def get_key_range(obj, start_frame=None, end_frame=None):
'''
Find the first and last keyed frame from an object that lies outside of the given start and end frame range
Args:
obj (PyNode): The object to query
start_frame (float): The current lowest frame to compare against
end_frame (float): The current highest frame to compare against
Returns:
(float, float). The lowest and highest frame
'''
first_key = start_frame
last_key = end_frame
historyNodes = pm.listHistory(obj, pruneDagObjects=True, leaf=False)
animCurves = pm.ls(historyNodes, type='animCurve')
if animCurves:
# Warning - pm.findKeyframe will return currentTime if it's given no anim curves
first_key = pm.findKeyframe(animCurves, which='first')
last_key = pm.findKeyframe(animCurves, which='last')
# We use frame -10000 and -10001 as a special holder frame for keys used by tools
start_frame = first_key if first_key < start_frame or start_frame == None else start_frame
start_frame = None if start_frame == -10000 or start_frame == -10001 else start_frame
end_frame = last_key if last_key > end_frame or end_frame == None else end_frame
end_frame = None if end_frame == -10000 or end_frame == -10001 else end_frame
return (start_frame, end_frame)
def key_delete(all_keys=True, only_before=False):
"""Delete all keys before, after, or both, except the current one which has an insert key set"""
current_frame = pm.getCurrentTime()
curves = pm.findKeyframe(curve=True)
first_key = 0.0
last_key = 0.0
for curve in curves:
key = pm.findKeyframe(curve, which='first')
if key < first_key:
first_key = key
key = pm.findKeyframe(curve, which='last')
if key > last_key:
last_key = key
pm.setKeyframe(insert=True)
if not all_keys:
if only_before:
pm.cutKey(clear=True, time=(first_key, current_frame - 1))
else:
pm.cutKey(clear=True, time=(current_frame + 1, last_key))
else:
pm.cutKey(clear=True, time=(first_key, current_frame - 1))
pm.cutKey(clear=True, time=(current_frame + 1, last_key))
def loopCurve( curveList=[], which='first' ):
"""
Adjust keyframes and tangents of selected curves to loop.
@param curveList: a list of curves to affect.
@type curveList: list
@param which: default: Specify which keyframe will be adjusted. Options are C{'first'} (default) and {'last'}
@type which: string
"""
if len( curveList ) is 0:
curveList = getSelectedCurvesKeys().keys()
for curve in curveList:
endsKeys = [pm.findKeyframe( curve, which='first' ), pm.findKeyframe( curve, which='last' )]
if which is 'last':
endsKeys.reverse()
lockState = pm.keyTangent( curve, time=( endsKeys[0], endsKeys[0] ), query=True, lock=True )[0]
pm.keyframe( curve, time=( endsKeys[0], endsKeys[0] ),
valueChange=pm.keyframe( curve, time=( endsKeys[1], endsKeys[1] ), query=True, valueChange=True )[0] )
if which is 'first':
pm.keyTangent( curve, time=( endsKeys[0], endsKeys[0] ), edit=True, lock=False,
outAngle=pm.keyTangent( curve, query=True, inAngle=True, time=( endsKeys[1], endsKeys[1] ) )[0] )
elif which is 'last':
pm.keyTangent( curve, time=( endsKeys[0], endsKeys[0] ), edit=True, lock=False,
inAngle=pm.keyTangent( curve, query=True, outAngle=True, time=( endsKeys[1], endsKeys[1] ) )[0] )
else:
pass
pm.keyTangent( curve, lock=lockState, time=( endsKeys[0], endsKeys[0] ) )
def transferRootJoint(src,dest):
#This function is used to transfer the root joint
#We don't have to convert this into another space.
#we just copy the rotation and translation over
firstFrame = pm.findKeyframe(src, which ='first')
lastFrame = pm.findKeyframe(src, which = 'last')
current = firstFrame
pm.setCurrentTime(current)
while current <= lastFrame:
pm.setCurrentTime(current)
dest.setTranslation(src.getTranslation())
dest.setRotation(src.getRotation())
dest.rotate.setKey()
dest.translate.setKey()
if current == lastFrame:
break
current = pm.findKeyframe(src , time = current, which='next')
def toggleRelativeKeyframeDisplay(self):
sender = self.sender()
onionCore.viewRenderOverrideInstance.setRelativeKeyDisplay(self.sender().isChecked())
futureKeys = []
pastKeys = []
nextKey = pm.findKeyframe(ts=True, w="next")
pastKey = pm.findKeyframe(ts=True, w="previous")
# add next keys to list
bufferKey = pm.getCurrentTime()
for i in range(self.mRelativeFrameAmount/2):
if nextKey <= bufferKey:
break
futureKeys.append(nextKey)
bufferKey = nextKey
nextKey = pm.findKeyframe(t=bufferKey, ts=True, w="next")
# add prev keys to list
bufferKey = pm.getCurrentTime()
for i in range(self.mRelativeFrameAmount/2):
if pastKey >= bufferKey:
break
pastKeys.append(pastKey)
bufferKey = pastKey
pastKey = pm.findKeyframe(t=bufferKey, ts=True, w="previous")
def toggleRelativeKeyframeDisplay(self):
sender = self.sender()
onionCore.viewRenderOverrideInstance.setRelativeKeyDisplay(
self.sender().isChecked())
futureKeys = []
pastKeys = []
nextKey = pm.findKeyframe(ts=True, w="next")
pastKey = pm.findKeyframe(ts=True, w="previous")
# add next keys to list
bufferKey = pm.getCurrentTime()
for i in range(self.mRelativeFrameAmount / 2):
if nextKey <= bufferKey:
break
futureKeys.append(nextKey)
bufferKey = nextKey
nextKey = pm.findKeyframe(t=bufferKey, ts=True, w="next")
# add prev keys to list
bufferKey = pm.getCurrentTime()
for i in range(self.mRelativeFrameAmount / 2):
if pastKey >= bufferKey:
break
pastKeys.append(pastKey)
bufferKey = pastKey
pastKey = pm.findKeyframe(t=bufferKey, ts=True, w="previous")
def smart_loop():
with pm.UndoChunk():
for obj in pm.ls(sl=True):
for curve in pm.keyframe(obj, q=True, name=True):
first = pm.findKeyframe(curve, which='first')
last = pm.findKeyframe(curve, which='last')
t = (first, last)
pm.copyKey(curve)
pm.pasteKey(curve, time=last, option='insert', connect=True)
def cut_key(self):
"""
Delete animations that exceed the range of frames.
:return:
"""
max_time = pm.playbackOptions(query=1, maxTime=1)
for curve in self.animation_data.keys():
last_frame = pm.findKeyframe(curve, which='last')
while last_frame > max_time:
pm.cutKey(curve, time=last_frame)
last_frame = pm.findKeyframe(curve, which='last')
def tweenPose(self, biasValue):
self.selectedObjects = pm.ls(sl=True)
currentFrame = pm.currentTime(query=True)
for item in self.selectedObjects:
curves = pm.keyframe(item, query=True, name=True)
for curve in curves:
# Find where the prev and next keyframes were set
framePrev = pm.findKeyframe(timeSlider=True, which="previous")
frameNext = pm.findKeyframe(timeSlider=True, which="next")
# Find which tangent type was used by the prev and next keyframes
tanOutPrevKey = mel.eval('keyTangent -time ' + str(framePrev) +
' -q -ott ' + curve)[0]
tanInNextKey = mel.eval('keyTangent -time ' + str(frameNext) +
' -q -itt ' + curve)[0]
tanInNewKey = tanOutPrevKey
tanOutNewKey = tanInNextKey
# Set the new keyframe's tangent to 'auto' if the next or prev keyframes uses 'fixed'
if tanOutPrevKey == 'fixed' or tanInNextKey == 'fixed':
tanInNewKey = 'auto'
tanOutNewKey = 'auto'
elif tanOutPrevKey == 'step':
tanInNewKey = 'linear'
tanOutNewKey = 'step'
# Retrieve the values of the next and previous keyframes
prevCurveVal = pm.keyframe(curve,
time=framePrev,
query=True,
valueChange=True)[0]
nextCurveVal = pm.keyframe(curve,
time=frameNext,
query=True,
valueChange=True)[0]
# Compute the value of the new keyframe based on the bias value
percentBias = (biasValue + 100) / float(200)
newCurveVal = (
(nextCurveVal - prevCurveVal) * percentBias) + prevCurveVal
# Set a new keyframe using the new value
pm.setKeyframe(curve,
time=currentFrame,
value=newCurveVal,
itt=tanInNewKey,
ott=tanOutNewKey)
# Reset the current time to refresh the values shown in the channel box
pm.currentTime(currentFrame, edit=True)
def fetchShotFrameRange_Fn(self, shotName):
self.shotName = shotName
if pm.objExists(self.shotName + '_shotCam'):
self.camName = pm.PyNode(self.shotName + '_shotCam')
pm.select(self.camName, r=1)
if pm.objectType(self.camName.getShape()) == 'camera':
startFrame = pm.findKeyframe(timeSlider=False, which='first')
endFrame = pm.findKeyframe(timeSlider=False, which='last')
pm.select(cl=1)
if startFrame == endFrame:
return sys.stderr.write('Please check the keyframes on %s_shotCam\n' % self.shotName)
else:
return {'shotName':self.shotName, 'cameraName':str(self.camName.name()), 'mpStartFrame':startFrame, 'mpEndFrame':endFrame}
def reverseCurve( timePiv=None ):
"""
Reverse the selected curve(s). If timePiv is C{'None'}, curve will be reversed at current time.
@param timePiv: timePiv: C{None} If timePiv is C{'None'}, curve will be reversed at current time.
@type timePiv: float
"""
for curve in getSelectedCurvesKeys().iterkeys():
if timePiv is None:
timePiv = ( pm.findKeyframe( curve, which='first' ) + pm.findKeyframe( curve, which='last' ) ) / 2
else:
pass
pm.scaleKey( curve, timeScale= -1.0, timePivot=timePiv )
def alMoveACsegment(startFrame, endFrame):
lastFrame = 0.0
preRange = "0:" + str((startFrame - 1))
allaCurves = pm.ls(type="animCurve")
refCurves = pm.ls(type="animCurve", referencedNodes=1)
animCurves = [x for x in allaCurves if x not in refCurves]
for aCurve in animCurves:
if (pm.objectType(aCurve) == "animCurveTU") or (
pm.objectType(aCurve)
== "animCurveTA") or (pm.objectType(aCurve) == "animCurveTL"):
pm.setAttr((str(aCurve) + ".ktv"), l=1)
pm.setAttr((str(aCurve) + ".ktv"), l=0)
lastFrame = float(pm.findKeyframe(aCurve, which="last"))
if lastFrame <= endFrame:
lastFrame = float(endFrame + 2)
postRange = str((endFrame + 1)) + ":" + str(lastFrame)
if (pm.getAttr(str(aCurve) + ".pre")
== 0) and (pm.getAttr(str(aCurve) + ".pst") == 0):
pm.setKeyframe(aCurve, insert=1, time=startFrame)
pm.setKeyframe(aCurve, insert=1, time=endFrame)
pm.cutKey(aCurve, time=preRange)
pm.cutKey(aCurve, time=postRange)
#print "\nanimCurve: " + str(aCurve)
pm.keyframe(aCurve,
e=1,
iub=True,
o='over',
r=1,
time=(str(startFrame) + ":" + str(endFrame)),
tc=(-(startFrame - 1)))
def shift_curves(amount=1):
"""Shift curves forwards or backwards by defined frame (amount)"""
curves = pm.findKeyframe(curve=True)
if len(curves) > 0:
for curve in curves:
pm.keyframe(curve, edit=True, relative=True, timeChange=amount)
def exportAnim(self, *args):
objs = pm.ls( sl=True )
successState = True
filePath = pm.fileDialog2( caption='Save Animation', startingDirectory=uad , fileFilter="Anim Files (*.anim)" )
if not filePath:
sys.stdout.write('Save animation cancelled.')
return None
animInfos = {} # dictionary containing dictionaries of every object's animations
for obj in objs:
if not ( self.hasUniqueName( obj ) ): # if object'n name is not unique, doesn't save animation for it
successState = False
pm.warning( "Object %s's name is not unique. skipped"%obj.name() )
continue
nameSpace = self.getNameSpace( obj )
if nameSpace:
objName = obj.name().split(':')[1]
else:
objName = obj.name()
# find all anim curves on the object
curves = pm.findKeyframe( obj , curve=True )
if not curves: # jump to next object if no anim curve found
continue
animInfo = {} # dictionary containing one object's animations
for curve in curves: # for each curve, find where it's connected to, keys' times, values and tangents
attr = pm.listConnections( '%s.output'%curve, plugs=True )[0]
if nameSpace:
attrName = attr.name().split(':')[1]
else:
attrName = attr.name()
times = pm.keyframe( attr, q=True, timeChange=True )
values = pm.keyframe( attr, q=True, valueChange=True )
outWeights = pm.keyTangent( attr, q=True, outWeight=True )
outAngles = pm.keyTangent( attr, q=True, outAngle=True )
inWeights = pm.keyTangent( attr, q=True, inWeight=True )
inAngles = pm.keyTangent( attr, q=True, inAngle=True )
animInfo[ attrName ] = { 'times':times, 'values':values, 'outWeights':outWeights, 'outAngles':outAngles, 'inWeights':inWeights, 'inAngles':inAngles }
animInfos[ objName ] = animInfo
# write anim info to file
filePath = filePath[0]
logfile = open( filePath , 'w')
logfile.write( str(animInfos) )
logfile.close()
if successState:
sys.stdout.write( 'Animation was successfully exported.' )
else:
pm.warning( 'Some objects animtions were not saved due to multiple object with the same name, check script editor for more info.' )
def setRelativeFrames(self, value):
if not self.mRelativeKeyDisplay:
return
nextKeys = []
pastKeys = []
nextKey = pm.findKeyframe(ts=True, w="next")
pastKey = pm.findKeyframe(ts=True, w="previous")
# add next keys to list
bufferKey = pm.getCurrentTime()
for i in range(4):
if nextKey <= bufferKey:
break
nextKeys.append(nextKey)
bufferKey = nextKey
nextKey = pm.findKeyframe(t=bufferKey, ts=True, w="next")
# add prev keys to list
bufferKey = pm.getCurrentTime()
for i in range(4):
if pastKey >= bufferKey:
break
pastKeys.append(pastKey)
bufferKey = pastKey
pastKey = pm.findKeyframe(t=bufferKey, ts=True, w="previous")
pastKeys = list(reversed(pastKeys))
for frameIndex in self.mRelativeOnions:
blendPass = self.mRelativeOnions[frameIndex]
if frameIndex < 0:
# past
if pastKeys and len(pastKeys) >= frameIndex*-1:
blendPass.setActive(True)
blendPass.setFrame(pastKeys[frameIndex])
else:
blendPass.setActive(False)
else:
# future
if nextKeys and len(nextKeys) >= frameIndex:
blendPass.setActive(True)
blendPass.setFrame(nextKeys[frameIndex-1])
else:
blendPass.setActive(False)
def connectAttribute(): grp = pm.ls(sl=True) pm.delete(grp,sc=True) CtrlName = "Fingers_R.Fist" animCurve = pm.findKeyframe(grp,c=True) for i in range(len(animCurve)): connect = pm.connectAttr(CtrlName,animCurve[i]+".input") print "animCurve Connected...",
def SourceAnimation(keygiver):
##Gets the first and last keyFrames
first = pm.findKeyframe(keygiver, which='first')
last = pm.findKeyframe(keygiver, which='last')
for i in range(int(last + 1)):
pm.setCurrentTime(i)
keygiver.translate.setKey()
keygiver.rotate.setKey()
keygiver.scale.setKey()
for child in keygiver.getChildren():
print child
animation(child)
##Finds the next keyframe once the first keyframe has been set!
i = pm.findKeyframe(keygiver, time=i, which='next')
def SourceAnimation(keygiver):
##Gets the first and last keyFrames
first = pm.findKeyframe(keygiver, which='first')
last = pm.findKeyframe(keygiver, which='last')
for i in range(int(last+1)):
pm.setCurrentTime(i)
keygiver.translate.setKey()
keygiver.rotate.setKey()
keygiver.scale.setKey()
for child in keygiver.getChildren():
print child
animation(child)
##Finds the next keyframe once the first keyframe has been set!
i = pm.findKeyframe(keygiver, time=i, which='next')
def fetchShotFrameRange_Fn(self, shotName):
self.shotName = shotName
if pm.objExists(self.shotName + '_shotCam'):
self.camName = pm.PyNode(self.shotName + '_shotCam')
pm.select(self.camName, r=1)
if pm.objectType(self.camName.getShape()) == 'camera':
startFrame = pm.findKeyframe(timeSlider=False, which='first')
endFrame = pm.findKeyframe(timeSlider=False, which='last')
pm.select(cl=1)
if startFrame == endFrame:
return sys.stderr.write(
'Please check the keyframes on %s_shotCam\n' %
self.shotName)
else:
return {
'shotName': self.shotName,
'cameraName': str(self.camName.name()),
'mpStartFrame': startFrame,
'mpEndFrame': endFrame
}
def GetJointKeyframes(jointName):
pm.select(jointName)
curr = first = pm.findKeyframe(jointName, which='first')
pm.setCurrentTime(first)
last = pm.findKeyframe(jointName, which='last')
kc = pm.keyframe(
jointName, sl=False, q=True,
keyframeCount=True) / 10 #THIS IS LOGICAL AND MAKES SENSE!
#node.setKeyframe();
print("\n")
if (kc > 0):
keyframeList = []
while curr <= last:
node = pm.PyNode(jointName)
kf = Keyframe()
kf.time = curr / 24
kf.Scale = node.getScale()
kf.rotation = node.getRotation()
kf.translation = node.getTranslation()
print kf.Scale[0]
print("SCALE: " + str(kf.Scale))
keyframeList.append(kf)
if curr == last:
return keyframeList
curr = pm.findKeyframe(jointName, time=curr, which='next')
pm.setCurrentTime(curr)
else:
print("No Keyframes in this animation layer")
def getFloatingValue(cam, attr_name, cut_in, cut_out):
result = {}
curve_list = pm.findKeyframe(cam, curve=True, at=attr_name)
attr = cam.attr(attr_name)
if curve_list:
c = pm.PyNode(curve_list[0])
if not c.isStatic():
for i in range(0, c.numKeys()):
result.update({int(c.getTime(i)):c.getValue(i)})
if not result:
result = {cut_in:attr.get()}
if len(result.values())==1 and result.values()==[0]:
result = {}
return result
def get_curves(direction=None):
curves = pmc.animCurveEditor("graphEditor1GraphEd", q=True, curvesShown=True)
log.debug(curves)
if not curves:
return []
displayed_curves = [
("_".join(x.split("_")[:-1]), x.split("_")[-1])
for x in curves
]
log.debug(displayed_curves)
keys = list(set(pmc.findKeyframe(x[0], attribute=x[1], which=direction) for x in displayed_curves))
keys.sort()
log.debug(keys)
return keys
def transferRootJoint(src, dest):
#This function is used to transfer the root joint
#We don't have to convert this into another space.
#we just copy the rotation and translation over
firstFrame = pm.findKeyframe(src, which='first')
lastFrame = pm.findKeyframe(src, which='last')
current = firstFrame
pm.setCurrentTime(current)
while current <= lastFrame:
pm.setCurrentTime(current)
dest.setTranslation(src.getTranslation())
dest.setRotation(src.getRotation())
dest.rotate.setKey()
dest.translate.setKey()
if current == lastFrame:
break
current = pm.findKeyframe(src, time=current, which='next')
def find_frame_of_key(frame):
"""
Return the nearest key on or before frame, or None if there aren't any.
"""
keys = get_singleton(create=False)
if keys is None:
return None
# Why is there no <= search?
frames = pm.findKeyframe(keys.attr('keyframes'), t=frame + 0.000001, which='previous')
if frames is None:
return None
if frames > frame:
return None
return frames
def get_selection_frame_value_length():
"""Print the frame and value length of selected keys on a single curve"""
import pymel.core as pm
curve = pm.findKeyframe(c=True)
if len(curve) == 1: # only 1 curve selected
l_keys = pm.keyframe(q=True, selected=True, tc=True)
v_keys = pm.keyframe(q=True, selected=True, vc=True)
if len(l_keys) > 1: # at least 2 keys selected
key_length = abs(l_keys[-1] - l_keys[0]) # frame length
key_value = abs(max(v_keys) - min(v_keys)) # value range
print ("frame length: {}, value range: {:.3f}".format(key_length, key_value)),
else:
pm.warning('Need to select at least 2 keys'),
else:
pm.warning('Select only 1 curve'),
def key_attr(attr, new_value=None, copy_previous=None):
"""
Key given attr on previous and current frame.
:param attr: Attribute to be keyed of type Attribute().
:param new_value: Explicitly set key value on current frame.
:param copy_previous: Explicitly copy previous key or value onto previous frame for a single-frame switch.
"""
log.debug("Keying attr...")
cur_time = pmc.currentTime(q=True)
log.debug("Attr: {}".format(attr))
log.debug("New value: {}".format(new_value))
log.debug("Copy previous: {}".format(copy_previous))
log.debug("Current time: {}".format(cur_time))
if copy_previous:
prev_key_time = pmc.findKeyframe(attr, which="previous")
prev_key_value = attr.get(t=prev_key_time)
prev_key = pmc.copyKey(attr, t=prev_key_time)
log.debug("Previous key time: {}".format(prev_key_time))
log.debug("Previous key value: {}".format(prev_key_value))
# If a key did not exist
if prev_key == 0:
pmc.setKeyframe(attr, t=(cur_time - 1))
# If a key exists
elif prev_key == 1:
pmc.pasteKey(attr, t=(cur_time - 1))
else:
pmc.setKeyframe(attr, t=(cur_time - 1))
if new_value:
pmc.setKeyframe(attr, t=cur_time, v=new_value)
attr.set(new_value)
else:
pmc.setKeyframe(attr, t=cur_time)
def key_attr(attr, new_value=None, copy_previous=None):
"""
Key given attr on previous and current frame.
:param attr: Attribute to be keyed of type Attribute().
:param new_value: Explicitly set key value on current frame.
:param copy_previous: Explicitly copy previous key or value onto previous frame for a single-frame switch.
"""
log.debug("Keying attr...")
cur_time = pmc.currentTime(q=True)
log.debug("Attr: {}".format(attr))
log.debug("New value: {}".format(new_value))
log.debug("Copy previous: {}".format(copy_previous))
log.debug("Current time: {}".format(cur_time))
if copy_previous:
prev_key_time = pmc.findKeyframe(attr, which="previous")
prev_key_value = attr.get(t=prev_key_time)
prev_key = pmc.copyKey(attr, t=prev_key_time)
log.debug("Previous key time: {}".format(prev_key_time))
log.debug("Previous key value: {}".format(prev_key_value))
# If a key did not exist
if prev_key == 0:
pmc.setKeyframe(attr, t=(cur_time - 1))
# If a key exists
elif prev_key == 1:
pmc.pasteKey(attr, t=(cur_time - 1))
else:
pmc.setKeyframe(attr, t=(cur_time - 1))
if new_value:
pmc.setKeyframe(attr, t=cur_time, v=new_value)
attr.set(new_value)
else:
pmc.setKeyframe(attr, t=cur_time)
def stopRecording(self):
self.scriptNode.before.set("pass") #Inactivates the scriptNode
if len(AnimationRemapper._mapKeyFrameList) < 2:
print "Stopped script. No recorded keys"
return
#Converts the time list to delta time in keyframes
self._convertTimeList()
#Print for debugging
lastKeyFrame = AnimationRemapper._mapKeyFrameList[-1] #
lastTime = AnimationRemapper._mapTimeList[
-1] #convert time to keyframe
lastKey = max([
pm.findKeyframe(selObj, w="last")
for selObj in self._selectedObjects
])
moveVal = lastTime - lastKeyFrame
#Set timerange options
if lastTime > pm.playbackOptions(q=1, max=True):
pm.playbackOptions(e=1, max=lastTime)
#If moveVal is greater than zero move the untouched keyframes further away before we remap
if moveVal > 0:
self.moveUnusedKeyframes(lastKeyFrame, lastKey, moveVal)
#Do the magic
self.remapKeys()
#If moveVal is less than zero move the untouched keyframes closer to the remapped animation
#(if you only remapped parts of the animation)
if moveVal < 0:
self.moveUnusedKeyframes(lastKeyFrame, lastKey, moveVal)
def main(jointList, newJointList, hip, newHip):
first = pm.findKeyframe(hip, which='first')
last = pm.findKeyframe(hip, which='last')
pm.setCurrentTime(0)
parentList = []
targetParentList = []
parents(hip, dt.Matrix(), parentList, jointList)
parents(newHip, dt.Matrix(), targetParentList, newJointList)
i = 0
a = 0
identityMatrix = dt.Matrix()
identityMatrix2 = dt.Matrix()
while i < len(jointList):
curr = first
pm.setCurrentTime(0)
pyJoint = pm.PyNode(jointList[i])
targetJoint = pm.PyNode(newJointList[i])
parentJoint = parentList[i]
targetParentJoint = targetParentList[i]
bindPoseInverse = pyJoint.getRotation().asMatrix().inverse()
bindPose = pyJoint.getRotation().asMatrix()
bindPoseTarget = targetJoint.getRotation().asMatrix()
while curr <= last:
curr = pm.findKeyframe(hip, time=curr, which='next')
pm.setCurrentTime(curr)
if i == 0:
k = pyJoint.getRotation().asMatrix() * bindPoseInverse
kPrim = identityMatrix.setToIdentity().inverse() * k * identityMatrix2.setToIdentity()
kPrim2 = parentList[i] * kPrim * parentList[i].inverse()
final = bindPoseTarget * kPrim2
targetJoint.setRotation(dt.degrees(dt.EulerRotation(final)))
targetJoint.setTranslation(pyJoint.getTranslation())
pm.setKeyframe(targetJoint)
else:
####################################HIP DONE###########################################
bodyK = bindPoseInverse * pyJoint.getRotation().asMatrix()
bodykPrim = parentList[i].inverse() * bodyK * parentList[i]
bodykPrim2 = targetParentList[i] * bodykPrim * targetParentList[i].inverse()
bodyFinal = bindPoseTarget * bodykPrim2
targetJoint.setRotation(dt.degrees(dt.EulerRotation(bodyFinal)))
pm.setKeyframe(targetJoint)
# apply key values
if curr==last:
i = i + 1
break
def transferOneJoint(src, dest):
#get the upper most parent node of the source, If there is none it will return itself
#This is done because we need the root node to to the change of basis
srcRootNode = getRootNode(src)
destRootNode = getRootNode(dest)
if srcRootNode == src:
#this checks if the root node is being processed
#then we need to include the translation
#we have another function only for the root node transformation
transferRootJoint(src, dest)
print "THIS IS THE ROOTNODE"
else: #do the normal transfer
firstFrame = pm.findKeyframe(src, which='first') #Find first key frame
lastFrame = pm.findKeyframe(src, which='last') #Find the lat key frame
current = firstFrame
pm.setCurrentTime(current) #Set current key frame to the first one
#get the rotation of the source root in the first frame (IT's the bind pose) Needed when changing basis
srcRootRotation = srcRootNode.getRotation().asMatrix()
#get the rotation of the destination root joint in the first frame. (Needed when changing basis to destination node)
#destRootRotation = destRootNode.getRotation().asMatrix()
#Get the bind pose of the destination joint. Needed when applying rotation to destination
destRotation = dest.getRotation().asMatrix()
srcHierarcyMatrix = src.getRotation().asMatrix()
#This will be done on the first frame.
#A matrix of the hierarcys TPose will be returned
#srcHierarchyMatrix is used to isolate the rotation from the source joint
srcChangeofBasisMatrix = getChangeOfBasisMatrix(src)
#This creates the matrix that is needed when we change the basis of the orientation
#it is similar to the hierarchyMatrix, However, it is multiplicated in the reverse order, and it does not include the source joint orientation
destChangeofBasisMatrix = getChangeOfBasisMatrix(dest)
# Loop through the frames
while current <= lastFrame:
pm.setCurrentTime(current)
srcRotation = getRotationFromJoint(
src, srcHierarcyMatrix
) #Extract the Rotation from the source, using the hierarchy matrix
# Rotation is extracted from the joint,
#Now it needs to be transformed into standard coordinate space.
#this is achieved by doing a change of basis.
# inv(srcChangeofBasisMatrix) * srcRotation * srcChangeofBasisMatrix
srcRotation = srcChangeofBasisMatrix.inverse(
) * srcRotation * srcChangeofBasisMatrix
#Now we need to transform it from the standard coordinate space to the space of the destination joint
# (h * k * h-1 = k2)
srcRotation = destChangeofBasisMatrix * srcRotation * destChangeofBasisMatrix.inverse(
)
setRotationToJoint(srcRotation, dest, destRotation)
dest.rotate.setKey() #Set the keyframe!
if current == lastFrame:
break
current = pm.findKeyframe(src, time=current,
which='next') #Jump to next frame
def findKeyframe(cls, which, time=None):
kwargs = {"which": which}
if which in ["next", "previous"]:
kwargs["time"] = (time, time)
return mc.findKeyframe(**kwargs)
for fbx_jnt in pm.ls(src_namespace + "root", dag=1, ni=1):
fbx_base = fbx_jnt.split(':')[1]
skin_jnt = dst_namespace + ':' + fbx_base
if pm.objExists(skin_jnt):
# change jointOrientX and key it
for tmp in 'XYZ':
pm.setKeyframe('%s.jointOrient%s' % (fbx_jnt, tmp))
or_value = pm.getAttr('%s.jointOrient%s' % (skin_jnt, tmp))
pm.setAttr('%s.jointOrient%s' % (fbx_jnt, tmp), or_value)
for trs in 'trs':
for xyz in 'xyz':
attr = trs + xyz
try:
v = pm.getAttr(skin_jnt + '.' + attr)
fbx_anim_node = pm.findKeyframe(fbx_jnt,
curve=True,
at=attr)
if not fbx_anim_node:
#key
pm.setKeyframe('%s.%s' % (fbx_jnt, attr))
# key it first
#pm.setKeyframe('pCube1.scaleX')
pm.setAttr(fbx_jnt + '.' + attr, v)
except BaseException:
print("error", skin_jnt)
pass
# keyframe_match = {
# "LfArm_Switch" : "LfArm_Switch",
# "RtArm_Switch" : "RtArm_Switch",
def clean_raw_data(self):
# Create and check
self.create_directory()
# Get all files path
file_path, maya_file_path = self.get_path_file_mixamo()
# Loop through all path
for path in file_path:
# Create new scene
cm.file(force=True, newFile=True)
# Rename path for maya can read
new_path = path.replace("\\", "/")
# Import fbx file into scene with out namespace
cm.file(new_path,
i=True,
mergeNamespacesOnClash=True,
namespace=':')
cm.currentUnit(time='ntsc')
self.clean_namespace()
# Get list joint under world
list_joints = self.check_parent()
skipped_file = []
if pm.objExists("World"):
world_joint = pm.PyNode("World")
else:
# Create a world joint
world_joint = pm.joint(n="World", r=True)
# Loop through joint and parent it under world joint
for joint in list_joints:
first_key = int(pm.findKeyframe(joint, which='first'))
last_key = int(pm.findKeyframe(joint, which='last')) + 1
cm.playbackOptions(animationStartTime=first_key,
animationEndTime=last_key,
minTime=first_key,
maxTime=last_key)
pm.parent(joint, world_joint, relative=False)
# Get fbx file name without the path
fbx_name = path.split("/")[-1]
# Set path to new folder export we create
path_fbx = (os.path.join(self.directory,
fbx_name)).replace(os.sep, '/')
# Export fbx file
pm.select(world_joint)
self.export_option(path_fbx)
# Create new scene again for clean maya
cm.file(force=True, newFile=True)
def exportAnim(self, *args):
objs = pm.ls(sl=True)
successState = True
filePath = pm.fileDialog2(caption='Save Animation',
startingDirectory=uad,
fileFilter="Anim Files (*.anim)")
if not filePath:
sys.stdout.write('Save animation cancelled.')
return None
animInfos = {
} # dictionary containing dictionaries of every object's animations
for obj in objs:
if not (
self.hasUniqueName(obj)
): # if object'n name is not unique, doesn't save animation for it
successState = False
pm.warning("Object %s's name is not unique. skipped" %
obj.name())
continue
nameSpace = self.getNameSpace(obj)
if nameSpace:
objName = obj.name().split(':')[1]
else:
objName = obj.name()
# find all anim curves on the object
curves = pm.findKeyframe(obj, curve=True)
if not curves: # jump to next object if no anim curve found
continue
animInfo = {} # dictionary containing one object's animations
for curve in curves: # for each curve, find where it's connected to, keys' times, values and tangents
attr = pm.listConnections('%s.output' % curve, plugs=True)[0]
if nameSpace:
attrName = attr.name().split(':')[1]
else:
attrName = attr.name()
times = pm.keyframe(attr, q=True, timeChange=True)
values = pm.keyframe(attr, q=True, valueChange=True)
outWeights = pm.keyTangent(attr, q=True, outWeight=True)
outAngles = pm.keyTangent(attr, q=True, outAngle=True)
inWeights = pm.keyTangent(attr, q=True, inWeight=True)
inAngles = pm.keyTangent(attr, q=True, inAngle=True)
animInfo[attrName] = {
'times': times,
'values': values,
'outWeights': outWeights,
'outAngles': outAngles,
'inWeights': inWeights,
'inAngles': inAngles
}
animInfos[objName] = animInfo
# write anim info to file
filePath = filePath[0]
logfile = open(filePath, 'w')
logfile.write(str(animInfos))
logfile.close()
if successState:
sys.stdout.write('Animation was successfully exported.')
else:
pm.warning(
'Some objects animtions were not saved due to multiple object with the same name, check script editor for more info.'
)
# Animation code
import pymel.core as pm
import time
root = pm.PyNode('iPi:Hip')
first = pm.findKeyframe(root, which='first')
last = pm.findKeyframe(root, which='last')
print first, last
curr = first
while curr <= last:
curr = pm.findKeyframe(root, time=curr, which='next')
pm.setCurrentTime(curr)
# apply key values
if curr==last:
break
def setTimesliderToKeyrange():
keyedObj = pm.ls(sl=1)
firstKf = pm.findKeyframe(which='first')
lastKf = pm.findKeyframe(which='last')
pm.playbackOptions(min=firstKf, max=lastKf)
return [firstKf, lastKf]
# Animation code
import pymel.core as pm
import time
root = pm.PyNode('iPi:Hip')
first = pm.findKeyframe(root, which='first')
last = pm.findKeyframe(root, which='last')
print first, last
curr = first
while curr <= last:
curr = pm.findKeyframe(root, time=curr, which='next')
pm.setCurrentTime(curr)
# apply key values
if curr == last:
break
def setKeyframesNow():
if self.slider.value() == 0:
if self._buttonCounter == 0 and self.keyCounter <= 1:
calculo = start_end_compare(newData, True)
for key, val in calculo.items():
for clave, valor in val.items():
#formated = "{}.{} at {}".format(key,clave,valor)
pm.setKeyframe(key, v=valor, at=clave)
self.createTemps(self.Name, newData, self.randomNum)
self.keyCounter += 1
else:
compareAttr = getAttributeChange(START, oldData, newData)
for key, val in compareAttr.items():
for clave, valor in val.items():
pm.setKeyframe(key, v=valor, at=clave)
calculo = start_end_compare(newData)
for key, val in calculo.items():
time = pm.findKeyframe(key,
timeSlider=True,
which="last")
for clave, valor in val.items():
pm.setKeyframe(key, v=valor, at=clave, t=time)
self.createTemps(self.Name, newData, self.randomNum)
self.keyCounter += 1
om.MGlobal.displayInfo("# Start Keyframe Values Set - - ")
self.keyButton.setEnabled(False)
elif self.slider.value() == 49:
if self._buttonCounter == 0 and self.keyCounter <= 1:
calculo = start_end_compare(newData)
for key, val in calculo.items():
for clave, valor in val.items():
#formated = "{}.{} at {}".format(key,clave,valor)
pm.setKeyframe(key, v=valor, at=clave)
self.createTemps(self.Name, newData, self.randomNum)
self.keyCounter += 1
else:
compareAttr = getAttributeChange(END, oldData, newData)
self.keyCounter += 1
for key, val in compareAttr.items():
for clave, valor in val.items():
pm.setKeyframe(key, v=valor, at=clave)
calculo = start_end_compare(newData, True)
for key, val in calculo.items():
time = pm.findKeyframe(key,
timeSlider=True,
which="first")
for clave, valor in val.items():
pm.setKeyframe(key, v=valor, at=clave, t=time)
self.createTemps(self.Name, newData, self.randomNum)
om.MGlobal.displayInfo(" # End Keyframe Values Set - - ")
self.keyButton.setEnabled(False)
else:
om.MGlobal.displayWarning(
"You must set the slider at start or end position in order to keyframe values"
)
def transferOneJoint(src,dest):
#get the upper most parent node of the source, If there is none it will return itself
#This is done because we need the root node to to the change of basis
srcRootNode = getRootNode(src)
destRootNode = getRootNode(dest)
if srcRootNode == src:
#this checks if the root node is being processed
#then we need to include the translation
#we have another function only for the root node transformation
transferRootJoint(src,dest)
print "THIS IS THE ROOTNODE"
else: #do the normal transfer
firstFrame = pm.findKeyframe(src, which ='first') #Find first key frame
lastFrame = pm.findKeyframe(src, which = 'last') #Find the lat key frame
current = firstFrame
pm.setCurrentTime(current) #Set current key frame to the first one
#get the rotation of the source root in the first frame (IT's the bind pose) Needed when changing basis
srcRootRotation = srcRootNode.getRotation().asMatrix()
#get the rotation of the destination root joint in the first frame. (Needed when changing basis to destination node)
#destRootRotation = destRootNode.getRotation().asMatrix()
#Get the bind pose of the destination joint. Needed when applying rotation to destination
destRotation = dest.getRotation().asMatrix()
srcHierarcyMatrix = src.getRotation().asMatrix()
#This will be done on the first frame.
#A matrix of the hierarcys TPose will be returned
#srcHierarchyMatrix is used to isolate the rotation from the source joint
srcChangeofBasisMatrix = getChangeOfBasisMatrix(src)
#This creates the matrix that is needed when we change the basis of the orientation
#it is similar to the hierarchyMatrix, However, it is multiplicated in the reverse order, and it does not include the source joint orientation
destChangeofBasisMatrix = getChangeOfBasisMatrix(dest)
# Loop through the frames
while current <= lastFrame:
pm.setCurrentTime(current)
srcRotation = getRotationFromJoint(src,srcHierarcyMatrix) #Extract the Rotation from the source, using the hierarchy matrix
# Rotation is extracted from the joint,
#Now it needs to be transformed into standard coordinate space.
#this is achieved by doing a change of basis.
# inv(srcChangeofBasisMatrix) * srcRotation * srcChangeofBasisMatrix
srcRotation = srcChangeofBasisMatrix.inverse() * srcRotation * srcChangeofBasisMatrix
#Now we need to transform it from the standard coordinate space to the space of the destination joint
# (h * k * h-1 = k2)
srcRotation = destChangeofBasisMatrix * srcRotation * destChangeofBasisMatrix.inverse()
setRotationToJoint(srcRotation,dest,destRotation)
dest.rotate.setKey() #Set the keyframe!
if current == lastFrame:
break
current = pm.findKeyframe(src , time = current, which='next') #Jump to next frame