Exemplo n.º 1
0
 def undoIt(self):
     
     cmds.undoInfo( swf=0 )
     for attr, data in self.__undoSetList:
         cmds.setAttr( attr, data, type='matrix' )
     for skinNode in self.__skinNodes:
         cmds.dgdirty( skinNode )
     cmds.undoInfo( swf=1 )
Exemplo n.º 2
0
def assign( source, target, rangemode, replacemode ) :

    ''' Assign a marker, copying from source to destination 
    
    :param source: the source marker to copy data from
    :param target: the target marker to paste data on to
    :param replacemode: 'swap' or 'extract'
    :param rangemode: sett getSourceRange

    '''

    print "Assign: %s ---> %s  Modes:  %s/%s" % (source, target, rangemode, replacemode )

    if not m.objExists( target ) :
        print "renaming: " + source + " as " + target
        m.rename( source, target) 
        return True


    if rangemode == 'gap' :

        # fill the gap in the target using keys from the source

        s = curve.currentSegmentOrGap( target, datarate.nodeRate(source) )
        if s is None or s[0] != 'gap' :
            print "Skipping: " + str(source) + " (not currently in a gap)"
            return

        # values of surrounding keyframes
        sourceIn, sourceOut = s[1]
	# contract range
	sourceIn = sourceIn + 0.5
	sourceOut = sourceOut - 0.5

    else :

        sourceIn, sourceOut = getSourceRange( source, rangemode )
	# expand to 
	sourceIn = sourceIn - 0.5
	sourceOut = sourceOut + 0.5

    print "In: %f  Out: %f" % (sourceIn, sourceOut)
 
    if replacemode == 'swap' :       
        keyTools.swap( (source,target), sourceIn, sourceOut )

    if replacemode == 'extract' :
        # copy the segment over, any clashing keys on the marker will be removed as unlabelled
        keyTools.extractRange( target, sourceIn, sourceOut )
        m.cutKey( source, t = ( sourceIn, sourceOut ) )
        m.pasteKey( target, option='replace' )


    keyTools.setActiveKeys( source, delete=True )
    keyTools.setActiveKeys( target )
    #m.select(target)

    m.dgdirty(a=True)
Exemplo n.º 3
0
    def redoIt(self):
        
        picked = OpenMaya.MObjectArray()
        dependNode = OpenMaya.MObject()     # Selected dependency node

        # Create a selection list iterator
        
        OpenMaya.MGlobal.getActiveSelectionList(self.__sList)
        iter = OpenMaya.MItSelectionList(self.__sList)

        # Iterate over all selected dependency nodes
        # and save them in a list
        while not iter.isDone():
            # Get the selected dependency node
            iter.getDependNode(dependNode)
            picked.append(dependNode)
            iter.next()
        
        self.__undoSetList = []
        self.__skinNodes = []
        
        cmds.undoInfo( swf=0 )
        
        try:
            for i in range( picked.length() ):
                fnPicked = OpenMaya.MFnDagNode( picked[i] )
                hists = cmds.listHistory( fnPicked.fullPathName() )
                
                skinNode = None
                for hist in hists:
                    if cmds.nodeType( hist ) == 'skinCluster':
                        skinNode = hist
                        break
                
                if not skinNode: continue
                
                fnSkinNode = OpenMaya.MFnDependencyNode( self.__getMObject( skinNode ) )
                
                plugGeomMatrix = fnSkinNode.findPlug( 'geomMatrix' )
                plugMatrix  = fnSkinNode.findPlug( 'matrix' )
                plugBindPre = fnSkinNode.findPlug( 'bindPreMatrix' )
                
                for i in range( plugMatrix.numElements() ):
                    loIndex = plugMatrix[i].logicalIndex()
                    srcJoints = cmds.listConnections( plugMatrix[i].name(), s=1, d=0 )
                    if not srcJoints: continue
                    undoSet = [plugBindPre.elementByLogicalIndex( loIndex ).name(), cmds.getAttr( plugBindPre.elementByLogicalIndex( loIndex ).name() )]
                    cmds.setAttr( plugBindPre.elementByLogicalIndex( loIndex ).name(), cmds.getAttr( srcJoints[0] +'.wim' ), type='matrix' )
                    self.__undoSetList.append( undoSet )
    
                self.__undoSetList.append( [plugGeomMatrix.name(), cmds.getAttr( plugGeomMatrix.name() )] )
                cmds.setAttr( plugGeomMatrix.name(), cmds.getAttr( fnPicked.fullPathName() + '.wm' ), type='matrix' )
                cmds.dgdirty( fnSkinNode.name() )
                self.__skinNodes.append( fnSkinNode.name() )
        except:pass

        cmds.undoInfo( swf=1 )
Exemplo n.º 4
0
 def addNode(self, node):
     coral.Node.addNode(self, node)
     
     if "CoralMayaNode" in node.classNames():
         # we have to call updateCoralAttributeMap here because doing so in a CoralMayaNode contructor we would be wrong (the CoralMayaNode wouldn't be under its parent yet). 
         cmds.coralMayaCmd("updateCoralAttributeMap", self._mayaNode)
         
         for attr in node.inputAttributes():
             if hasattr(attr, "mayaAttribute"):
                 # this will guarantee things are up to date from the start
                 cmds.dgdirty(attr.mayaNode() + "." + attr.mayaAttribute())
Exemplo n.º 5
0
def updatePose(control, attribute):
    """update the pose"""


    locatorCurveMap = getLocatorCurveMap(control, attribute)

    locs = []
    for locGrp in locatorCurveMap.keys():

        locGrpChild = cmds.listRelatives(locGrp, c=1)
        if not locGrpChild:
            cmds.warning("cant find control for : " + locGrp)
            continue

        locCtrl = locGrpChild[0]
        loc = cmds.spaceLocator()
        locs.append(loc[0])

        #snap the new locator to the position of the locator control
        cmds.delete(cmds.pointConstraint(locCtrl, loc))
        cmds.delete(cmds.orientConstraint(locCtrl, loc))

        #zero out the locator control
        cmds.setAttr(locCtrl + ".translate", 0, 0, 0)
        cmds.setAttr(locCtrl + ".rotate", 0, 0, 0)

        #snap the locator group to the new locator
        cmds.pointConstraint(loc, locGrp)
        cmds.orientConstraint(loc, locGrp)

        #force an evaluation of the scene to make sure that the right values are on the locator group
        cmds.dgdirty(a=1)

        attrs = locatorCurveMap[locGrp].keys()
        for attr in attrs:

            #get the value
            value = cmds.getAttr(locGrp + "." + attr)

            #get the animation curve that drives the locator
            animCurve = locatorCurveMap[locGrp][attr]

            #update the set driven key - for now we're always assuming 10
            cmds.setKeyframe(animCurve, f=10, v=value)

    #now delete the locators and force the evaluation
    cmds.delete(locs)
    cmds.select(cl=1)
    cmds.dgdirty(a=1)

    print "updating pose completed!"
Exemplo n.º 6
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	def reset(self,char=''):
		'''
		Reset the orient pivot position within the baseRig hierarchy.
		@param char: Namespace of the orient pivot to set.
		@type char: str
		'''
		orient = char+self.orient
		
		# set rotate pivot key
		mc.setAttr(orient+'.rotatePivot',0,0,0)
		mc.setAttr(orient+'.rotatePivotTranslate',0,0,0)
		
		# set pivot keys
		mc.setKeyframe(orient,at='rotatePivot',)
		mc.setKeyframe(orient,at='rotatePivotTranslate',)
		
		# force update
		mc.dgdirty(orient)
Exemplo n.º 7
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	def set(self,snapTo,char=''):
		'''
		Set the orient pivot position within the baseRig hierarchy.
		@param snapTo: Object to snap orient pivot to.
		@type snapTo: str
		@param char: Namespace of the orient pivot to set.
		@type char: str
		'''
		orient = char+self.orient
		
		# set orient rotate pivot
		pos = mc.xform(snapTo,q=1,ws=1,rp=1)
		mc.xform(orient,ws=1,rp=(pos[0],pos[1],pos[2]))
		
		# set pivot key
		mc.setKeyframe(orient,at='rotatePivot')
		mc.setKeyframe(orient,at='rotatePivotTranslate')
		
		# force update
		mc.dgdirty(orient)
Exemplo n.º 8
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    def doAssign( self, source, dest ) :

        rangemode   = self.sourceRangeSelector.currentText()  # none, fill, segment, spike, all, selected
        replacemode = self.replaceModeSelector.currentText()  # extract, swap, overwrite

        # if the node does not exist, just rename the source to being the target
        if not m.objExists( dest ) :
            print "Rename " + str( source ) + " for " + str(dest)
            m.rename( source, dest )
            self.draw(refresh=True)
            m.dgdirty(a=True)
            return
            
        if rangemode == 'fill' :
            print "Fill: " + source + " for: " + dest
            cmd = "from " + localsettings.module + " import keyTools as kt;"
            cmd+= 'kt.fill("%s", "%s")' % (dest, source)
            m.evalDeferred(cmd)
            #keyTools.fill( dest, source )

            cmd = "from " + localsettings.module + " import labeler;"
            cmd+= "labeler.INSTANCE.draw();"
            cmd+= "import maya.cmds as m; m.dgdirty(a=True)"
            m.evalDeferred(cmd)
            return
        
        # must be eval-ed for undo to work..

        cmd = "from " + localsettings.module + " import assign;"
        cmd+= "assign.assign( '%s', '%s', '%s', '%s');" % ( source, dest, rangemode, replacemode  )
	print cmd
        m.evalDeferred(cmd)

        if self.toolActive:
            cmd = 'import maya.cmds as m; m.setToolTo("' + self.context + '")'
            m.evalDeferred(cmd)

        cmd = "from " + localsettings.module + " import labeler;"
        cmd+= "labeler.INSTANCE.draw()"
        m.evalDeferred(cmd)
Exemplo n.º 9
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    def removeSpace( self, space ):
        '''Removes spaces.

        @param space: Space index you want to delete.
        @type space: *int*
        '''

        # get current space
        currentSpace = cmds.getAttr( '%s.%s' % (self.spaceAttrNode,'space') )

        # ----------------------------------------------------------------------
        # edit enum attribute

        # get new spaces
        existingSpaces = cmds.attributeQuery( 'space', node=self.spaceAttrNode, listEnum=True)[0].split(':')
        if space>len(existingSpaces):
            raise IndexError, 'No space found in index: %i' % space
        newSpaces = [existingSpaces[i] for i in range(len(existingSpaces)) if i!=space]

        # edit attribute
        cmds.addAttr( '%s.%s' % (self.spaceAttrNode,'space'), e=True, enumName=':'.join(newSpaces) )

        # ----------------------------------------------------------------------
        # delete group in spacesGrp

        spaces = cmds.listRelatives( self.spaceGrp, type='transform' )
        cmds.delete( spaces[space] )

        # ----------------------------------------------------------------------
        # re- connect
        self.__connect__()

        # ----------------------------------------------------------------------
        # refresh
        if space == currentSpace:
            cmds.dgdirty( a=True )
Exemplo n.º 10
0
def main(name="assembly", position=(0,0,0), radius=1, fbx=False,
		cog=True, body=True, pelvis=True):

	if type(position) == str or type(position) == unicode:
		position = mc.xform(position, q=True, rp=True, ws=True)

	grp = mc.createNode("transform", n=name)
	mc.addAttr(grp, ln="joints", at="bool", dv=True, k=True)
	mc.addAttr(grp, ln="editJoints", at="bool", k=True)
	if fbx:
		mc.setAttr(grp+".joints", False)
		mc.addAttr(grp, ln="fbxJoints", at="bool", dv=True, k=True)
		mc.addAttr(grp, ln="editFbxJoints", at="bool", k=True)
	mc.addAttr(grp, ln="controls", at="bool", dv=True, k=True)
	mc.addAttr(grp, ln="_geometry", at="bool", dv=True, k=True)
	mc.addAttr(grp, ln="editGeometry", at="bool", k=True)

	#
	# controls
	#

	ctrl = []
	ctrl.append(common.control(name="world", parent=grp, radius=radius*5, color=13,
					lockAttr=["v"], hideAttr=["v"])[1])

	if cog:
		ctrl.append(common.control(name="cog", parent=ctrl[0], position=position,
					color=13, radius=radius*4, lockAttr=["s","v"],
					hideAttr=["sx","sy","sz","v"])[1])

	if body:
		ctrl.append(common.control(name="body", parent=ctrl[1], position=ctrl[1],
					color=13, radius=radius*3, lockAttr=["s","v"],
					hideAttr=["sx","sy","sz","v"])[1])

	if pelvis:
		ctrl.append(common.control(name="pelvis", parent=ctrl[2], position=ctrl[2],
					radius=radius*2, lockAttr=["s","v"],
					hideAttr=["sx","sy","sz","v"])[1])

	grps = [None]*2
	rev = mc.createNode("reverse")
	if fbx:
		grps[0] = mc.createNode("transform", n="skeleton_fbx")
		grps[1] = mc.createNode("transform", n="geometry_fbx")
		mc.connectAttr(grp+".fbxJoints", grps[0]+".v")
		mc.setAttr(grps[0]+".overrideDisplayType", 2)
		mc.connectAttr(grp+".editFbxJoints", rev+".inputX")
		mc.connectAttr(rev+".outputX", grps[0]+".overrideEnabled")
		mc.createNode("transform", n="constraints_fbx", p=grp)
	else:
		grps[1] = mc.createNode("transform", n="geometry", p=grp)
	mc.connectAttr(grp+"._geometry", grps[1]+".v")
	mc.connectAttr(grp+".editGeometry", rev+".inputY")
	mc.connectAttr(rev+".outputY", grps[1]+".overrideEnabled")
	mc.setAttr(grps[1]+".overrideDisplayType", 2)

	for n in grps:
		for a in ["tx","ty","tz","rx","ry","rz","sx","sy","sz","v"]:
			try: mc.setAttr(n+"."+a, l=True, k=False, cb=False)
			except: pass

	#
	# selection sets
	#

	n1 = mc.sets(n="ik_controls_set", em=True)
	n2 = mc.sets(n="fk_controls_set", em=True)
	for n in ctrl: mc.connectAttr(n+".message", n2+".dnSetMembers", na=True)
	n3 = mc.sets(n="joints_set", em=True)
	n4 = mc.sets(n=name+"_set", em=True)
	mc.sets(n1, n2, n3, add=n4)

	mc.select(grp)
	mc.dgdirty(a=True)

	return grp
Exemplo n.º 11
0
def main(name="hand",
         side="",
         control=None,
         parent=None,
         positions=None,
         inheritTemplateRotations=False,
         radius=1):

    # create template joints if needed
    tmp = None
    if not positions:
        positions = template(name=name)
        tmp = copy.deepcopy(positions)
    cnt = len(positions)
    if cnt == 0: return

    # positions from template transforms/joints
    rotations = {}
    for i in range(cnt):
        cnt2 = len(positions[i])
        if cnt2 < 3:
            raise Exception("At least 3 joints are needed to form a finger.")
        for j in range(cnt2):
            if type(positions[i][j]) == str or type(
                    positions[i][j]) == unicode:
                if inheritTemplateRotations:
                    if i not in rotations.viewkeys():
                        rotations[i] = [None] * cnt2
                    rotations[i][j] = mc.xform(positions[i][j],
                                               q=True,
                                               ro=True,
                                               ws=True)
                positions[i][j] = mc.xform(positions[i][j],
                                           q=True,
                                           rp=True,
                                           ws=True)

    if not control:
        center = [0, 0, 0]
        for i in range(cnt):
            center[0] += positions[i][0][0]
            center[1] += positions[i][0][1]
            center[2] += positions[i][0][2]
        center[0] /= cnt
        center[1] /= cnt
        center[2] /= cnt

        control = common.control(name=name,
                                 position=center,
                                 normal=(1, 0, 0),
                                 color=17,
                                 radius=radius * 2,
                                 lockAttr=("v"),
                                 hideAttr=("v"))[1]
        parent = control

    if not mc.objExists(control + ".joints"):
        mc.addAttr(control, ln="joints", at="bool", dv=True, k=True)
    if not mc.objExists(control + ".editJoints"):
        mc.addAttr(control, ln="editJoints", at="bool", dv=True, k=True)
    if not mc.objExists(control + ".fingerControls"):
        mc.addAttr(control, ln="fingerControls", at="bool", dv=True, k=True)
    if not mc.objExists(control + ".bend"):
        mc.addAttr(control, ln="bend", at="double", min=-10, max=10, k=True)
    if not mc.objExists(control + ".splay"):
        mc.addAttr(control, ln="splay", at="double", min=-10, max=10, k=True)

    md1 = mc.createNode("multiplyDivide")
    mc.connectAttr(control + ".bend", md1 + ".input1.input1X")
    mc.connectAttr(control + ".bend", md1 + ".input1.input1Y")
    mc.connectAttr(control + ".bend", md1 + ".input1.input1Z")
    mc.setAttr(md1 + ".input2X", 6)
    mc.setAttr(md1 + ".input2Y", 9)
    mc.setAttr(md1 + ".input2Z", 9)
    md2 = mc.createNode("multiplyDivide")
    mc.connectAttr(control + ".bend", md2 + ".input1.input1X")
    mc.connectAttr(control + ".bend", md2 + ".input1.input1Y")
    mc.connectAttr(control + ".bend", md2 + ".input1.input1Z")
    mc.setAttr(md2 + ".input2X", 8)
    mc.setAttr(md2 + ".input2Y", 11)
    mc.setAttr(md2 + ".input2Z", 7.5)

    jnt = [None] * cnt
    ctrl_grp = [None] * cnt
    ctrl = [None] * cnt
    for i in range(cnt):
        mc.select(cl=True)
        cnt2 = len(positions[i])
        jnt[i] = [None] * cnt2
        if cnt2 == 3: j = 0
        else: j = 1
        jnt[i][0] = mc.createNode("joint",
                                  n="finger_" + side + str(i + 1) + "_jnt" +
                                  str(j + 1))
        mc.setAttr(jnt[i][0] + ".t", positions[i][j][0], positions[i][j][1],
                   positions[i][j][2])
        jnt[i][1] = mc.createNode("joint",
                                  n="finger_" + side + str(i + 1) + "_jnt" +
                                  str(j + 2))
        mc.setAttr(jnt[i][1] + ".t", positions[i][j + 1][0],
                   positions[i][j + 1][1], positions[i][j + 1][2])
        jnt[i][2] = mc.createNode("joint",
                                  n="finger_" + side + str(i + 1) + "_jnt" +
                                  str(j + 3))
        mc.setAttr(jnt[i][2] + ".t", positions[i][j + 2][0],
                   positions[i][j + 2][1], positions[i][j + 2][2])

        if j:
            jnt[i][3] = mc.createNode("joint",
                                      n="finger_" + side + str(i + 1) +
                                      "_jnt1")
            mc.setAttr(jnt[i][3] + ".t", positions[i][0][0],
                       positions[i][0][1], positions[i][0][2])
            c = mc.aimConstraint(jnt[i][0],
                                 jnt[i][3],
                                 aim=(1, 0, 0),
                                 u=(0, 0, 1),
                                 wut="objectrotation",
                                 wuo=parent)[0]
            mc.rename(c, jnt[i][3] + "_aimcon")
            jnt[i][3] = mc.parent(jnt[i][3], parent)[0]
            mc.setAttr(jnt[i][3] + ".radius", radius * 0.3)
            mc.connectAttr(control + ".joints", jnt[i][3] + ".v")

        if not inheritTemplateRotations:
            n = mc.createNode("transform")
            mc.delete(mc.pointConstraint(jnt[i][0], jnt[i][2], n))
            mc.delete(
                mc.aimConstraint(jnt[i][2],
                                 n,
                                 aim=(1, 0, 0),
                                 u=(0, 0, 1),
                                 wut="object",
                                 wuo=jnt[i][1]))
            mc.delete(
                mc.aimConstraint(jnt[i][1],
                                 jnt[i][0],
                                 aim=(1, 0, 0),
                                 u=(0, 0, -1),
                                 wut="object",
                                 wuo=n))
            mc.delete(
                mc.aimConstraint(jnt[i][2],
                                 jnt[i][1],
                                 aim=(1, 0, 0),
                                 u=(0, 0, -1),
                                 wut="object",
                                 wuo=n))
            mc.delete(mc.orientConstraint(jnt[i][1], jnt[i][2]))
            mc.delete(n)
        else:
            for j in range(cnt2):
                mc.setAttr(jnt[i][j] + ".r", rotations[i][j][0],
                           rotations[i][j][1], rotations[i][j][2])

        r = mc.getAttr(jnt[i][0] + ".r")[0]
        mc.setAttr(jnt[i][0] + ".jo", r[0], r[1], r[2])
        mc.setAttr(jnt[i][0] + ".r", 0, 0, 0)
        r = mc.getAttr(jnt[i][1] + ".r")[0]
        mc.setAttr(jnt[i][1] + ".jo", r[0], r[1], r[2])
        mc.setAttr(jnt[i][1] + ".r", 0, 0, 0)
        mc.parent(jnt[i][1], jnt[i][0])
        r = mc.getAttr(jnt[i][2] + ".r")[0]
        mc.setAttr(jnt[i][2] + ".jo", r[0], r[1], r[2])
        mc.setAttr(jnt[i][2] + ".r", 0, 0, 0)
        mc.parent(jnt[i][2], jnt[i][1])

        ctrl_grp[i] = [None, None, None]
        ctrl[i] = [None, None, None]
        for j in range(3):
            if j:
                _parent = ctrl[i][j - 1]
                lockAttr = ("t", "rx", "rz", "s", "v")
                hideAttr = ("tx", "ty", "tz", "rx", "rz", "sx", "sy", "sz",
                            "v")
            else:
                _parent = parent
                lockAttr = ("s", "v")
                hideAttr = ("sx", "sy", "sz", "v")
            ctrl_grp[i][j], ctrl[i][j] = common.control(
                name="finger_" + side + str(i + 1) + "_fk" + str(j + 1),
                parent=_parent,
                position=jnt[i][j],
                rotation=jnt[i][j],
                normal=(1, 0, 0),
                color=13,
                radius=radius * 0.3,
                lockAttr=lockAttr,
                hideAttr=hideAttr,
                numOffsetGroups=True)
            mc.connectAttr(
                control + ".fingerControls",
                mc.listRelatives(ctrl[i][j], pa=True, s=True)[0] + ".v")
            jnt[i][j] = mc.parent(jnt[i][j], ctrl[i][j])[0]
            mc.setAttr(jnt[i][j] + ".radius", radius * 0.3)
            mc.connectAttr(control + ".joints", jnt[i][j] + ".v")

        # bend
        mc.connectAttr(md2 + ".outputX", ctrl_grp[i][0] + ".ray")
        mc.connectAttr(md2 + ".outputY", ctrl_grp[i][1] + ".ray")
        mc.connectAttr(md2 + ".outputZ", ctrl_grp[i][2] + ".ray")

    # splay
    delta = 3.0 / (cnt * 0.5)
    for i in range(cnt):
        md = mc.createNode("multiplyDivide")
        mc.connectAttr(control + ".splay", md + ".input1.input1X")
        if mc.xform(ctrl_grp[i][0], q=True, rp=True, ws=True)[0] >= -0.001:
            mc.setAttr(md + ".input2X", -3 + delta * i)
        else:
            mc.setAttr(md + ".input2X", 3 - delta * i)
        if len(jnt[i]) == 4:
            mc.connectAttr(md + ".outputX", ctrl_grp[i][0] + ".raz")
        else:
            mc.connectAttr(
                md + ".outputX",
                mc.listRelatives(ctrl[i][0], pa=True, p=True)[0] + ".raz")

    # selection sets
    if side: name += "_" + side
    common.sets(name, sum(jnt, []), sum(ctrl, []), None)

    # selectable joints
    common.selectable(control + ".editJoints", sum(jnt, []))

    if tmp: mc.delete(sum(tmp, []))
    mc.select(control)
    mc.dgdirty(a=True)

    return control
Exemplo n.º 12
0
def run_correctness_test(referenceMode,
                         modes,
                         fileName=None,
                         resultsPath=None,
                         verbose=False,
                         maxFrames=CORRECTNESS_MAX_FRAMECOUNT,
                         dataTypes=['matrix', 'vertex', 'screen'],
                         emSetup=CORRECTNESS_NO_SETUP):
    """
    Evaluate the file in multiple modes and compare the results.

    referenceMode: Mode to which other modes will be compared for correctness.
                   It's a string that can be passed to emModeManager.setMode()
                   function.
    modes:         List of modes to run the tests in.  They must be have the following methods:
                   getTitle   : returns a string describing the mode
                   getEmMode  : returns a string to be passed to emModeManager.setMode()
                                before running the test.
                   getContext : returns a context object that can set extra state on enter
                                and reset it on exit (or None if not needed).
    fileName:      Name of file to load for comparison. None means use the current scene
    resultsPath:   Where to store the results. None means don't store anything
    verbose:       If True then dump the differing values when they are encountered
    maxFrames:     Maximum number of frames in the playback, to avoid long tests.
    dataTypes:     List of data types to include in the analysis. These are the possibilities:
                   matrix: Any attribute that returns a matrix
                   vector: Any attribute with type 3Double
                   vertex: Attributes on the mesh shape that hold vertex positions
                   number: Any attribute that returns a number
                   screen: Screenshot after the animation runs
    emSetup:       What to do before running an EM mode test, in bitfield combinations
                   CORRECTNESS_NO_SETUP        Do nothing, just run playback
                   CORRECTNESS_DOUBLE_PLAYBACK Run playback twice to ensure graph is valid
                   CORRECTNESS_INVALIDATE      Invalidate the graph to force rebuild
                   CORRECTNESS_LOAD            Load the file between every mode's run
                                               (Default is to just load once at the beginning.)

    Returns a list of value tuples indicating the run mode and the number of
    changes encountered in that mode. e.g. ['ems', 0]

    If verbose is true then instead of counts return a list of actual changes.
    e.g. ['ems', ["plug1,oldValue,newValue"]]

    Changed values are a CSV 3-tuple with "plug name", "value in reference mode", "value in the named test mode"
    in most cases.

    In the special case of an image difference the plug name will be one
    of the special ones below and the values will be those generated by the
    comparison method used:
        DGState.SCREENSHOT_PLUG_MD5 : md5 values when the image compare could not be done
        DGState.SCREENSHOT_PLUG_MAG : md5 and image difference values from ImageMagick
        DGState.SCREENSHOT_PLUG_IMF : md5 and image difference values from imf_diff
    """
    # Fail if the fileName is not a valid Maya file.
    if fileName != None and not __is_maya_file(fileName):
        print 'ERROR: %s is not a Maya file' % fileName
        return {}

    # Load the fileName if it was specified, otherwise the current scene will bbbbbbbbb
    if fileName != None:
        cmds.file(fileName, force=True, open=True)

    ref_results = None
    ref_results_image = None

    # Using lists allows me to do a comparison of two identical modes.
    # If resultsPath is given then the second and successive uses of the
    # same type will go into files with an incrementing suffix (X.ref.txt,
    # X.ref1.txt, X.ref2.txt...)
    mode_results_files = []
    mode_compare_files = []
    mode_results_image_files = []
    results = []
    em_plug_file_name = None

    # Create a list of unique mode suffixes, appending a count number whenever
    # the same mode appears more than once on the modes list.
    mode_counts = {}
    unique_modes = []
    mode_counts['ref'] = 1
    for modeObject in modes:
        mode = modeObject.getTitle()
        mode_counts[mode] = mode_counts.get(mode, 0) + 1
        suffix = ''
        if mode_counts[mode] > 1:
            suffix = str(mode_counts[mode])
        unique_modes.append('%s%s' % (mode, suffix))

    if resultsPath != None:
        # Make sure the path exists
        if not os.path.isdir(resultsPath):
            os.makedirs(resultsPath)

        em_plug_file_name = os.path.join(resultsPath, 'EMPlugs.txt')

        # Build the rest of the paths to the results files.
        # If no file was given default the results file prefix to "SCENE".
        if fileName != None:
            # Absolute paths cannot be appended to the results path. Assume
            # that in those cases just using the base name is sufficient.
            if os.path.isabs(fileName):
                resultsPath = os.path.join(resultsPath,
                                           os.path.basename(fileName))
            else:
                resultsPath = os.path.join(resultsPath, fileName)
        else:
            resultsPath = os.path.join(resultsPath, 'SCENE')

        ref_results = '%s.ref.txt' % resultsPath
        mode_counts['ref'] = 1

        for mode in unique_modes:
            # mode strings can have '/' which are illegal in filenames, replace with '='.
            mode = mode.replace('/', '=')
            mode_results_files.append('%s.%s.txt' % (resultsPath, mode))
            mode_compare_files.append('%s.DIFF.%s.txt' % (resultsPath, mode))
    else:
        # Still need the file args to pass in to DGState. None = don't output.
        for _ in modes:
            mode_results_files.append(None)
            mode_compare_files.append(None)

    # If the image comparison was requested figure out where to store the
    # file. Done separately because even if the files won't be saved the image
    # comparison needs to dump a file out for comparison.
    if 'screen' in dataTypes:
        if resultsPath == None:
            image_dir = tempfile.gettempdir()
            if fileName != None:
                # Absolute paths cannot be appended to the results path. Assume
                # that in those cases just using the base name is sufficient.
                if os.path.isabs(fileName):
                    image_dir = os.path.join(image_dir,
                                             os.path.basename(fileName))
                else:
                    image_dir = os.path.join(image_dir, fileName)
            else:
                image_dir = os.path.join(image_dir, 'SCENE')
        else:
            image_dir = resultsPath

        ref_results_image = '%s.ref.png' % image_dir
        for mode in unique_modes:
            # mode strings can have '/' which are illegal in filenames, replace with '='.
            mode = mode.replace('/', '=')
            mode_results_image_files.append('%s.%s.png' % (image_dir, mode))
    else:
        ref_results_image = None
        for _ in unique_modes:
            mode_results_image_files.append(None)

    # The IK multi-chain solver is known to create inconsistent results so remove
    # any joints that are being controlled by it from the list being compared.
    TODO(
        'REFACTOR',
        'Is this still needed now that we have an evaluator that handles it and disable EM if they are found?',
        None)
    ignored_nodes = []
    for node in cmds.ls(type='ikHandle'):
        try:
            solver_type = None
            solver_type = cmds.nodeType(
                cmds.ikHandle(node, query=True, solver=True))
        except Exception:
            pass

        # Any other kind of IK solver is fine
        if solver_type != 'ikMCsolver':
            continue

        multi_chain_joints = cmds.ikHandle(node, query=True, jointList=True)
        if multi_chain_joints is not None:
            ignored_nodes += multi_chain_joints
        multi_chain_effector = cmds.ikHandle(node,
                                             query=True,
                                             endEffector=True)
        if multi_chain_effector is not None:
            ignored_nodes += [multi_chain_effector]

    em_plugs = None
    comparisons = {}

    TODO(
        'FEATURE',
        'Could modify the verbose input to allow dumping of JSON instead of CSV',
        None)
    comparison_mode = DGState.OUTPUT_CSV

    # Record the reference evaluation version of the results
    with emModeManager() as em_mode:
        em_mode.setMode(referenceMode)

        with playbackModeManager() as play_mode:
            # Set to free running but hit every frame
            play_mode.setOptions(framesPerSecond=0.0,
                                 maxPlaybackSpeed=0.0,
                                 loop='once')
            play_mode.setLimitedRange(maxFrames=maxFrames, fromStart=True)

            # If no model panel is visible the refresh command won't trigger any evaluation
            if model_panel_visible():
                cmds.refresh()
            else:
                cmds.dgdirty(allPlugs=True)

            if (emSetup & CORRECTNESS_DOUBLE_PLAYBACK) != 0:
                play_mode.playAll()
            play_mode.playAll()

            mDG = DGState()
            mDG.scan_scene(do_eval=(referenceMode == 'dg'),
                           data_types=dataTypes)
            mDG.store_state(ref_results, ref_results_image)

            # Walk all of the modes requested and run the tests for them
            for mode_num in range(len(modes)):
                test_mode = modes[mode_num]
                with emModeManager() as test_em_mode:
                    test_em_mode.setMode(test_mode.getEmMode())
                    extra_context = test_mode.getContext()
                    if not extra_context:
                        extra_context = EmptyContext()
                    with extra_context:
                        if (emSetup & CORRECTNESS_LOAD !=
                                0) and fileName != None:
                            cmds.file(fileName, force=True, open=True)
                        if (emSetup & CORRECTNESS_DOUBLE_PLAYBACK) != 0:
                            play_mode.playAll()
                        if (emSetup & CORRECTNESS_INVALIDATE) != 0:
                            cmds.evaluationManager(invalidate=True)
                        play_mode.playAll()
                        if em_plugs == None:
                            em_plugs = __find_em_plugs(ignored_nodes)
                            mDG.filter_state(em_plugs)
                            if em_plug_file_name:
                                try:
                                    em_handle = open(em_plug_file_name, 'w')
                                    for (node,
                                         plug_list) in em_plugs.iteritems():
                                        em_handle.write('%s\n' % node)
                                        for plug in plug_list.keys():
                                            em_handle.write('\t%s\n' % plug)
                                    em_handle.close()
                                except Exception, ex:
                                    print 'ERROR: Could not write to EM plug file %s: "%s"' % (
                                        em_plug_file_name, str(ex))
                        mode_state = DGState()
                        # Catch the case when the EM has been disabled due to unsupported areas in the graph.
                        # When that happens the evaluation has to be forced or the values will be wrong.
                        em_still_enabled = cmds.evaluationManager(
                            query=True,
                            mode=True) != 'dg' and cmds.evaluationManager(
                                query=True, enabled=True)

                        mode_state.scan_scene(do_eval=not em_still_enabled,
                                              data_types=dataTypes)
                        mode_state.store_state(
                            mode_results_files[mode_num],
                            mode_results_image_files[mode_num])

                        results.append(mode_state)
                        results[mode_num].filter_state(em_plugs)
                        mode_title = test_mode.getTitle()
                        (comparison, error_count,
                         _) = mDG.compare(results[mode_num],
                                          output_mode=comparison_mode)
                        if verbose:
                            comparisons[mode_title] = comparison
                        else:
                            comparisons[mode_title] = error_count
                        if mode_compare_files[mode_num] is not None:
                            with open(mode_compare_files[mode_num],
                                      'w') as compare_file:
                                compare_file.write(str(comparison))
Exemplo n.º 13
0
def writeObjCombineCache(path, name, meshList, startFrame, endFrame, pad=4, uvSet='', worldSpace=True, gz=False):
    """
    Write a .obj cache per frame for the specified list of mesh objects.
    All meshes in the list will be combined to a single cache.
    @param path: Destination directory path for the cache files.
    @type path: str
    @param name: Cache file output name.
    @type name: str
    @param meshList: List of mesh objects to write cache for.
    @type meshList: list
    @param startFrame: Cache start frame
    @type startFrame: float
    @param endFrame: Cache end frame
    @type endFrame: float
    @param pad: Frame number padding for file name.
    @type pad: str
    @param uvSet: UVSet to export with cache
    @type uvSet: str
    @param worldSpace: Export mesh in world space instead of local or object space.
    @type worldSpace: bool
    @param gz: Gzip the cache files
    @type gz: bool
    """
    # Check path
    if not os.path.isdir(path): os.makedirs(path)

    # Check mesh list
    fullMeshList = meshList
    for mesh in meshList:
        if not cmds.objExists(mesh): raise Exception('Mesh "' + mesh + '" does not exist!')
        if not glTools.utils.mesh.isMesh(mesh): raise Exception('Object "' + mesh + '" is not a valid mesh!')

    # Check UVs
    uv = False
    if uvSet:
        for mesh in meshList:
            if cmds.polyUVSet(mesh, q=True, auv=True).count(uvSet):
                uv = True
            else:
                print('UVSet "' + uvSet + '" does not exist for mesh "' + mesh + '"!')

    # Determine Sample Space
    if worldSpace:
        sampleSpace = OpenMaya.MSpace.kWorld
    else:
        sampleSpace = OpenMaya.MSpace.kObject

    # Write mesh cache
    for f in range(startFrame, endFrame + 1):

        # Update frame
        cmds.currentTime(f)
        cmds.dgdirty(a=True)

        # Check mesh visibility
        meshList = [mesh for mesh in fullMeshList if cmds.getAttr(mesh + '.v')]
        if not meshList: continue

        # -------------------------
        # - Open file for writing -
        # -------------------------

        fPad = glTools.utils.stringUtils.stringIndex(f, pad)

        if gz:
            filename = path + '/' + name + '.' + fPad + '.obj.gz'
            print 'Writing ' + filename
            FILE = gzip.open(filename, "wb")
        else:
            filename = path + '/' + name + '.' + fPad + '.obj'
            print 'Writing ' + filename
            FILE = open(filename, "w")

        # Write cache file header
        FILE.write('g\n')

        # ---------------------
        # - Write Vertex Data -
        # ---------------------

        # Write raw point data
        for m in range(len(meshList)):

            meshFn = glTools.utils.mesh.getMeshFn(meshList[m])

            # Vertex Positions
            vtxArray = OpenMaya.MPointArray()
            meshFn.getPoints(vtxArray, sampleSpace)
            for i in range(vtxArray.length()):
                FILE.write('v ' + str(vtxArray[i].x) + ' ' + str(vtxArray[i].y) + ' ' + str(vtxArray[i].z) + '\n')

            # Vertex UVs
            if uvSet:
                uvSetName = uvSet
            else:
                uvSetName = str(cmds.polyUVSet(meshList[m], q=True, cuv=True)[0])
            uArray = OpenMaya.MFloatArray()
            vArray = OpenMaya.MFloatArray()
            meshFn.getUVs(uArray, vArray, uvSetName)
            for i in range(uArray.length()):
                FILE.write('vt ' + str(uArray[i]) + ' ' + str(vArray[i]) + '\n')

            # Vertex Normals
            normArray = OpenMaya.MFloatVectorArray()
            meshFn.getVertexNormals(False, normArray, sampleSpace)
            for i in range(vtxArray.length()):
                FILE.write('vn ' + str(vtxArray[i].x) + ' ' + str(vtxArray[i].y) + ' ' + str(vtxArray[i].z) + '\n')

        # -------------------
        # - Write Face Data -
        # -------------------

        # Track per mesh vertex id offsets
        vertexOffset = 0
        uvOffset = 0

        # Initialize face vertex array
        faceVtxArray = OpenMaya.MIntArray()

        # Build UV Id pointer object
        uvIdUtil = OpenMaya.MScriptUtil()
        uvIdUtil.createFromInt(0)
        uvIdPtr = uvIdUtil.asIntPtr()

        # Iterate over meshes
        for m in range(len(meshList)):

            # Write cache file header
            grp = meshList[m].replace(':', '_').lower()
            FILE.write('g ' + grp + '\n')

            # Get mesh face iterator
            faceIter = glTools.utils.mesh.getMeshFaceIter(meshList[m])

            # Iterate over mesh faces
            faceIter.reset()
            while not faceIter.isDone():

                # Get face vertices
                faceIter.getVertices(faceVtxArray)
                vtxArray = list(faceVtxArray)
                vtxCount = len(vtxArray)

                # Build face data string
                faceData = 'f '
                for i in range(vtxCount):

                    # Vertex Id
                    faceData += str(vtxArray[i] + 1 + vertexOffset)
                    faceData += '/'

                    # UV Id
                    try:
                        faceIter.getUVIndex(i, uvIdPtr)
                    except:
                        pass
                    else:
                        faceData += str(OpenMaya.MScriptUtil(uvIdPtr).asInt() + 1 + uvOffset)
                    faceData += '/'

                    # Vertex Normal Id
                    faceData += str(vtxArray[i] + 1 + vertexOffset)
                    faceData += ' '

                faceData += '\n'

                # Write face data
                FILE.write(faceData)

                # Iterate to next face
                faceIter.next()

            # Update vertex offset
            vertexOffset += cmds.polyEvaluate(meshList[m], v=True)
            uvOffset += cmds.polyEvaluate(meshList[m], uv=True, uvs=uvSetName)

        # -----------------------
        # - Finalize cache file -
        # -----------------------

        # Close File
        FILE.close()

    # Print result
    print 'Write OBJ cache completed!'
Exemplo n.º 14
0
def writeObjCombineCache(path,name,meshList,startFrame,endFrame,pad=4,uvSet='',worldSpace=True,gz=False):
	'''
	Write a .obj cache per frame for the specified list of mesh objects.
	All meshes in the list will be combined to a single cache. 
	@param path: Destination directory path for the cache files.
	@type path: str
	@param name: Cache file output name.
	@type name: str
	@param meshList: List of mesh objects to write cache for.
	@type meshList: list
	@param startFrame: Cache start frame
	@type startFrame: float
	@param endFrame: Cache end frame
	@type endFrame: float
	@param pad: Frame number padding for file name.
	@type pad: str
	@param uvSet: UVSet to export with cache
	@type uvSet: str
	@param worldSpace: Export mesh in world space instead of local or object space.
	@type worldSpace: bool
	@param gz: Gzip the cache files
	@type gz: bool
	'''
	# Check path
	if not os.path.isdir(path): os.makedirs(path)
	
	# Check mesh list
	fullMeshList = meshList
	for mesh in meshList:
		if not mc.objExists(mesh): raise Exception('Mesh "'+mesh+'" does not exist!')
		if not glTools.utils.mesh.isMesh(mesh): raise Exception('Object "'+mesh+'" is not a valid mesh!')
	
	# Check UVs
	uv = False
	if uvSet:
		for mesh in meshList:
			if mc.polyUVSet(mesh,q=True,auv=True).count(uvSet): uv = True
			else: print('UVSet "'+uvSet+'" does not exist for mesh "'+mesh+'"!')
	
	# Determine Sample Space
	if worldSpace: sampleSpace = OpenMaya.MSpace.kWorld
	else: sampleSpace = OpenMaya.MSpace.kObject
		
	# Write mesh cache
	for f in range(startFrame,endFrame+1):
		
		# Update frame
		mc.currentTime(f)
		mc.dgdirty(a=True)
		
		# Check mesh visibility
		meshList = [mesh for mesh in fullMeshList if mc.getAttr(mesh+'.v')]
		if not meshList: continue
		
		# -------------------------
		# - Open file for writing -
		# -------------------------
		
		fPad = glTools.utils.stringUtils.stringIndex(f,pad)
		
		if gz:
			filename = path+'/'+name+'.'+fPad+'.obj.gz'
			print 'Writing '+filename
			FILE = gzip.open(filename,"wb")
		else:
			filename = path+'/'+name+'.'+fPad+'.obj'
			print 'Writing '+filename
			FILE = open(filename,"w")
			
		# Write cache file header
		FILE.write('g\n')
		
		# ---------------------
		# - Write Vertex Data -
		# ---------------------
		
		# Write raw point data
		for m in range(len(meshList)):
			
			meshFn = glTools.utils.mesh.getMeshFn(meshList[m])
			
			# Vertex Positions
			vtxArray = OpenMaya.MPointArray()
			meshFn.getPoints(vtxArray,sampleSpace)
			for i in range(vtxArray.length()):
				FILE.write('v '+str(vtxArray[i].x)+' '+str(vtxArray[i].y)+' '+str(vtxArray[i].z)+'\n')
			
			# Vertex UVs
			if uvSet: uvSetName = uvSet
			else: uvSetName = str(mc.polyUVSet(meshList[m],q=True,cuv=True)[0])
			uArray = OpenMaya.MFloatArray()
			vArray = OpenMaya.MFloatArray()
			meshFn.getUVs(uArray,vArray,uvSetName)
			for i in range(uArray.length()):
				FILE.write('vt '+str(uArray[i])+' '+str(vArray[i])+'\n')
			
			# Vertex Normals
			normArray = OpenMaya.MFloatVectorArray()
			meshFn.getVertexNormals(False,normArray,sampleSpace)
			for i in range(vtxArray.length()):
				FILE.write('vn '+str(vtxArray[i].x)+' '+str(vtxArray[i].y)+' '+str(vtxArray[i].z)+'\n')
			
		# -------------------
		# - Write Face Data -
		# -------------------
		
		# Track per mesh vertex id offsets 
		vertexOffset = 0
		uvOffset = 0
		
		# Initialize face vertex array
		faceVtxArray = OpenMaya.MIntArray()
		
		# Build UV Id pointer object
		uvIdUtil = OpenMaya.MScriptUtil()
		uvIdUtil.createFromInt(0)
		uvIdPtr = uvIdUtil.asIntPtr()
		
		# Iterate over meshes
		for m in range(len(meshList)):
			
			# Write cache file header
			grp = meshList[m].replace(':','_').lower()
			FILE.write('g '+grp+'\n')
			
			# Get mesh face iterator
			faceIter = glTools.utils.mesh.getMeshFaceIter(meshList[m])
			
			# Iterate over mesh faces
			faceIter.reset()
			while not faceIter.isDone():
				
				# Get face vertices
				faceIter.getVertices(faceVtxArray)
				vtxArray = list(faceVtxArray)
				vtxCount = len(vtxArray)
				
				# Build face data string
				faceData = 'f '
				for i in range(vtxCount):
					
					# Vertex Id
					faceData += str(vtxArray[i]+1+vertexOffset)
					faceData += '/'
					
					# UV Id
					try: faceIter.getUVIndex(i,uvIdPtr)
					except: pass
					else: faceData += str(OpenMaya.MScriptUtil(uvIdPtr).asInt()+1+uvOffset)
					faceData += '/'
					
					# Vertex Normal Id
					faceData += str(vtxArray[i]+1+vertexOffset)
					faceData += ' '
				
				faceData += '\n'
				
				# Write face data
				FILE.write(faceData)
				
				# Iterate to next face
				faceIter.next()
			
			# Update vertex offset
			vertexOffset += mc.polyEvaluate(meshList[m],v=True)
			uvOffset += mc.polyEvaluate(meshList[m],uv=True,uvs=uvSetName)
		
		# -----------------------
		# - Finalize cache file -
		# -----------------------
		
		# Close File
		FILE.close()
	
	# Print result
	print 'Write OBJ cache completed!'
Exemplo n.º 15
0
    def bake_poses_to_timeline(self,
                               start_frame=0,
                               suppress=False,
                               anim_layer=None):
        """
        Bakes the poses to the timeline and sets the time range to the given animation.
        :param start_frame: start frame of he baked animation
        :param suppress: A bool to suppress the warning dialogue. Meant to be used outside of the UI
        :anim_layer: if given the animations will be baked on that layer.If the layer doesnt exist we will create one.
        """
        bake_bool = True
        pose_list = []
        if not anim_layer:
            anim_layer = "BaseAnimation"
        elif not cmds.animLayer(anim_layer, exists=True):
            cmds.animLayer(anim_layer)
        try:
            cmds.autoKeyframe(e=1, st=0)
            if not suppress:
                ret = QtWidgets.QMessageBox.warning(None, "WARNING: DESTRUCTIVE FUNCTION",
                                                    "This will bake the poses to the timeline, change your time range, and delete inputs on driving and driven transforms.\n" + \
                                                    "Do you want this to happen?",
                                                    QtWidgets.QMessageBox.Ok | QtWidgets.QMessageBox.Cancel,
                                                    QtWidgets.QMessageBox.Cancel)
                if ret == QtWidgets.QMessageBox.StandardButton.Ok:
                    bake_bool = True
                    cmds.undoInfo(openChunk=True,
                                  undoName='Bake poses to timeline')
                else:
                    bake_bool = False

            if bake_bool:
                # begin printing UE4 pose list
                # print('<- UE4 Pose List ---------------------->')
                i = start_frame
                for p in self.pose_dict:
                    driven_xforms = []
                    for mx_node in self.pose_dict[p]:
                        driven_xforms.extend(
                            cmds.listConnections(mx_node +
                                                 '.driven_transform'))
                    # let's key it on the previous and next frames before we pose it
                    cmds.select(driven_xforms)
                    cmds.animLayer(anim_layer, addSelectedObjects=True, e=True)
                    cmds.setKeyframe(driven_xforms,
                                     t=[(i - 1), (i + 1)],
                                     animLayer=anim_layer)

                    # assume the pose
                    self.assume_pose(p)

                    cmds.setKeyframe(driven_xforms,
                                     t=[i],
                                     animLayer=anim_layer)

                    # print out to UE4 pose list
                    print(p)
                    pose_list.append(p)

                    # increment to next keyframe
                    i += 1
                # print('<- UE4 Pose List ---------------------->')

                # set the range to the number of keyframes
                cmds.playbackOptions(minTime=0,
                                     maxTime=i,
                                     animationStartTime=0,
                                     animationEndTime=i - 1)
                cmds.dgdirty(a=1)
                return pose_list
            cmds.dgdirty(a=1)
        except Exception as e:
            print(traceback.format_exc())
        finally:
            cmds.undoInfo(closeChunk=True)
Exemplo n.º 16
0
def setActiveKeys(node, delete=False) :

    print "Setting active on : " + str(node) + " delete is: " + str(delete)

    '''
    sets the value of .actve attribute on a peel marker to being 1 or 0 if data
    exists one the translate.x channel.  This is used to change the display of
    the marker from a square to a cross in the display.
    '''

    try :
        node = fixName(node)
    except RuntimeError as e :
        m.warning( str(e) )
        return

    if type(node) not in [ str, unicode ] : raise ValueError("Invalid type for setActiveKeys: " + str(type(node)))

    interval = datarate.get(node)
    if interval is None : 
        m.warning("No interval for node while setting active keys: " + str(node) )
        return


    if m.nodeType(node) != "transform" : 
        m.warning("Not a transform while setting active: " + str(node) + '  ' + str( m.nodeType(node) ))
        return

    if not m.objExists(node) :
        m.warning("Object does not exist while setting active: " + str(node) )
        return

    if not m.objExists(node + ".active") :
        m.warning("Object does not have active channel while setting active keys: " + str(node) )
        return

    # check the tx time values
    times = m.keyframe(node + ".tx", q=True, timeChange=True)
    if times is None :
        
        print "No keys on: " + str(node)
        
        conn = m.listConnections( node, d=True, s=False,type='PeelLine', p=True) 
        if delete and ( conn is None or len(conn) == 0 ) :
            m.delete( node)
        else :
            m.cutKey( node + '.active' )
            m.setAttr( node + '.active', 0 )
        return

    times = sorted( times )

    if len(times) == 0 : return


    cdata = curve.fcurve(node, "atv")

    # iterate over each frame and set the active channel when the state changes (stepped)
    lastFrame = None

    for frame in times  :

        if lastFrame is None :
            # first frame
            cdata.data[frame - interval] = 0.0
            cdata.data[frame] = 1.0
        else :
            gapsize = frame-lastFrame

            if abs(gapsize - interval) > 0.1 :
                #print str( gapsize ) + '   ' + str(interval) + '  ' + str(  abs(gapsize - interval) ) + '    ' + str(frame)
                cdata.data[lastFrame + interval ] = 0.0
                cdata.data[frame] = 1.0

        lastFrame = frame
        
    cdata.data[times[-1]+interval] = 0

    cdata.apply(stepped=True)

    m.dgdirty( node )  
Exemplo n.º 17
0
 def force_eval(mtime, _):
     # Without dgdirty some animation were not updated in mayapy
     mc.dgdirty(allPlugs=True)
Exemplo n.º 18
0
    def createRig(self):
        #________________________________________TO MODIF <------------------------ START

        buildRigClass.buildRig.createRig(self)
        '''  
             build the rig  a partir des subRig deja cree 
             
            you have:
                self.mainGrp   
                self.manipGrp  
                self.rigGrp                     
                self.subRigObjs  -------> the obj of all subRig  
                self.buildTrs -------> world trsValue of selection
         
             self.alls = []    # a remplir avec chaque element cree dans createRig!!!!! 
         
        '''
        self.alls = []  #<------ a remplir
        trsObj = trsClass.trsClass()

        chainDynObjs = self.subRigObjs

        # BASE HIERARCHY
        hierarchyNames = [self.mainGrp, self.manipGrp, self.rigGrp]
        hierarchyTypes = ['transform', 'transform', 'transform']
        hierarchyFathers = ['', self.mainGrp, self.mainGrp]
        utilsMaya.createDagNodes(hierarchyTypes, hierarchyNames,
                                 hierarchyFathers)
        self.alls += hierarchyNames

        # PARENT SUBRIG
        for i in range(0, len(chainDynObjs)):
            mc.parent(chainDynObjs[i].mainGrp, self.manipGrp)

        # SLAVE LOC
        mc.spaceLocator(n=self.outLoc)
        mc.parent(self.outLoc, self.rigGrp)
        mc.setAttr(self.outLoc + '.visibility', 0)

        self.alls += [self.outLoc]

        # COLLISION PLANE

        mc.nurbsPlane(n=self.collisionPlane,
                      p=[0, 0, 0],
                      ax=[1, 0, 0],
                      w=1,
                      lr=1,
                      d=1,
                      u=1,
                      v=1,
                      ch=1)
        trsObj.toObj(self.collisionPlane, inTrsValue=self.trsCollisionPlane)
        mc.parent(self.collisionPlane, self.rigGrp)
        utilsMaya.buildConstraint([
            self.collisionPlane, chainDynObjs[0].collisionPlane,
            chainDynObjs[1].collisionPlane, chainDynObjs[2].collisionPlane,
            chainDynObjs[3].collisionPlane, chainDynObjs[4].collisionPlane
        ], ['parent'], 'oneMaster', 0)
        self.alls += [self.collisionPlane]
        # NODE CONNECTION

        mc.createNode(self.nodeType, n=self.nodeName)

        mc.connectAttr(self.nodeName + '.outTranslate',
                       self.outLoc + '.translate')
        mc.connectAttr(self.nodeName + '.outRotate', self.outLoc + '.rotate')

        mc.connectAttr(chainDynObjs[0].outs[0] + '.worldMatrix[0]',
                       self.nodeName + '.worldMatrixA')
        mc.connectAttr(chainDynObjs[1].outs[0] + '.worldMatrix[0]',
                       self.nodeName + '.worldMatrixB')
        mc.connectAttr(chainDynObjs[2].outs[0] + '.worldMatrix[0]',
                       self.nodeName + '.worldMatrixC')
        mc.connectAttr(chainDynObjs[3].outs[0] + '.worldMatrix[0]',
                       self.nodeName + '.worldMatrixD')

        self.alls += [self.nodeName]
        # OTHER
        mc.refresh()
        mc.dgdirty(self.nodeName)

        utilsMaya.buildConstraint([self.outLoc, chainDynObjs[4].ins[0]],
                                  ['parent'], 'oneMaster', 1)

        #____WRITE BUILD INFO
        buildTrs = self.buildTrs
        ins = [
            chainDynObjs[0].ins[0], chainDynObjs[1].ins[0],
            chainDynObjs[2].ins[0], chainDynObjs[3].ins[0]
        ]
        ctrls = [obj.ctrls[0] for obj in chainDynObjs]
        outs = [chainDynObjs[4].outs[0]]
        subMainGrps = [rigObj.mainGrp for rigObj in self.subRigObjs]
        beacons = subMainGrps

        self.saveWriteMainGrpAttr(self.mainGrp, self.rigType, buildTrs, ins,
                                  ctrls, outs, beacons, self.alls, subMainGrps)
        self.writeBeaconsAttr()