.get())
inbetweenJoints = 4
if hasAttr(self.fitNode, 'inbetweenJoints'):
inbetweenJoints = self.fitNode.inbetweenJoints.get()
rotationStyle = 'aim'
if hasAttr(self.fitNode, 'rotationStyle'):
rotationStyle = self.fitNode.rotationStyle.get(asString=True)
doNeutralize = 'aim'
if hasAttr(self.fitNode, 'doNeutralize'):
doNeutralize = bool(self.fitNode.doNeutralize.get())
twistAxis = 0
numJointsList = []
for i in range(len(jointsList)):
if not i == 0:
if i == len(jointsList):
numJointsList.append(inbetweenJoints + 1)
else:
numJointsList.append(inbetweenJoints)
# Mirroring
if self.fitNode.side.get() == 2:
mirror = True
else:
mirror = False
if self.fitNode.mirror.get() is False:
mirror = False
# Per joint mirroring
mirrorList = []
for jnt in jointsList:
if jnt.autoMirror.get() is False:
mirrorList.append(False)
elif jnt.side.get() == 2:
mirrorList.append(True)
else:
mirrorList.append(False)
print 'mirrorList:'
print mirrorList
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
# print 'subnames:'
# print self.subNames
self.naming(0)
self.names = utils.constructNames(self.namesDict)
try:
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('bezier', l=1)
utils.cbSep(self.rigNode)
# addAttr(self.rigNode, ln='ikVis', nn='IK Vis', at='short', min=0, max=1, dv=1)
# setAttr(self.rigNode.ikVis, keyable=False, channelBox=True)
if doBend:
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ct='publish',
ln='bendCtrlsVis',
nn='Bend Ctrl Vis',
at='short',
min=0,
max=1,
dv=1,
k=1)
setAttr(self.rigNode.bendCtrlsVis, k=0, cb=1)
addAttr(self.rigNode,
ct='publish',
ln='tangentCtrlsVis',
min=0,
max=1,
dv=0,
at='short',
k=1)
setAttr(self.rigNode.tangentCtrlsVis, k=0, cb=1)
addAttr(self.rigNode,
ct='publish',
ln='offsetsCtrlsVis',
min=0,
max=1,
dv=0,
at='short',
k=1)
setAttr(self.rigNode.offsetsCtrlsVis, k=0, cb=1)
if not hasAttr(self.rigNode, 'upAxis'):
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ln='upAxis',
at='enum',
enumName='Y=1:Z=2',
dv=1,
k=1)
addAttr(self.rigNode,
ln='tangentsDistanceScaling',
softMinValue=0,
softMaxValue=1,
dv=0.5,
k=1)
# ========================= Vis Mults =========================
# allVis Mults
# ikVisMult = createNode('multDoubleLinear', n=self.names.get('ikVisMult', 'rnm_ikVisMult'))
# self.rigNode.allVis >> ikVisMult.i1
# self.rigNode.ikVis >> ikVisMult.i2
# self.step(ikVisMult, 'ikVisMult')
bendVisMult = createNode('multDoubleLinear',
n=self.names.get(
'bendVisMult', 'rnm_bendVisMult'))
self.bendVis = bendVisMult.o
self.rigNode.allVis >> bendVisMult.i1
self.rigNode.bendCtrlsVis >> bendVisMult.i2
self.step(bendVisMult, 'bendVisMult')
debugVisMult = createNode('multDoubleLinear',
n=self.names.get(
'debugVisMult',
'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
tangentVisMult = createNode('multDoubleLinear',
n=self.names.get(
'tangentVisMult',
'rnm_tangentVisMult'))
self.tangentVis = tangentVisMult.o
self.rigNode.allVis >> tangentVisMult.i1
self.rigNode.tangentCtrlsVis >> tangentVisMult.i2
self.step(tangentVisMult, 'tangentVisMult')
offsetsVisMult = createNode('multDoubleLinear',
n=self.names.get(
'offsetsVisMult',
'rnm_offsetsVisMult'))
self.offsetsVis = offsetsVisMult.o
self.rigNode.allVis >> offsetsVisMult.i1
self.rigNode.offsetsCtrlsVis >> offsetsVisMult.i2
self.step(offsetsVisMult, 'offsetsVisMult')
# ========================= World Group =========================
worldGroup = createNode('transform',
n=self.names.get(
'worldGroup', 'rnm_worldGroup'),
p=self.rigGroup)
self.worldGroup = worldGroup
self.step(worldGroup, 'worldGroup')
worldGroup.inheritsTransform.set(0)
xform(worldGroup, rp=[0, 0, 0], ro=[0, 0, 0], ws=1)
# =========================== FK Setup =================================
if doFK:
fkGroup = self.buildFkSetup(shapes=fkShapes,
transforms=jointsList,
mirror=mirror)
if doOffsets:
offsetGroup = createNode('transform',
n=self.names.get(
'offsetGroup',
'rnm_offsetGroup'),
p=self.rigGroup)
self.step(offsetGroup, 'offsetGroup')
self.offsetCtrls = []
for i, jnt in enumerate(jointsList):
par = self.fkCtrls[i] if doFK else offsetGroup
ctrlPar = None
if i:
ctrlPar = self.offsetCtrls[i - 1]
if doFK:
ctrlpar = self.fkCtrls[i]
offsetCtrl = self.createControlHeirarchy(
name=self.names.get('offsetCtrl',
'rnm_offsetCtrl'),
transformSnap=jnt,
selectionPriority=0,
shape=ikShapes[i],
ctrlParent=ctrlPar,
outlinerColor=(0, 0, 0),
par=par)
self.offsetCtrls.append(offsetCtrl)
# for fkCtrl in self.fkCtrls:
# fkCtrl.message.connect(self.rigNode.fkCtrls, )
#=========================== Bezier Setup =================================
transforms = jointsList
if doFK:
transforms = self.fkCtrls
if doOffsets:
transforms = self.offsetCtrls
bezierRigGroup = self.buildBezierSetup(
transforms=transforms,
ctrlTransforms=transforms,
shapes=fkShapes,
follow=True if doFK or doOffsets else False,
twist=autoTwist,
bias=doBias,
twistAxisChoice=0,
doNeutralize=doNeutralize,
mirror=mirrorList,
bezChain=doFK,
closeLoop=doCloseLoop)
self.bendVis.connect(bezierRigGroup.controlsVis)
self.rigNode.tangentsDistanceScaling.connect(
bezierRigGroup.tangentsDistanceScaling)
for ctrl in self.bendCtrls:
if doNeutralize:
ctrl.neutralize.set(1)
ctrl.magnitude.set(1)
#=========================== Bend Setup =================================
# bendRigGroup = self.buildMidBendCurveSetup(transforms=self.fkCtrls, follow=True, shapes=ikShapes, controller=self.rigNode, mirror=mirror)
# if self.dev: print 'Control uValues: %s' % (bezierRigGroup.uValues.get())
crvPathRig = self.buildCurvePartitionsSetup(
self.crvs[0],
partitionParams=bezierRigGroup.uValues.get(),
constraintTargets=(self.fkCtrls[:-1] if doFK else None),
numJointsList=numJointsList,
mirror=mirror,
createOffsetControls=True,
rotationStyle=rotationStyle,
twist=True)
results = crvPathRig.results.get()
self.offsetsVis.connect(crvPathRig.v)
for i in range(len(self.bendCtrls)):
# addAttr(crvPathRig, ln='partitionParameters', multi=True, numberOfChildren=3, k=1)
if self.dev:
print bezierRigGroup
print bezierRigGroup.attr('uValues%s' % i)
print bezierRigGroup.attr('uValues%s' % i).get()
print crvPathRig
print crvPathRig.attr('partitionParameter%s' % i)
print crvPathRig.attr('partitionParameter%s' % i).get()
print '\n'
bezierRigGroup.attr('uValues%s' % i).connect(
crvPathRig.attr('partitionParameter%s' % i))
twistSettingsList = []
if fkTwist:
for i in range(len(jointsList)):
twistSettings = self.socket(self.fkCtrls[i])
buildRig.twistExtractorMatrix(
self.fkCtrls[i], (self.fkCtrls[i].buf.get()),
settingsNode=twistSettings)
twistSettings.mult.set(-1)
twistSettingsList.append(twistSettings)
for i in range(len(self.bendCtrls)):
# addAttr(self.bendCtrls[i], ln='twist', k=1)
rangeStart = True if i == 0 else False
rangeEnd = True if i == (len(self.bendCtrls) -
1) else False
if not rangeEnd:
self.bendCtrls[i].twist.connect(
self.twistAdds[i].input2D[0].getChildren()[0])
if not rangeStart:
self.bendCtrls[i].twist.connect(
self.twistAdds[i - 1].input2D[0].getChildren()[1])
if autoTwist:
if not rangeEnd:
self.socket(self.bendCtrls[i]).twist.connect(
self.twistAdds[i].input2D[1].getChildren()[0])
if not rangeStart:
self.socket(self.bendCtrls[i]).twist.connect(
self.twistAdds[i -
1].input2D[1].getChildren()[1])
if fkTwist:
for i in range(len(self.fkCtrls)):
rangeEnd = True if i == (len(self.bendCtrls) -
1) else False
if not rangeEnd:
(twistSettingsList[i].twist.connect(
self.twistAdds[i].input2D[2].getChildren()[0]))
# if scaling:
nodes0 = crvPathRig.results.get(
)[:len(crvPathRig.results.get()) / 2]
nodes1 = crvPathRig.results.get(
)[len(crvPathRig.results.get()) / 2:]
scaleLengthGroup0 = self.buildScaleLengthSetup(
scaleInputs=bezierRigGroup.ctrls.get()[:2],
nodes=nodes0,
settingsNode=self.rigNode)
scaleLengthGroup1 = self.buildScaleLengthSetup(
scaleInputs=bezierRigGroup.ctrls.get()[1:],
nodes=nodes1,
settingsNode=self.rigNode)
print scaleLengthGroup0
print scaleLengthGroup1
results = scaleLengthGroup0 + scaleLengthGroup1
for i, res in enumerate(results):
# Create a bind joint for each result transform (special naming for midJoints)
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
res.message.connect(self.rigNode.socketList, na=1)
if mirror:
res.scaleZ.set(-1)
res.rotateZ.set(180)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=res)
self.step(bind, 'bind')
# xform(bind, ws=1, ro=xform(jointsList[0], q=1, ws=1, ro=1))
self.bindList.append(bind)
bind.rotate.set(0, 0, 0)
bind.jointOrient.set(0, 0, 0)
# bind.attr('type').set(18)
# bind.otherType.set('%s' % i)
# bind.drawLabel.set(1)
bind.hide()
#=========================== Finalize =================================
finally:
try:
self.setController(fkGroup, self.rigGroup)
self.setController(bezierRigGroup, self.rigGroup)
self.setController(crvPathRig, self.rigGroup)
except:
pass
try:
self.constructSelectionList(selectionName='bendCtrls',
selectionList=self.bendCtrls)
self.constructSelectionList(
selectionName='tangentCtrls',
selectionList=self.tangentCtrls)
self.constructSelectionList(selectionName='offsetCtrls',
selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def __init__(self, fitNode=None, rigNode=None):
if fitNode is None and rigNode is None:
raise Exception('No data specified.')
elif fitNode is None:
self.rigNode = rigNode
# Put any attributes needed for initialized rigs here
else:
jointsList = fitNode.jointsList.get()
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'chain':
raise Exception('Incorrect rig type: %s' %
fitNode.rigType.get())
self.crvs = []
buildRig.rig.__init__(self, fitNode)
jointsList = fitNode.jointsList.get()
# Move rigGroup
xform(self.rigGroup, ws=1, m=xform(jointsList[0], q=1, ws=1, m=1))
# fitNode attributes
fkShapes = self.fitNode.fkShapes.get()
endShapes = self.fitNode.ikShapes.get()
# midShapes = self.fitNode.midShapes.get()
numJointsList = []
for i in range(len(jointsList)):
if not i == 0:
if i == len(jointsList):
numJointsList.append(3)
else:
numJointsList.append(2)
# Mirroring
if self.fitNode.side.get() == 2:
mirror = True
else:
mirror = False
if self.fitNode.mirror.get() is False:
mirror = False
doBend = True
doFK = False
oneCurve = False
autoTwist = True
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
# print 'subnames:'
# print self.subNames
self.naming(0)
self.names = utils.constructNames(self.namesDict)
try:
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('midBendChain', l=1)
if self.doFK:
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ln='fkVis',
nn='FK Vis',
at='short',
min=0,
max=1,
dv=1)
setAttr(self.rigNode.fkVis, keyable=False, channelBox=True)
addAttr(self.rigNode,
ct='publish',
ln='offsetCtrlsVis',
at='short',
min=0,
max=1,
dv=0,
k=1)
setAttr(self.rigNode.offsetCtrlsVis, k=0, cb=1)
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ct='publish',
ln='bendCtrlsVis',
nn='Bend Ctrl Vis',
at='short',
min=0,
max=1,
dv=1,
k=1)
setAttr(self.rigNode.bendCtrlsVis, k=0, cb=1)
if not hasAttr(self.rigNode, 'upAxis'):
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ln='upAxis',
at='enum',
enumName='Y=1:Z=2',
dv=1,
k=1)
# ========================= Vis Mults =========================
# allVis Mults
if self.doFK:
fkVisMult = createNode('multDoubleLinear',
n=self.names.get(
'fkVisMult', 'rnm_fkVisMult'))
self.fkCtrlsVis = fkVisMult.o
self.rigNode.allVis >> fkVisMult.i1
self.rigNode.fkVis >> fkVisMult.i2
self.step(fkVisMult, 'fkVisMult')
bendVisMult = createNode('multDoubleLinear',
n=self.names.get(
'bendVisMult', 'rnm_bendVisMult'))
self.bendCtrlsVis = bendVisMult.o
self.rigNode.allVis >> bendVisMult.i1
self.rigNode.bendCtrlsVis >> bendVisMult.i2
self.step(bendVisMult, 'bendVisMult')
offsetVisMult = createNode('multDoubleLinear',
n=self.names.get(
'offsetVisMult',
'rnm_ikVisMult'))
self.offsetCtrlsVis = offsetVisMult.o
self.rigNode.allVis >> offsetVisMult.i1
self.rigNode.offsetCtrlsVis >> offsetVisMult.i2
self.step(offsetVisMult, 'offsetVisMult')
debugVisMult = createNode('multDoubleLinear',
n=self.names.get(
'debugVisMult',
'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
# ========================= World Group =========================
worldGroup = createNode('transform',
n=self.names.get(
'worldGroup', 'rnm_worldGroup'),
p=self.rigGroup)
self.worldGroup = worldGroup
self.step(worldGroup, 'worldGroup')
worldGroup.inheritsTransform.set(0)
xform(worldGroup, rp=[0, 0, 0], ro=[0, 0, 0], ws=1)
# =========================== FK Setup =================================
if self.doFK:
fkGroup = self.buildFkSetup(shapes=fkShapes,
transforms=jointsList,
mirror=mirror)
self.fkCtrlsVis.connect(fkGroup.v)
self.fkCtrls = fkGroup.results.get()
# for fkCtrl in self.fkCtrls:
# fkCtrl.message.connect(self.rigNode.fkCtrls, )
#=========================== Bend Setup =================================
bendRigGroup = self.buildMidBendCurveSetup(
transforms=(self.fkCtrls if self.doFK else jointsList),
follow=(True if self.doFK else False),
shapes=endShapes,
controller=self.rigNode,
mirror=mirror)
# print numJointsList
# print bendRigGroup.uValues.get()
crvPathRig = self.buildCurvePartitionsSetup(
self.crvs[0],
constraintTargets=(self.fkCtrls[:-1]
if self.doFK else self.bendCtrls[:-1]),
partitionParams=bendRigGroup.uValues.get(),
numJointsList=numJointsList,
mirror=mirror,
createOffsetControls=True,
rotationStyle='aim',
twist=True)
results = crvPathRig.results.get()
self.offsetCtrlsVis.connect(crvPathRig.v)
for i in range(len(jointsList)):
# addAttr(crvPathRig, ln='partitionParameters', multi=True, numberOfChildren=3, k=1)
print bendRigGroup
print bendRigGroup.attr('uValues%s' % i)
print bendRigGroup.attr('uValues%s' % i).get()
print crvPathRig
print crvPathRig.attr('partitionParameter%s' % i)
print crvPathRig.attr('partitionParameter%s' % i).get()
print '\n'
bendRigGroup.attr('uValues%s' % i).connect(
crvPathRig.attr('partitionParameter%s' % i))
twistSettingsList = []
if autoTwist:
for i in range(len(self.bendCtrls)):
twistSettings = self.socket(self.bendCtrls[i])
twistExtractorMatrix(
self.bendCtrls[i],
(self.fkCtrls[0].buf.get()
if self.doFK else self.bendCtrls[i].buf.get()),
settingsNode=twistSettings)
twistSettingsList.append(twistSettings)
for i in range(len(self.bendCtrls)):
print '\n%s' % i
addAttr(self.bendCtrls[i], ln='twist', k=1)
rangeStart = True if i == 0 else False
rangeEnd = True if i == (len(self.bendCtrls) -
1) else False
if not rangeEnd:
self.bendCtrls[i].twist.connect(
self.twistAdds[i].input2D[0].getChildren()[0])
if not rangeStart:
self.bendCtrls[i].twist.connect(
self.twistAdds[i - 1].input2D[0].getChildren()[1])
if autoTwist:
if not rangeEnd:
twistSettingsList[i].twist.connect(
self.twistAdds[i].input2D[1].getChildren()[0])
if not rangeStart:
twistSettingsList[i].twist.connect(
self.twistAdds[i -
1].input2D[1].getChildren()[1])
# self.bendCtrls[i-1].percentage.connect(offsetsGroup.startPoint)
# self.bendCtrls[i-1].twist.connect(offsetsGroup.startTwist)
# self.bendCtrls[i].percentage.connect(offsetsGroup.endPoint)
# self.bendCtrls[i].twist.connect(offsetsGroup.endTwist)
for i, res in enumerate(results):
# Create a bind joint for each result transform (special naming for midJoints)
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=res)
self.step(bind, 'bind')
xform(bind, ws=1, ro=xform(jointsList[0], q=1, ws=1, ro=1))
self.bindList.append(bind)
# bind.attr('type').set(18)
# bind.otherType.set('%s' % i)
# bind.drawLabel.set(1)
bind.hide()
#=========================== Finalize =================================
finally:
self.setController(fkRigGroup, self.rigGroup)
self.setController(bezierRigGroup, self.rigGroup)
self.setController(crvPathRig, self.rigGroup)
try:
self.constructSelectionList(selectionName='bendCtrls',
selectionList=self.bendCtrls)
self.constructSelectionList(
selectionName='tangentCtrls',
selectionList=self.tangentCtrls)
self.constructSelectionList(selectionName='offsetCtrls',
selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def __init__(self, fitNode, crv, pointInput):
with UndoChunk():
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
# if isinstance(fitNode, str):
# fitNode = ls(fitNode)[0]
# if fitNode.rigType.get() != 'bezierIK':
# raise Exception('Incorrect rig type: %s' % fitNode.rigType.get())
self.crv = crv
buildRig.rig.__init__(self, fitNode)
# Move rigGroup
# xform(self.rigGroup, ws=1, m=xform(jointsList[0], q=1, ws=1, m=1))
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
doParametric = True
doSplineIK = True
# NAMING
self.naming(0)
self.names = utils.constructNames(self.namesDict)
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('curveDrivenIK', l=1)
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ct='publish',
ln='offsetCtrlsVis',
at='short',
min=0,
max=1,
dv=0,
k=1)
setAttr(self.rigNode.offsetCtrlsVis,
keyable=False,
channelBox=True)
utils.cbSep(self.rigNode, ct='publish')
# addAttr(self.rigNode, ln='bendCtrlsVis', nn='Bend Ctrl Vis', at='short', min=0, max=1, dv=1, k=1)
# setAttr(self.rigNode.bendCtrlsVis, k=0, cb=1)
# addAttr(self.rigNode, ln='neutralizeAll', min=0, max=1, dv=1, k=1)
utils.cbSep(self.rigNode, ct='publish')
addAttr(self.rigNode,
ct='publish',
ln='stretch',
softMinValue=0,
softMaxValue=1,
dv=1,
k=1)
addAttr(self.rigNode,
ct='publish',
ln='squash',
softMinValue=0,
softMaxValue=1,
dv=1,
k=1)
addAttr(self.rigNode,
ct='publish',
ln='restLength',
min=0.01,
dv=1,
k=1)
# addAttr(self.rigNode, ln='currentNormalizedLength', dv=0)
# self.rigNode.currentNormalizedLength.set(k=0, cb=1)
if not hasAttr(self.rigNode, 'upAxis'):
utils.cbSep(self.rigNode)
addAttr(self.rigNode,
ln='upAxis',
at='enum',
enumName='Y=1:Z=2',
dv=1,
k=1)
debugVisMult = createNode('multDoubleLinear',
n=self.names.get('debugVisMult',
'rnm_debugVisMult'))
self.debugVis = debugVisMult.o
self.rigNode.allVis >> debugVisMult.i1
self.rigNode.debugVis >> debugVisMult.i2
self.step(debugVisMult, 'debugVisMult')
# ========================= World Group =========================
worldGroup = createNode('transform',
n=self.names.get('worldGroup',
'rnm_worldGroup'),
p=self.rigGroup)
self.worldGroup = worldGroup
self.step(worldGroup, 'worldGroup')
worldGroup.inheritsTransform.set(0)
xform(worldGroup, rp=[0, 0, 0], ro=[0, 0, 0], ws=1)
try:
# if doFK:
# self.matrixConstraint(self.fkCtrls[-1], bezierRigGroup, r=1, s=1)
displaySmoothness(self.crv, pointsWire=16)
ikSplineRig = self.buildIKSplineSetup(
crv=self.crv,
points=pointInput,
selectionPriority=2,
)
results = ikSplineRig.results.get()
# # # =========================== Twist ===========================
# # #### Bend ctrls
# if doParametric and not doStretchLimit:
# self.bendCtrls[0].twist.connect( self.twistAdds[0].input2D[0].getChildren()[0])
# self.socket(self.bendCtrls[0]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[0])
# self.bendCtrls[1].twist.connect( self.twistAdds[0].input2D[0].getChildren()[1])
# self.socket(self.bendCtrls[1]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[1])
# if doSplineIK:
# self.bendCtrls[0].twist.connect( self.twistAdds[0].input2D[0].getChildren()[0])
# self.socket(self.bendCtrls[0]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[0])
# self.bendCtrls[1].twist.connect( self.twistAdds[0].input2D[0].getChildren()[1])
# self.socket(self.bendCtrls[1]).twist.connect( self.twistAdds[0].input2D[1].getChildren()[1])
# staticLocatorsGroup = createNode('transform', n=self.names.get('staticLocatorsGroup', 'rnm_staticLocatorsGroup'), p=ikSplineRig)
# self.step(staticLocatorsGroup, 'staticLocatorsGroup')
# bezLocs = []
# staticBezLocs = []
# i=0
# print '\n'
# print crvPathRig.results.get()
# print ikSplineRig.results.get()
# for bezPoint, ikJnt in zip(crvPathRig.results.get(), ikSplineRig.results.get()):
# # if i==4:
# # raise Exception('4')
# bezLoc2 = createNode('locator', n='%s_dist_LOC' % bezPoint, p=bezPoint)
# self.step(bezLoc2, 'bezLoc')
# bezLoc2.hide()
# bezLocs.append(bezLoc2)
# #
# staticBezPoint = createNode('transform', n=self.names.get('staticBezPoint', 'rnm_staticBezPoint'), p=staticLocatorsGroup)
# self.step(staticBezPoint, 'staticBezPoint')
# utils.snap(bezPoint, staticBezPoint)
# staticBezLoc2 = createNode('locator', n='%s_dist_LOC' % staticBezPoint, p=staticBezPoint)
# self.step(staticBezLoc2, 'staticBezLoc')
# staticBezLoc2.hide()
# staticBezLocs.append(staticBezLoc2)
# if not i==0: # Skip 0
# # Distance
# bezLoc1 = bezLocs[i-1]
# staticBezLoc1 = staticBezLocs[i-1]
# bezDist = createNode('distanceBetween', n=self.names.get('bezDist', 'rnm_bezDist'))
# self.step(bezDist, 'bezDist')
# bezLoc1.worldPosition.connect(bezDist.point1)
# bezLoc2.worldPosition.connect(bezDist.point2)
# # Static distance
# staticBezDist = createNode('distanceBetween', n=self.names.get('staticBezDist', 'rnm_staticBezDist'))
# self.step(staticBezDist, 'staticBezDist')
# staticBezLoc1.worldPosition.connect(staticBezDist.point1)
# staticBezLoc2.worldPosition.connect(staticBezDist.point2)
# # # Mult static by rig input
# staticBezDistMult = createNode('multDoubleLinear', n=self.names.get('staticBezDistMult', 'rnm_staticBezDistMult'))
# self.step(staticBezDistMult, 'staticBezDistMult')
# staticBezDist.distance.connect(staticBezDistMult.i1)
# self.rigNode.restLength.connect(staticBezDistMult.i2)
# # Normalize
# normalizeDiv = createNode('multiplyDivide', n=self.names.get('normalizeDiv', 'rnm_normalizeDiv'))
# self.step(normalizeDiv, 'normalizeDiv')
# normalizeDiv.operation.set(2)
# bezDist.distance.connect(normalizeDiv.input1X)
# staticBezDistMult.output.connect(normalizeDiv.input2X)
# # Stretch
# stretchBlend = createNode( 'blendTwoAttr', n=self.names.get('stretchBlend', 'rnm_stretchBlend') )
# self.step(stretchBlend, 'stretchBlend')
# stretchBlend.i[0].set(1)
# normalizeDiv.outputX.connect(stretchBlend.i[1])
# self.rigNode.stretch.connect(stretchBlend.ab)
# # Squash
# squashBlend = createNode( 'blendTwoAttr', n=self.names.get('squashBlend', 'rnm_squashBlend') )
# self.step(squashBlend, 'squashBlend')
# squashBlend.i[0].set(1)
# normalizeDiv.outputX.connect(squashBlend.i[1])
# self.rigNode.squash.connect(squashBlend.ab)
# # Squash/Stretch combiner
# squashStretchCond = createNode( 'condition', n=self.names.get('stretchBlend', 'rnm_stretchBlend') )
# self.step(squashStretchCond, 'squashStretchCond')
# squashStretchCond.operation.set(2) # Greater Than
# normalizeDiv.outputX.connect(squashStretchCond.firstTerm)
# squashStretchCond.secondTerm.set(1)
# stretchBlend.o.connect(squashStretchCond.colorIfTrueR)
# squashBlend.o.connect(squashStretchCond.colorIfFalseR)
# restLengthMult = createNode('multDoubleLinear', n=self.names.get('restLengthMult', 'rnm_restLengthMult'))
# self.step(restLengthMult, 'restLengthMult')
# squashStretchCond.outColorR.connect(restLengthMult.i1)
# self.rigNode.restLength.connect(restLengthMult.i2)
# denormalizeMult = createNode('multDoubleLinear', n=self.names.get('denormalizeMult', 'rnm_denormalizeMult'))
# self.step(denormalizeMult, 'denormalizeMult')
# denormalizeMult.i1.set(bezDist.distance.get())
# restLengthMult.o.connect(denormalizeMult.i2)
# denormalizeMult.o.connect(ikJnt.tx)
# i=i+1
# results = ikSplineRig.results.get()
offsetResults = []
# Offset controls
for i, point in enumerate(results):
ctrlParent = None
ctrlParent = offsetResults[i - 1] if i else self.rigGroup
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
par = point
offsetCtrl = self.createControlHeirarchy(
name=self.names.get('offsetCtrl', 'rnm_offsetCtrl'),
transformSnap=point,
selectionPriority=2,
ctrlParent=ctrlParent,
outlinerColor=(0, 0, 0),
par=par)
offsetResults.append(offsetCtrl)
self.rigNode.offsetCtrlsVis.connect(offsetCtrl.buf.get().v)
results = offsetResults
# results = self.buildScaleLengthSetup(scaleInputs=self.bendCtrls, distanceInputs=[results[0], results[1]], nodes=results, settingsNode=self.rigNode)
# results = []
print 'Results:'
print results
for i, point in enumerate(results):
self.naming(n=i)
self.names = utils.constructNames(self.namesDict)
point.message.connect(self.rigNode.socketList, na=1)
# self.socketList.append(point)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=point)
self.bindList.append(bind)
self.step(bind, 'bind')
bind.hide()
# crvPathRig = self.buildParametricCurveRigSetup(
# self.crv,
# numJoints=1,
# stretch=False
# )
# results = crvPathRig.results.get()
# rigExit = createNode('transform', n=self.names.get('rigExit', 'rnm_rigExit'), p=self.rigGroup)
# self.step(rigExit, 'rigExit')
# self.socket(rigExit).message.connect(self.rigNode.socketList, na=1)
# utils.snap(point, rigExit)
# self.matrixConstraint(point, rigExit, t=1, r=1, s=1, offset=True)
# if bindEnd:
# # # rig exit bind
# rigExitBind = createNode( 'joint', n=self.names.get( 'rigExitBind', 'rnm_rigExitBind'), p=rigExit )
# self.step(rigExitBind, 'rigExitBind')
# self.bindList.append(rigExitBind)
# rigExitBind.hide()
#=========================== Finalize =================================
except:
raise
finally:
# try:
# for bendCtrl in self.bendCtrls:
# attrs = bendCtrl.s.getChildren()
# for a in attrs:
# a.set(l=1, k=0)
# except:
# pass
# try:
# self.setController(fkGroup, self.rigGroup)
# self.setController(bezierRigGroup, self.rigGroup)
# except:
# pass
try:
# self.constructSelectionList(selectionName='bendCtrls', selectionList=self.bendCtrls)
# self.constructSelectionList(selectionName='tangentCtrls', selectionList=self.tangentCtrls)
self.constructSelectionList(selectionName='offsetCtrls',
selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def __init__(self, fitNode=None, rigNode=None):
if fitNode is None and rigNode is None:
raise Exception('No data specified.')
elif fitNode is None:
self.rigNode = rigNode
# Put any attributes needed for initialized rigs here
else:
try:
# Initialize rigNode
# Error Check:
# Convert string input to PyNode if neccessary
if isinstance(fitNode, str):
fitNode = ls(fitNode)[0]
if fitNode.rigType.get() != 'chain':
raise Exception('Incorrect rig type: %s' %
fitNode.rigType.get())
self.offsetCtrls = []
# self.crvs = []
buildRig.rig.__init__(self, fitNode)
# fitNode attributes
jointsList = self.fitNode.jointsList.get()
fkShapes = self.fitNode.fkShapes.get()
ikShapes = self.fitNode.ikShapes.get()
doIK = self.fitNode.offsets.get()
multiChain = 0
if hasAttr(self.fitNode, 'multiChain'):
multiChain = self.fitNode.multiChain.get()
doHierarchy = True
if hasAttr(self.fitNode, 'doHierarchy'):
doHierarchy = self.fitNode.doHierarchy.get()
# if doHierarchy:
# organize jointsList
# Move rigGroup
xform(self.rigGroup,
ws=1,
m=xform(jointsList[0], q=1, ws=1, m=1))
# Mirroring
if self.fitNode.side.get() == 2:
mirror = True
else:
mirror = False
# Per joint mirroring
mirrorList = []
for jnt in jointsList:
if jnt.autoMirror.get() is False:
mirrorList.append(False)
elif jnt.side.get() == 2:
mirrorList.append(True)
else:
mirrorList.append(False)
if self.dev:
print 'mirrorList:'
print mirrorList
if hasAttr(self.fitNode, 'bind'):
doBind = self.fitNode.bind.get()
else:
doBind = True
if hasAttr(self.fitNode, 'doFK'):
doFK = self.fitNode.doFK.get()
else:
doFK = True
# Make sure one of the options are on by default
if not doFK and not doIK:
doFK = True
if hasAttr(self.fitNode, 'doEntranceBind'):
doEntranceBind = bool(self.fitNode.doEntranceBind.get())
else:
doEntranceBind = True
# raise Exception('end test.')
# Naming
self.globalName = self.fitNode.globalName.get()
self.subNames = []
subAttrs = listAttr(self.fitNode, st='subName*')
for subAttr in subAttrs:
self.subNames.append(self.fitNode.attr(subAttr).get())
# print 'subnames:'
# print self.subNames
self.naming()
self.names = utils.constructNames(self.namesDict)
# ========================= RigNode Attributes =========================
self.rigNode.rigType.set('chain', l=1)
if doFK or doIK:
utils.cbSep(self.rigNode)
if doFK:
addAttr(self.rigNode,
ct='publish',
ln='fkVis',
nn='FK Vis',
at='short',
min=0,
max=1,
dv=1)
setAttr(self.rigNode.fkVis, keyable=False, channelBox=True)
if doIK:
addAttr(self.rigNode,
ct='publish',
ln='ikVis',
nn='IK Vis',
at='short',
min=0,
max=1,
dv=1)
setAttr(self.rigNode.ikVis, keyable=False, channelBox=True)
# ========================= Vis Mults =========================
# allVis Mults
if doFK:
fkVisMult = createNode('multDoubleLinear',
n=self.names.get(
'fkVisMult', 'rnm_fkVisMult'))
self.rigNode.allVis >> fkVisMult.i1
self.rigNode.fkVis >> fkVisMult.i2
self.step(fkVisMult, 'fkVisMult')
if doIK:
ikVisMult = createNode('multDoubleLinear',
n=self.names.get(
'ikVisMult', 'rnm_ikVisMult'))
self.rigNode.allVis >> ikVisMult.i1
self.rigNode.ikVis >> ikVisMult.i2
self.ikVis = ikVisMult.o
self.step(ikVisMult, 'ikVisMult')
# debugVisMult = createNode('multDoubleLinear', n=self.names.get('debugVisMult', 'rnm_debugVisMult'))
# self.debugVis = debugVisMult.o
# self.rigNode.allVis >> debugVisMult.i1
# self.rigNode.debugVis >> debugVisMult.i2
# self.step(debugVisMult, 'debugVisMult')
# ========================= World Group =========================
# worldGroup = createNode('transform', n=self.names.get('worldGroup', 'rnm_worldGroup'), p=self.rigGroup)
# self.worldGroup = worldGroup
# self.step(worldGroup, 'worldGroup')
# worldGroup.inheritsTransform.set(0)
# xform(worldGroup, rp=[0,0,0], ro=[0,0,0], ws=1)
#=========================== FK Setup =================================
if doHierarchy:
print '\nJointsList:'
print jointsList
# We're going to form a hierarchy of controls based on a 'clump' of joints input as a list
# Reorder joints list so that we create controls top-down
heirScore = {}
for item in jointsList:
heirScore[item] = (len(item.getAllParents()))
import operator
sortedHeir = sorted(heirScore.items(),
key=operator.itemgetter(1))
jointsList2 = []
for s in sortedHeir:
jointsList2.append(s[0])
print '\nJointsList2:'
print jointsList2
# Map controls to each joint
ctrlMapping = {}
for i, jnt in enumerate(jointsList2):
ind = jointsList.index(jnt)
self.naming(i=ind)
self.names = utils.constructNames(self.namesDict)
# Reach upward into each joint's parentage. If no fit joints in list up to top, it's a root joint. otherwise, use first parent found
jntParent = jnt.getParent()
while not jntParent in jointsList2:
if jntParent is None:
break
jntParent = jntParent.getParent()
# If it found anything, get the control for that joint
if jntParent:
ctrlParent = ctrlMapping[jntParent]
else:
ctrlParent = None
if ctrlParent:
ctrl = self.createControlHeirarchy(
selectionPriority=0,
transformSnap=jnt,
mirrorStart=mirrorList[ind],
mirror=mirrorList[ind],
name=self.names.get('fkCtrl', 'rnm_fkCtrl'),
shape=fkShapes[ind],
par=ctrlParent,
ctrlParent=ctrlParent,
jntBuf=True)
# ctrl = createNode('transform', name=self.names.get('fkCtrl', 'rnm_fkCtrl'), p=ctrlParent)
else:
ctrl = self.createControlHeirarchy(
selectionPriority=0,
transformSnap=jnt,
mirrorStart=mirrorList[ind],
mirror=mirrorList[ind],
name=self.names.get('fkCtrl', 'rnm_fkCtrl'),
shape=fkShapes[ind],
par=self.rigGroup,
ctrlParent=self.rigGroup,
jntBuf=True)
# ctrl = createNode('transform', name=self.names.get('fkCtrl', 'rnm_fkCtrl'), p=self.rigGroup)
ctrlMapping[jnt] = ctrl
try:
self.fkCtrls.append(ctrl)
except AttributeError:
self.fkCtrls = []
self.fkCtrls.append(ctrl)
if ctrl.getShapes():
fkVisMult.o.connect(ctrl.getShapes()[0].v)
self.socket(ctrl).message.connect(
self.rigNode.socketList, na=1)
if self.dev:
print '\nctrlMapping:'
print ctrlMapping
for item, key in ctrlMapping.items():
print '%s\t-\t%s' % (item, key)
else:
if doFK:
fkGroup = self.buildFkSetup(shapes=fkShapes,
transforms=jointsList,
mirror=mirror)
fkVisMult.o.connect(fkGroup.v)
if not doIK:
for fkCtrl in self.fkCtrls:
self.socket(fkCtrl).message.connect(
self.rigNode.socketList, na=1)
#=========================== Offset Setup =================================
# Whether or not fk is created
if doIK:
for i, jnt in enumerate(jointsList):
self.naming(i=i)
self.names = utils.constructNames(self.namesDict)
# If fk ctrls were created, parent them there
if doFK:
offsetCtrl = self.createControlHeirarchy(
selectionPriority=0,
mirror=mirror,
name=self.names.get('offsetCtrl',
'rnm_offsetCtrl'),
shape=ikShapes[i],
par=self.fkCtrls[i],
ctrlParent=self.fkCtrls[i],
jntBuf=False,
outlinerColor=(0, 0, 0))
# Else create offset controls on their own
else:
offsetCtrl = self.createControlHeirarchy(
selectionPriority=0,
mirror=mirror,
name=self.names.get('offsetCtrl',
'rnm_offsetCtrl'),
shape=ikShapes[i],
par=self.rigGroup,
ctrlParent=self.rigGroup,
jntBuf=False,
transformSnap=jnt)
self.offsetCtrls.append(offsetCtrl)
self.ctrlsList.append(offsetCtrl)
self.ikVis.connect(offsetCtrl.buf.get().v)
try:
self.ikCtrls.append(offsetCtrl)
except AttributeError:
self.ikCtrls = []
self.ikCtrls.append(offsetCtrl)
self.socket(offsetCtrl).message.connect(
self.rigNode.socketList, na=1)
if doBind:
if doEntranceBind:
# Transform to handle distribution of mesh with root moved without rotation
rigEntranceGrp = createNode('transform',
n=self.names.get(
'rigEntranceGrp',
'rnm_rigEntranceGrp'),
p=self.rigGroup)
self.step(rigEntranceGrp, 'rigEntranceGrp')
# point constrain to start node
utils.snap(jointsList[0], rigEntranceGrp)
self.matrixConstraint(
self.ikCtrls[0] if doIK else self.fkCtrls[0],
rigEntranceGrp,
t=1)
rigEntrance = createNode('joint',
n=self.names.get(
'rigEntrance',
'rnm_rigEntrance'),
p=rigEntranceGrp)
self.step(rigEntrance, 'rigEntrance')
self.bindList.append(rigEntrance)
rigEntrance.hide()
for i, ctrl in enumerate(
self.ikCtrls if doIK else self.fkCtrls):
self.naming(i=i)
self.names = utils.constructNames(self.namesDict)
if mirror:
ctrl = self.socket(ctrl)
# ctrl.rotateY.set(-180)
# ctrl.scaleX.set(-1)
bind = createNode('joint',
n=self.names.get('bind', 'rnm_bind'),
p=ctrl)
self.bindList.append(bind)
self.step(bind, 'bind')
bind.hide()
finally:
#=========================== Finalize =================================
try:
self.setController(fkRigGroup, self.rigGroup)
except:
pass
try:
self.constructSelectionList(selectionName='fkCtrls',
selectionList=self.fkCtrls)
if doIK:
self.constructSelectionList(
selectionName='offsetCtrls',
selectionList=self.offsetCtrls)
self.constructSelectionList(selectionName='frozenNodes',
selectionList=self.freezeList)
except:
pass
self.finalize()
def matrixCollision(control=None, constrained=None, surface=None):
# Creates a simple collision detector that orients object to surface
# Create nodes if not supplied
if control is None:
control = createNode('transform', n='matrixCollisionControl')
if constrained is None:
constrained = createNode('transform', n='matrixCollisionConstrained')
if surface is None:
surface, surfaceCH = polyPlane(n='matrixCollisionSurface',
sx=10,
sy=10,
w=10,
h=10,
constructionHistory=True,
createUVs=0)
print surface
# Error checks
base = control.getParent()
if base is None:
raise Exception('Control object has no parent.')
# Convert to string to pynode if necessary
if isinstance(control, str) or isinstance(control, unicode):
if len(ls(control)) == 1:
control = ls(control)[0]
elif len(ls(control)) == 0:
raise Exception('No object found with name: %s' % control)
else:
raise Exception('More than one object found with name: %s' %
control)
if isinstance(constrained, str) or isinstance(constrained, unicode):
if len(ls(constrained)) == 1:
constrained = ls(constrained)[0]
elif len(ls(constrained)) == 0:
raise Exception('No object found with name: %s' % constrained)
else:
raise Exception('More than one object found with name: %s' %
constrained)
if isinstance(surface, str) or isinstance(surface, unicode):
if len(ls(surface)) == 1:
surface = ls(surface)[0]
elif len(ls(surface)) == 0:
raise Exception('No object found with name: %s' % surface)
else:
raise Exception('More than one object found with name: %s' %
surface)
# Test input types
for i, testNode in enumerate([control, constrained]):
if not isinstance(testNode, nt.Transform):
raise Exception('Input arugument %s is not a transform: %s' %
(['control', 'constrained'][i], testNode))
# Set surface to the actual transform if it's been input as the shape node
if isinstance(surface, nt.Mesh):
sufaceShape = surface
surface = sufaceShape.getParent()
else:
if not isinstance(surface, nt.Transform):
raise Exception('Input arugument surface is not a transform: %s' %
(surface))
else:
if not surface.getShapes():
raise Exception('No shape found under surface input: %s' %
(surface))
else:
surfaceShape = None
for shp in surface.getShapes():
if isinstance(shp, nt.Mesh):
surfaceShape = shp
break
if not surfaceShape:
raise Exception(
('No mesh found under surface input: %s' % (surface)))
# Naming
names = {
'collisionPoint': 'collisionPoint',
'twistComp': 'twistComp',
'collPointDecmp': 'collPointDecmp',
'closest': 'closest',
'twistAdd': 'twistAdd',
'axZ': 'axZ',
'axX': 'axX',
'fourByFour': 'fourByFour',
'diffMat': 'diffMat',
'diffDecmp': 'diffDecmp',
'distRng': 'distRng',
'offsetMat': 'offsetMat',
'controlDecmp': 'controlDecmp',
'offsetDecmp': 'offsetDecmp',
'rotBlnd': 'rotBlnd',
'transCond': 'transCond',
}
# Initialize Build
# Collision Point under control to determine where to halt transform
collisionPoint = createNode('transform',
n=names.get('collisionPoint'),
p=control)
collisionPoint.displayHandle.set(1, k=1)
utils.cbSep(collisionPoint)
addAttr(collisionPoint, ln='collisionDistance', min=0, dv=1, k=1)
collPointDecmp = createNode('decomposeMatrix',
n=names.get('collPointDecmp'))
collisionPoint.worldMatrix.connect(collPointDecmp.inputMatrix)
# Closest point
closest = createNode('closestPointOnMesh', n=names.get('closest'))
collPointDecmp.outputTranslate.connect(closest.inPosition)
surfaceShape.outMesh.connect(closest.inMesh)
surface.worldMatrix.connect(closest.inputMatrix)
# use twist on axis to orient result transform
buildRig.twistExtractorMatrix(points=[control],
base=base,
settingsNode=collisionPoint,
twistAxisChoice=1)
twistAdd = createNode('animBlendNodeAdditiveRotation',
n=names.get('twistAdd'))
collisionPoint.twist.connect(twistAdd.inputAY)
twistAdd.rotateOrder.set(1)
twistAdd.rotationInterpolation.set(1)
# Vector Product Z (convert closest point normal to standard matrix by getting double cross product)
axZ = createNode('vectorProduct', n=names.get('axZ'))
axZ.operation.set(2) # Cross product
axZ.input1.set(1, 0, 0)
axZ.normalizeOutput.set(1)
closest.normal.connect(axZ.input2)
# Vector Product X (convert closest point normal to standard matrix by getting double cross product)
axX = createNode('vectorProduct', n=names.get('axX'))
axX.operation.set(2) # Cross product
axX.normalizeOutput.set(1)
closest.normal.connect(axX.input1)
axZ.output.connect(axX.input2)
# Four by four matrix (Construct result of closest point to matrix)
fourByFour = createNode('fourByFourMatrix', n=names.get('fourByFour'))
axX.outputX.connect(fourByFour.in00)
axX.outputY.connect(fourByFour.in01)
axX.outputZ.connect(fourByFour.in02)
closest.normalX.connect(fourByFour.in10)
closest.normalY.connect(fourByFour.in11)
closest.normalZ.connect(fourByFour.in12)
axZ.outputX.connect(fourByFour.in20)
axZ.outputY.connect(fourByFour.in21)
axZ.outputZ.connect(fourByFour.in22)
closest.positionX.connect(fourByFour.in30)
closest.positionY.connect(fourByFour.in31)
closest.positionZ.connect(fourByFour.in32)
# Create a matrix to measure difference between collision point and closest point
diffMat = createNode('multMatrix', n=names.get('diffMat'))
fourByFour.output.connect(diffMat.matrixIn[0])
collisionPoint.worldInverseMatrix.connect(diffMat.matrixIn[1])
diffDecmp = createNode('decomposeMatrix', n=names.get('diffDecmp'))
diffMat.matrixSum.connect(diffDecmp.inputMatrix)
distRng = createNode('setRange', n=names.get('distRng'))
diffDecmp.outputTranslateY.connect(distRng.valueX)
distRng.minX.set(0)
distRng.maxX.set(1)
distRng.oldMinX.set(-1)
distRng.oldMaxX.set(0)
uc = createNode('unitConversion')
uc.conversionFactor.set(-1)
collisionPoint.collisionDistance.connect(uc.input)
uc.output.connect(distRng.oldMinX)
offsetMat = createNode('multMatrix', n=names.get('offsetMat'))
diffMat.matrixSum.connect(offsetMat.matrixIn[0])
control.worldMatrix.connect(offsetMat.matrixIn[1])
controlDecmp = createNode('decomposeMatrix', n=names.get('controlDecmp'))
control.worldMatrix.connect(controlDecmp.inputMatrix)
offsetDecmp = createNode('decomposeMatrix', n=names.get('offsetDecmp'))
offsetMat.matrixSum.connect(offsetDecmp.inputMatrix)
offsetDecmp.outputRotate.connect(twistAdd.inputB)
rotBlnd = createNode('pairBlend', n=names.get('rotBlnd'))
rotBlnd.translateXMode.set(1)
rotBlnd.translateYMode.set(1)
rotBlnd.translateZMode.set(1)
rotBlnd.rotInterpolation.set(1)
distRng.outValueX.connect(rotBlnd.weight)
twistAdd.o.connect(rotBlnd.inRotate2)
controlDecmp.outputRotate.connect(rotBlnd.inRotate1)
rotBlnd.outRotate.connect(constrained.rotate)
transCond = createNode('condition', n=names.get('transCond'))
diffDecmp.outputTranslateY.connect(transCond.firstTerm)
transCond.secondTerm.set(0)
transCond.operation.set(2)
offsetDecmp.outputTranslate.connect(transCond.colorIfTrue)
controlDecmp.outputTranslate.connect(transCond.colorIfFalse)
transCond.outColor.connect(constrained.translate)
# Freeze collision point control
for attribute in [
collisionPoint.tx, collisionPoint.tz, collisionPoint.rx,
collisionPoint.ry, collisionPoint.rz, collisionPoint.sx,
collisionPoint.sy, collisionPoint.sz
]:
attribute.set(l=1, k=0)