def getSelectedCurves():
'''Returns a list of all curves that are completely selected.'''
selection = []
# First see if there are any curves selected
curves = cmd.keyframe(q=1, name=1, sl=1)
if curves:
for curve in curves:
# Find out if the entire curve is selected, based on keyframe count.
totalKeyframes = cmd.keyframe(curve, q=1, keyframeCount=1)
selectedKeyframes = cmd.keyframe(curve, q=1, keyframeCount=1, sl=1)
if totalKeyframes == selectedKeyframes:
try:
# Trace the output of the curve to find the attribute.
attr = getFirstConnection(curve, 'output', outAttr=1, findAttribute=1)
selection.append(attr)
except RuntimeError:
pass
else:
# Short circut the whole loop. If there's ever any
# selection that is NOT an entire curve, then NOTHING is
# returned Without this, other functions may operate
# only on curves, but ignore other selected keys, which
# is not desirable.
return []
return selection
def camMovementDetector():
shotCam = [cam for cam in cmds.listCameras(perspective = True) if cam != 'persp' if cmds.objExists('%s.type' % cam) if cmds.getAttr('%s.type' % cam) == 'shotCam']
shotCam = shotCam[0] if shotCam else None
animated_curves = []
anim_curves = cmds.findKeyframe(shotCam, curve = True)
if anim_curves:
keyframes_min_max = []
for crv in anim_curves:
keys = cmds.keyframe(crv, valueChange = True, q = True)
frames = cmds.keyframe(crv, timeChange = True, q = True)
keyframes = dict( zip(keys, frames) )
if keyframes:
if len(keyframes) > 1:
start_anim = max( keyframes.values() )
stop_anim = min( keyframes.values() )
keyframes_min_max.append(start_anim) if start_anim not in keyframes_min_max else None
keyframes_min_max.append(stop_anim) if stop_anim not in keyframes_min_max else None
if keyframes_min_max:
return min(keyframes_min_max), max(keyframes_min_max)
def getMinMax():
rangeStart = cmds.playbackOptions(query=True, minTime=True)
rangeEnd = cmds.playbackOptions(query=True, maxTime=True)
curvesShown = cmds.animCurveEditor( 'graphEditor1GraphEd', query=True, curvesShown=True)
keysTimes = []
keysValues = []
keysShown = []
if curvesShown:
for aCurve in curvesShown:
keysTimes.extend(cmds.keyframe(aCurve, query=True, timeChange=True))
keysValues.extend(cmds.keyframe(aCurve, query=True, valueChange=True))
for n, key in enumerate(keysTimes):
if rangeStart <= key <= rangeEnd:
keysShown.append(keysValues[n])
keyMax = max(keysShown)
keyMin = min(keysShown)
total = keyMax - keyMin
if total == 0: total = 1
border = total * .1
return [keyMax+border, keyMin-border]
else:
return [0, 100]
def canInsertKey(attr):
'''
Returns True if a given attribute can be keyframed with the insert keyframe
command option.
Raises KeyframeQueryFailed
'''
# Insert keys match the curvature of the existing curve.
# They have a few limitations though...
try:
# You can't insert a keyframe if there are no keyframes to begin with
if cmd.keyframe(attr, query=1, keyframeCount=1) == 0:
return False
except RuntimeError as err:
raise KeyframeQueryFailed(err)
# You don't want to insert a keyframe if the user changed something.
# Keyframe always returns a list
oldValue = cmd.keyframe(attr, query=1, eval=1)
# GetAttr returns a single value if only one. Otherwise, a list of
# tuples ex: [(0, 0, 0)]
newValue = cmd.getAttr(attr)
if not isinstance(newValue, collections.Iterable) and len(oldValue) == 1:
# There's only one attribute.
if round(oldValue[0], 6) != round(newValue, 6):
return False
elif len(oldValue) == len(newValue[0]):
# Attribute is an array, check each one.
if any(round(oldValue[x], 6) != round(newValue[0][x], 6) for x in range(len(oldValue))):
return False
else:
# I don't know what this is.
return False
return True
def keyCopyObjects( fromList, toList, start, end ):
for i in range( len( fromList ) ):
fromCtl = fromList[i]
toCtl = toList[i]
targetMtx = cmds.getAttr( fromCtl+'.m' )
mirrorMtx = getMirrorMatrix_local( targetMtx )
listAttr = cmds.listAttr( fromCtl, k=1 )
if not listAttr: continue
for attr in listAttr:
times = cmds.keyframe( fromCtl+'.'+attr, q=1, t=(start,end), tc=1 )
if not times: continue
values = cmds.keyframe( fromCtl+'.'+attr, q=1, t=(start,end), vc=1 )
keyLocks = cmds.keyTangent( fromCtl+'.'+attr, q=1, t=(start,end), lock=1 )
inAngles = cmds.keyTangent( fromCtl+'.'+attr, q=1, t=(start,end), ia=1 )
outAngles = cmds.keyTangent( fromCtl+'.'+attr, q=1, t=(start,end), oa=1 )
cmds.cutKey( toCtl+'.'+attr, t=(start+0.01, end-0.01) )
for i in range( len( times ) ):
if attr.find( 'translate' ) != -1:
value = -values[i]
ia = -inAngles[i]
oa = -outAngles[i]
else:
value = values[i]
ia = inAngles[i]
oa = outAngles[i]
cmds.setKeyframe( toCtl+'.'+attr, t=times[i], v=value )
cmds.keyTangent( toCtl+'.'+attr, e=1, t=(times[i],times[i]), lock=0 )
cmds.keyTangent( toCtl+'.'+attr, e=1, t=(times[i],times[i]), ia=ia )
cmds.keyTangent( toCtl+'.'+attr, e=1, t=(times[i],times[i]), oa=oa )
cmds.keyTangent( toCtl+'.'+attr, e=1, t=(times[i],times[i]), lock=keyLocks[i] )
def getKeyTimes(self, prefKey=None):
prefKey = prefKey or self.prefKey
getFrom = None
keyTimesDict = {}
keyTimes = []
if prefKey in ["selection", "selection_list"]:
animCurves = cmds.keyframe(query=True, name=True)
keyTimes = animMod.getTarget("keyTimes", animCurves) if animCurves else []
keyTimes = sorted(utilMod.mergeLists(keyTimes))
for n, loopMotionTrail in enumerate(self.nodeInfo.keys()): keyTimesDict[loopMotionTrail] = keyTimes
else:
for loopMotionTrail in self.nodeInfo.keys():
animCurves = cmds.keyframe(loopMotionTrail, query=True, name=True)
keyTimes = animMod.getTarget("keyTimes", animCurves) if animCurves else []
keyTimesDict[loopMotionTrail] = utilMod.mergeLists(keyTimes)
return keyTimesDict
def secondaryChain(offset=0.5, lst='tailSecondary'):
'''
loads selectSet and performs bake and offset of objects
'''
addSel = []
sel = cmds.ls(sl=1)
if sel:
obj = sel[0].split(':')[1]
cmds.select(clear=True)
setDict = ss.loadDict(os.path.join(ss.defaultPath(), lst + '.sel'))
if obj in setDict.values():
# convert set to list of objects
remapped = ss.remapSet(sel[0], setDict)
# print remapped
for con in remapped:
addSel.append(con)
cmds.select(addSel)
# bake to world
locs = sorted(cn.controllerToLocator(matchSet=True))
print locs
print range(len(locs))
for i in range(len(locs)):
animCurves = cmds.findKeyframe(locs[i], c=True)
for crv in animCurves:
cmds.keyframe(crv, relative=1, timeChange=(0 + ((i + 1) * offset)))
else:
message('no selection made')
def chimaPullThemDown() : num = -6975.209 nodes = mc.ls( sl=True ) tys = [] for node in nodes : src = mc.listConnections( '%s.ty' % node , p=True , s=True , d=False )[0] srcType = mc.nodeType( src ) ty = '' if srcType == 'character' : ty = mc.listConnections( src , s=True , d=False )[0] elif srcType == 'animCurveTL' : ty = src.split( '.' )[0] else : print '%s has been constrained to object' % node ty = None if ty : tys.append( ty ) mc.keyframe( tys , e=True , includeUpperBound=False , animation='objects' , time=(0,100000) , r=True , o='move' , timeChange=0 , valueChange=num )
def mirrorDrivenkeys(src, dst):
for driver, driven in getDrivenKeys(src):
newDriver = driver.replace(src, dst)
newDriven = driven.replace("L_", "R_")
if not mc.objExists(newDriven) or newDriven == driven:
newDriven = driven.replace("left", "right")
if not mc.objExists(newDriven) or newDriven == driven:
newDriven = driven.replace("L", "R")
if not mc.objExists(newDriver) or not mc.objExists(newDriven):
continue
if newDriven == driven:
continue
driverValues = mc.keyframe(driven, q=True, fc=True)
drivenValues = mc.keyframe(driven, q=True, vc=True)
for drv, dnv in zip(driverValues, drivenValues):
if re.search(
"(translateX|eyeRotInner_ctl_0.rotateZ|mouthCorner_ctl_0\.translateY|mouth_ctl_0\.translateY)$",
newDriver,
):
dnv = dnv * -1
if re.search("(mainCheek_ctl_0\.translateX)$", newDriver):
dnv = dnv * -1
mc.setDrivenKeyframe(newDriven, cd=newDriver, dv=drv, v=dnv)
print "Copy Driven keys: %s : %s -> %s : %s" % (driver, driven, newDriver, newDriven)
def random(): import random curves = mc.keyframe(q=1, sl=1, name=1) for curve in curves: indexes = mc.keyframe(curve, q=1, sl=1, iv=1) for index in indexes: mc.keyframe(curve, r=1, vc=random.uniform(-1.0, 1.0), index=tuple([index]) )
def BezierInterpolate(curveName):
rawKeyCount = mc.keyframe(curveName, query=True, keyframeCount=True)
keyframes = mc.keyframe(curveName, query=True, timeChange=True, valueChange=True)
if rawKeyCount < 4:
print "Not enough control points, key count = " + str(rawKeyCount) + ", must have at least 4"
return;
keyCount = ((rawKeyCount - 4) // 3) * 3 + 4;
curveCount = 1 + ((keyCount - 4) // 3);
basisMatrix = matrix4x4([-1, 3, -3, 1, 3, -6, 3, 0, -3, 3, 0, 0, 1, 0, 0, 0])
for index in range(curveCount):
p1KeyArrayIndex = 2 * (index * 3);
p2KeyArrayIndex = 2 * (index * 3 + 1);
p3KeyArrayIndex = 2 * (index * 3 + 2);
p4KeyArrayIndex = 2 * (index * 3 + 3);
p1 = vector2(keyframes[p1KeyArrayIndex], keyframes[p1KeyArrayIndex + 1]);
p2 = vector2(keyframes[p2KeyArrayIndex], keyframes[p2KeyArrayIndex + 1]);
p3 = vector2(keyframes[p3KeyArrayIndex], keyframes[p3KeyArrayIndex + 1]);
p4 = vector2(keyframes[p4KeyArrayIndex], keyframes[p4KeyArrayIndex + 1]);
startTime = int(keyframes[p1KeyArrayIndex])
endTime = int(keyframes[p4KeyArrayIndex])
timeSteps = abs(endTime - startTime)
for t in range(timeSteps + 1):
time = float(t) / timeSteps
timeVector = matrix1x4([time ** 3, time ** 2, time, 1]);
inputPointsVector = matrix4x1([p1, p2, p3, p4]);
output = timeVector * basisMatrix * inputPointsVector;
mc.setKeyframe(curveName, time=output.x, value=output.y)
def plot():
curves = mc.keyframe(q=1, sl=1, name=1)
if type(curves).__name__ != 'NoneType':
for curve in curves:
indexes = mc.keyframe(curve, q=1, sl=1, iv=1)
if len(indexes) != 1:
startTime = int(mc.keyframe(curve, q=1, tc=1, index=tuple([indexes[0]]))[0])
endTime = int(mc.keyframe(curve, q=1, tc=1, index=tuple([indexes[1]]))[0])
mc.selectKey(cl=1)
for point in range(startTime, endTime):
mc.setKeyframe(curve, insert=1, time=point)
mc.selectKey(curve, time=( (startTime+0.01), (endTime-0.01) ), add=1, k=1)
else:
mc.warning('Only one keyframe is selected for the curve ' + curve + '.')
else:
sels = mc.ls(sl=1)
if sels:
timeSlider = mm.eval('$tmp = $gPlayBackSlider')
if mc.timeControl(timeSlider, q=1, rv=1) == 1:
startTime = int(mc.timeControl(timeSlider, q=1, ra=1)[0])
endTime = int(mc.timeControl(timeSlider, q=1, ra=1)[1])
else:
startTime = int(mc.playbackOptions(q=1, min=1))
endTime = int(mc.playbackOptions(q=1, max=1))
curves = mc.keyframe(q=1, name=1)
for curve in curves:
for point in range(startTime, endTime):
mc.setKeyframe(curve, insert=1, time=point)
mc.selectKey(curve, time=( (startTime+0.01), (endTime-0.01) ), add=1, k=1)
else:
mc.warning('Nothing is selected.')
def hold(): curves = mc.keyframe(q=1, sl=1, name=1) for curve in curves: index = mc.keyframe(curve, q=1, sl=1, iv=1) firstValue = mc.keyframe(curve, q=1, sl=1, vc=1)[0] mc.keyframe(curve, vc=firstValue, index=(index[0], index[-1])) mc.keyTangent(itt='flat', ott='flat')
def BSplineInterpolate(curveName):
keyCount = mc.keyframe(curveName, query=True, keyframeCount=True)
keyframes = mc.keyframe(curveName, query=True, timeChange=True, valueChange=True)
deBoorPoints = [];
for n in range(2):
deBoorPoints.append(vector2(keyframes[0], keyframes[1]))
for index in range(0, len(keyframes), 2):
deBoorPoints.append(vector2(keyframes[index], keyframes[index + 1]))
for n in range(2):
deBoorPoints.append(vector2(keyframes[-2], keyframes[-1]))
basisMatrix = matrix4x4([-1, 3, -3, 1, 3, -6, 3, 0, -3, 0, 3, 0, 1, 4, 1, 0])
for n in range(len(deBoorPoints) - 3):
b1 = deBoorPoints[n]
b2 = deBoorPoints[n + 1]
b3 = deBoorPoints[n + 2]
b4 = deBoorPoints[n + 3]
timeSteps = 10
for t in range(timeSteps + 1):
time = float(t) / float(timeSteps)
timeVector = matrix1x4([time ** 3, time ** 2, time, 1]);
inputPointsVector = matrix4x1([b1, b2, b3, b4]);
output = timeVector * (1.0 / 6.0) * basisMatrix * inputPointsVector;
mc.setKeyframe(curveName, time=output.x, value=output.y)
def keyCopyObjectOnce( target, start, end ):
otherTarget = ''
if target in CtlInfo.leftCtls:
otherTarget = target.replace( '_L1_', '_R1_' )
elif target in CtlInfo.rightCtls:
otherTarget = target.replace( '_R1_', '_L1_' )
if not otherTarget: return None
attrs = cmds.listAttr( target, k=1 )
for attr in attrs:
times = cmds.keyframe( target+'.'+attr, q=1, t=(start,end), tc=1 )
if not times: continue
values = cmds.keyframe( target+'.'+attr, q=1, t=(start,end), vc=1 )
keyLocks = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), lock=1 )
inAngles = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), ia=1 )
outAngles = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), oa=1 )
cmds.cutKey( otherTarget+'.'+attr, t=(start+0.01, end-0.01) )
for i in range( len( times ) ):
value = values[i]
ia = inAngles[i]
oa = outAngles[i]
cmds.setKeyframe( otherTarget+'.'+attr, t=times[i], v=value )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), lock=0 )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), ia=ia )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), oa=oa )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), lock=keyLocks[i] )
def getKeyByObject(obj):
data = dict()
#- object exists ?
if not mc.objExists(obj):
return data
data['object'] = re.search('\w+$', obj).group()
#- object has attributes ?
attributes = mc.listAttr(obj, k=True)
if not attributes:
return data
#- get keys
for attr in attributes:
times = mc.keyframe(obj, at=attr, q=True, tc=True)
values = mc.keyframe(obj, at=attr, q=True, vc=True)
inAngles = mc.keyTangent(obj, at=attr, q=True, ia=True)
outAngles = mc.keyTangent(obj, at=attr, q=True, oa=True)
inWeights = mc.keyTangent(obj, at=attr, q=True, iw=True)
outWeights = mc.keyTangent(obj, at=attr, q=True, ow=True)
#- keys not found..
if not times:
continue
#- save data..
data.setdefault('keyData', {})[attr] = zip(times, values, inAngles, inWeights, outAngles, outWeights)
return data
def returnSetDrivenCurveInfo(driverAttribute,drivenObject):
"""
>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
DESCRIPTION:
Returns the info for a sdk curve
ARGUMENTS:
driverAttribute(string)
drivenObject(string)
RETURNS:
curveInfo(dict){time:value,etc...}
>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
"""
driverCurve = returnDriverCurve(driverAttribute,drivenObject)
if driverCurve:
setDrivenCurveInfo = {}
keyCnt = mc.keyframe(driverCurve[0],q=True, keyframeCount = True)
curveValues = mc.keyframe(driverCurve[0],q=True, vc=True)
for cnt in range(keyCnt):
# Because maya is stupid and the syntax for this in pythong unfathomable my mere mortals such as I
mel.eval('string $animCurve = "%s";' %driverCurve[0])
mel.eval('int $cnt = %i;' %cnt)
keyTimeValue = mel.eval('keyframe -index $cnt -query -fc $animCurve')
setDrivenCurveInfo[keyTimeValue[0]] = (curveValues[cnt])
return setDrivenCurveInfo
def export(anim_curve):
"""Creates a dictionary of all the data necessary to rebuild the
curve."""
# Check the curve exists and is an animation curve.
if not cmds.objExists(anim_curve):
cmds.error("Failed to find anim curve {0}".format(anim_curve))
type = cmds.nodeType(anim_curve)
if not is_type_exportable(type):
cmds.error("Node {0} is not an anim curve".format(anim_curve))
# Get the keys on the curve.
keys = cmds.keyframe(anim_curve, query=True)
key_count = cmds.keyframe(anim_curve,
keyframeCount=True,
query=True)
# Gather the value and in/out tangent type, and x,y coordinates of
# each key.
data = {'name':anim_curve,'type':type}
data['key_data'] = [key_info_by_index(anim_curve, i)
for i in range(key_count)]
# Get infinity values
data['pre'] = cmds.getAttr("{0}.preInfinity".format(anim_curve))
data['post'] = cmds.getAttr("{0}.postInfinity".format(anim_curve))
# Get curve colour values
data['useColor'] = cmds.getAttr("{0}.useCurveColor".format(
anim_curve))
data['color'] = cmds.getAttr("{0}.curveColor".format(anim_curve))[0]
return data
def animCurveReplaceFloatInput( target ):
animCurves = cmds.listConnections( target, s=1, d=0, type='animCurve' )
newAnimCurves = []
for animCurve in animCurves:
nodeType = cmds.nodeType( animCurve )
if cmds.nodeType( animCurve )[:-1] != "animCurveT": continue
newAnimCurveNodeType = nodeType.replace( 'animCurveT', 'animCurveU' )
newAnimCurve = cmds.createNode( newAnimCurveNodeType )
tc = cmds.keyframe( animCurve, q=1, tc=1 )
vc = cmds.keyframe( animCurve, q=1, vc=1 )
for i in range( len( tc ) ):
cmds.setKeyframe( newAnimCurve, f=tc[i], v=vc[i] )
outputCon, inputCon = cmds.listConnections( animCurve+'.output', p=1, c=1, d=1, s=0 )
cmds.connectAttr( newAnimCurve+'.output', inputCon, f=1 )
cmds.delete( animCurve )
newAnimCurves.append( newAnimCurve )
print newAnimCurves
cmds.select( newAnimCurves )
def __init__(self,
name='mlBreakdownDraggerContext',
minValue=None,
maxValue=None,
defaultValue=0,
title = 'Breakdown'):
self.keySel = utl.KeySelection()
if self.keySel.selectedKeys():
pass
elif self.keySel.visibleInGraphEditor():
self.keySel.setKeyframe()
elif self.keySel.keyedChannels():
self.keySel.setKeyframe()
if not self.keySel.curves:
return
utl.Dragger.__init__(self, defaultValue=defaultValue, minValue=minValue, maxValue=maxValue, name=name, title=title)
#setup tangent type
itt,ott = utl.getHoldTangentType()
self.time = dict()
self.value = dict()
self.next = dict()
self.prev = dict()
self.average = dict()
for curve in self.keySel.curves:
if self.keySel.selected:
self.time[curve] = mc.keyframe(curve, query=True, timeChange=True, sl=True)
self.value[curve] = mc.keyframe(curve, query=True, valueChange=True, sl=True)
else:
self.time[curve] = self.keySel.time
self.value[curve] = mc.keyframe(curve, time=self.keySel.time, query=True, valueChange=True)
self.next[curve] = list()
self.prev[curve] = list()
self.average[curve] = list()
for i in self.time[curve]:
next = mc.findKeyframe(curve, time=(i,), which='next')
prev = mc.findKeyframe(curve, time=(i,), which='previous')
n = mc.keyframe(curve, time=(next,), query=True, valueChange=True)[0]
p = mc.keyframe(curve, time=(prev,), query=True, valueChange=True)[0]
self.next[curve].append(n)
self.prev[curve].append(p)
self.average[curve].append((n+p)/2)
#set the tangents on this key, and the next and previous, so they flatten properly
mc.keyTangent(curve, time=(i,), itt=itt, ott=ott)
mc.keyTangent(curve, time=(next,), itt=itt)
mc.keyTangent(curve, time=(prev,), ott=ott)
self.setTool()
self.drawString('Left: Weight Prev/Next, Middle: Weight Average')
OpenMaya.MGlobal.displayWarning('Left: Weight Prev/Next, Middle: Weight Average')
def __init__( self, attrpath, keyTime=None, keyIdx=None ):
#if the attrpath doesn't exist, then just create an empty key instance
if not cmd.objExists(attrpath):
self.obj = None
self.attr = None
self.time = None
self.value = None
self.iw = None
self.ow = None
self.itt = None
self.ott = None
return
self.obj,self.attr = attrpath.split('.')
#make sure the attr name is the long version of the name, its too annoying to have to deal with shortnames AND long names...
self.attr = cmd.attributeQuery(self.attr,longName=True,node=self.obj)
#and just for uber convenience, store the attrpath as well...
self.attrpath = attrpath
if keyIdx != None:
times = cmd.keyframe(attrpath,index=keyIdx,query=True)
self.time = times[0]
elif keyTime != None:
self.time = keyTime
#is there a key at the time?
if cmd.keyframe(attrpath,time=(keyTime,),query=True,keyframeCount=True):
self.value = cmd.keyframe(attrpath,time=(keyTime,),query=True,valueChange=True)[0]
self.iw,self.ow,self.ia,self.oa = cmd.keyTangent(attrpath,time=(keyTime,),query=True,inWeight=True,outWeight=True,inAngle=True,outAngle=True)
self.itt,self.ott = cmd.keyTangent(attrpath,time=(keyTime,),query=True,inTangentType=True,outTangentType=True)
#this is purely 'clean up after maya' code. for whatever reason maya will return a tangent type of "fixed" even though its a completely invalid tangent type... not sure what its supposed to map to, so I'm just assuming spline
if self.itt == 'fixed': self.itt = 'spline'
if self.ott == 'fixed': self.ott = 'spline'
else:
self.value = cmd.keyframe(attrpath,time=(keyTime,),query=True,eval=True,valueChange=True)
index = self.index
previousOutTT = None
previousOutTW = None
nextInTT = None
nextInTW = None
if index > 1:
previousOutTT = cmd.keyTangent(attrpath,index=(index-1,),query=True,outTangentType=True)
previousOutTW = cmd.keyTangent(attrpath,index=(index-1,),query=True,outWeight=True)
else:
previousOutTT = cmd.keyTangent(attrpath,index=(index,),query=True,outTangentType=True)
previousOutTW = cmd.keyTangent(attrpath,index=(index,),query=True,outWeight=True)
if index < cmd.keyframe(self.attr,query=True,keyframeCount=True):
nextInTT = cmd.keyTangent(attrpath,index=(index+1,),query=True,inTangentType=True)
nextInTW = cmd.keyTangent(attrpath,index=(index+1,),query=True,inWeight=True)
else:
nextInTT = cmd.keyTangent(attrpath,index=(index,),query=True,inTangentType=True)
nextInTW = cmd.keyTangent(attrpath,index=(index,),query=True,inWeight=True)
#now average the tangents
self.iw = self.ow = (previousOutTW + nextInTW )/2
def __init__( self, attrpath=None, start=None, end=None ):
self.obj = None
self.attr = None
self.attrpath = attrpath
if start == None:
#get the timecount of the first key
start = cmd.keyframe(attrpath,index=(0,),query=True)[0]
if end == None:
#get the timecount of the first key
lastKeyIdx = cmd.keyframe(attrpath,keyframeCount=True,query=True)-1
end = cmd.keyframe(attrpath,index=(lastKeyIdx,),query=True)[0]
self.keys = []
if attrpath != None:
self.obj,self.attr = attrpath.split('.')
self.attr = cmd.attributeQuery(self.attr,longName=True,node=self.obj)
self.weighted = cmd.keyTangent(self.attrpath,query=True,weightedTangents=True)
if self.weighted == 1: self.weighted = True
else: self.weighted = False
if cmd.objExists(attrpath):
keyTimes = cmd.keyframe(attrpath,time=(start,end),query=True)
if keyTimes != None:
for k in keyTimes:
self.keys.append(Key(attrpath,keyTime=k))
def on_actionLoadSourceControl_triggered(self, clicked=None):
if clicked == None:return
selectOBJ = mc.ls(sl=True)
if len(selectOBJ) == 0:return
self.sourceControlFLD.setText(selectOBJ[0])
KeyableAttr = mc.listAttr(selectOBJ[0], k=True)
del self.sourceAtrLst[:]
del self.targentAtrLst[:]
# loop Attributes..
for Attr in KeyableAttr:
SDKeys = mc.connectionInfo('%s.%s'%(selectOBJ[0], Attr), dfs=True)
# loop driven Attributes..
for key in SDKeys:
if mc.nodeType(key) == 'unitConversion':
keyNode = mc.connectionInfo('%s.output'%key.split('.')[0], dfs=True)[0].split('.')[0]
elif mc.nodeType(key) not in ('animCurve','animCurveTA', 'animCurveTL', 'animCurveTT','animCurveTU','animCurveUA','animCurveUL','animCurveUT','animCurveUU'):
continue
else:
keyNode = key.split('.')[0]
DriverValues = mc.keyframe(keyNode, q=True, fc=True)
DrivenValues = mc.keyframe(keyNode, q=True, vc=True)
DriverAttribute = mc.connectionInfo('%s.output'%keyNode, dfs=True)[0]
# if more than one Drivers, from add node get the attribute..
if DriverAttribute.endswith(']'):
DriverAttribute = mc.connectionInfo('%s.output'%(DriverAttribute.split('.')[0]), dfs=True)[0]
self.sourceAtrLst.append(['%s.%s'%(selectOBJ[0], Attr), DriverAttribute, DriverValues, DrivenValues])
self.on_actionInputSearchReplace_triggered()
def fillGapLinear(item=None,step=None, start=None, end=None) :
try :
if item is None : item = getItem()
if step is None : step = datarate.get(item)
if start is None or end is None :
(start, end) = findCurrentGap(item)
except ValueError as e :
print "Could not fill linear gap: " + str(e)
return
fillObj = item
gapval = [
m.keyframe(fillObj + ".tx", q=True, time=( start, end ), vc=True),
m.keyframe(fillObj + ".ty", q=True, time=( start, end ), vc=True),
m.keyframe(fillObj + ".tz", q=True, time=( start, end ), vc=True) ]
chan = [ ".tx", ".ty", ".tz" ]
ktime = 0
for i in range(0,3) :
ktime = start + step
while ktime <= end - step :
progress = (ktime-start) / (end - start)
kvalue = (gapval[i][-1] - gapval[i][0]) * progress + gapval[i][0]
m.setKeyframe( fillObj + chan[i], t=ktime, value = kvalue)
ktime = ktime + step
setActiveKeys(fillObj)
def feeder(clp, time=1.0):
smaller = []
greater = []
sel = cmds.ls(sl=1)[0]
if sel:
time = cmds.currentTime(q=1)
crvs = cmds.findKeyframe(sel, c=True)
for crv in crvs:
# print crv
frames = cmds.keyframe(crv, q=True)
# print frames
for frame in frames:
if frame < time:
smaller.append(frame)
elif frame > time:
greater.append(frame)
else:
# print frame, time, ' here'
pass
#
sm = smaller[len(smaller) - 1]
y = cmds.keyframe(crv, q=True, time=(sm, sm), valueChange=True, a=True)
y = y[0]
p0 = [sm, y]
#
gr = greater[0]
y = cmds.keyframe(crv, q=True, time=(gr, gr), valueChange=True, a=True)
y = y[0]
p3 = [gr, y]
#
corX, corY = getControlPoints(crv, p0, p3) # only if non-weighted tangents
# print corX, corY
degIn, hlengthIn, value, degOut, hlengthOut = seekPoint(corX, corY, time)
# print degIn, value, degOut, crv
cmds.setKeyframe(crv, time=(time, time), value=value)
cmds.keyTangent(crv, edit=True, time=(time, time), inAngle=degIn, outAngle=degOut)
if cmds.getAttr(crv + '.weightedTangents'):
cmds.keyTangent(crv, edit=True, time=(time, time), inWeight=hlengthIn)
cmds.keyTangent(crv, edit=True, time=(time, time), outWeight=hlengthOut)
# adjust existing tangent weights
o = cmds.keyTangent(crv, q=True, time=(p0[0], p0[0]), outWeight=True)[0]
i = cmds.keyTangent(crv, q=True, time=(p3[0], p3[0]), inWeight=True)[0]
#
gap = p3[0] - p0[0]
#
front = (time - p0[0])
back = (p3[0] - time)
#
front = (time - p0[0]) / gap
back = (p3[0] - time) / gap
#
cmds.keyTangent(crv, edit=True, time=(p0[0], p0[0]), lock=False, outWeight=o * front)
cmds.keyTangent(crv, edit=True, time=(p3[0], p3[0]), lock=False, inWeight=i * back)
cmds.keyTangent(crv, edit=True, time=(p0[0], p0[0]), lock=True)
cmds.keyTangent(crv, edit=True, time=(p3[0], p3[0]), lock=True)
smaller = []
greater = []
else:
print 'Select something'
def keyCopyObjectOnce( target, start, end ):
otherTarget = ''
if target in CtlInfo.leftCtls:
otherTarget = target.replace( 'L_', 'R_' )
elif target in CtlInfo.rightCtls:
otherTarget = target.replace( 'R_', 'L_' )
if not otherTarget: return None
isTransMirror = False
isZRotMirror = False
for transMirrorName in CtlInfo.xTransMirrorTargetNames:
if target.find( transMirrorName ) != -1:
isTransMirror = True
for zRotMirror in CtlInfo.zRotMirrorTargetNames:
if target.find( zRotMirror ) != -1 and target.find( 'wing_big4_CTL' ) == -1:
isZRotMirror = True
attrs = cmds.listAttr( target, k=1 )
for attr in attrs:
times = cmds.keyframe( target+'.'+attr, q=1, t=(start,end), tc=1 )
if not times: continue
values = cmds.keyframe( target+'.'+attr, q=1, t=(start,end), vc=1 )
keyLocks = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), lock=1 )
inAngles = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), ia=1 )
outAngles = cmds.keyTangent( target+'.'+attr, q=1, t=(start,end), oa=1 )
cmds.cutKey( otherTarget+'.'+attr, t=(start+0.01, end-0.01) )
for i in range( len( times ) ):
if attr.find( 'scale' ) != -1:
value = values[i]
ia = inAngles[i]
oa = outAngles[i]
elif attr.find( 'translate' ) != -1:
if isTransMirror and attr[-1] in ['Y','Z']:
value = values[i]
ia = inAngles[i]
oa = outAngles[i]
else:
value = -values[i]
ia = -inAngles[i]
oa = -outAngles[i]
else:
if isZRotMirror and attr[-1] in [ 'X', 'Y' ]:
value = -values[i]
ia = -inAngles[i]
oa = -outAngles[i]
else:
value = values[i]
ia = inAngles[i]
oa = outAngles[i]
cmds.setKeyframe( otherTarget+'.'+attr, t=times[i], v=value )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), lock=0 )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), ia=ia )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), oa=oa )
cmds.keyTangent( otherTarget+'.'+attr, e=1, t=(times[i],times[i]), lock=keyLocks[i] )
def tangentScale(value, outValue=None):
if outValue == None:
outValue = value
curves = None
#order of operations:
#selected keys, visible in graph editor on current frame
selected = False
time = mc.currentTime(query=True)
curves = mc.keyframe(query=True, name=True, selected=True)
if curves:
#try selected keys first
selected = True
else:
#then visible in graph editor
graphVis = mc.selectionConnection('graphEditor1FromOutliner', query=True, obj=True)
if graphVis:
curves = mc.keyframe(graphVis, query=True, name=True)
else:
#otherwise try keyed channels.
sel = mc.ls(sl=True)
if not sel:
return
curves = mc.listConnections(sel, s=True, d=False, type='animCurve')
if not curves:
return
for curve in curves:
keyTimes = list()
#set tangents weighted if they aren't already
if mc.keyTangent(curve, query=True, weightedTangents=True):
mc.keyTangent(curve, edit=True, weightedTangents=True)
if selected:
keyTimes = mc.keyframe(curve, query=True, timeChange=True, selected=True)
else:
keyTimes = [time]
for t in keyTimes:
weight = mc.keyTangent(curve, time=(t,), query=True, inWeight=True, outWeight=True)
if not weight:
continue
inOut = list()
for w,v in zip(weight,[value,outValue]):
if v<1 and w < 0.1:
inOut.append(0)
elif v>1 and w == 0:
inOut.append(0.1)
else:
inOut.append(w*v)
mc.keyTangent(curve, time=(t,), edit=True, absolute=True, inWeight=inOut[0], outWeight=inOut[1])
def shift_back(self,*args):
# shift keys 1 step back
sels = cmds.ls(sl=True,fl=True)
for sel in sels:
channel = "{0}.visibility".format(sel)
cur_keys = cmds.keyframe(sel,q=True)
if cur_keys and cur_keys>=1:
cmds.keyframe(channel,e=True,r=1,tc=-1)
def dragLeft(self):
'''
Activated by the left mouse button, this scales keys toward or away from their default value.
'''
self.drawString('Scale '+str(int(self.x*100))+' %')
for curve in self.curves:
for i,v in zip(self.time[curve], self.value[curve]):
mc.keyframe(curve, time=(i,), valueChange=self.default[curve]+((v-self.default[curve])*self.x))
def motionList( obj, start, end ): #creates a list of positions at each frames over a given time range motion = [] for n in xrange(start,end+1): #add one because this is an inclusive range curX = cmd.keyframe(obj +'.tx',t=(n,),q=True,ev=True)[0] curY = cmd.keyframe(obj +'.ty',t=(n,),q=True,ev=True)[0] curZ = cmd.keyframe(obj +'.tz',t=(n,),q=True,ev=True)[0] motion.append( (curX,curY,curZ) ) return motion
def generate(self, objects, startFrame=None, endFrame=None):
'''
generates an anim dictionary - its basically just dict with node names for keys. key values
are lists of tuples with the form: (keyTime, attrDict) where attrDict is a dictionary with
attribute name keys and attribute value keys
'''
defaultWeightedTangentOpt = bool(
cmd.keyTangent(q=True, g=True, wt=True))
self.clear()
if startFrame is None:
startFrame = cmd.playbackOptions(q=True, min=True)
if endFrame is None:
endFrame = cmd.playbackOptions(q=True, max=True)
startFrame, endFrame = list(sorted([startFrame, endFrame]))
self.offset = startFrame
#list all keys on the objects - so we can determine the start frame, and range. all times are stored relative to this time
allKeys = cmd.keyframe(objects, q=True) or []
allKeys.sort()
allKeys = [k for k in allKeys if startFrame <= k <= endFrame]
self.offset = offset = allKeys[0]
self.__range = allKeys[-1] - offset
for obj in objects:
attrs = cmd.listAttr(obj, keyable=True, visible=True, scalar=True)
if attrs is None:
continue
objDict = {}
self[obj] = objDict
for attr in attrs:
timeTuple = startFrame, endFrame
#so the attr value dict contains a big fat list containing tuples of the form:
#(time, value, itt, ott, ita, ota, iw, ow, isLockedTangents, isWeightLock)
attrpath = '%s.%s' % (obj, attr)
times = cmd.keyframe(attrpath, q=True, t=timeTuple)
weightedTangents = defaultWeightedTangentOpt
#if there is an animCurve this will return its "weighted tangent" state - otherwise it will return None and a TypeError will be raised
try:
weightedTangents = bool(
cmd.keyTangent(attrpath, q=True,
weightedTangents=True)[0])
except TypeError:
pass
if times is None:
#in this case the attr has no animation, so simply record the pose for this attr
objDict[attr] = (False,
[(None, cmd.getAttr(attrpath), None, None,
None, None, None, None, None, None)])
continue
else:
times = [t - offset for t in times]
values = cmd.keyframe(attrpath, q=True, t=timeTuple, vc=True)
itts = cmd.keyTangent(attrpath, q=True, t=timeTuple, itt=True)
otts = cmd.keyTangent(attrpath, q=True, t=timeTuple, ott=True)
ixs = cmd.keyTangent(attrpath, q=True, t=timeTuple, ix=True)
iys = cmd.keyTangent(attrpath, q=True, t=timeTuple, iy=True)
oxs = cmd.keyTangent(attrpath, q=True, t=timeTuple, ox=True)
oys = cmd.keyTangent(attrpath, q=True, t=timeTuple, oy=True)
isLocked = cmd.keyTangent(attrpath,
q=True,
t=timeTuple,
weightLock=True)
isWeighted = cmd.keyTangent(attrpath,
q=True,
t=timeTuple,
weightLock=True)
objDict[attr] = weightedTangents, zip(times, values, itts,
otts, ixs, iys, oxs, oys,
isLocked, isWeighted)
# There needs to be animation on each channel for this to work (tranX, Y, and Z)
# Infact, its better if you don't do this until after the animation is baked and ready for export into Unity
import maya.cmds as cmds
# currently only works on one selected object
currentSel = cmds.ls(sl=True)[0]
# finds time parameters
currentMinTime = cmds.playbackOptions(q=True, minTime=True)
currentMaxTime = cmds.playbackOptions(q=True, maxTime=True)
# place each attribute key value and the time for those keys into variables
currentAttr = ["tx", "ty", "tz"]
currentKeysTime_X = cmds.keyframe(currentSel + ".translateX",
time=(currentMinTime, currentMaxTime),
q=True)
currentKeysTime_Y = cmds.keyframe(currentSel + ".translateY",
time=(currentMinTime, currentMaxTime),
q=True)
currentKeysTime_Z = cmds.keyframe(currentSel + ".translateZ",
time=(currentMinTime, currentMaxTime),
q=True)
currentTranX = cmds.keyframe(currentSel, q=True, at=currentAttr[0], vc=True)
currentTranY = cmds.keyframe(currentSel, q=True, at=currentAttr[1], vc=True)
currentTranZ = cmds.keyframe(currentSel, q=True, at=currentAttr[2], vc=True)
# multiplication factor
multFactor = .5
# new key values
def apply(self, mapping, **kwargs):
'''
valid kwargs are:
mult [1.0] apply a mutiplier when applying curve values
additive [False]
clear [True]
'''
beginningWeightedTanState = cmd.keyTangent(q=True, g=True, wt=True)
### gather options...
additive = kwargs.get(self.kOPT_ADDITIVE,
self.kOPT_DEFAULTS[self.kOPT_ADDITIVE])
worldAdditive = kwargs.get(
self.kOPT_ADDITIVE_WORLD,
self.kOPT_DEFAULTS[self.kOPT_ADDITIVE_WORLD])
clear = kwargs.get(self.kOPT_CLEAR,
self.kOPT_DEFAULTS[self.kOPT_CLEAR])
mult = kwargs.get(self.kMULT, self.kOPT_DEFAULTS[self.kMULT])
timeOffset = kwargs.get(self.kOPT_OFFSET, self.offset)
#if worldAdditive is turned on, then additive is implied
if worldAdditive:
additive = worldAdditive
#determine the time range to clear
clearStart = timeOffset
clearEnd = clearStart + self.range
for obj, tgtObj in mapping.iteritems():
if not tgtObj:
continue
try:
attrDict = self[obj]
except KeyError:
continue
for attr, (weightedTangents, keyList) in attrDict.iteritems():
attrpath = '%s.%s' % (tgtObj, attr)
try:
if not cmd.getAttr(attrpath, settable=True):
continue
except TypeError:
continue
except RuntimeError:
print obj, tgtObj, attrpath
raise
#do the clear... maya doesn't complain if we try to do a cutKey on an attrpath with no
#animation - and this is good to do before we determine whether the attrpath has a curve or not...
if clear:
cmd.cutKey(attrpath, t=(clearStart, clearEnd), cl=True)
#is there an anim curve on the target attrpath already?
curveExists = cmd.keyframe(attrpath, index=(0, ),
q=True) is not None
preValue = 0
if additive:
if worldAdditive:
isWorld = True
#if the control has space switching setup, see if its value is set to "world" - if its not, we're don't treat the control's animation as additive
try:
isWorld = cmd.getAttr('%s.parent' % obj,
asString=True) == 'world'
except TypeError:
pass
#only treat translation as additive
if isWorld and attr.startswith('translate'):
preValue = cmd.getAttr(attrpath)
else:
preValue = cmd.getAttr(attrpath)
for time, value, itt, ott, ix, iy, ox, oy, isLocked, isWeighted in keyList:
value *= mult
value += preValue
if time is None:
#in this case the attr value was just a pose...
cmd.setAttr(attrpath, value)
else:
time += timeOffset
cmd.setKeyframe(attrpath, t=(time, ), v=value)
if weightedTangents:
#this needs to be done as two separate commands - because setting the tangent types in the same cmd as setting tangent weights can result
#in the tangent types being ignored (for the case of stepped mainly, but subtle weirdness with flat happens too)
cmd.keyTangent(attrpath,
t=(time, ),
ix=ix,
iy=iy,
ox=ox,
oy=oy,
l=isLocked,
wl=isWeighted)
cmd.keyTangent(attrpath,
t=(time, ),
itt=itt,
ott=ott)
else:
cmd.keyTangent(attrpath,
t=(time, ),
ix=ix,
iy=iy,
ox=ox,
oy=oy)
def anisymb(arg):
errornum =[]
sel =cmds.ls(sl=1)
#print cmds.listAttr(r=1,channelBox=1)
if sel!=[]:
selall = cmds.listRelatives(sel[0],allDescendents=1)
lsel =[]
rsel=[]
msel=[]
allsel =[]
pairblendnum =[]
unvail =["Global"]
spadj=["FKChest_M.rotateZ","FKNeck_M.rotateZ","","FKNeck_M.rotateY","FKChest_M.rotateY","FKRoot_M.rotateZ","FKRoot_M.rotateY","FKHead_M.rotateZ","FKHead_M.rotateY","FKSpine2_M.rotateZ","FKSpine2_M.rotateY","RootX_M.translateX","RootX_M.rotateZ","RootX_M.rotateY","lowerLid2_R.rotateZ","lowerLid2_L.rotateZ","lowerLid2_R.rotateY","lowerLid2_L.rotateY","lowerLid2_R.translateX","lowerLid2_L.translateX","lowerLid1_R.rotateZ","lowerLid1_L.rotateZ","lowerLid1_R.rotateY","lowerLid1_L.rotateY","lowerLid1_R.translateX","lowerLid1_L.translateX","lowerLid3_R.rotateZ","lowerLid3_L.rotateZ","lowerLid3_R.rotateY","lowerLid3_L.rotateY","lowerLid3_R.translateX","lowerLid3_L.translateX","LidCorner2_R.rotateZ","LidCorner2_L.rotateZ","LidCorner2_R.rotateY","LidCorner2_L.rotateY","LidCorner2_R.translateX","LidCorner2_L.translateX","upperLid3_R.rotateZ","upperLid3_L.rotateZ","upperLid3_R.rotateY","upperLid3_L.rotateY","upperLid3_R.translateX","upperLid3_L.translateX","upperLid1_R.rotateZ","upperLid1_L.rotateZ","upperLid1_R.rotateY","upperLid1_L.rotateY","upperLid1_R.translateX","upperLid1_L.translateX","upperLid2_R.rotateZ","upperLid2_L.rotateZ","upperLid2_R.rotateY","upperLid2_L.rotateY","upperLid2_R.translateX","upperLid2_L.translateX","LidCorner1_R.rotateZ","LidCorner1_L.rotateZ","LidCorner1_R.rotateY","LidCorner1_L.rotateY","LidCorner1_R.translateX","LidCorner1_L.translateX","browOuter_R.rotateZ","browOuter_L.rotateZ","browOuter_R.rotateY","browOuter_L.rotateY","browOuter_R.translateX","browOuter_L.translateX","browHalf_R.rotateZ","browHalf_L.rotateZ","browHalf_R.rotateY","browHalf_L.rotateY","browHalf_R.translateX","browHalf_L.translateX","browInner_R.rotateZ","browInner_L.rotateZ","browInner_R.rotateY","browInner_L.rotateY","browInner_R.translateX","browInner_L.translateX","noseCorner_R.rotateZ","noseCorner_L.rotateZ","noseCorner_R.rotateY","noseCorner_L.rotateY","noseCorner_R.translateX","noseCorner_L.translateX","lowerLip3_R.rotateZ","lowerLip3_L.rotateZ","lowerLip3_R.rotateY","lowerLip3_L.rotateY","lowerLip3_R.translateX","lowerLip3_L.translateX","upperLip3_R.R_rotateZ","upperLip3_R.L_rotateZ","upperLip3_R.R_rotateY","upperLip3_R.L_rotateY","upperLip3_R.R_translateX","upperLip3_R.L_translateX","Lip6_R.rotateZ","Lip6_L.rotateZ","Lip6_R.rotateY","Lip6_L.rotateY","Lip6_R.translateX","Lip6_L.translateX","cheek_R.rotateZ","cheek_L.rotateZ","cheek_R.rotateY","cheek_L.rotateY","cheek_R.translateX","cheek_L.translateX","FKScapula_R.translateY","FKScapula_L.translateY","FKScapula_R.translateX","FKScapula_L.translateX","FKScapula_R.translateZ","FKScapula_L.translateZ","IKArm_L.rotateY","IKArm_L.rotateZ","IKArm_R.rotateY","IKArm_R.rotateZ","IKLeg_L.rotateY","IKLeg_L.rotateZ","IKLeg_R.rotateY","IKLeg_R.rotateZ","IKArm_L.translateX","IKArm_R.translateX","IKLeg_L.translateX","IKLeg_R.translateX","IKLeg_L.swivel_foo","IKLeg_R.swivel_foot","PoleLeg_L.translateX","PoleLeg_R.translateX","PoleArm_R.translateX","PoleArm_L.translateX","Eyectrl_R.rotateY","Eyectrl_L.rotateY","RollToes_R.rotateY","RollToes_L.rotateY","RollToes_R.rotateZ","RollToes_L.rotateZ","RollToesEnd_L.rotateY","RollToesEnd_R.rotateY","RollToesEnd_L.rotateZ","RollToesEnd_R.rotateZ","RollHeel_R.rotateY","RollHeel_L.rotateY","RollHeel_R.rotateZ","RollHeel_L.rotateZ"]
selsplit = sel[0].split(":")
spacename = sel[0][0:(len(sel[0])-len(selsplit[-1]))]
for i in range(len(selall)):
cvshape = cmds.ls( selall[i],type="nurbsCurve")
if cvshape!=[]:
cvs = cmds.pickWalk(cvshape[0],d="up")
# print cvs[0][len(spacename):-1]
adj = cvs[0].split("_")[-1]
if adj=="L":
lsel.append(cvs[0])
allsel.append(cvs[0])
elif adj=="R":
rsel.append(cvs[0])
allsel.append(cvs[0])
elif adj =="M":
msel.append(cvs[0])
allsel.append(cvs[0])
for a in range(len(allsel)):
allattrlist = cmds.listAttr(allsel[a],keyable=1,u=1)
for t in range(len(allattrlist)):
pbadj = cmds.listConnections( allsel[a]+"."+allattrlist[t],d=0,type="pairBlend")
if pbadj!=None:
pairblendnum.append(pbadj[0])
if len(pairblendnum)==0:
if len(lsel) == len(rsel):
for l in range(len(lsel)):
attrlist = cmds.listAttr(lsel[l],keyable=1,u=1)
ctrlname = lsel[l][0:(len(lsel[l])-1)]
for a in range(len(attrlist)):
if attrlist[a] not in unvail:
lsrattradj = cmds.getAttr(ctrlname+"L"+"."+attrlist[a],lock=1)
lattr = ctrlname+"L"+"."+attrlist[a]
rsrattradj = cmds.getAttr(ctrlname+"R"+"."+attrlist[a],lock=1)
rattr = ctrlname+"R"+"."+attrlist[a]
if lsrattradj==False:
# print lattr[len(spacename):]
lattrAC = cmds.listConnections(lattr,d=0,type="animCurve")
rattrAC = cmds.listConnections(rattr,d=0,type="animCurve")
if lattrAC!=None:
if rattrAC!=None:
for c in range(len(lattrAC)):
lattrACsin= cmds.listConnections(lattrAC[c],s=0,plugs=1)[0][len(spacename):]
rattrACsin= cmds.listConnections(rattrAC[c],s=0,plugs=1)[0][len(spacename):]
if cmds.isConnected(lattrAC[c]+".output",rattr)==False:
cmds.connectAttr(lattrAC[c]+".output",rattr,f=1)
if cmds.isConnected(rattrAC[c]+".output",lattr)==False:
cmds.connectAttr(rattrAC[c]+".output",lattr,f=1)
if lattrACsin in spadj:
indexnum = cmds.keyframe( lattrAC[c], query=True, keyframeCount=True )
for i in range(indexnum):
indexvalue = cmds.keyframe( lattrAC[0], query=True,index=(i,i),eval=1)
newindexvalue = -float(indexvalue[0])
cmds.keyframe(lattrAC[0],index=(i,i),absolute=1,valueChange=float(newindexvalue))
if rattrACsin in spadj:
rindexnum = cmds.keyframe( rattrAC[c], query=True, keyframeCount=True )
for r in range(rindexnum):
rindexvalue = cmds.keyframe( rattrAC[0], query=True,index=(r,r),eval=1)
rnewindexvalue = -float(rindexvalue[0])
cmds.keyframe(rattrAC[0],index=(r,r),absolute=1,valueChange=float(rnewindexvalue))
else:
errornum.append(rattrAC)
cmds.setKeyframe(rattr)
else:
errornum.append(lattrAC)
cmds.setKeyframe(lattr)
for m in range(len(msel)):
attrlist = cmds.listAttr(msel[m],keyable=1,u=1)
for a in range(len(attrlist)):
if attrlist[a] not in unvail:
mattradj = cmds.getAttr(msel[m]+"."+attrlist[a],lock=1)
mattr = msel[m]+"."+attrlist[a]
mattrAC = cmds.listConnections(mattr,d=0,type="animCurve")
if mattrAC!=None:
for c in range(len(mattrAC)):
mattrACsin= cmds.listConnections(mattrAC[c],s=0,plugs=1)[0][len(spacename):]
if cmds.isConnected(mattrAC[c]+".output",mattr)==False:
cmds.connectAttr(mattrAC[c]+".output",mattr,f=1)
if mattrACsin in spadj:
mindexnum = cmds.keyframe( mattrAC[c], query=True, keyframeCount=True )
for i in range(mindexnum):
mindexvalue = cmds.keyframe( mattrAC[0], query=True,index=(i,i),eval=1)
mnewmindexvalue = -float(mindexvalue[0])
cmds.keyframe(mattrAC[0],index=(i,i),absolute=1,valueChange=float(mnewmindexvalue))
print "对称动画完成！",
else:
print "有约束属性，请烘焙该控制器的动画后解除约束，再进行操作！！",
def ReductKeyFunction():
cmds.commandEcho(ln=False)
#define UI information
channelCheck = getChannelCheck()
channelBox_attrs = channelBoxList(channelCheck)
appliedChannels = appliedChannelList(channelCheck)
[start, end] = defineTimeRange()
#create objLists
objLists = cmds.ls(sl=True)
if cmds.checkBox('LockSelectedKey', q=True, value=True) == True:
#create L_KeyNameLists
L_KeyNameLists = cmds.keyframe(q=True, n=True)
[L_Name, L_keyTimes, L_keyValues, L_keyOutTangents,
L_keyTangentTypes] = lockedKeyframe(L_KeyNameLists)
else:
L_Name = []
L_keyTimes = []
L_keyValues = []
L_keyOutTangents = []
L_keyTangentTypes = []
#undo
cmds.undoInfo(openChunk=True)
for obj in objLists:
#define channels
[keyable_channels,
channels] = common(obj, channelCheck, channelBox_attrs,
appliedChannels, start, end)
if len(channels) != 0:
for channel in channels:
#get key information
key_times = cmds.keyframe('{0}.{1}'.format(obj, channel),
q=True,
t=(start, end),
timeChange=True)
key_values = cmds.keyframe('{0}.{1}'.format(obj, channel),
q=True,
t=(start, end),
valueChange=True)
key_numbers = cmds.keyframe('{0}.{1}'.format(obj, channel),
q=True,
t=(start, end),
iv=True)
key_outTangents = cmds.keyTangent('{0}.{1}'.format(
obj, channel),
q=True,
t=(start, end),
outAngle=True)
key_tangentTypes = cmds.keyTangent('{0}.{1}'.format(
obj, channel),
q=True,
t=(start, end),
ott=True)
#fixed keyTangent
fixed_index = fixedKey(key_tangentTypes, key_numbers)
if len(fixed_index) != 0:
cmds.keyTangent('{0}.{1}'.format(obj, channel),
e=True,
index=fixed_index,
itt='fixed',
ott='fixed')
else:
continue
if len(key_outTangents) == 1:
continue
else:
reduct_index = getReduct_index(key_outTangents, key_values,
key_numbers, key_times)
if len(reduct_index) != 0:
cmds.cutKey(obj,
at=channel,
clear=True,
index=reduct_index)
else:
continue
else:
continue
if cmds.checkBox('LockSelectedKey', q=True, value=True) == True:
if len(L_Name) != 0:
for (i, L_name) in enumerate(L_Name):
L_Times = L_keyTimes[i]
L_values = L_keyValues[i]
L_OutTangents = L_keyOutTangents[i]
L_TangentTypes = L_keyTangentTypes[i]
for (j, L_Time) in enumerate(L_Times):
cmds.setKeyframe(L_name,
t=(L_Time, L_Time),
value=L_values[j])
cmds.keyTangent(L_name,
e=True,
time=(L_Time, L_Time),
ia=L_OutTangents[j],
oa=L_OutTangents[j],
itt=L_TangentTypes[j],
ott=L_TangentTypes[j])
cmds.undoInfo(closeChunk=True)
def paste(self, type="onlyKeys"):
cmds.refresh(suspend=True)
selObjects = utilMod.getNameSpace(self.selection)[1]
self.locators = []
if self.targetObj != "world":
#CREATE
self.locatorGroup = animMod.group(name=self.locatorGroupName)
for n, loopObj in enumerate(self.sourceObjs):
nameSpace = utilMod.getNameSpace([loopObj])
loopSelName = "%s_%s" % (nameSpace[0][0], nameSpace[1][0])
locatorName = "fakeConstrain_%s" % loopSelName
locator = animMod.createNull(locatorName)
self.locators.append(locator)
with G.aToolsBar.createAToolsNode:
cmds.parent(locator, self.locatorGroup)
self.locators.append(self.locatorGroup)
currFrame = cmds.currentTime(query=True)
getCurves = animMod.getAnimCurves()
animCurves = getCurves[0]
getFrom = getCurves[1]
if animCurves:
keysSel = animMod.getTarget("keysSel", animCurves, getFrom)
keysSel = utilMod.mergeLists(keysSel)
if keysSel == []:
keysSel = [currFrame]
else:
keysSel = [currFrame]
frames = keysSel
if type == "allFrames":
frameRange = animMod.getTimelineRange(float=False)
frames = list(range(int(frameRange[0]), int(frameRange[1])))
if self.targetObj != "world":
G.aToolsBar.align.align([self.locatorGroup],
self.targetObj,
frames=frames)
for n, loopObj in enumerate(self.sourceObjs):
matrix = self.copyCache[n]
if self.targetObj != "world":
cmds.xform(self.locators[n], matrix=matrix)
G.aToolsBar.align.align([loopObj],
self.locators[n],
frames=frames,
showProgress=True)
else:
for loopFrame in frames:
cmds.currentTime(loopFrame)
cmds.xform(loopObj, ws=True, matrix=matrix)
cmds.currentTime(currFrame)
for loopFrame in frames:
for loopAttr in ["translate", "rotate"]:
breakdown = (loopFrame not in keysSel)
cmds.keyframe(loopObj,
edit=True,
attribute=loopAttr,
time=(loopFrame, loopFrame),
breakdown=breakdown)
if self.targetObj != "world":
self.clearLocators()
cmds.select(self.selection)
cmds.refresh(suspend=False)
def get_tangent_points(self, frame):
"""
this function finds the piece-wise keyframwe of the curve and returns the 4
points needed to evaluate the curve
@returns: list of 4 2D points.
"""
##this work on the assumption there is a keyframe at current time
frames = self.get_frame_pair(frame)
if frames == sys.maxint or frames is None or frames == -1:
raise ValueError(
"MayaAnimCurve: frame {f} falls outside the anim curve")
frame1, frame2 = frames
f1Idx = self.get_frame_idx(frame1)
f2Idx = self.get_frame_idx(frame2)
#querying the tangents
outx = cmds.keyTangent(self.node, attribute=self.attribute, q=1,
ox=1)[f1Idx]
outy = cmds.keyTangent(self.node, attribute=self.attribute, q=1,
oy=1)[f1Idx]
inx = cmds.keyTangent(self.node, attribute=self.attribute, q=1,
ix=1)[f2Idx]
iny = cmds.keyTangent(self.node, attribute=self.attribute, q=1,
iy=1)[f2Idx]
t2 = [outx, outy]
t3 = [inx, iny]
conversion_factor = self.conversion_factor
t2[0] *= (conversion_factor)
t3[0] *= (conversion_factor)
values1 = cmds.keyframe(self.node,
attribute=self.attribute,
time=(frame1, frame1),
query=True,
valueChange=True,
timeChange=True)
values2 = cmds.keyframe(self.node,
attribute=self.attribute,
time=(frame2, frame2),
query=True,
valueChange=True,
timeChange=True)
p1 = [values1[0], values1[1]]
p4 = [values2[0], values2[1]]
#we need to computethe tangent mulitplier.
#the multiplier is reltive to the tangent of the angle
#the final multiplier has the form 1/3 * y/x , where y and x are the
#componetns of the tangent vector
#TODO check for divison by zero?
delta = frame2 - frame1
out_mult = abs((1.0 / 3.0) * delta * t2[1] / t2[0])
in_mult = abs((1.0 / 3.0) * delta * t3[1] / t3[0])
p2 = [(t2[0] * out_mult) + p1[0], (t2[1] * out_mult) + p1[1]]
p3 = [(-t3[0] * in_mult) + p4[0], (-t3[1] * in_mult) + p4[1]]
return [p1, p2, p3, p4]
def on_btn_delTestKey_clicked(self, args=None):
if args == None: return
selControl = mc.ls(sl=True, type='transform')
for ctl in selControl:
mc.delete(mc.keyframe(ctl, q=True, n=True))
def smartSnapKeys():
getCurves = animMod.getAnimCurves()
animCurves = getCurves[0]
if not animCurves or len(animCurves) == 0: return
getFrom = getCurves[1]
keyTimes = animMod.getTarget("keyTimes", animCurves, getFrom)
keysSel = animMod.getTarget("keysSel", animCurves, getFrom)
hasDecimalKeys = False
for loopKey in utilMod.mergeLists(keysSel):
if loopKey != round(loopKey) > 0:
hasDecimalKeys = True
break
if not hasDecimalKeys: return
keyTangentsType = animMod.getTarget("keyTangentsType", animCurves, getFrom)
firstStep = 0
totalSteps = len(animCurves)
estimatedTime = None
status = "aTools - Smart Snap Curves..."
startChrono = None
utilMod.startProgressBar(status)
for thisStep, loopCurve in enumerate(animCurves):
startChrono = utilMod.chronoStart(startChrono, firstStep, thisStep,
totalSteps, estimatedTime, status)
if None in [keyTimes[thisStep], keysSel[thisStep]]: continue
stepKeys = [
loopKey for nn, loopKey in enumerate(keyTimes[thisStep])
if loopKey != round(loopKey) and loopKey in keysSel[thisStep]
and keyTangentsType[thisStep][nn][1] == "step"
]
linearKeys = [
loopKey for nn, loopKey in enumerate(keyTimes[thisStep])
if loopKey != round(loopKey) and loopKey in keysSel[thisStep]
and keyTangentsType[thisStep][nn][1] == "linear"
]
decimalKeys = [
loopKey for nn, loopKey in enumerate(keyTimes[thisStep])
if loopKey != round(loopKey) and loopKey in keysSel[thisStep]
and loopKey not in stepKeys + linearKeys
]
for loopKey in stepKeys:
cmds.snapKey(loopCurve, time=(loopKey, loopKey))
for loopKey in linearKeys:
cmds.snapKey(loopCurve, time=(loopKey, loopKey))
if len(decimalKeys) == 0: continue
if not getFrom:
if cmds.keyframe(query=True, selected=True) != None:
getFrom = "graphEditor"
#inLinearKeys = [round(loopKey) for nn, loopKey in enumerate(keyTimes[thisStep]) if keyTangentsType[thisStep][nn][0] == "linear"]
#outLinearKeys = [round(loopKey) for nn, loopKey in enumerate(keyTimes[thisStep]) if keyTangentsType[thisStep][nn][1] == "linear"]
createKeys = list(set([round(loopKey) for loopKey in decimalKeys]))
selectKeys = []
#print "inlinearKeys", inLinearKeys, outLinearKeys
if getFrom == "graphEditor":
selectKeys = list(
set([
round(loopKey) for loopKey in keysSel[thisStep]
if round(loopKey) in createKeys
]))
for loopKey in createKeys:
cmds.setKeyframe(loopCurve, time=(loopKey, loopKey), insert=True)
for loopKey in selectKeys:
cmds.selectKey(loopCurve, addTo=True, time=(loopKey, loopKey))
for loopKey in decimalKeys:
cmds.cutKey(loopCurve, time=(loopKey, loopKey))
#for loopKey in outLinearKeys: cmds.keyTangent(loopCurve, edit=True, time=(loopKey, loopKey), outTangentType="linear")
#for loopKey in inLinearKeys: cmds.keyTangent(loopCurve, edit=True, time=(loopKey, loopKey), inTangentType="linear")
estimatedTime = utilMod.chronoEnd(startChrono, firstStep, thisStep,
totalSteps)
utilMod.setProgressBar(endProgress=True)
def setDrivenKeyToRemapValue(animCurve,remapValueNode='',interpType=3,deleteAnimCurve=True,lockPosition=True,lockValue=False):
'''
Convert a set driven key setup to a remapValue node.
Each key on the animCurve node is represented as widget on the remapValue ramp control.
Incoming and outgoing curve connections will be replaced with equivalent remapValue connections.
@param animCurve: The animCurve to convert to a remapValue node
@type animCurve: str
@param remapValueNode: Name an existing remapValue node to use instead of creating a new one.
@type remapValueNode: str
@param interpType: Default ramp interpolation type.
@type interpType: int
@param deleteAnimCurve: Delete animCurve node after disconnection
@type deleteAnimCurve: bool
@param lockPosition: Lock ramp widget position values
@type lockPosition: bool
@param lockValue: Lock ramp widget float values
@type lockValue: bool
'''
# Checks
if not mc.objExists(animCurve):
raise Exception('AnimCurve node "'+animCurve+'" does not exist!!')
if remapValueNode and not mc.objExists(remapValueNode):
raise Exception('RemapValue node "'+remapValueNode+'" does not exist!!')
# Get connections to animCurve
inConn = mc.listConnections(animCurve+'.input',s=True,d=False,p=True)
outConn = mc.listConnections(animCurve+'.output',s=False,d=True,p=True)
# Get keyframe data
valList = mc.keyframe(animCurve,q=True,vc=True)
floatList = mc.keyframe(animCurve,q=True,fc=True)
# Get min/max input and output values
orderValList = copy.deepcopy(valList)
orderFloatList = copy.deepcopy(floatList)
orderValList.sort()
orderFloatList.sort()
minVal = orderValList[0]
maxVal = orderValList[-1]
minFloat = orderFloatList[0]
maxFloat = orderFloatList[-1]
# Create remapValue node
if not remapValueNode:
remapValueNode = mc.createNode('remapValue',n=animCurve+'_remapValue')
# Set Remap attribute values
mc.setAttr(remapValueNode+'.inputMin',minFloat)
mc.setAttr(remapValueNode+'.inputMax',maxFloat)
mc.setAttr(remapValueNode+'.outputMin',minVal)
mc.setAttr(remapValueNode+'.outputMax',maxVal)
# Remove existing ramp widgets
indexList = range(mc.getAttr(remapValueNode+'.value',s=True))
indexList.reverse()
for i in indexList:
mc.removeMultiInstance(remapValueNode+'.value['+str(i)+']',b=True)
# Set ramp widgets based on keys
valRange = maxVal - minVal
floatRange = maxFloat - minFloat
# Check zero values
if valRange < 0.0001: valRange = 0.0001
if floatRange < 0.0001: floatRange = 0.0001
# Iterate through keys
for i in range(len(valList)):
val = (valList[i] - minVal)/valRange
flt = (floatList[i] - minFloat)/floatRange
mc.setAttr(remapValueNode+'.value['+str(i)+'].value_Position',flt)
mc.setAttr(remapValueNode+'.value['+str(i)+'].value_FloatValue',val)
mc.setAttr(remapValueNode+'.value['+str(i)+'].value_Interp',interpType)
if lockPosition:
mc.setAttr(remapValueNode+'.value['+str(i)+'].value_Position',l=True)
if lockValue:
mc.setAttr(remapValueNode+'.value['+str(i)+'].value_FloatValue',l=True)
# Replace animCurve connections
mc.connectAttr(inConn[0],remapValueNode+'.inputValue',f=True)
mc.connectAttr(remapValueNode+'.outValue',outConn[0],f=True)
# Delete unused animCurve
if deleteAnimCurve: mc.delete(animCurve)
# Return result
return remapValueNode
def mirrorCorJnt(*args):
'''
Mirror corrective joints.
'''
jntSrch = cmds.textField('jntSrchTxtFld', q=True, text=True)
jntRplc = cmds.textField('jntRplcTxtFld', q=True, text=True)
corJntSrch = cmds.textField('corJntSrchTxtFld', q=True, text=True)
corJntRplc = cmds.textField('corJntRplcTxtFld', q=True, text=True)
selcorJntLs = cmds.ls(sl=True)
for corJnt in selcorJntLs:
# Check if target objects exists.
sdkLoc = corJnt + '_sdk_loc'
sDriver = cmds.setDrivenKeyframe(sdkLoc, q=True,
cd=True)[0].split('.')[0]
print sDriver
tDriver = re.sub(jntSrch, jntRplc, sDriver)
tDriven = re.sub(corJntSrch, corJntRplc, sdkLoc)
# In case target driver is not exists.
if sDriver == tDriver:
cmds.warning(
"Target driver object is not exists. Check the 'Driver Search/Replace' string."
)
return
# In case target driven is not exists.
elif sdkLoc == tDriven:
cmds.warning(
"Target driven object is not exists. Check the 'Corrective Joint Search/Replace' string."
)
return
# Mirror joint.
eachPrnt = cmds.listRelatives(corJnt, parent=True)
cmds.select(cl=True)
cmds.joint(n='tmp_root_jnt', p=(0, 0, 0))
cmds.parent(corJnt, 'tmp_root_jnt')
cmds.select(corJnt, r=True)
mirCorJnt = cmds.mirrorJoint(mirrorYZ=True,
mirrorBehavior=True,
searchReplace=(corJntSrch, corJntRplc))[0]
if eachPrnt:
cmds.parent(corJnt, eachPrnt[0])
else:
cmds.parent(corJnt, w=True)
cmds.parent(mirCorJnt, w=True)
cmds.delete('tmp_root_jnt')
# Add influence.
skClst = cmds.listConnections(corJnt,
s=False,
d=True,
type='skinCluster')[0]
geo = cmds.listConnections(skClst, s=False, d=True, type='mesh')[0]
cmds.skinCluster(skClst, e=True, dr=4, lw=True, wt=0, ai=mirCorJnt)
cmds.setAttr('%s.liw' % mirCorJnt, False)
# Mirror skin weights.
cmds.select(geo)
cmds.MirrorSkinWeights()
cmds.select(cl=True)
# Create locator and group.
createCtrl(mirCorJnt)
# Constraint to the othersdie parent joint.
pCnst = list(
set(
cmds.listConnections('%s_cnst_grp' % corJnt,
s=False,
d=True,
type='parentConstraint')))[0]
corJntPrntJnt = list(
set(cmds.listConnections(pCnst, s=True, d=False, type='joint')))[0]
mirPrntJnt = re.sub(jntSrch, jntRplc, corJntPrntJnt)
cmds.parentConstraint(mirPrntJnt, '%s_cnst_grp' % mirCorJnt, mo=True)
# Mirror pose reader.
mirPoseReader(sdkLoc, jntSrch, jntRplc, corJntSrch, corJntRplc)
# Mirror set driven key.
driverAttr = cmds.setDrivenKeyframe(sdkLoc, q=True,
cd=True)[0].split('.')[-1]
rawDrivenAttrs = cmds.setDrivenKeyframe(sdkLoc, q=True, dn=True)
for rawDrivenAttr in rawDrivenAttrs:
drvnAttr = rawDrivenAttr.split('.')[-1]
drvrVals = cmds.keyframe(rawDrivenAttr, q=True, fc=True)
drvnVals = cmds.keyframe(rawDrivenAttr, q=True, vc=True)
# Check if driver is more than two.
if not drvrVals:
cmds.warning(
"There is more than two drivers for source corrective joint's locator."
)
return
for i in xrange(len(drvrVals)):
if 'translate' in drvnAttr:
cmds.setDrivenKeyframe('%s.%s' % (tDriven, drvnAttr),
cd='%s.%s' % (tDriver, driverAttr),
dv=drvrVals[i],
v=-drvnVals[i])
elif 'rotate' in drvnAttr:
cmds.setDrivenKeyframe('%s.%s' % (tDriven, drvnAttr),
cd='%s.%s' % (tDriver, driverAttr),
dv=drvrVals[i],
v=drvnVals[i])
elif 'scale' in drvnAttr:
cmds.setDrivenKeyframe('%s.%s' % (tDriven, drvnAttr),
cd='%s.%s' % (tDriver, driverAttr),
dv=drvrVals[i],
v=drvnVals[i])
else:
cmds.setDrivenKeyframe('%s.%s' % (tDriven, drvnAttr),
cd='%s.%s' % (tDriver, driverAttr),
dv=drvrVals[i],
v=drvnVals[i])
def batchAsset(*n):
selectedItem = cmds.textScrollList("assetTextScroll",q=1,si = 1)
location = cmds.textScrollList("assetTextScroll",q=1,ann = 1)
mode = cmds.radioButtonGrp("imRefradio",q=1,sl=1)
shdSavePath = cmds.workspace(fileRuleEntry = 'shdOut')
listShd = [i for i in os.listdir(shdSavePath) if i != ".mayaSwatches"]
rigPath = cmds.workspace(fn=1)+"\\"+cmds.workspace(fileRuleEntry="templates")+"\\rig"
listRig = [j for j in os.listdir(rigPath)]
shaders=[]
camera = [cam for cam in selectedItem if "_cam_" in cam]
if mode == 1 :
for item in selectedItem:
splitSelectedItem = item.split(".")[0].split("_rig")[0]
nspcRig = splitSelectedItem+"_rig"
shaders.append(splitSelectedItem)
extension = item.split(".")[-1]
assetType = splitSelectedItem.split("_")[1]
if extension == "mb" or extension == "ma":
if assetType == "c":
assetPath = rigPath +"\\"+listRig[0]+"\\"+splitSelectedItem
if extension == "ma":
cmds.file(assetPath+"\\"+nspcRig+".ma",reference=1,namespace=nspcRig)
elif extension == "mb":
cmds.file(assetPath+"\\"+nspcRig+".mb",reference=1,namespace=nspcRig)
elif assetType == "p":
assetPath = rigPath +"\\"+listRig[1]+"\\"+splitSelectedItem
if extension == "ma":
cmds.file(assetPath+"\\"+nspcRig+".ma",reference=1,namespace=nspcRig)
elif extension == "mb":
cmds.file(assetPath+"\\"+nspcRig+".mb",reference=1,namespace=nspcRig)
else:
print "naming is wrong, asset not found!"
cmds.file(location+"/"+item,reference=1,namespace = os.path.splitext(item)[0])
#Link Animation Data and Rig File
nsInfo = cmds.namespaceInfo(lon=1,r=1)
namespaceList=[]
for a in nsInfo:
if a == 'UI' or a == 'shared':
continue
else:
namespaceList.append(a)
animationCurve = cmds.ls(type="animCurve")
animDestList=[]
if len(animationCurve) != 0:
for k in namespaceList:
for aniCurve in animationCurve:
if("animDest" not in cmds.listAttr(aniCurve)):
continue
animDestNS = cmds.getAttr("%s.animDest"%aniCurve).split(":")[0]
if animDestNS == None:
print "animDestNS None"
continue
if animDestNS == k:
try:
cmds.connectAttr(aniCurve+".output",cmds.getAttr("%s.animDest"%aniCurve), f=1)
print "Connected %s to %s"%(aniCurve+".output",aniCurve)
except:
print "Something Is Not Connected"
pass
else:
print animDestNS,k
print "namespace doesn't match"
cmds.select(aniCurve)
startFrame = cmds.keyframe(q=1)[0]
endFrame = cmds.keyframe(q=1)[-1]
cmds.playbackOptions(min=startFrame,max=endFrame)
referenceList=[]
for ref in cmds.file(q=1,r=1):
filename = ref.split("/")[-1].split(".")[0]
if "_shd" in filename:
referenceList.append(filename)
for shd in listShd:
for shader in shaders:
if shd.split(".")[0].split("_shd")[0] in shader and not cmds.namespace(q=1,ex=1):
if shd.split(".")[0] not in referenceList:
cmds.file(shdSavePath+"/"+shd,reference=1,namespace = os.path.splitext(shd)[0])
print "referencing %s"%shd
break
else:
for item in selectedItem:
cmds.file(location+"/"+item,i=1)
cmds.file(shdSavePath+"/"+listShd,i=1)
def prepareForDraw(self, objPath, cameraPath, frameContext, oldData):
## Retrieve data cache (create if does not exist)
data = oldData
if not isinstance(data, DrawNodeData):
data = DrawNodeData()
mtObj = self.getDepNode(str(objPath))
objMfn = OpenMaya.MFnDependencyNode(mtObj)
data.name = objMfn.findPlug('nodeName', False).asString()
data.startFrame = objMfn.findPlug('startTime', False).asInt()
data.endFrame = objMfn.findPlug('endTime', False).asInt()
thisNode = objPath.node()
timeBufferPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.timeBuffer)
timeBuffer = timeBufferPlug.asInt()
modePlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.mode)
data.mode = modePlug.asInt()
relativePlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.isRelative)
data.isRelative = relativePlug.asBool()
keyFrames = []
if cmds.keyframe(data.name, q = True, tc = True):
keyFrames = list(set(cmds.keyframe(data.name, q = True, tc = True)))
keyFrames = [int(x) for x in keyFrames]
currentTime = OpenMayaAnim.MAnimControl.currentTime()
selectedNode = self.getDepNode(data.name)
fnThisNode = OpenMaya.MFnDependencyNode(selectedNode)
worldMatrixAttr = fnThisNode.attribute("worldMatrix")
pointPlug = OpenMaya.MPlug(selectedNode, worldMatrixAttr)
pointPlug = pointPlug.elementByLogicalIndex(0)
activeCam = util.getCam()
#check if translate attribute is changed
self.deleteCallbacks()
self.callbacks.append(OpenMayaAnim.MAnimMessage.addAnimKeyframeEditCheckCallback(self.keyFrameAddedCallback))
self.callbacks.append(OpenMayaAnim.MAnimMessage.addAnimKeyframeEditedCallback(self.keyFrameEditedCallback))
self.callbacks.append(OpenMaya.MEventMessage.addEventCallback('graphEditorChanged', self.graphEditorChangedCallback))
if not data.isRelative:
if not self.isPointCached or not self.allPoints.keys():
self.allPoints = {}
for i in range(data.startFrame, data.endFrame):
timeContext = OpenMaya.MDGContext(OpenMaya.MTime(i))
#Finally get the data
pointMMatrix = OpenMaya.MFnMatrixData(pointPlug.asMObject(timeContext)).matrix()
relativePoint = (pointMMatrix[12], pointMMatrix[13], pointMMatrix[14])
if i in keyFrames:
self.allPoints[i] = (relativePoint, 1)
else:
self.allPoints[i] = (relativePoint, 0)
self.isPointCached = True
else:
if not self.isPointCached or not self.allFramePoints.keys():
self.allFramePoints = {}
for currentFrame in range(data.startFrame, data.endFrame):
self.allFramePoints[currentFrame] = {}
for i in range(data.startFrame, data.endFrame):
timeContext = OpenMaya.MDGContext(OpenMaya.MTime(i))
#Finally get the data
pointMMatrix = OpenMaya.MFnMatrixData(pointPlug.asMObject(timeContext)).matrix()
relativePoint = util.makeCameraRelative(pointMMatrix, activeCam, i, currentFrame)
if i in keyFrames:
self.allFramePoints[currentFrame][i] = (relativePoint, 1)
else:
self.allFramePoints[currentFrame][i] = (relativePoint, 0)
points = {}
if not data.isRelative:
for i in range(int(currentTime.value - timeBuffer), int(currentTime.value + timeBuffer + 1)):
#Get matrix plug as MObject so we can get it's data.
try:
points[i] = self.allPoints[i]
except:
pass
else:
for i in range(int(currentTime.value - timeBuffer), int(currentTime.value + timeBuffer + 1)):
#Get matrix plug as MObject so we can get it's data.
try:
points[i] = self.allFramePoints[currentTime.value][i]
except:
pass
data.points = points
if not data.isRelative:
data.allPoints = self.allPoints
else:
try:
data.allPoints = self.allFramePoints[currentTime.value]
except:
pass
dotColorPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.dotColor)
keyFrameColorPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.keyFrameColor)
lineColorPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.lineColor)
travelerColorPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.travelerColor)
sizePlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.size)
keySizePlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.keySize)
lineWidthPlug = OpenMaya.MPlug(thisNode, DrawNodeDrawOverride.lineWidth)
dotColor = (dotColorPlug.child(0).asFloat(), dotColorPlug.child(1).asFloat(), dotColorPlug.child(2).asFloat(), 1.0)
keyFrameColor = (keyFrameColorPlug.child(0).asFloat(), keyFrameColorPlug.child(1).asFloat(), keyFrameColorPlug.child(2).asFloat(), 1.0)
lineColor = (lineColorPlug.child(0).asFloat(), lineColorPlug.child(1).asFloat(), lineColorPlug.child(2).asFloat(), 1.0)
travelerColor = (travelerColorPlug.child(0).asFloat(), travelerColorPlug.child(1).asFloat(), travelerColorPlug.child(2).asFloat(), 1.0)
data.dotColor = OpenMaya.MColor(dotColor)
data.lineColor = OpenMaya.MColor(lineColor)
data.travelerColor = OpenMaya.MColor(travelerColor)
data.keyFrameColor = OpenMaya.MColor(keyFrameColor)
allFrames = data.points.keys()
allFrames.sort()
#making dot absolute value
point = data.points[allFrames[0]][0]
sizeFactor = util.getDistance(point, activeCam)/1500
data.size = sizeFactor * round(sizePlug.asFloat(), 2)
data.keySize = sizeFactor * round(keySizePlug.asFloat(), 2)
data.lineWidth = round(lineWidthPlug.asFloat(), 2)
return data
def _exportRigCustomData(rigCharacterGroup, fileFolderPath):
rigCustomData = {}
# Get face proxy control names.
proxyJointControls = SERigObjectTypeHelper.getFaceProxyJointControls(rigCharacterGroup)
rigCustomData['ProxyJointControls'] = proxyJointControls
# Get eyelid animation curves.
leftEyeLidUpperAnimCurves = SERigHumanFacialComponent.getLeftEyeLidUpperAnimCurves(rigCharacterGroup)
rigCustomData['leftEyeLidUpperAnimCurves'] = []
for animCurve in leftEyeLidUpperAnimCurves:
keyframeCount = cmds.keyframe(animCurve, q = True, keyframeCount = True)
driverKeys = cmds.keyframe(animCurve, q = True, floatChange = True)
drivenKeys = cmds.keyframe(animCurve, q = True, valueChange = True)
keyFrames = []
for i in range(keyframeCount):
keyFrames.append((driverKeys[i], drivenKeys[i]))
rigCustomData['leftEyeLidUpperAnimCurves'].append(keyFrames)
rightEyeLidUpperAnimCurves = SERigHumanFacialComponent.getRightEyeLidUpperAnimCurves(rigCharacterGroup)
rigCustomData['rightEyeLidUpperAnimCurves'] = []
for animCurve in rightEyeLidUpperAnimCurves:
keyframeCount = cmds.keyframe(animCurve, q = True, keyframeCount = True)
driverKeys = cmds.keyframe(animCurve, q = True, floatChange = True)
drivenKeys = cmds.keyframe(animCurve, q = True, valueChange = True)
keyFrames = []
for i in range(keyframeCount):
keyFrames.append((driverKeys[i], drivenKeys[i]))
rigCustomData['rightEyeLidUpperAnimCurves'].append(keyFrames)
leftEyeLidLowerAnimCurves = SERigHumanFacialComponent.getLeftEyeLidLowerAnimCurves(rigCharacterGroup)
rigCustomData['leftEyeLidLowerAnimCurves'] = []
for animCurve in leftEyeLidLowerAnimCurves:
keyframeCount = cmds.keyframe(animCurve, q = True, keyframeCount = True)
driverKeys = cmds.keyframe(animCurve, q = True, floatChange = True)
drivenKeys = cmds.keyframe(animCurve, q = True, valueChange = True)
keyFrames = []
for i in range(keyframeCount):
keyFrames.append((driverKeys[i], drivenKeys[i]))
rigCustomData['leftEyeLidLowerAnimCurves'].append(keyFrames)
rightEyeLidLowerAnimCurves = SERigHumanFacialComponent.getRightEyeLidLowerAnimCurves(rigCharacterGroup)
rigCustomData['rightEyeLidLowerAnimCurves'] = []
for animCurve in rightEyeLidLowerAnimCurves:
keyframeCount = cmds.keyframe(animCurve, q = True, keyframeCount = True)
driverKeys = cmds.keyframe(animCurve, q = True, floatChange = True)
drivenKeys = cmds.keyframe(animCurve, q = True, valueChange = True)
keyFrames = []
for i in range(keyframeCount):
keyFrames.append((driverKeys[i], drivenKeys[i]))
rigCustomData['rightEyeLidLowerAnimCurves'].append(keyFrames)
# Get shape inverters for corrective blendshapes.
rigCustomData['meshCBSs'] = {}
shapeInverters = cmds.ls(type = 'cvShapeInverter')
at = 'controlTransTable'
for shapeInverter in shapeInverters:
# Get corrective mesh.
correctiveMesh = cmds.listConnections(shapeInverter + '.correctiveMesh', s = True)[0]
# Get control transformation table.
tempStr = str(cmds.getAttr(shapeInverter + '.' + at))
curControlTransTable = cPickle.loads(tempStr)
# Possibly get deformed mesh.
deformedMesh = cvshapeinverter.getShapeInverterDeformedMesh(shapeInverter)
rigCustomData['meshCBSs'][correctiveMesh] = (curControlTransTable, deformedMesh)
# Debug output.
for key in rigCustomData:
print('Exporting ' + key + ': ')
print(rigCustomData[key])
# Rig custom data serialization.
fileName = fileFolderPath + '/' + rigCharacterGroup + '.serig'
try:
f = open(fileName, 'wb')
cPickle.dump(rigCustomData, f)
f.close()
except:
cmds.warning('Failed exporting rig custom data for: ' + rigCharacterGroup)
def getAnimationList(slotList,boneList,fps,start,end):
actionName = "testAction"
animationList = {}
actionAnimation={actionName:{"slots":{},
"bones":{}}}
soltsAnimationDict= {}
for slot in slotList:
slotName = slot["name"]
tempSlotDict = { slotName:{"color":[]}}
soltsAnimationDict.update(tempSlotDict)
getObj = cmds.ls(slotName,dag=1)[1]
shadingGrps = cmds.listConnections(getObj,type='shadingEngine')
shaders = cmds.ls(cmds.listConnections(shadingGrps),materials=1)
fileNode = cmds.listConnections('%s.color' % (shaders[0]), type='file')[0]
attachment = slot["attachment"]
# print fileNode , cmds.getAttr("%s.useFrameExtension"%fileNode)
# print fileNode , attachment
#print keyFrameList
keyFrameList = []
# print slot, slotFileDict[slot]
alphaGainkeyFrameList = cmds.keyframe(fileNode, attribute='alphaGain', query=True, cp =True)
if alphaGainkeyFrameList == None :
pass
else:
for i in alphaGainkeyFrameList:
if i in keyFrameList:
pass
else:
keyFrameList.append(i)
colorGainKeyFrameList = cmds.keyframe(fileNode, attribute='colorGain', query=True, cp =True)
if colorGainKeyFrameList == None :
pass
else:
for i in colorGainKeyFrameList:
if i in keyFrameList:
pass
else:
keyFrameList.append(i)
print keyFrameList
#keyFrameListCount = len(keyFrameListCount)
for i in keyFrameList:
if int(i) in range(start,end+1):
cmds.currentTime(i,e=True)
alphaGain = cmds.getAttr( "%s.alphaGain"%fileNode)
colorGain = cmds.getAttr("%s.colorGain"%fileNode)[0]
alphaGainHex = "%02x"%int((alphaGain/1)*255)
colorGainHex = "%02x"%int((colorGain[0]/1)*255) + "%02x"%int((colorGain[1]/1)*255) +"%02x"%int((colorGain[2]/1)*255)
exportColorHex = str(colorGainHex + alphaGainHex)
soltsAnimationDict[slotName]["color"].append({"time": i/fps, "color": exportColorHex })
else:
pass
if cmds.getAttr("%s.useFrameExtension"%fileNode) == True:
sequenceFrameList = []
soltsAnimationDict[slotName].update({"attachment":[]})
for i in range(start,end):
sequenceFrameList.append(i)
for i in sequenceFrameList:
if int(i) in range(start,end+1):
fileName = cmds.getAttr("%s.fileTextureName"%fileNode).split("/")[-1]
fileDir = cmds.getAttr("%s.fileTextureName"%fileNode).split(fileName)[0]
# print fileDir
allFiles = os.listdir(fileDir)
sequenceList = []
for i in allFiles:
# print i.split(".")
if i.split(".")[0] == fileName.split(".")[0]:
sequenceList.append(i)
print sequenceList
soltsAnimationDict[slotName]["attachment"].append({"time": i/fps, "name": "fileName" })
else:
pass
actionAnimation[actionName]["slots"].update(soltsAnimationDict)
animationList.update(actionAnimation)
# print animationList
for bone in boneList:
# boneKeyFrameList = []
boneName = bone["name"]
keyFrameList = cmds.keyframe(boneName, attribute='translateX', query=True, cp =True)
# print "keyFrameList",keyFrameList
# print "boneName",boneName
translateKeyValueList=[]
scaleKeyValueList=[]
rotateKeyValueList=[]
# print keyFrameList
if keyFrameList == None :
pass
else:
for i in keyFrameList:
if int(i) in range(start,end+1):
# print i
translateX = float("%.2f"%(cmds.keyframe( boneName,at='tx',t=(i,i),q=True,eval=True)[0]))
translateY = float("%.2f"%(cmds.keyframe( boneName,at='ty',t=(i,i),q=True,eval=True)[0]))
rotate = float( "%.2f"%(cmds.keyframe( boneName,at='rz',t=(i,i),q=True,eval=True)[0]))
width = float("%.2f"%(cmds.keyframe( boneName,at='sx',t=(i,i),q=True,eval=True)[0]))
height = float("%.2f"%(cmds.keyframe( boneName,at='sy',t=(i,i),q=True,eval=True)[0]))
originalWidth = float("%.2f"%(cmds.keyframe( boneName,at='sx',t=(0,0),q=True,eval=True)[0]))
originalHeight = float("%.2f"%(cmds.keyframe( boneName,at='sy',t=(0,0),q=True,eval=True)[0]))
scaleX = width/ originalWidth
scaleY = height /originalHeight
print i ,boneName,rotate
if i == 0:
# print "0000" getAnimationList
translateKeyValueList.append({"time":i/fps,"x":translateX,"y":translateY}) #,"curve": [ 0.25, 0, 0.75, 1 ]
else:
translateKeyValueList.append({"time":i/fps,"x":translateX,"y":translateY}) #,"curve": [ 0.25, 0, 0.75, 1 ]
scaleKeyValueList.append({"time":i/fps,"x":scaleX,"y":scaleY})
rotateKeyValueList.append({"time":i/fps,"angle":rotate})
else:
pass
boneAnimationDict = {str(boneName):{"translate":translateKeyValueList,"scale":scaleKeyValueList,"rotate":rotateKeyValueList}}
animationList[actionName]["bones"].update(boneAnimationDict)
#print animationList
return animationList
def Keyframe_Fn(self):
cmds.keyframe()
def setValues(self, animCurves):
cmds.refresh(suspend=True)
cmds.undoInfo(openChunk=True)
cmds.undoInfo(closeChunk=True)
cmds.undoInfo(openChunk=True)
cmds.undoInfo(closeChunk=True)
cmds.undoInfo(openChunk=True)
cmds.undoInfo(closeChunk=True)
cmds.undoInfo(openChunk=True)
self.removeMessages()
self.warn()
values = self.getCurrentValues(animCurves)
newKeyValues = values["keyValues"]
timeValues = values["timeValues"]
offsetValues = []
offsetPercentsA = []
offsetPercentsB = []
pivotAs = []
pivotBs = []
self.animCurvesToSend = []
for n, loopCurve in enumerate(animCurves):
oldVal = self.currentValues[loopCurve][0]
newVal = newKeyValues[n][0]
if self.blendRangeMode:
pivotA = cmds.keyframe(loopCurve,
query=True,
eval=True,
time=(self.range[0], self.range[0]),
valueChange=True)[0]
pivotB = cmds.keyframe(loopCurve,
query=True,
eval=True,
time=(self.range[1], self.range[1]),
valueChange=True)[0]
if oldVal == pivotA:
pivotA = newVal
offsetPercentA = 0
else:
offsetPercentA = float(
(newVal - pivotA) / (oldVal - pivotA))
if oldVal == pivotB:
pivotB = newVal
offsetPercentB = 0
else:
offsetPercentB = float(
(newVal - pivotB) / (oldVal - pivotB))
offsetPercentsA.append(offsetPercentA)
offsetPercentsB.append(offsetPercentB)
pivotAs.append(pivotA)
pivotBs.append(pivotB)
else:
offsetVal = newVal - oldVal
offsetValues.append(offsetVal)
#reset change
cmds.undoInfo(stateWithoutFlush=False)
for loopCurve in self.allValues.keys():
if loopCurve in animCurves:
valueChange = self.allValues[loopCurve]
for n, loopValue in enumerate(valueChange):
cmds.keyframe(loopCurve,
edit=True,
index=(n, n),
valueChange=loopValue)
#self.allValues[] = {}
cmds.undoInfo(stateWithoutFlush=True)
#set values for all keys
curvesToUpdate = []
if self.blendRangeMode:
for n, loopCurve in enumerate(animCurves):
time = timeValues[n]
timeOffsetA = .01
timeOffsetB = .01
if time[0] == self.range[0]: timeOffsetA = 0
if time[1] == self.range[1]: timeOffsetB = 0
if timeOffsetA != 0 and timeOffsetB != 0 and not self.range[
0] < time[0] <= time[1] < self.range[1]:
cmds.warning("Selected keys out of range %s" % self.range)
continue
offsetPercentA = offsetPercentsA[n]
offsetPercentB = offsetPercentsB[n]
#if offsetPercentA != 0 or offsetPercentB != 0:
pivotA = pivotAs[n]
pivotB = pivotBs[n]
curvesToUpdate.append(loopCurve)
cmds.scaleKey(loopCurve,
time=(self.range[0] + timeOffsetA, time[1]),
valuePivot=pivotA,
valueScale=offsetPercentA)
cmds.scaleKey(loopCurve,
time=(time[1] + .01,
self.range[1] - timeOffsetB),
valuePivot=pivotB,
valueScale=offsetPercentB)
else:
for n, loopCurve in enumerate(animCurves):
if offsetValues[n] != 0:
curvesToUpdate.append(loopCurve)
if self.range == "All Keys":
#pass
cmds.keyframe(loopCurve,
edit=True,
valueChange=offsetValues[n],
relative=True)
else:
cmds.keyframe(loopCurve,
edit=True,
time=(self.range[0], self.range[1]),
valueChange=offsetValues[n],
relative=True)
self.updateCurrentValues(curvesToUpdate)
cmds.undoInfo(closeChunk=True)
cmds.refresh(suspend=False)
def setKeyframes(self, *args):
currentTree = self.getCurrentWeights()
startingTree = self.allStartingWeights
minTime = cmds.intField("startTime", query=True, value=True)
maxTime = cmds.intField("endTime", query=True, value=True)
# startingCurves = self.getCurrentCurves()
# self.startingCurves = startingCurves
# print self.startingCurves
newShapesDict = {}
for key1, vals1 in currentTree.iteritems():
startingGroup = startingTree[key1]
diffDict = {
k: vals1[k] - startingGroup.get(k, 0)
for k in vals1.keys()
}
print currentTree
print startingTree
print diffDict
print minTime
print maxTime
faceStr1 = self.OTHER_FACE_IDS % 1
faceStr2 = self.OTHER_FACE_IDS % 2
faceStr3 = self.OTHER_FACE_IDS % 3
newShapes = {}
for key2 in vals1:
nSId = key2.find(':')
if nSId != -1:
out1 = key2[:nSId] + str(1) + key2[nSId:]
out2 = key2[:nSId] + str(2) + key2[nSId:]
out3 = key2[:nSId] + str(3) + key2[nSId:]
else:
out1 = faceStr1 + key2
out2 = faceStr2 + key2
out3 = faceStr3 + key2
print "Cutting curve: %s offset %f" % (key2, diffDict[key2])
if diffDict[key2] > 0.3:
newShapes[key2] = diffDict[key2]
cmds.keyframe(key2,
edit=True,
relative=True,
time=(minTime, maxTime),
valueChange=diffDict[key2],
option="move")
cmds.keyframe(out1,
edit=True,
relative=True,
time=(minTime, maxTime),
valueChange=diffDict[key2],
option="move")
cmds.keyframe(out2,
edit=True,
relative=True,
time=(minTime, maxTime),
valueChange=diffDict[key2],
option="move")
cmds.keyframe(out3,
edit=True,
relative=True,
time=(minTime, maxTime),
valueChange=diffDict[key2],
option="move")
#cmds.cutKey(key2, time=(minTime, maxTime), option="keys") # or keys?
#cmds.pasteKey(key2, time=(minTime, maxTime), valueOffset = diffDict[key2], option="replace")
print "PASTED"
# cmds.setKeyframe(key2)
sortedDict = sorted(newShapes.items(),
key=lambda x: x[1],
reverse=True)
newShapesDict[key1] = sortedDict
self.newShapes = newShapesDict
print self.newShapes
def getCurves(self, maya_nodes_curves = [], maya_attribute_curves = [], silent = False,
start_frame = None, end_frame = None,
left_eye_curves = [], right_eye_curves = []):
"""
This function will get animation curve from maya nodes and all anim curve data will be processed and it will generate a curve class.In silent mode, unsupported curve types will be replaced with a default curve type of user.
:param maya_nodes: list of maya objects
:type maya_nodes: list
:param silent: If this option is true then we will ignore all tangent errors.
:type silent: bool
:param start_frame: start frame to capture
:type start_frame: int
:param end_frame: end frame to capture
:type end_frame: int
:param left_eye_curves: Left eye objects
:type left_eye_curves: list
:param right_eye_curves: Right eye objects
:type right_eye_curves: list
:return: Curve class object
:rtype: curve
Example
>>> curve_obj = getCurves(maya_nodes = ["pSphere1","pSphere2"],start_frame = 10,end_frame = 100,silent = False,left_eye_curves=["pSphere1"],right_eye_curves=["pSphere2"])
"""
temp_maya_nodes_curves = maya_nodes_curves
curves_from_maya_node = []
if not temp_maya_nodes_curves:
raise KipBaseError("Exporter need object list to export data !"\
" Nothing found to Export!")
build_node_list = []
build_node_attr_list = []
build_dest_node_list = []
build_accepted_attributes = []
if type(temp_maya_nodes_curves) == dict:
for each_nd in temp_maya_nodes_curves.keys():
node_name_tr, node_attr_tr = temp_maya_nodes_curves[each_nd].split(".")
build_accepted_attributes.append(temp_maya_nodes_curves[each_nd].split(".")[1])
dest_node_name_tr = each_nd.split(".")[0]
build_node_list.append(node_name_tr)
build_node_attr_list.append(node_attr_tr)
build_dest_node_list.append({node_name_tr:dest_node_name_tr})
elif type(temp_maya_nodes_curves) == list:
build_node_list = temp_maya_nodes_curves
else:
raise KipBaseError("Unknown mapping structure found ! list and dict only supported!")
# current_prser_index = 0
for each_node in build_node_list:
kipCurveClassObject = ClassObject()
kipCurveObject = CurveClass()
current_prser_index = build_node_list.index(each_node)
attribute_val = build_node_attr_list[current_prser_index]
a_curves = cmds.keyframe(each_node, name = True, query = True)
if start_frame and end_frame:
if isinstance(start_frame, int ) and isinstance(end_frame, int ):
a_curves = cmds.keyframe(each_node, name = True, \
time = (int(start_frame), int(end_frame)), query= True)
else:
message = ("%s or %s is not a int value , non int values are not support"\
" for exporting time frame"%(start_frame,end_frame))
raise KipBaseError(message)
try:
if not a_curves:
continue
for each_curve in a_curves:
count_split = "%s.%s" % (each_node, attribute_val)
current_node_prs_name = each_node
try:
node_attr_type = cmds.attributeName(count_split, n=True).split(" ")[0]
current_attr_name = cmds.attributeName(count_split, l=True)
except:
continue
if maya_attribute_curves:
for each_pass_attr in maya_attribute_curves:
if current_attr_name.find(each_pass_attr) == -1:
continue
if not current_attr_name in build_accepted_attributes:
continue
value = cmds.keyframe(each_curve, absolute = True, query = True, \
valueChange = True)
time = cmds.keyframe(each_curve, absolute=True, query=True, timeChange=True)
in_angle = cmds.keyTangent(each_curve, query=True, ia=True)
out_angle = cmds.keyTangent(each_curve, query=True, oa=True)
in_weight = cmds.keyTangent(each_curve, query=True, iw=True)
out_weight = cmds.keyTangent(each_curve, query=True, ow=True)
in_tan_type = cmds.keyTangent(each_curve, query=True, itt=True)
out_tan_type = cmds.keyTangent(each_curve, query=True, ott=True)
i = 0
key = CurveKeyClass()
for t in time:
key.time.append(time[i])
key.value.append(value[i])
key.in_angle.append(in_angle[i])
key.out_angle.append(out_angle[i])
key.in_weight.append(in_weight[i])
key.out_weight.append(out_weight[i])
in_tan_type_prs = str(in_tan_type[i])
if not in_tan_type_prs in self.supported_tan_types:
if silent:
in_tan_type_prs = "user"
else:
raise KipTangentError("%s not supported tangent to nuke, Please "\
"update anim curve with any one of this %s" % \
(in_tan_type_prs, self.supported_tan_types))
key.in_tan_type.append(in_tan_type_prs)
out_tan_type_prs = str(out_tan_type[i])
if not out_tan_type_prs in self.supported_tan_types:
if silent:
out_tan_type_prs = "user"
else:
raise KipTangentError("%s not supported tangent to nuke, Please "\
"update anim curve with any one of this %s"%(out_tan_type_prs, \
self.supported_tan_types))
key.out_tan_type.append(out_tan_type_prs)
rad_in_angle = math.radians(in_angle[i])
rad_out_angle = math.radians(out_angle[i])
key.in_slope.append(math.tan(rad_in_angle))
key.out_slope.append(math.tan(rad_out_angle))
i += 1
maya_prs_original_attr = None
if type(temp_maya_nodes_curves) == dict:
current_node_from_attr = cmds.connectionInfo("%s.output" % each_curve, \
destinationFromSource=True)
source_node_attr = current_node_from_attr[0]
attribute_value_here = source_node_attr.split(".")[-1]
if source_node_attr in temp_maya_nodes_curves.values():
for current_key, current_value in temp_maya_nodes_curves.items():
if current_value == source_node_attr:
splitter_attribute = current_value.split(".")[1]
if attribute_value_here.find(splitter_attribute) !=-1:
split_current_key = current_key.split(".")
maya_prs_node = split_current_key[0]
maya_prs_original_attr = split_current_key[1]
maya_prs_strip_attr = maya_prs_original_attr[0:-1]
del (temp_maya_nodes_curves[current_key])
break
else:
continue
else:
maya_prs_node = current_node_prs_name
maya_prs_strip_attr = node_attr_type.lower()
maya_prs_original_attr = current_attr_name
if not maya_prs_original_attr:
continue
kipCurveObject.keys.append(key)
kipCurveObject.name.append(maya_prs_node)
kipCurveObject.parm.append(maya_prs_strip_attr)
kipCurveObject.parm_attr.append(maya_prs_original_attr)
each_curve_it = None
if curves_from_maya_node:
for each_curve_it in curves_from_maya_node:
if maya_prs_node in each_curve_it:
break
else:
each_curve_it = None
if each_curve_it:
get_append_curve_v = kipCurveObject.output()
for each_append_cruve in get_append_curve_v:
each_curve_it[2].append(each_append_cruve)
else:
kipCurveClassObject.name = maya_prs_node
eye_type = "default"
if each_node in left_eye_curves:
eye_type = "left"
elif each_node in right_eye_curves:
eye_type = "right"
kipCurveClassObject.type = eye_type
kipCurveClassObject.animation.append(kipCurveObject)
curves_from_maya_node.append(kipCurveClassObject.output())
current_prser_index += 1
except Exception:
current_prser_index += 1
continue
rodin_logger.info("Finished maya exporting data")
return (curves_from_maya_node)
def tween(bias, nodes=None):
"""
Create the in-between key(s) on the specified nodes
"""
if isinstance(nodes, list) and not nodes:
nodes = None
# Find the current frame, where the new key will be added
currenttime = mc.timeControl("timeControl1", q=True, ra=True)[0]
# Figure out which nodes to pull from
if nodes is not None:
pullfrom = nodes
else:
pullfrom = mc.ls(sl=True)
if not pullfrom:
return
# If attributes are selected, use them to build curve node list
attributes = mc.channelBox("mainChannelBox", q=True, sma=True)
if attributes:
curves = []
for attr in attributes:
for node in pullfrom:
fullnode = "%s.%s" % (node, attr)
if not mc.objExists(fullnode):
continue
tmp = mc.keyframe(fullnode, q=True, name=True)
if not tmp:
continue
curves += tmp
# Otherwise get curves for all nodes
else:
curves = mc.keyframe(pullfrom, q=True, name=True)
mc.waitCursor(state=True)
# Wrap the main operation in a try/except to prevent the waitcursor from
# sticking if something should fail
try:
# If we have no curves, force a list
if curves is None:
curves = []
# Process all curves
for curve in curves:
# Find time for next and previous keys...
time_prev = mc.findKeyframe(curve, which="previous")
time_next = mc.findKeyframe(curve, which="next")
# Find previous and next tangent types
try:
in_tan_prev = mc.keyTangent(curve,
time=(time_prev, ),
q=True,
itt=True)[0]
out_tan_prev = mc.keyTangent(curve,
time=(time_prev, ),
q=True,
ott=True)[0]
in_tan_next = mc.keyTangent(curve,
time=(time_next, ),
q=True,
itt=True)[0]
out_tan_next = mc.keyTangent(curve,
time=(time_next, ),
q=True,
ott=True)[0]
# Workaround for keyTangent error in Maya 2016 Extension 2
except RuntimeError:
in_tan_prev = mel.eval("keyTangent -time %s -q -itt %s" %
(time_prev, curve))[0]
out_tan_prev = mel.eval("keyTangent -time %s -q -ott %s" %
(time_prev, curve))[0]
in_tan_next = mel.eval("keyTangent -time %s -q -itt %s" %
(time_next, curve))[0]
out_tan_next = mel.eval("keyTangent -time %s -q -ott %s" %
(time_next, curve))[0]
# Set new in and out tangent types
in_tan_new = out_tan_prev
out_tan_new = in_tan_next
# However, if any of the types (previous or next) is "fixed",
# use the global (default) tangent instead
if "fixed" in [
in_tan_prev, out_tan_prev, in_tan_next, out_tan_next
]:
in_tan_new = mc.keyTangent(q=True, g=True, itt=True)[0]
out_tan_new = mc.keyTangent(q=True, g=True, ott=True)[0]
elif out_tan_next == "step":
out_tan_new = out_tan_next
# Find previous and next key values
value_prev = mc.keyframe(curve,
time=(time_prev, ),
q=True,
valueChange=True)[0]
value_next = mc.keyframe(curve,
time=(time_next, ),
q=True,
valueChange=True)[0]
value_new = value_prev + ((value_next - value_prev) * bias)
# Set new keyframe and tangents
mc.setKeyframe(curve,
t=(currenttime, ),
v=value_new,
ott=out_tan_new)
if in_tan_new != "step":
mc.keyTangent(curve, t=(currenttime, ), itt=in_tan_new)
# If we're using the special tick, set that appropriately
if SETTINGS["use_special_tick"]:
mc.keyframe(curve, tds=True, t=(currenttime, ))
except:
raise
finally:
mc.waitCursor(state=False)
mc.currentTime(currenttime)
mel.eval("global string $gMainWindow;")
windowname = mel.eval("$temp = $gMainWindow")
mc.setFocus(windowname)
def add_row(self, table, name, frame=None, checked=True):
"""Adds a new row in the given table.
* Name
* Blend value slider
* Frame number
* Remove button
"""
self.disconnect_table_signals(table)
if frame is None:
frame = str(int(cmds.currentTime(q=True)))
# row
row = table.rowCount()
table.insertRow(row)
table.setRowHeight(row, 40)
# number
row_number = self.item_text_margined(str(row + 1))
item = QtGui.QTableWidgetItem(row_number)
table.setItem(row, self.column_number, item)
# name
item = QtGui.QTableWidgetItem(name)
table.setItem(row, self.column_name, item)
# select button
select_btn = QtGui.QToolButton()
select_btn.setText('Show')
table.setCellWidget(row, self.column_select_button, select_btn)
select_btn.clicked.connect(
partial(self.select_sculpt_transform, select_btn))
# slider
sld_wid = QtGui.QWidget()
sld_wid.setLayout(QtGui.QHBoxLayout())
sld_wid.layout().setSpacing(0)
fsg = floatslidergroup.FloatSliderGroup()
fsg.set_minimum(0)
fsg.set_maximum(1)
fsg.set_decimals(4)
fsg.set_value(1)
fsg.setMinimumHeight(36)
fsg.layout().setSpacing(0)
fsg.spinbox.valueChanged.connect(
partial(self.change_blend_value, fsg.spinbox))
key_btn = QtGui.QToolButton()
key_btn.setIcon(QtGui.QIcon(":/setKeySmall.png"))
key_btn.clicked.connect(partial(self.set_keyframe, key_btn))
sld_wid.layout().addWidget(fsg)
sld_wid.layout().addWidget(key_btn)
table.setCellWidget(row, self.column_blendvalue, sld_wid)
# button
btn = QtGui.QToolButton()
btn.setText('Sculpt')
btn.setCheckable(True)
btn.setStyleSheet('QToolButton{color:#000;}')
table.setCellWidget(row, self.column_visibility, btn)
btn.clicked.connect(partial(self.change_visibility, btn, frame))
btn.setChecked(checked)
self.change_visibility(btn, frame)
# frame
ws = 8 - (len(frame) / 2)
frame_item = QtGui.QTableWidgetItem((' ' * ws) + frame)
table.setItem(row, self.column_frame, frame_item)
# remove btn
rem_btn = QtGui.QToolButton()
rem_btn.setText('X')
rem_btn.setStyleSheet('QToolButton{background-color:#900; color:#fff;}'
'QToolButton:hover{background-color:#c00;}'
'QToolButton:pressed{background-color:#f00;}')
rem_btn.clicked.connect(partial(self.remove_row, rem_btn))
table.setCellWidget(row, self.column_remove, rem_btn)
# timeline
timeline_wid = QtGui.QWidget()
timeline_wid.setLayout(QtGui.QHBoxLayout())
timeline_wid.setSizePolicy(
QtGui.QSizePolicy(QtGui.QSizePolicy.Expanding,
QtGui.QSizePolicy.Expanding))
h = table.rowHeight(row)
w = table.columnWidth(self.column_timeline)
timeline_wid.resize(w, h)
table.setCellWidget(row, self.column_timeline, timeline_wid)
tl = timeline.Timeline(timeline_wid.layout(), timeline_wid)
self.timelines.append(tl)
tl.create_timeline_button(int(frame), 'green', 1)
obj = self.uif.get_object_tab(table)
trans = self.get_transform_dag_path(obj[1], name)
start = cmds.playbackOptions(q=True, minTime=True)
end = cmds.playbackOptions(q=True, maxTime=True)
keys = cmds.keyframe('%s.blendValue' % trans,
time=(start, end),
query=True,
timeChange=True,
valueChange=True)
if keys is not None:
i = 0
while i < len(keys):
tl.create_timeline_button(int(keys[i]), 'red', keys[i + 1])
i = i + 2
# end while i < len(keys)
# connect signals
self.connect_table_signals(table)
table.sortByColumn(self.column_number, QtCore.Qt.AscendingOrder)
return row
def key_count(self):
return cmds.keyframe(self.node,
attribute=self.attribute,
query=True,
keyframeCount=True)
def getBase(self, *args):
sel = cmds.ls(sl=True, type="transform", l=True)
if len(sel)>1:
cmds.warning("You've selected more than one object. Only one object can be the base of the animation shift")
else:
obj = sel[0]
#put sel in the base obj tfg and get the frame
cmds.textFieldGrp(self.widgets["baseTFG"], e=True, tx=obj)
self.frame = cmds.currentTime(q=True)
cmds.floatFieldGrp(self.widgets["baseFrameFFG"], e=True, v1=self.frame)
btx = cmds.getAttr("%s.tx"%obj)
bty = cmds.getAttr("%s.ty"%obj)
btz = cmds.getAttr("%s.tz"%obj)
brx = cmds.getAttr("%s.rx"%obj)
bry = cmds.getAttr("%s.ry"%obj)
brz = cmds.getAttr("%s.rz"%obj)
bsx = cmds.getAttr("%s.sx"%obj)
bsy = cmds.getAttr("%s.sy"%obj)
bsz = cmds.getAttr("%s.sz"%obj)
cmds.floatFieldGrp(self.widgets["origTxFFG"], e=True, v1=btx)
cmds.floatFieldGrp(self.widgets["origTyFFG"], e=True, v1=bty)
cmds.floatFieldGrp(self.widgets["origTzFFG"], e=True, v1=btz)
cmds.floatFieldGrp(self.widgets["origRxFFG"], e=True, v1=brx)
cmds.floatFieldGrp(self.widgets["origRyFFG"], e=True, v1=bry)
cmds.floatFieldGrp(self.widgets["origRzFFG"], e=True, v1=brz)
cmds.floatFieldGrp(self.widgets["origSxFFG"], e=True, v1=bsx)
cmds.floatFieldGrp(self.widgets["origSyFFG"], e=True, v1=bsy)
cmds.floatFieldGrp(self.widgets["origSzFFG"], e=True, v1=bsz)
if cmds.keyframe("%s.tx"%(obj), q=True, t=(self.frame, self.frame)):
self.txk = True
if cmds.keyframe("%s.ty"%(obj), q=True, t=(self.frame, self.frame)):
self.tyk = True
if cmds.keyframe("%s.tz"%obj, q=True, t=(self.frame, self.frame)):
self.tzk = True
if cmds.keyframe("%s.rx"%(obj), q=True, t=(self.frame, self.frame)):
self.rxk = True
if cmds.keyframe("%s.ry"%(obj), q=True, t=(self.frame, self.frame)):
self.ryk = True
if cmds.keyframe("%s.rz"%obj, q=True, t=(self.frame, self.frame)):
self.rzk = True
if cmds.keyframe("%s.sx"%(obj), q=True, t=(self.frame, self.frame)):
self.sxk = True
if cmds.keyframe("%s.sy"%(obj), q=True, t=(self.frame, self.frame)):
self.syk = True
if cmds.keyframe("%s.sz"%obj, q=True, t=(self.frame, self.frame)):
self.szk = True
#catch the base object and frame for later use
self.baseObj = obj
cmds.text(self.widgets["doneText"], e=True, l='"Base Obj Set! Base Frame is: %s"'%self.frame, vis=True, bgc=(.5,.6,.5))
def keys(self):
return cmds.keyframe(self.node,
attribute=self.attribute,
query=True,
timeChange=True)
def getKeyFrameList(self, obj):
keyFrameList = cmds.keyframe(obj, q=True)
return keyFrameList
def shiftAnim(self, *args):
"""method that does the shifting"""
#TO-DO----------------possible to-do? Deal with locked or already driven channels?
#TO-DO----------------eval the curve at that point, then set the value in world space, then eval the curve again, then find the difference and move the curve that much (how will this work for rotation?)
self.getRange()
#print "start Frame: %s. . . endFrame: %s"%(self.startF, self.endF)
base = cmds.textFieldGrp(self.widgets["baseTFG"], q=True, tx=True)
#get vals of changes for each
self.dtx = cmds.floatFieldGrp(self.widgets["difTxFFG"], q=True, v1=True)
self.dty = cmds.floatFieldGrp(self.widgets["difTyFFG"], q=True, v1=True)
self.dtz = cmds.floatFieldGrp(self.widgets["difTzFFG"], q=True, v1=True)
self.drx = cmds.floatFieldGrp(self.widgets["difRxFFG"], q=True, v1=True)
self.dry = cmds.floatFieldGrp(self.widgets["difRyFFG"], q=True, v1=True)
self.drz = cmds.floatFieldGrp(self.widgets["difRzFFG"], q=True, v1=True)
self.dsx = cmds.floatFieldGrp(self.widgets["difSxFFG"], q=True, v1=True)
self.dsy = cmds.floatFieldGrp(self.widgets["difSyFFG"], q=True, v1=True)
self.dsz = cmds.floatFieldGrp(self.widgets["difSzFFG"], q=True, v1=True)
sel = cmds.ls(sl=True, type="transform", l=True)
if sel:
for obj in sel:
if self.startF:
#if there is a frame range, do the stuff with time here
cmds.keyframe(obj, at=("tx"), r=True, vc=self.dtx, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("ty"), r=True, vc=self.dty, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("tz"), r=True, vc=self.dtz, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("rx"), r=True, vc=self.drx, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("ry"), r=True, vc=self.dry, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("rz"), r=True, vc=self.drz, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("sx"), r=True, vc=self.dsx, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("sy"), r=True, vc=self.dsy, t=(self.startF, self.endF))
cmds.keyframe(obj, at=("sz"), r=True, vc=self.dsz, t=(self.startF, self.endF))
else:
#else just do it on the curve with no time argument
cmds.keyframe(obj, at=("tx"), r=True, vc=self.dtx)
cmds.keyframe(obj, at=("ty"), r=True, vc=self.dty)
cmds.keyframe(obj, at=("tz"), r=True, vc=self.dtz)
cmds.keyframe(obj, at=("rx"), r=True, vc=self.drx)
cmds.keyframe(obj, at=("ry"), r=True, vc=self.dry)
cmds.keyframe(obj, at=("rz"), r=True, vc=self.drz)
cmds.keyframe(obj, at=("sx"), r=True, vc=self.dsx)
cmds.keyframe(obj, at=("sy"), r=True, vc=self.dsy)
cmds.keyframe(obj, at=("sz"), r=True, vc=self.dsz)
if obj==base:
#this section is to a) clear the new key if there wasn't one before or b) offset the new key BACK to the rest of the newly moved curve (by neg delta)
if self.txk:
#offset the value BACK at self.frame
cmds.keyframe(obj, at="tx", r=True, vc=-self.dtx, t=(self.frame, self.frame))
else:
#delete the key at self.frame if it exists
cmds.cutKey(obj, at="tx", t=(self.frame, self.frame), cl=True)
if self.tyk:
cmds.keyframe(obj, at="ty", r=True, vc=-self.dty, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="ty", t=(self.frame, self.frame), cl=True)
if self.tzk:
cmds.keyframe(obj, at="tz", r=True, vc=-self.dtz, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="tz", t=(self.frame, self.frame), cl=True)
if self.rxk:
cmds.keyframe(obj, at="rx", r=True, vc=-self.drx, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="rx", t=(self.frame, self.frame), cl=True)
if self.ryk:
cmds.keyframe(obj, at="ry", r=True, vc=-self.dry, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="ry", t=(self.frame, self.frame), cl=True)
if self.rzk:
cmds.keyframe(obj, at="rz", r=True, vc=-self.drz, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="rz", t=(self.frame, self.frame), cl=True)
if self.sxk:
cmds.keyframe(obj, at="sx", r=True, vc=-self.dsx, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="sx", t=(self.frame, self.frame), cl=True)
if self.syk:
cmds.keyframe(obj, at="sy", r=True, vc=-self.dsy, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="sy", t=(self.frame, self.frame), cl=True)
if self.szk:
cmds.keyframe(obj, at="sz", r=True, vc=-self.dsz, t=(self.frame, self.frame))
else:
cmds.cutKey(obj, at="sz", t=(self.frame, self.frame), cl=True)
else:
cmds.warning("You've unselected stuff and you need some selections to shift!")
#clear base object (so we don't double up on keyframe corrections)
# cmds.textFieldGrp(self.widgets["baseTFG"], e=True, tx="")
size = len(sel)
if size == 1:
cmds.text(self.widgets["doneText"], e=True, l='"%s Shifted! Select Other Objs to Shift or Clear!"'%sel[0], vis=True, bgc=(.5,.5,.6))
elif size > 1:
cmds.text(self.widgets["doneText"], e=True, l='"%s Objects Shifted! Select Others to Shift or Clear!"'%size, vis=True, bgc=(.5,.5,.6))
else:
cmds.text(self.widgets["doneText"], e=True, l='"You Need To Select Something To Shift!"'%size, vis=True, bgc=(.5,.5,.6))
def loadAnimData(animFile,
lineID,
targetNS,
frameOffset=0,
infinityOverride=None):
"""
Apply anim data from anim file
@param animFile: Anim file path
@type animFile: str
@param lineID: Line ID (number) which marks the start of the node.attr anim data
@type lineID: int
@param targetNS: Target namespace to apply the static data to
@type targetNS: str
@param frameOffset: Frame offset to apply to the loaded animation data
@type frameOffset: int or float
@param infinityOverride: Force infinity mode override for loaded animation data.
@type infinityOverride: str or None
"""
# Initialize Target Attribute
attrPath = ''
animData = []
# =============
# - Read File -
# =============
f = open(animFile, 'r')
for i, line in enumerate(f):
# Skip to relevant line items
if i < lineID: continue
# Get Anim Data Header
if i == lineID:
lineItem = line.split()
attr = lineItem[2]
obj = lineItem[3].split(':')[-1]
attrPath = targetNS + ':' + obj + '.' + attr
# Check Target Attribute
if not cmds.objExists(attrPath):
print('Attribute "' + attrPath +
'" does not exist!! Skipping...')
return False
if not cmds.getAttr(attrPath, se=True):
print('Attribute "' + attrPath +
'" is not settable!! Skipping...')
return False
# Proceed to Next Line
continue
# Check Anim Data End
if '}' in line: break
# Build Anim Data
animData.append(line)
# ===================
# - Apply Anim Data -
# ===================
# Get Curve Data
weighted = bool(animData[1].split()[-1][:-1])
preInf = animData[2].split()[-1][:-1]
postInf = animData[3].split()[-1][:-1]
# Check Infinity Mode Override
if infinityOverride:
# Check Valid Infinity Mode
if not infinityOverride in [
'constant', 'linear', 'cycle', 'cycleRelative', 'oscillate'
]:
print('Invalid infinity mode "' + infinityOverride +
'"! Using stored values...')
else:
preInf = infinityOverride
postInf = infinityOverride
# Load Animation Data
for data in animData[5:]:
# Clean Data Line
data = data.replace(';', '')
# Split Data Items
dataItem = data.split()
# Apply Time Offset
time = float(dataItem[0]) + frameOffset
value = float(dataItem[1])
ittype = dataItem[2]
ottype = dataItem[3]
lock = bool(dataItem[4])
bd = bool(int(dataItem[6][0]))
cmds.setKeyframe(attrPath, t=time, v=value)
cmds.keyTangent(attrPath, e=True, weightedTangents=weighted)
cmds.keyTangent(attrPath,
e=True,
t=(time, time),
lock=lock,
itt=ittype,
ott=ottype)
cmds.keyframe(attrPath, e=True, t=(time, time), breakdown=bd)
if weighted: cmds.keyTangent(attrPath, weightLock=1)
if len(dataItem) == 11:
inAn = float(dataItem[7])
inWt = float(dataItem[8])
otAn = float(dataItem[9])
otWt = float(dataItem[10])
cmds.keyTangent(attrPath,
e=True,
t=(time, time),
inAngle=inAn,
inWeight=inWt,
outAngle=otAn,
outWeight=otWt)
# Set Curve Infinity
cmds.setInfinity(attrPath, pri=preInf, poi=postInf)
# Return Result
return True
def do():
"""
Creates a key on all attributes at any time-value, where a key exists in the curves list
:return True on complete, False if cancelled
:rtype bool
"""
# get selection
if utils.is_graph_editor():
curves = utils.get_selected_anim_curves()
else:
nodes = utils.get_selected_objects()
curves, plugs = utils.get_anim_curves_from_objects(nodes)
# get curve functions
curve_fns = []
for curve_node in curves:
curve_fns.append(oma.MFnAnimCurve(curve_node.object()))
if len(curve_fns) == 0:
sys.stdout.write('# No anim curves to set keys on\n')
return True
# get time range
time_range = utils.get_time_slider_range()
is_range = time_range[0] - time_range[1] != 0
# get time for keyframes
times = set()
selected_keys = cmds.keyframe(
q=True, selected=True, timeChange=True) if is_range is False else None
if is_range:
unit = om.MTime.uiUnit()
min_time = om.MTime(time_range[0], unit)
max_time = om.MTime(time_range[1], unit)
for curve_fn in curve_fns:
start_index = max(0, curve_fn.findClosest(
min_time)) # -1 just to be safe, is checked later
end_index = min(
curve_fn.numKeys,
curve_fn.findClosest(max_time)) # +1 just to be safe
for i in range(start_index, end_index):
times.add(curve_fn.input(i).value)
elif selected_keys is not None:
times = set(selected_keys)
else:
for curve_fn in curve_fns:
for i in range(curve_fn.numKeys):
times.add(curve_fn.input(i).value)
# get main progress bar start progress
gMainProgressBar = mel.eval('$tmp = $gMainProgressBar')
cmds.progressBar(gMainProgressBar,
e=True,
beginProgress=True,
isInterruptable=True,
status='Adding keyframes...',
maxValue=len(curve_fns))
# convert to MTime()
m_times = []
unit = om.MTime.uiUnit()
if is_range:
for t in times:
if time_range[0] <= t <= time_range[1]:
m_times.append(om.MTime(t, unit))
else:
for t in times:
m_times.append(om.MTime(t, unit))
# add keys
key_count = 0
cancelled = False
for curve_fn in curve_fns:
ts = []
vs = []
for mt in m_times:
if curve_fn.find(mt) is None:
ts.append(mt)
vs.append(curve_fn.evaluate(mt))
for t, v in zip(ts, vs):
curve_fn.addKey(t, v, change=animdata.anim_cache)
key_count += 1
cmds.progressBar(gMainProgressBar, e=True, step=1)
if cmds.progressBar(gMainProgressBar, q=True, isCancelled=True):
cancelled = True
break
cmds.progressBar(gMainProgressBar, e=True, endProgress=True)
if cancelled:
sys.stdout.write('# Keyhammer cancelled...\n')
return False
else:
sys.stdout.write('# Added %d key%s\n' %
(key_count, '' if key_count == 1 else 's'))
return True
def writeAnimFile(animFile, animNodes=[]):
"""
Write pose data to file.
@param poseFile: Destination pose file
@type poseFile: str
@param poseNodes: List of nodes to save pose data for
@type poseNodes: list
"""
# Initialize First Frame Value
firstKeyTime = 1000000
# Open File for Writing
print('\nWriting Animation Curves...\n')
f = open(animFile, 'w')
f.write('# Generated by VFX animLib\n#\n')
f.write('# dkAnim written by Daniel Kramer MOD by Mark Behm\n#\n')
f.write('# Source workfile: ' + cmds.file(q=True, sn=True) + '\n#\n\n')
for item in animNodes:
# Get Animated Channels
channels = cmds.listConnections(item,
s=True,
d=False,
p=True,
c=True,
type='anicmdsurve')
for i in range(0, len(channels), 2):
chan = cmds.ls(channels[i], o=True)[0]
node = cmds.ls(channels[i + 1], o=True)[0]
attr = channels[i + 1].split('.')[-1]
attrName = channels[i + 1]
parent = 0
nodeParent = cmds.listRelatives(node, p=True)
if nodeParent: parent = 1
# Infinity
infValue = [
'constant', 'linear', 'constant', 'cycle', 'cycleRelative',
'oscillate'
]
preIn = infValue[cmds.getAttr(chan + '.preInfinity')]
postInf = infValue[cmds.getAttr(chan + '.postInfinity')]
# Weighted
weighted = int(cmds.getAttr(chan + '.weightedTangents'))
# ====================
# - Write Curve Data -
# ====================
f.write('anim ' + attr + ' ' + attr + ' ' + node + ' ' + parent +
' 0 0;\n')
f.write('animData {\n')
f.write(' weighted ' + str(weighted) + ';\n')
f.write(' preInfinity ' + preIn + ';\n')
f.write(' postInfinity ' + postIn + ';\n')
f.write(' keys {\n')
# ==================
# - Write Key Data -
# ==================
# Get Key Data
keys = cmds.keyframe(chan, q=True)
values = cmds.keyframe(chan, q=True, vc=True)
inTan = cmds.keyTangent(chan, q=True, itt=True)
outTan = cmds.keyTangent(chan, q=True, ott=True)
tanLock = cmds.keyTangent(chan, q=True, lock=True)
weightLock = cmds.keyTangent(chan, q=True, weightLock=True)
breakDown = cmds.keyframe(chan, q=True, breakdown=True)
inAngle = cmds.keyTangent(chan, q=True, inAngle=True)
outAngle = cmds.keyTangent(chan, q=True, outAngle=True)
inWeight = cmds.keyTangent(chan, q=True, inWeight=True)
outWeight = cmds.keyTangent(chan, q=True, outWeight=True)
# Write Key Data
for i in range(len(keys)):
# Get Breakdown Status
bd = int(bool(keys[i] in breakDown))
# First Key
if keys[i] < firstKeyTime: firstKeyTime = keys[i]
# Write Key Data to File
f.write(' ' + str(keys[i]) + ' ' + str(values[i]) + ' ' +
inTan[i] + ' ' + outTan[i] + ' ' + str(tanLock[i]) +
' ' + str(weightLock[i]) + ' ' + str(bd))
if inTan[i] == 'fixed':
f.write(' ' + str(inAngle[i]) + ' ' + str(inWeight[i]))
if outTan[i] == 'fixed':
f.write(' ' + str(outAngle[i]) + ' ' + str(outWeight[i]))
f.write(';\n')
f.write(' }\n}\n')
# =========================
# - Write Static Channels -
# =========================
staticChans = cmds.listAnimatable(item)
for staticChan in staticChans:
node = cmds.ls(staticChan, o=True)[0]
attr = staticChan.split('.')[-1]
parent = 0
nodeParent = cmds.listRelatives(node, p=True)
if nodeParent: parent = 1
# staticChan = node+'.'+attr
keys = cmds.keyframe(staticChan, q=True)
connected = cmds.listConnections(staticChan, s=True)
if not keys and not connected:
f.write('static ' + attr + ' ' + attr + ' ' + node + ' ' +
parent + ' ' + str(cmds.getAttr(staticChan)) + '\n')
# Record First Key Offset
f.write('firstKeyTime ' + str(firstKeyTime))
# Close File
f.close()
# =================
# - Return Result -
# =================
print '\nDone Writing Animation Curves\n'
return animFile
def traceArc(space='camera'):
'''
The main function for creating the arc.
'''
if space != 'world' and space != 'camera':
OpenMaya.MGlobal.displayWarning('Improper space argument.')
return
global ML_TRACE_ARC_PREVIOUS_SELECTION
global ML_TRACE_ARC_PREVIOUS_SPACE
globalScale = 1
if mc.optionVar(exists='ml_arcTracer_brushGlobalScale'):
globalScale = mc.optionVar(query='ml_arcTracer_brushGlobalScale')
#save for reset:
origTime = mc.currentTime(query=True)
#frame range
frameRange = utl.frameRange()
start = frameRange[0]
end = frameRange[1]
#get neccesary nodes
objs = mc.ls(sl=True, type='transform')
if not objs:
OpenMaya.MGlobal.displayWarning('Select objects to trace')
return
ML_TRACE_ARC_PREVIOUS_SELECTION = objs
ML_TRACE_ARC_PREVIOUS_SPACE = space
cam = None
nearClipPlane = None
shortCam = ''
if space == 'camera':
cam = utl.getCurrentCamera()
#the arc will be placed just past the clip plane distance, but no closer than 1 unit.
nearClipPlane = max(mc.getAttr(cam + '.nearClipPlane'), 1)
shortCam = mc.ls(cam, shortNames=True)[0]
topGroup = 'ml_arcGroup'
worldGrp = 'ml_arcWorldGrp'
localGrp = 'ml_localGrp_' + shortCam
#create nodes
if not mc.objExists(topGroup):
topGroup = mc.group(empty=True, name=topGroup)
parentGrp = topGroup
if space == 'world' and not mc.objExists(worldGrp):
worldGrp = mc.group(empty=True, name=worldGrp)
mc.setAttr(worldGrp + '.overrideEnabled', 1)
mc.setAttr(worldGrp + '.overrideDisplayType', 2)
mc.parent(worldGrp, topGroup)
parentGrp = mc.ls(worldGrp)[0]
if space == 'camera':
camConnections = mc.listConnections(cam + '.message',
plugs=True,
source=False,
destination=True)
if camConnections:
for cc in camConnections:
if '.ml_parentCam' in cc:
localGrp = mc.ls(cc, o=True)[0]
if not mc.objExists(localGrp):
localGrp = mc.group(empty=True, name=localGrp)
mc.parentConstraint(cam, localGrp)
mc.setAttr(localGrp + '.overrideEnabled', 1)
mc.setAttr(localGrp + '.overrideDisplayType', 2)
mc.parent(localGrp, topGroup)
mc.addAttr(localGrp, at='message', longName='ml_parentCam')
mc.connectAttr(cam + '.message', localGrp + '.ml_parentCam')
parentGrp = mc.ls(localGrp)[0]
#group per object:
group = []
points = []
for i, obj in enumerate(objs):
sn = mc.ls(obj, shortNames=True)[0]
name = sn.replace(':', '_')
points.append([])
groupName = 'ml_%s_arcGrp' % name
if mc.objExists(groupName):
mc.delete(groupName)
group.append(mc.group(empty=True, name=groupName))
group[i] = mc.parent(group[i], parentGrp)[0]
mc.setAttr(group[i] + '.translate', 0, 0, 0)
mc.setAttr(group[i] + '.rotate', 0, 0, 0)
with utl.UndoChunk():
camSample = None
camROO = 0
if space == 'camera':
camSample = mc.spaceLocator()[0]
mc.parentConstraint(cam, camSample)
camROO = mc.getAttr(cam + '.rotateOrder')
for i, obj in enumerate(objs):
sample = mc.spaceLocator()[0]
mc.pointConstraint(obj, sample)
#frame loop:
time = range(int(start), int(end + 1))
for t in time:
objPnt = []
for attr in ('.tx', '.ty', '.tz'):
objPnt.append(getWorldValueAtFrame(sample + attr, t))
if space == 'camera':
camPnt = []
for attr in ('.tx', '.ty', '.tz'):
camPnt.append(getWorldValueAtFrame(
camSample + attr, t))
camRot = []
for attr in ('.rx', '.ry', '.rz'):
camRot.append(getWorldValueAtFrame(
camSample + attr, t))
objVec = utl.Vector(objPnt[0], objPnt[1], objPnt[2])
camVec = utl.Vector(camPnt[0], camPnt[1], camPnt[2])
vec = objVec - camVec
vec.normalize()
#multiply here to offset from camera
vec = vec * nearClipPlane * 1.2
oriLoc = mc.spaceLocator()[0]
mc.setAttr(oriLoc + '.rotateOrder', camROO)
mc.setAttr(oriLoc + '.rotate',
*[math.degrees(x) for x in camRot])
loc = mc.spaceLocator()[0]
mc.setAttr(loc + '.translate', *vec[:])
loc = mc.parent(loc, oriLoc)[0]
trans = mc.getAttr(loc + '.translate')
points[i].append(trans[0])
mc.delete(oriLoc)
elif space == 'world':
points[i].append(objPnt)
mc.delete(sample)
if camSample:
mc.delete(camSample)
#create the curves and do paint effects
mc.ResetTemplateBrush()
brush = mc.getDefaultBrush()
mc.setAttr(brush + '.screenspaceWidth', 1)
mc.setAttr(brush + '.distanceScaling', 0)
mc.setAttr(brush + '.brushWidth', 0.005)
for i, obj in enumerate(objs):
#setup brush for path
globalScale
mc.setAttr(brush + '.globalScale', globalScale)
mc.setAttr(brush + '.screenspaceWidth', 1)
mc.setAttr(brush + '.distanceScaling', 0)
mc.setAttr(brush + '.brushWidth', 0.003)
#color
for c in ('R', 'G', 'B'):
color = random.uniform(0.3, 0.7)
mc.setAttr(brush + '.color1' + c, color)
baseCurve = mc.curve(d=3, p=points[i])
#fitBspline makes a curve that goes THROUGH the points, a more accurate path
curve = mc.fitBspline(baseCurve,
constructionHistory=False,
tolerance=0.001)
mc.delete(baseCurve)
#paint fx
mc.AttachBrushToCurves(curve)
stroke = mc.ls(sl=True)[0]
mc.rename(
mc.listConnections(stroke + '.brush', destination=False)[0],
'ml_arcTracer_brush_#')
stroke = mc.parent(stroke, group[i])[0]
mc.setAttr(stroke + '.overrideEnabled', 1)
mc.setAttr(stroke + '.overrideDisplayType', 2)
mc.setAttr(stroke + '.displayPercent', 92)
mc.setAttr(stroke + '.sampleDensity', 0.5)
mc.setAttr(stroke + '.inheritsTransform', 0)
mc.setAttr(stroke + '.translate', 0, 0, 0)
mc.setAttr(stroke + '.rotate', 0, 0, 0)
curve = mc.parent(curve, group[i])[0]
mc.setAttr(curve + '.translate', 0, 0, 0)
mc.setAttr(curve + '.rotate', 0, 0, 0)
mc.hide(curve)
#setup brush for tics
if space == 'camera':
mc.setAttr(brush + '.brushWidth', 0.008)
if space == 'world':
mc.setAttr(brush + '.brushWidth', 0.005)
mc.setAttr(brush + '.color1G', 0)
mc.setAttr(brush + '.color1B', 0)
for t in range(len(points[i])):
frameCurve = None
if space == 'camera':
vec = utl.Vector(points[i][t][0], points[i][t][1],
points[i][t][2])
vec *= 0.98
frameCurve = mc.curve(d=1, p=[points[i][t], vec[:]])
elif space == 'world':
frameCurve = mc.circle(constructionHistory=False,
radius=0.0001,
sections=4)[0]
mc.setAttr(frameCurve + '.translate', points[i][t][0],
points[i][t][1], points[i][t][2])
constraint = mc.tangentConstraint(curve,
frameCurve,
aimVector=(0, 0, 1),
worldUpType='scene')
#mc.delete(constraint)
#check for keyframe
colorAttribute = 'color1G'
if mc.keyframe(obj,
time=((t + start - 0.5), (t + start + 0.5)),
query=True):
mc.setAttr(brush + '.color1R', 1)
else:
mc.setAttr(brush + '.color1R', 0)
mc.AttachBrushToCurves(curve)
stroke = mc.ls(sl=True)[0]
thisBrush = mc.listConnections(stroke + '.brush',
destination=False)[0]
thisBrush = mc.rename(thisBrush, 'ml_arcTracer_brush_#')
#setup keyframes for frame highlighting
mc.setKeyframe(thisBrush,
attribute='color1G',
value=0,
time=(start + t - 1, start + t + 1))
mc.setKeyframe(thisBrush,
attribute='color1G',
value=1,
time=(start + t, ))
stroke = mc.parent(stroke, group[i])[0]
mc.hide(frameCurve)
mc.setAttr(stroke + '.displayPercent', 92)
mc.setAttr(stroke + '.sampleDensity', 0.5)
frameCurve = mc.parent(frameCurve, group[i])[0]
if space == 'camera':
mc.setAttr(stroke + '.inheritsTransform', 0)
mc.setAttr(
stroke + '.pressureScale[1].pressureScale_Position', 1)
mc.setAttr(
stroke + '.pressureScale[1].pressureScale_FloatValue',
0)
mc.setAttr(stroke + '.translate', 0, 0, 0)
mc.setAttr(stroke + '.rotate', 0, 0, 0)
mc.setAttr(frameCurve + '.translate', 0, 0, 0)
mc.setAttr(frameCurve + '.rotate', 0, 0, 0)
mc.currentTime(origTime, edit=True)
panel = mc.getPanel(withFocus=True)
try:
mc.modelEditor(panel, edit=True, strokes=True)
except:
pass
mc.select(objs, replace=True)
mc.refresh()