def keys_shift(targets, incr=0.0, rand=0.0, rand_abs=False, round=False):
""" This script will copy the keyframes from source to targets from selected channel box attributes
Args:
targets [pm.nt.Transform]: target transforms to sequentialize
incr (float): Increment value through selection by x, 0 is no increment
rand (float): Randomly shift by x, 0 is no shift
rand_abs (bool): Random range will be absolute and not include negatives
round (bool): whether or not to round the key shift value to an integer
Returns (None)
Example:
keys_shift(pm.ls(sl=True), rand=5.0, round=True)
"""
#Determine Selected attributes from channelbox
attrs = get_cb_sel_attrs()
x_shift = 0
for target in targets:
ast, aet = pm.playbackOptions(q=True, ast=True), pm.playbackOptions(q=True, aet=True)
rand_val = 0
if rand:
rand_val = random.randrange(-rand*(1-rand_abs), rand)
x_shift += rand_val
if round:
x_shift=int(x_shift)
pm.keyframe(target, edit=True, at=attrs, relative=True, timeChange=x_shift)
x_shift += incr
def duplicateSequence(objects):
'''duplicates the given objects as groups per frame with properly named objects
Args:
objects (list(pm.PyNode)): list of objects to be duplicated every frame
Returns:
nothing...yet.
Usage:
duplicateSequence(pm.ls(sl=True))
'''
for obj in objects:
topGrp = obj.getParent().name().replace('GRP','ANIM_GRP')
if pm.objExists(topGrp):
topGrp = pm.PyNode(topGrp)
else:
topGrp = pm.group(em=True,n=topGrp)
startFrame = pm.playbackOptions(q=True,ast=True)
endFrame = pm.playbackOptions(q=True,aet=True)
incr = 1
grp = pm.group(em=True, n=obj.name().replace('GEO','ANIM_GRP'), p=topGrp)
i=0
for frame in range (startFrame, endFrame+1, incr):
pm.currentTime(frame)
dup=pm.duplicate(obj, n=obj.name().replace('GEO','%d_GEO'%i))
dup[0].setParent(grp)
i+=1
def set_range_from_seq(self):
"""sets the playback range from the sequencer node in the scene
"""
min_frame = self.sequencer.getAttr('minFrame')
max_frame = self.sequencer.getAttr('maxFrame')
pm.playbackOptions(ast=min_frame, aet=max_frame, min=min_frame, max=max_frame)
def fixedSeed():
sel = pm.selected()
animStartTime = pm.playbackOptions(animationStartTime=1, q=1)
animEndTime = pm.playbackOptions(animationEndTime=1, q=1)
for attr in sel:
animStartTime = pm.playbackOptions(animationStartTime=1, q=1)
animEndTime = pm.playbackOptions(animationEndTime=1, q=1)
xVal = attr.rotateX.get()
yVal = attr.rotateY.get()
zVal = attr.rotateZ.get()
print animStartTime
print animEndTime
print xVal
print yVal
print zVal
while animStartTime<=animEndTime:
attr.rotateX.set(xVal+random.uniform(-.1,.1))
attr.rotateY.set(yVal+random.uniform(-.1,.1))
attr.rotateZ.set(zVal+random.uniform(-.1,.1))
pm.setKeyframe(attribute="rotate", time=animStartTime)
animStartTime+=1
def main(): prefRun() #get all renderable cameras in scene allCamShapes = pm.ls( type='camera') cams = [] for cam in allCamShapes: if pm.getAttr(cam+".renderable"): cams.append(pm.listRelatives(cam, p=1)) print cams #Get the current frame range from the timeslider startTime = pm.playbackOptions(q=True, min=True ) endTime = pm.playbackOptions(q=True, max=True ) print "Playblasting Cameras:", #generate playblast for each renderable cam for cam in cams: pm.playblast( cam, startTime=startTime, endTime=endTime, viewer=0, #filename="X:/Projects/GREY11_ANM71_Rewe_Starzone/GR11A71_Shots/GR11A71_Animatic/Animatic_Maya/data/test"+cam[0]) ) print "for range: %04d - %04d" % (startTime,endTime)
def _bakeAnim(self, root):
'''
Given root:
- Bake the heirarchy animation data
- Reset timeline to 1 if wasn't already set to 1
'''
print 'Starting: bakeAnim()...'
# Getting time range from scene
startFrame = int( pm.playbackOptions(q=1, min=1) )
endFrame = int( pm.playbackOptions(q=1, max=1) )
pm.select(root, hi=1, r=1)
# Set timeline to start at frame 1
if startFrame != 1:
if startFrame < 1:
tChange = (-(startFrame))+1
elif startFrame > 1:
tChange = (-(startFrame-1))
pm.keyframe(e=1, time=(startFrame, endFrame), relative=1, timeChange=tChange)
pm.playbackOptions(e=1, min=1, max=endFrame+tChange )
pm.bakeResults(root,
t=(startFrame, endFrame),
simulation=True, hi='below' )
print 'bakeAnim(): Baked anim onto %s' % root
print 'bakeAnim(): Range baked: %s - %s' % (startFrame, endFrame)
print 'End: bakeAnim()'
def importAnimation(self, speak=0,lib=1):
print 'Importing Animation'
rigFile = os.path.join(CHARACTERS_PATH,self.name,'rigging',self.name + '.ma')
pm.openFile(rigFile,f=1)
if lib:
importAnimPath = ANIM_LIB_PATH
else:
fbxPath = os.path.split(self.fbxFile)[0]
importAnimPath = fbxPath + '/' + 'animations/'
animFiles = [f for f in os.listdir(importAnimPath) if f.endswith('.fbx')]
#self.logger.info('########### Importing animations from library ############')
for anim in animFiles:
pm.mel.eval('FBXImportFillTimeline -v 1;')
cmd = 'FBXImport -f "' + importAnimPath + anim+ '" -caller \"FBXMayaTranslator\" -importFormat \"fbx;v=0\"'
pm.mel.eval(cmd)
#self.logger.info('Imported %s ', (importAnimPath + anim))
#pm.importFile(importAnimPath + anim, type='FBX',mergeNamespacesOnClash=0,rpr=anim.split('.')[0],options = 'v=0;',loadReferenceDepth = 'all')
start = pm.playbackOptions(q=1,ast=1)
end = pm.playbackOptions(q=1,aet=1)
pm.bakeResults( 'shadowJoint',t=(start,end), simulation=True )
self.saveAnimation(anim.split('.')[0])
pm.openFile(rigFile,f=1)
if speak:
#self.logger.info('Creating speak anims ')
for anim in speakAnims:
pm.openFile(rigFile,f=1)
animationFile = os.path.join(CHARACTERS_PATH,self.name,'animation',anim + '.ma')
#self.logger.info('%s created',animationFile)
pm.saveAs(animationFile,f=1)
def viewOutHide():
transNodeList = []
startTime = pm.playbackOptions(q=1, min=1)
endTime = pm.playbackOptions(q=1, max=1)
for x in range(int(startTime), int(endTime + 1)):
pm.currentTime(x)
transNodeList += viewObjectList(False)
transNodeListS = set(transNodeList)
allTransNodeList = set()
for x in pm.ls(type='mesh'):
allTransNodeList.add(x.getParent().name())
hideList = allTransNodeList - transNodeListS
for x in hideList:
try:
pm.setAttr(x + '.v', 0)
except:
pass
pm.currentTime(startTime)
def writeRetimeFile(viz, pubShot):
'''
Write the animated data on the currentTime attribute to a txt file.
'''
tmpPath = None
# Return None if the attribute is not keyed.
if pm.keyframe('%s.currentTime'%viz, query=True, keyframeCount=True):
# get framelist from pod
podFile = str(pm.getAttr('%s.podFile'%viz))
ggcp = GtoGeometryCachePod.fromPodFile(podFile)
ggcp.startFrame = pm.playbackOptions(q=True, animationStartTime=True)
ggcp.endFrame = pm.playbackOptions(q=True, animationEndTime=True)
frameList = ggcp.frameNumberList()
# offset = float(pm.getAttr('%s.timeOffset'%viz))
# frameList = [frame + offset for frame in ggcp.frameNumberList()]
# Get curve data
animCurveData = list()
for frame in frameList:
value = pm.keyframe(viz, query=True, time=[frame], attribute='currentTime', eval=True)
assert len(value) == 1, '%s keyframes found for time %s. One expected.' % (len(value), frame)
animCurveData.append([frame, value[0]])
# Write it out to a temp file
selCharName = str(pm.getAttr('%s.label'%viz))
if not tmpPath:
name = '_'.join(['animLib', 'bd', pubShot, selCharName, 'retime.txt'])
tmpPath = os.path.join(tempfile.gettempdir(), name)
fh = open(tmpPath, 'w')
for time, value in animCurveData:
fh.write('%s %s\n' % (time, value))
fh.close()
return tmpPath
def exportAnimation(self):
exportFolder = ASSETS_PATH + 'characters/' + self.name + '_std/animations/'
exportAnimationsPath = os.path.join(CHARACTERS_PATH ,self.name,'animation')
animFiles = []
if os.path.isdir(exportAnimationsPath):
animFiles = [f for f in sorted(os.listdir(exportAnimationsPath)) if f.endswith('.ma') or f.endswith('.ma') ]
else:
pm.warning('No animation files found, aborting!')
return
#self.logger.info('########### Exporting animations for OGRE ###########')
for anim in animFiles:
animFile = os.path.join(exportAnimationsPath,anim)
pm.openFile(animFile,f=1)
start = int(pm.playbackOptions(q=1,ast=1))
end = int(pm.playbackOptions(q=1,aet=1))
#ogreExport -all -outDir "P:/mixamo_character/assets/characters/EveBavaria_std/animations/" -skeletonClip "EveBavaria_action_unjured_walk_35" startEnd 0 34 frames sampleByFrames 1 -lu pref -scale 1.00 -skeletonAnims -skelBB -np bindPose
cmd = 'ogreExport -all -outDir "'+ exportFolder + '"'
cmd += ' -skeletonClip "' + anim.split('.')[0] + '"'
if 'speak' in anim:
cmd += ' startEnd 0 1'
else:
cmd += ' startEnd ' + str(start) + ' ' + str(end)
cmd += ' frames sampleByFrames 1 -lu pref -scale 1.00 -skeletonAnims -skelBB -np bindPose'
pm.mel.eval(cmd)
def copyZoobeAnimations(self,zoobeChar):
print 'Importing Zoobe Animations'
if zoobeChar:
sourceChar = 'source:' + zoobeChar
fuseChar = self.name
rigFile = os.path.join(CHARACTERS_PATH,self.name,'rigging',self.name + '.ma')
zoobeCharFolder = os.path.join(ANIM_LIB_PATH,zoobeChar)
if os.path.isdir(zoobeCharFolder):
animFiles = [f for f in os.listdir(zoobeCharFolder) if (f.endswith('.ma') or f.endswith('.mb'))]
animFile = '/home/zoobe/mixamo/testproject/incoming/animLib/violet/violet_angry_action_01.ma'
#self.copyAnimation(animFile,sourceChar,fuseChar,0,300)
for anim in animFiles:
print animFile
animPath = os.path.join(zoobeCharFolder,anim)
print animPath
pm.openFile(animPath,f=1)
start = pm.playbackOptions(q=1,ast=1)
end = pm.playbackOptions(q=1,aet=1)
print start, end
self.copyAnimation(animPath,sourceChar,fuseChar,start,end)
print 'saving animation %s'%anim.split('.')[0]
self.saveAnimation(anim.split('.')[0])
else:
pm.warning('Did not find %s char folder'%zoobeChar)
def aw_copyKeys(source, targets, randomShift=0, increment=0, mo=False):
'''This script will copy the keyframes from source to targets from selected channel box attributes
Args:
source (mayaObject): Source object with animation
targets (list[mayaObject]): Copy To Targets
randomShift (int): Randomly shift by x, 0 is no shift
increment (int): Increment value through selection by x, 0 is no increment
mo (Boolean): Maintain the Offset or not
Returns (void): no return
Example:
aw_copyKeys(pm.PyNode('pSphere1'), pm.ls(sl=True), randomShift=0, increment=1, mo=True)
'''
args=targets
animSrc=source
#Determine Selected attributes from channelbox
pm.language.melGlobals.initVar( 'string', 'gChannelBoxName' )
attrs = pm.channelBox(pm.language.melGlobals['gChannelBoxName'],q=True,sma=True)
#Copy Keys from the Graph Editor for main object (deselect other objects before copying)
if not attrs:
print 'Nothing selected in channel box, setting copy attributes to default all'
attrs=['tx','ty','tz','rx','ry','rz','sx','sy','sz','v']
for arg,i in zip(args, range(len(args))):
if arg != animSrc:
for attr in attrs:
pm.copyKey(animSrc, time = (pm.playbackOptions(q=True,ast=True), pm.playbackOptions(q=True,aet=True)), at=attr,option="curve", hierarchy='none')
#Paste keys to all objects depending on attributes selected from the channelBox
offsetCheck = attr in ['tx','ty','tz','rx','ry','rz']
offsetSeed = ((i+1) * increment) + int(math.floor( random.random() * randomShift))
pm.pasteKey(arg, option='insert', valueOffset=((offsetCheck * mo) * (arg.attr(attr).get() - animSrc.attr(attr).get())), copies=True, connect=True, at=attr, timeOffset=offsetSeed)
def setCamPlaybackRange():
modelPanel = pm.playblast(activeEditor=True).split('|')[-1]
activeCam = pm.PyNode( pm.modelPanel( modelPanel, q=True, camera=True ) )
startFrame = activeCam.startFrame.get()
endFrame = activeCam.endFrame.get()
pm.playbackOptions(min=endFrame, max=startFrame)
def getTimeRange(self, *args):
# get time range
aPlayBackSliderPython = pm.mel.eval('$tmpVar=$gPlayBackSlider')
timeRange = pm.timeControl( aPlayBackSliderPython, q=True, rangeArray=True )
if timeRange[1] - timeRange[0] < 2.0:
timeRange = [ pm.playbackOptions( q=True, minTime=True), pm.playbackOptions( q=True, maxTime=True) ]
pm.intField( self.startFrameIntField, e=True, value=timeRange[0] )
pm.intField( self.endFrameIntField, e=True, value=timeRange[1] )
def get_shot_frame_range(self, shot):
"""returns the shot
"""
# set start and end frame of time slider
start_frame = shot.startFrame.get()
end_frame = shot.endFrame.get()
pm.playbackOptions(min=start_frame, max=end_frame)
def togglePlaybackSpeed():
"""Toggle between Real-time and Every Frame playback"""
newSpeed = not bool( pm.playbackOptions( playbackSpeed=True, query=True ) )
pm.playbackOptions( playbackSpeed=newSpeed )
pm.headsUpDisplay( 'HUDPlaybackSpeed', edit=True )
print 'Playback Speed: %s' % ( 'Every Frame', 'Real-time' )[newSpeed]
def set_framesField(self):
interv_int = self.interv_int.value()
orbit_int = self.orbit_int.value()
value = interv_int * orbit_int
self.frames_int.setValue(value)
pm.setAttr("defaultRenderGlobals.endFrame", value)
pm.playbackOptions(maxTime=value, e=True)
def bakeCmd(self):
sel = pm.ls(sl=1)
min = pm.playbackOptions(q=1, min=1)
max = pm.playbackOptions(q=1, max=1)
m = re.match("BCT_ctrl\d*_Ctrl", sel[0].name())
if m:
pm.bakeResults(sel[0], t=(min, max), simulation=True)
else:
print "selection is not BCT!!!"
def saveAnimation(self,animFile):
print 'Saving file'
start = pm.playbackOptions(q=1,ast=1)
end = pm.playbackOptions(q=1,aet=1)
length = int(end - start)
saveName = animFile.replace('lib',self.name) + '_' + str(length) + '.ma'
pm.playbackOptions(aet = end-1)
animationFile = os.path.join(CHARACTERS_PATH,self.name,'animation',saveName)
pm.saveAs(animationFile,f=1)
def bdExportHIKAnim(fromFolder,toFolder,charName,charType):
animFiles = [f for f in os.listdir(fromFolder) if (f.endswith('.ma') or f.endswith('.mb'))]
for anim in animFiles:
animFile = os.path.join(fromFolder,anim)
pm.openFile(animFile,f=1)
start = pm.playbackOptions(q=1,min=1)
end = pm.playbackOptions(q=1,max=1)
def getTimelineFrameRange():
'''
Return the timeline frame range of the scene
Return :
startFrame = int
endFrame = int
'''
startFrame = pm.playbackOptions (q=True,minTime =True)
endFrame = pm.playbackOptions (q=True,maxTime =True)
return startFrame,endFrame
def model_screenshot(selected=True, debug=False, centerCam=False): meshes = pm.ls(sl=True) cam = pm.camera(n='tempCam') hfv=cam[1].getHorizontalFieldOfView() vfv=cam[1].getVerticalFieldOfView() grp = pm.group(em=True, n='tempCamOffset_GRP') #Determine the selection if selected==False: meshes = [mesh.getParent() for mesh in pm.ls(type=pm.nt.Mesh)] print meshes boundingBox = pm.polyEvaluate(meshes, b=True) #Determine the positions of the bounding box as variables xmin=boundingBox[0][0] xmax=boundingBox[0][1] ymin=boundingBox[1][0] ymax=boundingBox[1][1] zmin=boundingBox[2][0] zmax=boundingBox[2][1] #get the midpoints (these are also the object center!) zmid=(zmin+zmax)/2 ymid=(ymin+ymax)/2 xmid=(xmin+xmax)/2 # Create locators to visualize the bounding box locators=[] locators.append(pm.spaceLocator(n='xmin',p=[xmin,ymid,zmid])) locators.append(pm.spaceLocator(n='xmax',p=[xmax,ymid,zmid])) locators.append(pm.spaceLocator(n='ymin',p=[xmid,ymin,zmid])) locators.append(pm.spaceLocator(n='ymax',p=[xmid,ymax,zmid])) locators.append(pm.spaceLocator(n='zmin',p=[xmid,ymid,zmin])) locators.append(pm.spaceLocator(n='zmax',p=[xmid,ymid,zmax])) #Determine the furthest distance needed from the object h_dist=(math.tan(hfv)*abs(xmin-xmax)) + abs(zmin-zmax) zh_dist=(math.tan(vfv)*abs(zmin-zmax)) + abs(zmin-zmax) zv_dist=(math.tan(vfv)*abs(zmin-zmax)) + abs(zmin-zmax) v_dist=(math.tan(vfv)*abs(ymin-ymax)) + abs(zmin-zmax) #this will never be used, always going to be shortest. #set the camera distance etc for the bounding box. print h_dist,v_dist,zh_dist, zv_dist print max(h_dist,v_dist,zh_dist, zv_dist) cam[0].translateZ.set(max(h_dist,zh_dist,v_dist,zv_dist)) cam[0].translateY.set(ymid) cam[0].setParent(grp) if debug: pm.delete(locators) if centerCam: grp.translate.set([zmid,0,xmid]) pm.setKeyframe(grp.rotateY, t=pm.playbackOptions(q=True,ast=True), v=0) pm.setKeyframe(grp.rotateY, t=pm.playbackOptions(q=True,aet=True), v=360)
def bake(self):
minFrame = int(pm.playbackOptions(q=1,min=1))
maxFrame = int(pm.playbackOptions(q=1,max=1))
selectSet = pm.ls('*:bake_set*',typ='objectSet')
if selectSet == []:
pm.headsUpMessage( '???' )
else:
bakeList = []
for x in selectSet:
for y in x.flattened():
bakeList.append(y)
pm.bakeResults(bakeList, sm=1, t=(minFrame, maxFrame), sb=1, pok=1, sac=0, bol=0, at=['tx','ty','tz','rx','ry','rz','sx','sy','sz'])
def bdCleanKeyframes():
start = pm.playbackOptions(q=1,ast=1)
end = pm.playbackOptions(q=1,aet=1)
sel = pm.ls(sl=1,type='transform')
for i in range(8,end-10,1):
if not (i%4):
print i
pm.currentTime(i)
pm.setKeyframe(sel,t=i)
else:
pm.cutKey(sel,clear=1,an='objects',iub=0,t=(i,i+1))
def set_frame_range(self, engine, in_frame, out_frame):
if engine == "tk-maya":
import pymel.core as pm
# set frame ranges for plackback
pm.playbackOptions(minTime=in_frame,
maxTime=out_frame,
animationStartTime=in_frame,
animationEndTime=out_frame)
# set frame ranges for rendering
defaultRenderGlobals=pm.PyNode('defaultRenderGlobals')
defaultRenderGlobals.startFrame.set(in_frame)
defaultRenderGlobals.endFrame.set(out_frame)
elif engine == "tk-nuke":
import nuke
# unlock
locked = nuke.root()["lock_range"].value()
if locked:
nuke.root()["lock_range"].setValue(False)
# set values
nuke.root()["first_frame"].setValue(in_frame)
nuke.root()["last_frame"].setValue(out_frame)
# and lock again
if locked:
nuke.root()["lock_range"].setValue(True)
elif engine == "tk-motionbuilder":
from pyfbsdk import FBPlayerControl, FBTime
lPlayer = FBPlayerControl()
lPlayer.LoopStart = FBTime(0, 0, 0, in_frame)
lPlayer.LoopStop = FBTime(0, 0, 0, out_frame)
elif engine == "tk-softimage":
import win32com
Application = win32com.client.Dispatch('XSI.Application')
Application.SetValue("PlayControl.In", in_frame)
Application.SetValue("PlayControl.Out", out_frame)
elif engine == "tk-houdini":
import hou
hou.playbar.setPlaybackRange(in_frame, out_frame)
else:
raise tank.TankError("Don't know how to set current frame range for engine %s!" % engine)
def set_frame_range(self, start_frame=1, end_frame=100,
adjust_frame_range=False):
"""sets the start and end frame range
"""
# set it in the playback
pm.playbackOptions(ast=start_frame, aet=end_frame)
if adjust_frame_range:
pm.playbackOptions(min=start_frame, max=end_frame)
# set in the render range
dRG = pm.PyNode('defaultRenderGlobals')
dRG.setAttr('startFrame', start_frame)
dRG.setAttr('endFrame', end_frame)
def set_fps(self, fps=25):
"""sets the fps of the environment
"""
# get the current time, current playback min and max (because maya
# changes them, try to restore the limits)
current_time = pm.currentTime(q=1)
pMin = pm.playbackOptions(q=1, min=1)
pMax = pm.playbackOptions(q=1, max=1)
pAst = pm.playbackOptions(q=1, ast=1)
pAet = pm.playbackOptions(q=1, aet=1)
# set the time unit, do not change the keyframe times
# use the timeUnit as it is
time_unit = u"pal"
# try to find a timeUnit for the given fps
# TODO: set it to the closest one
for key in self.time_to_fps:
if self.time_to_fps[key] == fps:
time_unit = key
break
pm.currentUnit(t=time_unit, ua=0)
# to be sure
pm.optionVar['workingUnitTime'] = time_unit
# update the playback ranges
pm.currentTime(current_time)
pm.playbackOptions(ast=pAst, aet=pAet)
pm.playbackOptions(min=pMin, max=pMax)
def __init__(self, title, widthHeight, tabs_names, frameLayoutPerTab, collapseStyle=0, descr=''):
super(Exporter, self).__init__(title, widthHeight, tabs_names, frameLayoutPerTab)
self.localProject = os.environ[ 'MAYA_PROJECT' ]
self.localUser=os.environ[ 'USER' ]
self.path = os.path.join(self.localProject+ "/export/GEO")
self.scene_name = cmds.file(q=True, sn=True, shn=True).split('.')[0]
self.folder_path = os.path.join(self.path, 'OBJ', self.localUser, self.scene_name)
self.type = 'OBJ'
self.extension = 'obj'
self.curFr=1001
# GUI BUILDING #
self.fl = self.frameLayouts[0][0].columnLayout
col = pm.columnLayout(p=self.fl, h=self.wh[1]/2)
flow_1=pm.flowLayout(p=col, w=self.wh[0])
self.type_om = win.AW_optionMenu(label="File Type",
options=['OBJ','ZBRUSH', 'MUDBOX', 'FBX', 'MB', 'MA', 'ALEMBIC'],
parent=flow_1,
cc=self._updateDirectory)
self.autoCheck = pm.checkBox(l='Auto-detect Folder', p=flow_1, v=1)
pm.flowLayout(p=col, w=self.wh[0])
pm.text(l='Directory:')
self.path_tf=pm.textField(w=self.wh[0]/1.3,cc=self._update_path_tf)
pm.button(label='Browse',w=80, c=self._browser, bgc=self.col_fls[1])
self.path_tf.setText(self.folder_path)
flow_3 = pm.flowLayout(w=self.wh[0], p=col)
self.combined_cb = pm.checkBox(l='Export Per Object', v=1, cc=self._change_combined_cb, p=flow_3)
pm.text(l='Combined Name:',p=flow_3,w=200)
self.combined_tf = pm.textField(tx='', p=flow_3,w=300, editable=False)
flow_4 = pm.flowLayout(w=self.wh[0],p=col)
self.framesCheck = pm.checkBox(l='Frame Range', w=200,p=flow_4, v=0, cc=self._framesCallback)
self.fr_st = pm.textField(editable=False,w=100,tx=str(int(pm.playbackOptions(ast=True, q=True))),p=flow_4)
self.fr_end = pm.textField(editable=False,w=100,tx=str(int(pm.playbackOptions(aet=True, q=True))),p=flow_4)
pm.text(l='\n', p=col)
flow_col = pm.flowLayout(p=col, w=self.wh[0])
col_1 = pm.columnLayout(p=flow_col, w=self.wh[0]/2)
col_2 = pm.columnLayout(p=flow_col, w=self.wh[0]/2)
self.export_btn = pm.button(label='Export', bgc=self.col_fls[4], c=self._export, p=col_1, w=self.wh[0]/4)
flow_5 = pm.flowLayout(w=self.wh[0],p=col_2)
self.recursiveCheck = pm.checkBox(l='Check all folders inside', v=1, p=flow_5)
self.list_btn = pm.button(label='List Files in Directory', bgc=self.col_fls[5], c=partial(self._getDirectoryFiles,True), p=flow_5, w=self.wh[0]/4)
self.import_btn = pm.button(label='Import Directory', bgc=self.col_fls[5], c=self._customImport, p=col_2, w=self.wh[0]/2.5)
pm.text(l='\n',p=col)
pm.button(label='Swap Namespace with Name', bgc=self.col_fls[6], c=self._swapNamespace, p=col_2,w=self.wh[0]/2.5)
def copyAnimation(self,sourceAnim,sourceChar,fuseChar,start,end):
rigFile = os.path.join(CHARACTERS_PATH,self.name,'rigging',self.name + '.ma')
pm.openFile(rigFile,f=1)
referenceAnim = pm.createReference(sourceAnim,namespace='source')
pm.playbackOptions(e=1,ast=start,aet=end,min=start,max=end)
pm.mel.eval('hikSetCurrentCharacter("' + fuseChar + '")')
#pm.mel.eval('mayaHIKsetStanceInput( "' + fuseChar + '" )')
#pm.mel.eval('HIKCharacterControlsTool()')
pm.mel.eval('hikToggleLockDefinition')
#self.logger.info('Characterized the skeleton')
pm.mel.eval('mayaHIKsetCharacterInput( "' + fuseChar + '","' + sourceChar + '")')
#pm.mel.eval('HIKCharacterControlsTool()')
pm.mel.eval('hikBakeCharacter 0')
referenceAnim.remove()
def bdMultiMotionPath(crvPath, objects,interval=2,speed=20):
numObjects = len(objects)
startTime = pm.playbackOptions(q=1,minTime=1)
endTime = pm.playbackOptions(q=1,maxTime=1)
allMotionPath = []
for i in range(numObjects):
#motionPath = pm.pathAnimation(objects[i],c=crvPath,n=objects[i].name() + '_mp',stu = i*interval , etu = i*interval + speed,follow = 1, followAxis = 'x', upAxis = 'y',fractionMode =1)
pm.currentTime(0)
motionPath = pm.pathAnimation(objects[i],c=crvPath,n=objects[i].name() + '_mp',follow = 1, followAxis = 'x', upAxis = 'y',fractionMode =1)
allMotionPath.append(motionPath)
pm.setAttr(motionPath + '.worldUpType',1)
bdSetStartMp(allMotionPath)
startCycleFrame = i*interval + speed + 2
def exportPlane(*args):
# for sel in pm.ls(sl=1,ni=1):
# for i in range(pm.polyEvaluate(sel,v=1)):
# print (sel.vtx[i].getPosition(space="world"))
export_dir = pm.fileDialog2(dialogStyle=2,
fileMode=3,
startingDirectory=os.path.dirname(
pm.sceneName()))
if not export_dir:
return
export_dir = export_dir[0]
for sel in pm.ls(sl=1, ni=1):
if not sel.endswith("_follow_plane") or not sel.getParent().endswith(
"_follow_grp"):
continue
shape = sel.getShape()
vtx_num = pm.polyEvaluate(sel, v=1)
startTime = pm.playbackOptions(q=1, min=1)
endTime = pm.playbackOptions(q=1, max=1)
sel_list = om.MSelectionList()
sel_list.add(str(sel))
dagPath = sel_list.getDagPath(0)
mesh = om.MFnMesh(dagPath)
# NOTE 如果裁剪区域超过原图范围则限制到原图的边界上
width = int(vtx_num)
height = int(endTime - startTime)
data = {}
for h in range(height):
data[h] = {}
pm.currentTime(startTime + h)
for w in range(width):
vtx_pos = sel.vtx[w].getPosition(space="world")
data[h][w] = vtx_pos.tolist()
# data[h][w] = pm.pointPosition(sel.vtx[w],w=1).tolist()
json_path = os.path.join(tempfile.gettempdir(), "pathTracker_EXR.json")
with open(json_path, 'w') as f:
json.dump(data, f)
DIR = os.path.dirname(__file__)
exr_exe = os.path.join(DIR, "dist", "pathTracker_EXR.exe")
basename = sel.replace(":", "_")
exr_path = os.path.join(export_dir, "%s_EXR.exr" % basename)
# NOTE 执行 exr 输出
subprocess.call([exr_exe, json_path, exr_path])
# NOTE 导出 FBX
SetFbxParameter()
export_FBX = os.path.join(export_dir,
"%s_FBX.fbx" % basename).replace("\\", "/")
plane = pm.duplicate(sel)
pm.parent(plane, w=1)
pm.select(plane)
mel.eval('FBXExport -f "' + export_FBX + '" -s')
pm.delete(plane)
os.startfile(export_dir)
pm.confirmDialog(message='输出成功', button=['确定'])
def _check_frame_range_with_shotgun(self, item):
"""
Checks whether frame range is in sync with shotgun.
:param item: Item to process
:return: True if yes False otherwise
"""
context = item.context
entity = context.entity
# checking entity validity
if entity:
frame_range_app = self.parent.engine.apps.get(
"tk-multi-setframerange")
if not frame_range_app:
# return valid for asset/sequence entities
self.logger.warning(
"Unable to find tk-multi-setframerange app. "
"Not validating frame range.")
return True
sg_entity_type = entity["type"]
sg_filters = [["id", "is", entity["id"]]]
in_field = frame_range_app.get_setting("sg_in_frame_field")
out_field = frame_range_app.get_setting("sg_out_frame_field")
fields = [in_field, out_field]
# get the field information from shotgun based on Shot
# sg_cut_in and sg_cut_out info will be on Shot entity, so skip in case this info is not present
# or if the sg_head_in or sg_tail_out is empty, skip the check
data = self.sgtk.shotgun.find_one(sg_entity_type,
filters=sg_filters,
fields=fields)
if in_field not in data or out_field not in data:
return True
elif in_field is None or out_field is None:
return True
# Check if playback_start or animation_start is not in sync with shotgun
# Similarly if animation_start or animation_start is not in sync with shotgun
playback_start = pm.playbackOptions(q=True, minTime=True)
playback_end = pm.playbackOptions(q=True, maxTime=True)
animation_start = pm.playbackOptions(q=True,
animationStartTime=True)
animation_end = pm.playbackOptions(q=True, animationEndTime=True)
if playback_start != data[in_field] or playback_end != data[
out_field]:
self.logger.warning("Frame range not synced with Shotgun.")
QtGui.QMessageBox.warning(
None, "Frame range mismatch!",
"WARNING! Frame range not synced with Shotgun.")
return True
if animation_start != data[in_field] or animation_end != data[
out_field]:
self.logger.warning("Frame range not synced with Shotgun.")
QtGui.QMessageBox.warning(
None, "Frame range mismatch!",
"WARNING! Frame range not synced with Shotgun.")
return True
return True
return True
def process(self, instance):
self.log.info("Extracting capture..")
# get scene fps
fps = instance.data.get("fps") or instance.context.data.get("fps")
# if start and end frames cannot be determined, get them
# from Maya timeline
start = instance.data.get("frameStartFtrack")
end = instance.data.get("frameEndFtrack")
if start is None:
start = cmds.playbackOptions(query=True, animationStartTime=True)
if end is None:
end = cmds.playbackOptions(query=True, animationEndTime=True)
self.log.info("start: {}, end: {}".format(start, end))
# get cameras
camera = instance.data['review_camera']
capture_preset = instance.context.data['presets']['maya']['capture']
try:
preset = lib.load_capture_preset(data=capture_preset)
except Exception:
preset = {}
self.log.info('using viewport preset: {}'.format(preset))
preset['camera'] = camera
preset['format'] = "image"
# preset['compression'] = "qt"
preset['quality'] = 95
preset['compression'] = "png"
preset['start_frame'] = start
preset['end_frame'] = end
camera_option = preset.get("camera_option", {})
camera_option["depthOfField"] = cmds.getAttr(
"{0}.depthOfField".format(camera))
stagingdir = self.staging_dir(instance)
filename = "{0}".format(instance.name)
path = os.path.join(stagingdir, filename)
self.log.info("Outputting images to %s" % path)
preset['filename'] = path
preset['overwrite'] = True
pm.refresh(f=True)
refreshFrameInt = int(pm.playbackOptions(q=True, minTime=True))
pm.currentTime(refreshFrameInt - 1, edit=True)
pm.currentTime(refreshFrameInt, edit=True)
with maintained_time():
filename = preset.get("filename", "%TEMP%")
# Force viewer to False in call to capture because we have our own
# viewer opening call to allow a signal to trigger between
# playblast and viewer
preset['viewer'] = False
# Remove panel key since it's internal value to capture_gui
preset.pop("panel", None)
path = capture.capture(**preset)
playblast = self._fix_playblast_output_path(path)
self.log.info("file list {}".format(playblast))
collected_frames = os.listdir(stagingdir)
collections, remainder = clique.assemble(collected_frames)
input_path = os.path.join(
stagingdir, collections[0].format('{head}{padding}{tail}'))
self.log.info("input {}".format(input_path))
if "representations" not in instance.data:
instance.data["representations"] = []
representation = {
'name': 'png',
'ext': 'png',
'files': collected_frames,
"stagingDir": stagingdir,
"frameStart": start,
"frameEnd": end,
'fps': fps,
'preview': True,
'tags': ['review', 'delete']
}
instance.data["representations"].append(representation)
import pymel.core as pm
#get selection
currentSelectionNames = pm.ls(selection=True)[0]
#Frame Range set by animator
frameRangeMin = pm.playbackOptions(query=True, minTime=True)
frameRangeMax = pm.playbackOptions(query=True, maxTime=True)
#get all keyable controls
currentSelectKeyable = pm.listAttr(currentSelectionNames, keyable=1)
eachGraphKeyedValues = None
listOfAttributes = []
listOfValues = []
listOfValuesTimes = []
#Go through the selected controllers graph values and times visible within in the channel box and place these in variables which are manageable
for eachAttribute in currentSelectKeyable:
#Check number of keys on each frame
numberOfKeys = pm.keyframe(currentSelectionNames + '.' + eachAttribute,
time=(frameRangeMin, frameRangeMax),
query=True,
keyframeCount=True)
#EachAttributes graphs keyframe values
eachGraphKeyedValues = pm.keyframe(currentSelectionNames + '.' +
eachAttribute,
time=(frameRangeMin, frameRangeMax),
def rnkBipiedAnimation():
global RNK_BIPIED_MAP
rigDict = NITROGEN_BIPIED_MAP
rigDict = ka_pymel.getAsPyNodes(rigDict)
OOOOOOO = 'rigDict'
print '%s: ' % OOOOOOO, eval(OOOOOOO), ' ', type(eval(OOOOOOO))
# CENTER -----------------------------------------
hip = rigDict.get('hip', None)
pelvis = rigDict.get('pelvis', None)
spines = rigDict.get('spines', None)
necks = rigDict.get('necks', None)
head = rigDict.get('head', None)
# LEFT -----------------------------------------
l_leg = rigDict.get('l_leg', None)
l_knee = rigDict.get('l_knee', None)
l_ankle = rigDict.get('l_ankle', None)
l_footBall = rigDict.get('l_footBall', None)
l_clavical = rigDict.get('l_clavical', None)
l_arm = rigDict.get('l_arm', None)
l_elbow = rigDict.get('l_elbow', None)
l_wrist = rigDict.get('l_wrist', None)
l_thumb = rigDict.get('l_thumb', None)
l_fingers = rigDict.get('l_fingers', None)
l_metacarpals = rigDict.get('l_metacarpals', None)
# RIGHT -----------------------------------------
r_leg = rigDict.get('r_leg', None)
r_knee = rigDict.get('r_knee', None)
r_ankle = rigDict.get('r_ankle', None)
r_footBall = rigDict.get('r_footBall', None)
r_clavical = rigDict.get('r_clavical', None)
r_arm = rigDict.get('r_arm', None)
r_elbow = rigDict.get('r_elbow', None)
r_wrist = rigDict.get('r_wrist', None)
r_thumb = rigDict.get('r_thumb', None)
r_fingers = rigDict.get('r_fingers', None)
r_metacarpals = rigDict.get('r_metacarpals', None)
thumbCurlAxis = 'ry'
flatThumbRotation = [0.0, -45.0, 0.0]
pymel.currentTime(1)
allControls = getAllControls_fromRigDict(rigDict)
#for key in allControls:
#if allControls[key] == None:
#pymel.warning('%s has a value of None' % key)
ka_animation.storeAllControls(allControls)
ka_animation.deleteAnimationOnAllControls()
# set A Pose ----------------------------------------------------------------
ka_animation.keyAllControls()
pymel.currentTime(0) # count from zero, but first key is on frame 1
pymel.select(clear=True)
# set T Pose ----------------------------------------------------------------
ka_animation.advanceNFrames(KEY_SPACING * 2)
tryToXform(l_leg, rotation=[0, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
tryToXform(l_knee, rotation=[0, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_knee, targetTransform=l_knee)
tryToXform(l_ankle, rotation=[0, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
tryToXform(l_footBall, rotation=[90, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_footBall, targetTransform=l_footBall)
tryToXform(l_arm, rotation=[-180, 0, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
tryToXform(l_elbow, rotation=[-180, 0, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_elbow, targetTransform=l_elbow)
tryToXform(l_wrist, rotation=[-180, 0, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
for iA, finger in enumerate(l_fingers):
for iB, fingerJoint in enumerate(finger):
tryToXform(l_fingers[iA][iB],
rotation=[-90, 0, 0],
worldSpace=True)
ka_transforms.mirrorTransform(r_fingers[iA][iB],
targetTransform=fingerJoint)
for iA, thumbJoint in enumerate(l_thumb):
#worldRot = pymel.xform(l_thumb[0], q=True, ws=True, rotation=True)
if iA != 0:
#pymel.xform(l_thumb[iA], ws=True, rotation=worldRot)
ka_transforms.snap(l_thumb[iA], l_thumb[0], r=1)
ka_transforms.mirrorTransform(r_thumb[iA],
targetTransform=thumbJoint)
for spine in spines:
tryToXform(spine, rotation=[0, 0, 0], worldSpace=True)
for neck in necks:
tryToXform(neck, rotation=[0, 0, 0], worldSpace=True)
tryToXform(head, rotation=[0, 0, 0], worldSpace=True)
ka_animation.storePose('tPose')
ka_animation.keyAllControls()
#pymel.error()
# FINGER CURLS ----------------------------------------------------------------
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.keyAllControls()
#pymel.error()
for iA, finger in enumerate(reversed(l_fingers)):
# inward curl
curl = 0
for iB, fingerJoint in enumerate(finger):
ka_animation.advanceNFrames(KEY_SPACING / 2)
tryToXform(l_thumb[0], rotation=flatThumbRotation, worldSpace=True)
ka_transforms.mirrorTransform(r_thumb[0],
targetTransform=l_thumb[0])
if iB == 0:
curl = -75
elif iB == 1:
curl = -95
else:
curl = -65
tryToXform(fingerJoint,
rotation=[0, 0, curl],
worldSpace=True,
relative=True)
ka_transforms.mirrorTransform(r_fingers[iA][iB],
targetTransform=fingerJoint)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
tryToXform(
l_thumb[0],
rotation=flatThumbRotation,
worldSpace=True,
)
ka_transforms.mirrorTransform(r_thumb[0], targetTransform=l_thumb[0])
ka_animation.keyAllControls()
# upward curl
curl = 0
for iB, fingerJoint in enumerate(finger):
ka_animation.advanceNFrames(KEY_SPACING / 2)
if iB == 0:
curl = 40
elif iB == 1:
curl = 10
else:
curl = 15
tryToXform(fingerJoint,
rotation=[0, 0, curl],
worldSpace=True,
relative=True)
ka_transforms.mirrorTransform(r_fingers[iA][iB],
targetTransform=fingerJoint)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
tryToXform(l_thumb[0], rotation=flatThumbRotation, worldSpace=True)
ka_transforms.mirrorTransform(r_thumb[0], targetTransform=l_thumb[0])
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
# THUMB CURLS ----------------------------------------------------------------
# innerCurl
for iA, thumbJoint in enumerate(l_thumb):
if iA == 0:
#tryToXform(thumbJoint, rotation=[-90, -40, -30], worldSpace=True,)
#ka_transforms.mirrorTransform(r_thumb[iA], targetTransform=l_thumb[iA])
pass
else:
if iA == 1:
curl = 60
else:
curl = 65
rot = thumbJoint.attr(thumbCurlAxis).get()
thumbJoint.attr(thumbCurlAxis).set(rot + curl)
ka_transforms.mirrorTransform(r_thumb[iA],
targetTransform=l_thumb[iA])
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
# outerCurl
for iA, thumbJoint in enumerate(l_thumb):
if iA == 0:
#tryToXform(thumbJoint, rotation=[-45, -45, -40], worldSpace=True)
pass
else:
if iA == 1:
curl = -20
else:
curl = -65
rot = thumbJoint.attr(thumbCurlAxis).get()
thumbJoint.attr(thumbCurlAxis).set(rot + curl)
ka_transforms.mirrorTransform(r_thumb[iA],
targetTransform=l_thumb[iA])
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
# HAND CUP ----------------------------------------------------------------
# metacarpals
ka_animation.advanceNFrames(KEY_SPACING)
for iA, metacarpal in enumerate(l_metacarpals):
if iA == 0:
rotation = [16, 0, -7]
else:
rotation = [-42, 0, -16]
tryToXform(metacarpal,
rotation=[rotation[0], 0, 0],
worldSpace=True,
relative=True)
tryToXform(metacarpal,
rotation=[0, 0, rotation[2]],
worldSpace=True,
relative=True)
#metacarpal.r.set(rotation)
ka_transforms.mirrorTransform(r_metacarpals[iA],
targetTransform=l_metacarpals[iA])
# thumb
for iA, thumbJoint in enumerate(l_thumb):
if iA == 0:
tryToXform(thumbJoint, rotation=[-40, 0, -44], worldSpace=True)
ka_transforms.mirrorTransform(r_thumb[0],
targetTransform=l_thumb[0])
else:
if iA == 1:
curl = 40
else:
curl = -57
rotz = thumbJoint.rz.get()
rotz = thumbJoint.rz.set(rotz + curl)
ka_transforms.mirrorTransform(r_thumb[iA],
targetTransform=l_thumb[iA])
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
# HAND SPLAY ----------------------------------------------------------------
# thumb
tryToXform(l_thumb[0], rotation=[-95, -63, 7], worldSpace=True)
ka_transforms.mirrorTransform(r_thumb[0], targetTransform=l_thumb[0])
for iA, finger in enumerate(l_fingers):
if iA == 0:
splay = 21
elif iA == 1:
splay = 0
elif iA == 2:
splay = -15
else:
splay = -30
for iB, fingerJoint in enumerate(finger):
if iB == 0:
ry = fingerJoint.ry.get()
fingerJoint.ry.set(ry + splay)
ka_transforms.mirrorTransform(
r_fingers[iA][iB], targetTransform=l_fingers[iA][iB])
for iA, metacarpal in enumerate(l_metacarpals):
if iA == 0:
splay = -2
else:
splay = -6
ry = metacarpal.ry.get()
metacarpal.ry.set(ry + splay)
ka_transforms.mirrorTransform(r_metacarpals[iA],
targetTransform=l_metacarpals[iA])
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
# WRIST ROTATIONS ----------------------------------------------------------------
ka_animation.advanceNFrames(KEY_SPACING)
# forward
tryToXform(l_wrist, rotation=[-180, -32, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# back
tryToXform(l_wrist, rotation=[-180, 50, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# up
tryToXform(l_wrist, rotation=[-180, 0, -268], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# down
tryToXform(l_wrist, rotation=[-180, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# forward
tryToXform(l_wrist, rotation=[-180, -32, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# up
tryToXform(l_wrist, rotation=[-180, 0, -268], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# back
tryToXform(l_wrist, rotation=[-180, 50, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# down
tryToXform(l_wrist, rotation=[-180, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# forward
tryToXform(l_wrist, rotation=[-180, -32, 0], worldSpace=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ARM TWIST ----------------------------------------------------------------
# twist back
# wrist
tryToXform(l_wrist, rotation=[-38, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# arm
tryToXform(l_arm, rotation=[-38, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# twist forward
# wrist
tryToXform(l_wrist, rotation=[90, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_wrist, targetTransform=l_wrist)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# arm
tryToXform(l_arm, rotation=[38, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ELBOW BEND ----------------------------------------------------------------
tryToXform(l_elbow, rotation=[0, -135, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_elbow, targetTransform=l_elbow)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ARM ROTATIONS ----------------------------------------------------------------
# down
tryToXform(l_arm, rotation=[0, 0, -90], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# forward
tryToXform(l_arm, rotation=[-90, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# flat
ka_animation.applyPose('tPose')
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
tryToXform(l_arm, rotation=[0, 0, 90], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# back
tryToXform(l_arm, rotation=[0, 90, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# down and back
tryToXform(l_arm, rotation=[-45, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# down
tryToXform(l_arm, rotation=[-90, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_arm, targetTransform=l_arm)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# SHOULDER ROTATIONS ISOLATED ----------------------------------------------------------------
# up
tryToXform(l_clavical, rotation=[0, 0, 35], worldSpace=True, relative=True)
tryToXform(l_arm, rotation=[90, 0, -0], worldSpace=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# down
tryToXform(l_clavical,
rotation=[0, 0, -16],
worldSpace=True,
relative=True)
tryToXform(l_arm, rotation=[90, 0, 0], worldSpace=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# forward
tryToXform(l_clavical,
rotation=[0, -60, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# back
tryToXform(l_clavical, rotation=[0, 16, 0], worldSpace=True, relative=True)
tryToXform(l_arm, rotation=[90, 0, 0], worldSpace=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ARM OVER HEAD ----------------------------------------------------------------
tryToXform(l_clavical, rotation=[0, 0, 35], worldSpace=True, relative=True)
tryToXform(l_arm, rotation=[0, 0, 105], worldSpace=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ARM CROSSOVER ----------------------------------------------------------------
tryToXform(l_clavical,
rotation=[0, -60, 0],
worldSpace=True,
relative=True)
tryToXform(l_arm, rotation=[90, -155, 0], worldSpace=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# HEAD AND NECK ROTATIONS ----------------------------------------------------------------
# look up
tryToXform(head, rotation=[45, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
if iA == 0:
tryToXform(neckJoint,
rotation=[20, 0, 0],
worldSpace=True,
relative=True)
else:
tryToXform(neckJoint,
rotation=[10, 0, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# look down
tryToXform(head, rotation=[-35, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
if iA == 0:
tryToXform(neckJoint,
rotation=[-15, 0, 0],
worldSpace=True,
relative=True)
else:
tryToXform(neckJoint,
rotation=[-7, 0, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# bend left
tryToXform(head, rotation=[0, 0, 45], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
if iA == 0:
tryToXform(neckJoint,
rotation=[0, 0, 20],
worldSpace=True,
relative=True)
else:
tryToXform(neckJoint,
rotation=[0, 0, 10],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# bend right
tryToXform(head, rotation=[0, 0, -45], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
if iA == 0:
tryToXform(neckJoint,
rotation=[0, 0, -20],
worldSpace=True,
relative=True)
else:
tryToXform(neckJoint,
rotation=[0, 0, -10],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# HEAD AND NECK TWIST ----------------------------------------------------------------
twist = 105
numberOfControls = 1 + len(necks)
twistPerJoint = twist * (1.0 / numberOfControls)
# twist left
tryToXform(head,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
tryToXform(neckJoint,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# twist right
twistPerJoint *= -1
tryToXform(head,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
for iA, neckJoint in enumerate(reversed(necks)):
tryToXform(neckJoint,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# SPINE ROTATIONS ----------------------------------------------------------------
# forward
for iA, spineJoint in enumerate(reversed(spines)):
if iA == 0:
bend = -20
else:
bend = -30
tryToXform(spineJoint,
rotation=[bend, 0, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# backward
for iA, spineJoint in enumerate(reversed(spines)):
if iA == 0:
bend = 20
else:
bend = 30
tryToXform(spineJoint,
rotation=[bend, 0, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# bend left
for iA, spineJoint in enumerate(reversed(spines)):
if iA == 0:
bend = 20
else:
bend = 30
tryToXform(spineJoint,
rotation=[0, 0, bend],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# bend right
for iA, spineJoint in enumerate(reversed(spines)):
if iA == 0:
bend = -20
else:
bend = -30
tryToXform(spineJoint,
rotation=[0, 0, bend],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# SPINE TWIST ----------------------------------------------------------------
twist = 90
numberOfControls = len(spines)
twistPerJoint = twist * (1.0 / numberOfControls)
# left
for iA, spineJoint in enumerate(reversed(spines)):
tryToXform(spineJoint,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
tryToXform(l_clavical, rotation=[0, 15, 0], worldSpace=True, relative=True)
tryToXform(r_clavical, rotation=[0, 30, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
# right
twistPerJoint *= -1
for iA, spineJoint in enumerate(reversed(spines)):
tryToXform(spineJoint,
rotation=[0, twistPerJoint, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
tryToXform(l_clavical,
rotation=[0, -30, 0],
worldSpace=True,
relative=True)
tryToXform(r_clavical,
rotation=[0, -15, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.advanceNFrames(KEY_SPACING / 2)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# PELVIS ----------------------------------------------------------------
# forwards
tryToXform(pelvis, rotation=[0, 0, -45], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# backwards
tryToXform(pelvis, rotation=[0, 0, 30], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# left
tryToXform(pelvis, rotation=[0, 0, -20], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# right
tryToXform(pelvis, rotation=[0, 0, 20], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# twist right
tryToXform(pelvis, rotation=[0, 30, 0], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# twist left
tryToXform(pelvis, rotation=[0, -30, 0], worldSpace=True, relative=True)
tryToXform(
l_leg,
rotation=[90, 0, -90],
worldSpace=True,
)
tryToXform(
r_leg,
rotation=[-90, 0, 90],
worldSpace=True,
)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# TOES ----------------------------------------------------------------
# up
tryToXform(l_footBall,
rotation=[-45, 0, 0],
worldSpace=True,
relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# down
tryToXform(l_footBall, rotation=[30, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# ANKLE ----------------------------------------------------------------
# up
tryToXform(l_ankle, rotation=[-15, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# down
tryToXform(l_ankle, rotation=[60, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# outside
tryToXform(l_ankle, rotation=[0, 0, -40], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# inside
tryToXform(l_ankle, rotation=[0, 0, 30], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# KNEE ----------------------------------------------------------------
tryToXform(l_knee, rotation=[90, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# LEG ROTATION ----------------------------------------------------------------
# fowards
tryToXform(l_leg, rotation=[-90, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# backwards
tryToXform(l_leg, rotation=[90, 0, 0], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# outside
tryToXform(l_leg, rotation=[0, 0, 30], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# inside
tryToXform(l_leg, rotation=[0, 0, -65], worldSpace=True, relative=True)
tryToXform(r_leg, rotation=[0, 0, -65], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# fowards
tryToXform(l_leg, rotation=[-90, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# outside
tryToXform(l_leg, rotation=[0, 0, 30], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# backwards
tryToXform(l_leg, rotation=[90, 0, 0], worldSpace=True, relative=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# inside
tryToXform(l_leg, rotation=[0, 0, -65], worldSpace=True, relative=True)
tryToXform(r_leg, rotation=[0, 0, -65], worldSpace=True, relative=True)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# LEG TWIST ----------------------------------------------------------------
# outside
# ankle
tryToXform(l_ankle, rotation=[0, -60, -0], worldSpace=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# leg
tryToXform(l_leg, rotation=[-10, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# inside
# ankle
tryToXform(l_ankle, rotation=[0, -135, -0], worldSpace=True)
ka_transforms.mirrorTransform(r_ankle, targetTransform=l_ankle)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# leg
tryToXform(l_leg, rotation=[135, 0, -90], worldSpace=True)
ka_transforms.mirrorTransform(r_leg, targetTransform=l_leg)
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
ka_animation.applyPose('tPose')
ka_animation.keyAllControls()
ka_animation.advanceNFrames(KEY_SPACING)
# Finish
pymel.playbackOptions(min=1, max=pymel.currentTime(query=True) + 50)
pymel.currentTime(1)
def create_alembic(cls, from_top_node=1):
"""creates alembic cache from selected nodes
"""
import os
root_flag = '-root %(node)s'
mel_command = 'AbcExport -j "-frameRange %(start)s %(end)s -ro ' \
'-stripNamespaces -uvWrite -wholeFrameGeo -worldSpace ' \
'%(roots)s ' \
'-file %(path)s";'
current_path = pm.workspace.path
abc_path = os.path.join(current_path, 'cache', 'alembic')
try:
os.makedirs(abc_path)
except OSError:
pass
abc_full_path = pm.fileDialog2(startingDirectory=abc_path)
def find_top_parent(node):
parents = node.listRelatives(p=1)
parent = None
while parents:
parent = parents[0]
parents = parent.listRelatives(p=1)
if parents:
parent = parents[0]
else:
return parent
if not parent:
return node
else:
return parent
if abc_full_path:
abc_full_path = abc_full_path[0] # this is dirty
abc_full_path = os.path.splitext(abc_full_path)[0] + '.abc'
# get nodes
selection = pm.ls(sl=1)
nodes = []
for node in selection:
if from_top_node:
node = find_top_parent(node)
if node not in nodes:
nodes.append(node)
# generate root flags
roots = []
for node in nodes:
roots.append(root_flag % {'node': node.fullPath()})
roots_as_string = ' '.join(roots)
start = int(pm.playbackOptions(q=1, minTime=1))
end = int(pm.playbackOptions(q=1, maxTime=1))
rendered_mel_command = mel_command % {
'start': start,
'end': end,
'roots': roots_as_string,
'path': abc_full_path
}
pm.mel.eval(rendered_mel_command)
def bake(self):
buttons = export, create, cancel = '.abc 저장', '씬 안에 생성', '취소'
option = questionbox(
parent=self,
title='출력형태 지정',
message='베이크할 카메라의 출력 형태를 선택하세요.',
icon='question',
button=buttons,
default=export,
cancel=cancel,
dismiss=cancel,
)
if option == cancel:
return
cam_file = None
if option == export:
optionvar = 'camviewmgr_last_exported_path'
if pm.optionVar(exists=optionvar):
last_dir = pm.optionVar(query=optionvar)
else:
last_dir = ''
response = QFileDialog.getSaveFileName(
caption='카메라가 저장될 위치를 지정하세요',
dir=last_dir,
filter='Alembic File (*.abc)',
parent=self,
)
if not response[0]:
return
cam_file = response[0]
dirs(os.path.dirname(cam_file))
pm.optionVar(stringValue=(optionvar, os.path.dirname(cam_file)))
cam = pm.PyNode(self.currentItem().text())
if not cam:
return
cam_shape = cam.getShape()
pm.undoInfo(openChunk=True)
dup_cam = pm.duplicate(cam)[0]
dup_cam_shape = dup_cam.getShape()
for child in pm.listRelatives(dup_cam, children=True):
if child.nodeType() == 'camera':
continue
pm.delete(child)
dup_cam_shape.focalLength.set(lock=False, keyable=True)
dup_cam_shape.nearClipPlane.set(lock=False, keyable=True)
dup_cam_shape.farClipPlane.set(lock=False, keyable=True)
cam_shape.focalLength.connect(dup_cam_shape.focalLength, force=True)
cam_shape.nearClipPlane.connect(dup_cam_shape.nearClipPlane,
force=True)
cam_shape.farClipPlane.connect(dup_cam_shape.farClipPlane, force=True)
for child in pm.listRelatives(dup_cam, children=True):
if child.nodeType() == 'camera':
continue
pm.delete(child)
for ch in ['tx', 'ty', 'tz', 'rx', 'ry', 'rz']:
attr = dup_cam.attr(ch)
attr.set(lock=False)
for attr in dup_cam.listAttr(userDefined=True):
try:
attr.set(lock=False)
pm.deleteAttr(attr)
except:
pass
pm.parent(dup_cam, world=True)
pm.rename(dup_cam, cam.name() + '_baked')
constraint = pm.parentConstraint(cam, dup_cam)
st = pm.playbackOptions(query=True, minTime=True - 2)
ed = pm.playbackOptions(query=True, maxTime=True + 2)
pm.bakeResults(
[dup_cam, dup_cam_shape],
shape=True,
simulation=True,
time=(st, ed),
)
pm.delete(constraint)
pm.undoInfo(closeChunk=True)
if cam_file:
pm.rename(dup_cam, cam.name())
pm.select(dup_cam, replace=True)
pm.delete(pm.ls(type='unknown'))
pm.mel.eval(
'AbcExport -j "-frameRange {} {} -noNormals -eulerFilter -dataFormat ogawa -root {} -file {}"'
.format(st, ed, dup_cam.name(), cam_file))
if option != create:
pm.delete(dup_cam)
def getCurrentTimeSlider(self):
endFrame = pm.playbackOptions(q=True, maxTime=True)
return int(endFrame)
import pymel.core as pm
import os
import errno
#load plugin
if not pm.pluginInfo('AbcExport', query=True, loaded=True):
pm.loadPlugin('AbcExport')
#selection
selection = pm.ls(sl=True)
if not selection:
raise ValueError('Cannot save empty selection.')
previouse_selection = selection
#get frame range
fstart = pm.playbackOptions(query=True, minTime=True)
fend = pm.playbackOptions(query=True, maxTime=True)
fcurrent = pm.currentTime()
step = 1
# Ensure target folder exists
target = (u'F:\local_WIP\pythonAbcExport')
try:
os.makedirs(target)
except OSError as error:
if error.errno != errno.EEXIST:
raise
#build filepath
cache_path = os.path.join(target, 'cache.abc')
def main():
cmds.loadPlugin("AbcExport.mll")
# get the top one
objs = pm.ls(sl=True)
if not objs:
return pm.inViewMessage(smg="select object first",
pos="midCenterTop",
bkc=0x00FF1010,
fade=True)
pm.select(clear=True)
for obj in objs:
parent_node = pm.listRelatives(obj,
children=True,
fullPath=True,
allParents=True)
if parent_node:
final = get_top(obj)[0]
else:
final = obj
# judge the selection is ref or not
ref_jud = pm.referenceQuery("%s" % final, isNodeReferenced=True)
if ref_jud:
file_path = pm.referenceQuery("%s" % final, filename=True)
print file_path
name_space = pm.referenceQuery("%s" % final, namespace=True)
print name_space
pm.mel.eval('file -importReference "%s"' % file_path)
# remove the namespace
pm.mel.eval('namespace -mv "%s" ":" -force' % name_space)
# trying to get the shape group(filter of the curve and rig)
pm.select(final, add=True)
#deal with the samename node after import the reference readonly
obj_list = cmds.ls(sl=True, long=True, dag=True)
obj_list.sort(key=len, reverse=True)
renamedict = {}
namelist = []
for obj in obj_list:
obj_name = obj.split("|")[-1]
print obj_name
if not namelist.count(obj_name):
namelist.append(obj_name)
renamedict[obj_name] = [obj]
else:
renamedict[obj_name].append(obj)
for name in namelist:
paths = renamedict[name]
paths.sort(key=len, reverse=True)
if len(paths) == 1:
continue
print name, paths
index = 1
for path in paths:
new_name = "%s_%s" % (name, index)
index += 1
cmds.rename(path, new_name)
# pm.select(clear=True)
# pm.select(final, add=True)
objs = pm.ls(sl=True, long=True)
geo_list = []
for obj in objs:
print obj
geo = None
children = pm.listRelatives(obj, children=True, fullPath=True)
for child in children:
print pm.objectType(child)
if "geo" in child.name() or "Geo" in child.name():
geo = child
geo_list.append(geo)
break
else:
geo = None
if not geo:
if len(children) == 1 and pm.objectType(children) == "mesh":
geo = obj
geo_list.append(geo)
continue
else:
for child in children:
if get_next(child):
geo = child
geo_list.append(geo)
pm.select(clear=True)
pm.select(geo_list, add=True)
print(666666666666666666666666666666666666666666666666666)
# use the current filepath as the clue to query the destination
current_path = pm.mel.eval("file -q -sn")
filename = os.path.basename(current_path)
abc_name = os.path.splitext(filename)[0] + ".abc"
rp_code = os.path.dirname(current_path).split("/")[-1]
dirname = os.path.join(
os.path.dirname(current_path)[:-len(rp_code)], "abc")
abc_name = os.path.normpath(os.path.join(dirname, abc_name))
sel_frameRange = str(pm.playbackOptions(q=True, minTime=True) -
10) + " " + str(
pm.playbackOptions(q=True, maxTime=True) + 10)
root_geo = ""
for obj in geo_list:
root_geo += "-root %s " % obj
print root_geo
pm.AbcExport(
j="-frameRange {frameRange} -uvWrite -worldSpace -writeVisibility -dataFormat hdf {file} -file {path}"
.format(frameRange=sel_frameRange, file=root_geo, path=abc_name))
def getTimeSliderMinMax(self): """doc""" start = int(pm.playbackOptions(q= 1, min= 1)) end = int(pm.playbackOptions(q= 1, max= 1)) + 1 return start, end
def anim_range(self):
start_time = pm.playbackOptions(q=True, min=True)
end_time = pm.playbackOptions(q=True, max=True)
return [start_time, end_time]
def get_playback_info(self):
return (int(pm.playbackOptions(q=1, min=1)),
int(pm.playbackOptions(q=1, max=1)))
def test_EntityPerFrame(self):
'''
Test the conversion to single visibility switched nodes
'''
pCore.playbackOptions(min=1, max=50)
tag=mTag.GetExportTagFromSelected(pCore.PyNode('pCube1'))[0]
tag=tag.ConvertTagType('EntityPerFrame')
data=tag._ProcessBaseTagFilter()
#Test that the new nodes have the TimeLine Data cast over to them
firstTenResults=['%s,on:%0.2f,off:%0.2f' % (node.name(),node.TimelineStart.get(),node.TimelineEnd.get()) for node in sorted(data)[:10]]
assert firstTenResults==['EntityPerFrame_1,on:1.00,off:2.00',
'EntityPerFrame_10,on:10.00,off:11.00',
'EntityPerFrame_11,on:11.00,off:12.00',
'EntityPerFrame_12,on:12.00,off:13.00',
'EntityPerFrame_13,on:13.00,off:14.00',
'EntityPerFrame_14,on:14.00,off:15.00',
'EntityPerFrame_15,on:15.00,off:16.00',
'EntityPerFrame_16,on:16.00,off:17.00',
'EntityPerFrame_17,on:17.00,off:18.00',
'EntityPerFrame_18,on:18.00,off:19.00']
expected=['EntityPerFrame_1',
'EntityPerFrame_10',
'EntityPerFrame_11',
'EntityPerFrame_12',
'EntityPerFrame_13',
'EntityPerFrame_14',
'EntityPerFrame_15',
'EntityPerFrame_16',
'EntityPerFrame_17',
'EntityPerFrame_18',
'EntityPerFrame_19',
'EntityPerFrame_2',
'EntityPerFrame_20',
'EntityPerFrame_21',
'EntityPerFrame_22',
'EntityPerFrame_23',
'EntityPerFrame_24',
'EntityPerFrame_25',
'EntityPerFrame_26',
'EntityPerFrame_27',
'EntityPerFrame_28',
'EntityPerFrame_29',
'EntityPerFrame_3',
'EntityPerFrame_30',
'EntityPerFrame_31',
'EntityPerFrame_32',
'EntityPerFrame_33',
'EntityPerFrame_34',
'EntityPerFrame_35',
'EntityPerFrame_36',
'EntityPerFrame_37',
'EntityPerFrame_38',
'EntityPerFrame_39',
'EntityPerFrame_4',
'EntityPerFrame_40',
'EntityPerFrame_41',
'EntityPerFrame_42',
'EntityPerFrame_43',
'EntityPerFrame_44',
'EntityPerFrame_45',
'EntityPerFrame_46',
'EntityPerFrame_47',
'EntityPerFrame_48',
'EntityPerFrame_49',
'EntityPerFrame_5',
'EntityPerFrame_50',
'EntityPerFrame_6',
'EntityPerFrame_7',
'EntityPerFrame_8',
'EntityPerFrame_9']
assert [n.name() for n in sorted(data)]==expected
toClean=['EntityPerFrame']
toClean.extend(expected)
assert sorted(pCore.melGlobals['NodesToDeleteOnCleanUp'])==toClean
#test the Cleanup calls
tag._CleanupProcessedTagFilter()
assert not pCore.melGlobals['NodesToDeleteOnCleanUp']
assert not [n for n in data if pCore.PyNode(n).exists()]
def test_ProgressiveMorphFilter(self):
'''
Test the convertion of the deformerData to linear blendshape
'''
pCore.playbackOptions(min=1, max=50)
tag=mTag.GetExportTagFromSelected(pCore.PyNode('pCube1'))[0]
data=tag._ProcessBaseTagFilter()
#Note the actual Tagged Node is NOT passed into the filtered nodes!
assert data==['pCube1_progressive']
#Test the generated Progressive network
node=data[0]
shape=node.getShape()
shape.listHistory(type='mesh')
blendshape=shape.listHistory(type='blendShape')[0]
assert blendshape.name()=='blendShape1'
assert blendshape.getTarget()==['Progressive_1',
'Progressive_2',
'Progressive_3',
'Progressive_4',
'Progressive_5',
'Progressive_6',
'Progressive_7',
'Progressive_8',
'Progressive_9',
'Progressive_10',
'Progressive_11',
'Progressive_12',
'Progressive_13',
'Progressive_14',
'Progressive_15',
'Progressive_16',
'Progressive_17',
'Progressive_18',
'Progressive_19',
'Progressive_20',
'Progressive_21',
'Progressive_22',
'Progressive_23',
'Progressive_24',
'Progressive_25',
'Progressive_26',
'Progressive_27',
'Progressive_28',
'Progressive_29',
'Progressive_30',
'Progressive_31',
'Progressive_32',
'Progressive_33',
'Progressive_34',
'Progressive_35',
'Progressive_36',
'Progressive_37',
'Progressive_38',
'Progressive_39',
'Progressive_40',
'Progressive_41',
'Progressive_42',
'Progressive_43',
'Progressive_44',
'Progressive_45',
'Progressive_46',
'Progressive_47',
'Progressive_48',
'Progressive_49',
'Progressive_50']
def apply_scene_range(self):
self.set_job_value('start_frame', int(pm.playbackOptions(minTime=True, query=True)))
self.set_job_value('end_frame', int(pm.playbackOptions(maxTime=True, query=True)))
#coding=gbk
import maya.cmds as cmds
import pymel.core as pmel
import maya.mel as mel
from functools import partial
#获取当前时间轴起始结束帧
st_frame_time = pmel.playbackOptions(q=1,ast=1)
et_frame_time = pmel.playbackOptions(q=1,aet=1)
#创建aov类型
rs_aov_Type = ["Ambient Occlusion",
"Background",
"Bump Normals",
"Caustics",
"Caustics Raw",
"Depth",
"Diffuse Filter",
"Diffuse Lighting",
"Diffuse Lighting Raw",
"Emission",
"Global Illumination",
"Global Illumination Raw",
"Matte",
"Motion Vectors",
"Normals",
"ObjectID",
"Object-Space Bump Normals",
"Object-Space Positions",
"Puzzle Matte",
"Reflections",
"Reflections Filter",
def CreateCloth():
#TwClothSolverIOPaperBlockout
#----------------------------------
#----------------------------------
#Get Pasing Parameters:
subx = pm.intSliderGrp(GlobalVars["SubX"], q=True, value=True)
suby = pm.intSliderGrp(GlobalVars["SubY"], q=True, value=True)
grav = pm.floatSliderGrp(GlobalVars["GraV"], q=True, value=True)
wind_x = pm.floatSliderGrp(GlobalVars["Wind_X"], q=True, value=True)
wind_y = pm.floatSliderGrp(GlobalVars["Wind_Y"], q=True, value=True)
wind_z = pm.floatSliderGrp(GlobalVars["Wind_Z"], q=True, value=True)
noise = pm.floatSliderGrp(GlobalVars["Noise"], q=True, value=True)
#create inputGeo
#----------------------------------
#inputGeo
inputGeoTrans = pm.polyPlane(sx=subx, sy=suby, w=10, h=10, ch=False)[0]
inputGeoShape = inputGeoTrans.getShape()
#transformPlane
inputGeoTrans.translateY.set(5)
inputGeoTrans.visibility.set(0)
pm.select(cl=True)
#pm.select(inputGeoTrans, r = True)
#pm.polyTriangulate(ch = False)
#pm.select(cl = True)
#create outputGeo
#----------------------------------
#outputGeo
outputGeoTrans = pm.polyPlane(sx=subx, sy=suby, w=10, h=10, ch=False)[0]
outputGeoShape = outputGeoTrans.getShape()
pm.select(cl=True)
#set Texture
#if pm.checkBox(GlobalVars["DefaultText"], q = True, value = True) == True:
# pm.sets("lambert2SG", e = True, forceElement = inputGeoTrans)
#create cloth solver node
#----------------------------------
clothSolver = pm.createNode('TwClothSolverIOPaperBlockout')
clothSolver.verbose.set(0)
clothSolver.repetitions.set(10)
GlobalVars["clothSolver"] = clothSolver
pm.select(cl=True)
#create positionConstraintLocators
#----------------------------------
positionConstraintLocatorIndex0Trans = pm.spaceLocator(
n='positionConstraintLocatorIndex0')
positionConstraintLocatorIndex0Shape = positionConstraintLocatorIndex0Trans.getShape(
)
positionConstraintLocatorIndex0Trans.translate.set(-5, 5, 5)
pm.select(cl=True)
positionConstraintLocatorIndex110Trans = pm.spaceLocator(
n='positionConstraintLocatorIndex110')
positionConstraintLocatorIndex110Shape = positionConstraintLocatorIndex110Trans.getShape(
)
positionConstraintLocatorIndex110Trans.translate.set(-5, 5, -5)
pm.select(cl=True)
positionConstraintLocatorIndex120Trans = pm.spaceLocator(
n='positionConstraintLocatorIndex120')
positionConstraintLocatorIndex120Shape = positionConstraintLocatorIndex120Trans.getShape(
)
positionConstraintLocatorIndex120Trans.translate.set(5, 5, -5)
pm.select(cl=True)
positionConstraintLocatorIndex10Trans = pm.spaceLocator(
n='positionConstraintLocatorIndex10')
positionConstraintLocatorIndex10Shape = positionConstraintLocatorIndex10Trans.getShape(
)
positionConstraintLocatorIndex10Trans.translate.set(5, 5, 5)
pm.select(cl=True)
positionConstraintLocatorIndex60Trans = pm.spaceLocator(
n='positionConstraintLocatorIndex60')
positionConstraintLocatorIndex60Shape = positionConstraintLocatorIndex60Trans.getShape(
)
positionConstraintLocatorIndex60Trans.translate.set(0, 5, 0)
pm.select(cl=True)
#connect locators and set index attrs on clothSolver
#----------------------------------
clothSolver.positionConstraint[0].positionConstraintVertexIndex.set(0)
positionConstraintLocatorIndex0Shape.worldPosition >> clothSolver.positionConstraint[
0].positionConstraintCoordinate
pm.select(cl=True)
clothSolver.positionConstraint[1].positionConstraintVertexIndex.set((
(subx + 1) * (suby + 1) - 1) - subx)
positionConstraintLocatorIndex110Shape.worldPosition >> clothSolver.positionConstraint[
1].positionConstraintCoordinate
pm.select(cl=True)
clothSolver.positionConstraint[2].positionConstraintVertexIndex.set(
(subx + 1) * (suby + 1) - 1)
positionConstraintLocatorIndex120Shape.worldPosition >> clothSolver.positionConstraint[
2].positionConstraintCoordinate
pm.select(cl=True)
clothSolver.positionConstraint[3].positionConstraintVertexIndex.set(subx)
positionConstraintLocatorIndex10Shape.worldPosition >> clothSolver.positionConstraint[
3].positionConstraintCoordinate
pm.select(cl=True)
clothSolver.positionConstraint[4].positionConstraintVertexIndex.set(
((subx + 1) * (suby + 1) - 1) / 2)
positionConstraintLocatorIndex60Shape.worldPosition >> clothSolver.positionConstraint[
4].positionConstraintCoordinate
pm.select(cl=True)
#set clothSolver active attr
#----------------------------------
clothSolver.positionConstraint[0].positionConstraintActive.set(
pm.checkBox(GlobalVars["Locator_LeftTopCorner"], q=True, value=True))
clothSolver.positionConstraint[1].positionConstraintActive.set(
pm.checkBox(GlobalVars["Locator_RightTopCorner"], q=True, value=True))
clothSolver.positionConstraint[2].positionConstraintActive.set(
pm.checkBox(GlobalVars["Locator_RightBottomCorner"],
q=True,
value=True))
clothSolver.positionConstraint[3].positionConstraintActive.set(
pm.checkBox(GlobalVars["Locator_LeftBottomCorner"], q=True,
value=True))
clothSolver.positionConstraint[4].positionConstraintActive.set(
pm.checkBox(GlobalVars["Locator_Middle"], q=True, value=True))
#connect time
#----------------------------------
timeNode = pm.PyNode('time1')
pm.select(cl=True)
timeNode.outTime >> clothSolver.currentFrame
#connect inputGeo
#----------------------------------
inputGeoShape.outMesh >> clothSolver.inputGeo
#connect inputGeo parentMatrix
#----------------------------------
inputGeoShape.parentMatrix >> clothSolver.transformMatrix
#connect outputGeo
#----------------------------------
clothSolver.outputGeo >> outputGeoShape.inMesh
#set clothSolver gravity
#----------------------------------
gravityPerSec = -1.0 * grav
framesPerSec = 400
clothSolver.gravity.set(0, gravityPerSec / framesPerSec, 0)
#set clothSolver WindForce
#----------------------------------
clothSolver.WindForce.set(wind_x / framesPerSec, wind_y / framesPerSec,
wind_z / framesPerSec)
#set clothSolber Noise
#----------------------------------
clothSolver.Noise.set(noise / framesPerSec)
#set De
#set time range
#----------------------------------
pm.playbackOptions(ast=1, aet=5000, max=5000, min=1)
#rename and select clothSolver
#----------------------------------
clothSolverTrans = clothSolver.getParent()
pm.rename(clothSolver, 'twClothSolverShape')
pm.rename(clothSolverTrans, 'twClothSolver')
pm.select(clothSolver, r=True)
def equalize_node_speed(cls):
"""Equalizes the node animation to keep the speed constant
"""
#
# This only works for position
#
# To make it also work with Rotation you need to do some nasty stuff,
# like creating the camera transformation frame with two locators, one
# showing the up or the local y-axis and other showing the z-axis of
# the camera, trace them with a curve, smooth them as you did with the
# position, then read them back create local y and z axis and set the
# euler rotations.
#
# For now I don't need it. So I'll code it later on.
#
start_frame = int(pm.playbackOptions(q=1, min=1))
end_frame = int(pm.playbackOptions(q=1, max=1))
selected_node = pm.selected()[0]
# duplicate the input graph
node = pm.duplicate(selected_node, un=1, rr=1)[0]
node.rename("%s_Equalized#" % selected_node.name())
# create speed attribute
if not node.hasAttr("speed"):
node.addAttr("speed", at="double")
pm.currentTime(start_frame)
pm.setKeyframe(node.speed)
prev_pos = node.t.get()
pos_data = []
rot_data = []
for i in range(start_frame, end_frame + 1):
pm.currentTime(i)
current_pos = node.t.get()
pos_data.append(current_pos)
rot_data.append(node.r.get())
speed = (current_pos - prev_pos).length()
prev_pos = current_pos
node.speed.set(speed)
pm.setKeyframe(node.speed)
camera_path = pm.curve(d=3, p=pos_data)
camera_path_curve = camera_path.getShape()
pm.rebuildCurve(camera_path_curve,
ch=1,
rpo=1,
rt=0,
end=1,
kr=0,
kcp=0,
kep=1,
kt=0,
s=end_frame - start_frame + 1,
d=3,
tol=0.01)
curve_cv_positions = camera_path_curve.getCVs()
# pop the unnecessary CVs
curve_cv_positions.pop(1)
curve_cv_positions.pop(-2)
prev_pos = curve_cv_positions[0]
for i, j in enumerate(range(start_frame, end_frame)):
pm.currentTime(j)
current_pos = curve_cv_positions[i]
node.t.set(curve_cv_positions[i])
node.speed.set((current_pos - prev_pos).length())
pm.setKeyframe(node.speed)
prev_pos = current_pos
def genereateAnim(self, reopen=True):
# export_path,_ = self.getFilename()
Scene = self.preExport()
FBXAnim = os.path.join(Scene.dirname(), "FBXAnim")
os.mkdir(FBXAnim) if not os.path.exists(FBXAnim) else None
export_path = os.path.join(FBXAnim, "%s.FBX" % Scene.namebase)
export_path = export_path.replace('\\', '/')
# NOTE 导入所有的 reference
ref_list = pm.listReferences()
if len(ref_list) > 1:
raise RuntimeError("动画文件包含多个引用文件")
[ref.importContents(True) for ref in pm.listReferences()]
# NOTE 如果找不到 root 骨骼则自动生成一套 root 骨骼
root_list = pm.ls("root", dag=1, type="joint")
mesh_list = self.getMeshList()
if not root_list:
# # NOTE 删除非变形器历史
# pm.bakePartialHistory( mesh_list,prePostDeformers=True )
jnt_list = self.getJntList(mesh_list)
pm.select(cl=1)
root = pm.joint(n="root")
jnt_parent = self.getRelParent(jnt_list, root)
anim_parent = {}
for jnt in jnt_list:
pm.select(cl=1)
anim_jnt = pm.joint(n="%s_bind" % jnt)
pm.parentConstraint(jnt, anim_jnt, mo=0)
pm.scaleConstraint(jnt, anim_jnt, mo=0)
parent = jnt_parent[jnt]
anim_parent[
anim_jnt] = "%s_bind" % parent if parent != root else root
jnt_transform = {}
for anim_jnt, parent in anim_parent.items():
anim_jnt.setParent(parent)
# NOTE 删除骨骼缩放修正组
transform = anim_jnt.getParent()
if transform != parent:
pm.ungroup(transform)
root_list = anim_parent.keys()
# NOTE bake 关键帧
start_time = pm.playbackOptions(q=1, min=1)
end_time = pm.playbackOptions(q=1, max=1)
pm.bakeResults(root_list, simulation=1, t=(start_time, end_time))
pm.select(root_list)
# NOTE 导出文件
mel.eval('FBXExport -f "' + export_path + '" -s')
os.startfile(os.path.dirname(export_path))
# NOTE 重新打开当前文件
if reopen:
pm.openFile(pm.sceneName(), f=1)
def get_end_frame():
"""Get current scene end frame.
:rtype: float
"""
return pm.playbackOptions(animationEndTime=True, query=True)
def get_start_frame():
"""Get current scene start frame.
:rtype: float
"""
return pm.playbackOptions(animationStartTime=True, query=True)
def animation(self, animations, ignore=None, warn=True):
"""
Exports all or given piper animation groups.
Args:
animations (list): Piper animation nodes to export.
ignore (string): If given and piper node is a child of given ignore type, do not return the piper node.
warn (boolean): If True, warns the user of no nodes found.
Returns:
(list): All export paths.
"""
export_paths = []
pm.refresh(suspend=True)
self.animation_errors.clear()
start = pm.playbackOptions(q=True, min=True)
end = pm.playbackOptions(q=True, max=True)
if not animations:
animations = pipernode.get('piperAnimation', ignore=ignore)
# check to make sure animation is healthy
if pcfg.check_anim_health_on_export:
namespaces = {rig.namespace() for anim in animations for rig in anim.getChildren(ad=True, type='piperRig')}
self.animation_errors = animation.health(namespaces, resume=False)
for anim in animations:
anim_name = anim.name(stripNamespace=True)
skinned_meshes = anim.getChildren(ad=True, type='piperSkinnedMesh')
skinned_mesh = list(filter(lambda node: pcfg.skeleton_namespace in node.namespace(), skinned_meshes))
if len(skinned_mesh) != 1:
pm.warning('Found {} skinned meshes in {}!'.format(len(skinned_mesh), anim_name)) if warn else None
continue
root = skinned_mesh[0].getChildren(type='joint')
if not root:
pm.warning('{} has no root joints!'.format(skinned_mesh[0].name())) if warn else None
continue
# get joints from rig
root = root[0]
joints = root.getChildren(ad=True, type='joint')
joints.append(root)
# duplicate rig joints
root_duplicate = pm.duplicate(root)[0]
pm.parent(root_duplicate, w=True)
duplicates = root_duplicate.getChildren(ad=True, type='joint')
duplicates.append(root_duplicate)
for joint, duplicate in zip(joints, duplicates):
# delete unwanted attributes
attributes = duplicate.listAttr()
for attr in attributes:
attribute_name = attr.name().split('.')[-1]
if attribute_name.startswith(pcfg.use_attributes) or attribute_name.endswith('Space'):
pm.setAttr(attr, lock=False)
pm.deleteAttr(attr)
# connect channels from original to duplicate
[joint.attr(attr) >> duplicate.attr(attr) for attr in ['t', 'r', 's']]
# get clip data
starts = []
ends = []
data = anim.clipData.get() # could be empty string, empty dictionary, or dictionary with data
data = json.loads(data) if data else {} # json.loads fails with empty string
if not data:
data = {'': {'start': start, 'end': end}}
for clip_name, clip_data in data.items():
starts.append(clip_data['start'])
ends.append(clip_data['end'])
# bake animation keys onto duplicate joints and export
pm.select(duplicates)
pm.bakeResults(sm=True, time=(min(starts), max(ends)))
# export each clip
for clip_name, clip_data in data.items():
pm.playbackOptions(min=clip_data['start'], max=clip_data['end'])
export_name = anim_name + '_' + clip_name if clip_name else anim_name
export_path = self.export_method(export_name, self.animation_settings) # export happens here
export_paths.append(export_path)
pm.delete(root_duplicate)
pm.playbackOptions(min=start, max=end)
pm.refresh(suspend=False)
if not export_paths:
pm.warning('No skinned meshes found under any animation nodes! Export failed. ') if warn else None
return export_paths
class PlayblastManager(object):
__uploadToShotgun = True
"""
Main playblast functionality
"""
def __init__(self, app, context=None):
"""
Construction
"""
self._app = app
self._context = context if context else self._app.context
def showDialog(self):
try:
self._app.engine.show_dialog("Playblaster", self._app,
PlayblastDialog, self._app, self)
except:
traceback.print_exc()
def doPlayblast(self, playblastCamera='persp', **overridePlayblastParams):
template_work_file = self._app.get_template("template_work_file")
template_work_playblast = self._app.get_template(
"template_work_playblast")
sceneName = pm.sceneName()
fields = template_work_file.get_fields(sceneName)
self.shotPlayblastPath = template_work_playblast.apply_fields(fields)
# Get value of optional config field "temp_directory". If path is
# invalid or not absolute, use default tempdir.
# temp_directory = os.path.normpath(self._app.get_setting("temp_directory", "default"))
# if not os.path.isabs(temp_directory):
# import tempfile
# temp_directory = tempfile.gettempdir()
# make sure it is exists
# if not os.path.isdir(temp_directory):
# os.mkdir(temp_directory)
# use the basename of generated names
# self.localPlayblastPath = os.path.join(temp_directory, os.path.basename(self.shotPlayblastPath))
# run actual playblast routine
self.__createPlayblast(playblastCamera=playblastCamera,
**overridePlayblastParams)
self._app.log_info("Playblast for %s succesful" % sceneName)
def __createPlayblast(self,
playblastCamera='persp',
**overridePlayblastParams):
localPlayblastPath = self.shotPlayblastPath
# setting playback range
originalPlaybackRange = (pm.playbackOptions(query=True, minTime=True),
pm.playbackOptions(query=True, maxTime=True))
startTime = pm.playbackOptions(query=True, animationStartTime=True)
endTime = pm.playbackOptions(query=True, animationEndTime=True)
pm.playbackOptions(edit=True, minTime=startTime, maxTime=endTime)
# get playblast parameters from hook
playblastParams = self._app.execute_hook("hook_setup_window",
action="playblast_params",
data=localPlayblastPath)
# get window and editor parameters from hook
createWindow = self._app.execute_hook("hook_setup_window",
action='create_window',
data=playblastCamera)
# with the created window, do a playblast
with createWindow():
playblastParams.update(overridePlayblastParams)
playblastSuccessful = False
while not playblastSuccessful:
try:
# set required visibleHUDs from hook
visibleHUDs = self._app.execute_hook("hook_setup_window",
action="hud_set")
resultPlayblastPath = pm.playblast(**playblastParams)
playblastSuccessful = True
except RuntimeError, e:
result = QtGui.QMessageBox.critical(
None, u"Playblast Error",
"%s\n\n... or just close your QuickTime player, and Retry."
% unicode(e),
QtGui.QMessageBox.Retry | QtGui.QMessageBox.Abort)
if result == QtGui.QMessageBox.Abort:
self._app.log_error("Playblast aborted")
return
finally:
# restore HUD state
self._app.execute_hook("hook_setup_window",
action="hud_unset",
data=visibleHUDs)
# restore playback range
originalMinTime, originalMaxTime = originalPlaybackRange
pm.playbackOptions(edit=True,
minTime=originalMinTime,
maxTime=originalMaxTime)
def process(self, instance):
self.log.info("Extracting capture..")
# get scene fps
fps = mel.eval('currentTimeUnitToFPS()')
# if start and end frames cannot be determined, get them
# from Maya timeline
start = instance.data.get("startFrameReview")
end = instance.data.get("endFrameReview")
if start is None:
start = cmds.playbackOptions(query=True, animationStartTime=True)
if end is None:
end = cmds.playbackOptions(query=True, animationEndTime=True)
self.log.info("start: {}, end: {}".format(start, end))
handles = instance.data.get("handles", 0)
if handles:
start -= handles
end += handles
# get cameras
camera = instance.data['review_camera']
capture_preset = instance.context.data['presets']['maya']['capture']
try:
preset = lib.load_capture_preset(data=capture_preset)
except:
preset = {}
self.log.info('using viewport preset: {}'.format(preset))
preset['camera'] = camera
preset['format'] = "image"
# preset['compression'] = "qt"
preset['quality'] = 95
preset['compression'] = "jpg"
preset['start_frame'] = start
preset['end_frame'] = end
preset['camera_options'] = {
"displayGateMask": False,
"displayResolution": False,
"displayFilmGate": False,
"displayFieldChart": False,
"displaySafeAction": False,
"displaySafeTitle": False,
"displayFilmPivot": False,
"displayFilmOrigin": False,
"overscan": 1.0,
"depthOfField": cmds.getAttr("{0}.depthOfField".format(camera)),
}
stagingdir = self.staging_dir(instance)
filename = "{0}".format(instance.name)
path = os.path.join(stagingdir, filename)
self.log.info("Outputting images to %s" % path)
preset['filename'] = path
preset['overwrite'] = True
pm.refresh(f=True)
refreshFrameInt = int(pm.playbackOptions(q=True, minTime=True))
pm.currentTime(refreshFrameInt - 1, edit=True)
pm.currentTime(refreshFrameInt, edit=True)
with maintained_time():
playblast = capture_gui.lib.capture_scene(preset)
self.log.info("file list {}".format(playblast))
collected_frames = os.listdir(stagingdir)
collections, remainder = clique.assemble(collected_frames)
input_path = os.path.join(
stagingdir, collections[0].format('{head}{padding}{tail}'))
self.log.info("input {}".format(input_path))
if "representations" not in instance.data:
instance.data["representations"] = []
representation = {
'name': 'mov',
'ext': 'mov',
'files': collected_frames,
"stagingDir": stagingdir,
"frameStart": start,
"frameEnd": end,
'fps': fps,
'preview': True,
'tags': ['review', 'delete']
}
instance.data["representations"].append(representation)
def setAnimationRange(self):
self.leAnimationStart.setText(
str(pm.playbackOptions(minTime=True, q=True)))
self.leAnimationEnd.setText(
str(pm.playbackOptions(maxTime=True, q=True)))
def _build_general_settings_tab(parent_layout):
# Create column Layout for General settings
general_settings_tab_layout = pm.columnLayout('generalSettings',
adj=True,
width=100)
pm.separator(height=3, style='none')
pm.rowLayout(numberOfColumns=3,
columnWidth3=(55, 250, 30),
adjustableColumn=2,
columnAlign=[(1, 'left'), (2, 'left')],
columnAttach=[(1, 'both', -1), (2, 'both', 0),
(3, 'both', 0)])
pm.text(label="Directory:")
pm.textField('t_programDirectoryText', text='', ed=False, font=FONT)
pm.symbolButton('b_directoryImage',
image="setDirectory_icon.png",
width=32,
height=20,
command=mimic_utils.set_program_dir)
pm.setParent('..')
pm.rowLayout(numberOfColumns=2,
adjustableColumn=2,
columnAttach=(1, 'left', -1),
columnWidth=[(1, 90), (2, 100)],
height=20)
pm.text(label='Output name:')
pm.textField('t_outputFileName',
text=postproc_config.DEFAULT_OUTPUT_NAME,
font=FONT)
pm.setParent('..')
pm.rowLayout(numberOfColumns=2,
adjustableColumn=2,
columnAttach=(1, 'left', -1),
columnWidth=[(1, 90), (2, 100)],
height=20)
pm.text(label='Template name:')
pm.textField('t_templateFileName',
text=postproc_config.DEFAULT_TEMPLATE_NAME,
font=FONT)
pm.setParent('..')
# Sample rate radio buttons
pm.separator(height=3, style='none')
selected_units = postproc_config.DEFAULT_SAMPLE_RATE_UNITS
selected_value = postproc_config.DEFAULT_SAMPLE_RATE_VALUE
radio_indent = 3
pm.radioCollection('sample_rate_radio_collection')
pm.rowLayout(numberOfColumns=3,
adjustableColumn=3,
columnAttach=(1, 'left', radio_indent),
columnWidth=[(1, 90), (2, 45)],
height=20)
pm.radioButton('rb_timeInterval', label='Sample rate:', select=True)
pm.textField('t_timeBetweenSamples', text=selected_value, font=FONT)
pm.radioButtonGrp(
'time_unit_radio_group',
labelArray2=['s', 'f'],
annotation='Sample rate units: seconds or frames',
numberOfRadioButtons=2,
columnWidth2=[32, 30],
select=1 if selected_units == 'seconds' else 2) # 1-based integer
pm.setParent('..')
pm.rowLayout(numberOfColumns=1,
adjustableColumn=1,
columnAttach=(1, 'left', radio_indent),
height=20)
pm.radioButton('rb_keyframesOnly',
label='Sample keyframes only',
enable=True)
pm.setParent('..')
pm.rowLayout(numberOfColumns=3,
adjustableColumn=3,
columnAttach=(1, 'left', -1),
columnWidth=[(1, 132), (2, 40), (3, 30)],
height=20)
pm.text(label='Animation frame range:')
pm.intField("i_programStartFrame",
value=pm.playbackOptions(animationStartTime=True, query=True),
minValue=-10,
maxValue=100000,
step=1)
pm.intField("i_programEndFrame",
value=pm.playbackOptions(animationEndTime=True, query=True),
minValue=-10,
maxValue=100000,
step=1)
pm.setParent('..')
pm.separator(height=5, style='none')
# Post processor option menu list
pm.optionMenu('postProcessorList',
label='Processor:',
height=18,
changeCommand=postproc_options.overwrite_options)
# Get supported post-processors and fill option menu list
supported_post_processors = postproc_setup.get_processor_names()
for post in supported_post_processors:
pm.menuItem(label=post)
pm.separator(height=3, style='none')
pm.setParent(parent_layout)
return general_settings_tab_layout
def generateFollowPlane(*args):
startTime = pm.playbackOptions(q=1, min=1)
endTime = pm.playbackOptions(q=1, max=1)
sel_list = pm.ls(sl=1, ni=1, type="transform")
if not sel_list:
pm.confirmDialog(message='请选择物体', button=['确定'])
return
for sel in sel_list:
# snapshot = pm.snapshot(sel,st=startTime,et=endTime)[1]
snapshot = pm.createNode("snapshot")
sel.selectHandle.connect(snapshot.localPosition)
sel.worldMatrix[0].connect(snapshot.inputMatrix)
snapshot.startTime.set(startTime)
snapshot.endTime.set(endTime)
snapshot.increment.set(1)
anim_curve = pm.curve(n=sel + "_follow_curve",
d=3,
p=snapshot.pts.get())
pm.delete(snapshot)
curve_length = pm.arclen(anim_curve, ch=0)
plane, plane_node = pm.polyPlane(n=sel + "_follow_plane",
sx=20,
sy=3,
w=curve_length,
h=20)
# NOTE 创建运动路径跟随
motion_path = pm.pathAnimation(
plane,
anim_curve,
fractionMode=1,
follow=1,
followAxis="x",
upAxis="y",
worldUpType="vector",
worldUpVector=(0, 1, 0),
inverseUp=0,
inverseFront=0,
bank=0,
startTimeU=startTime,
endTimeU=endTime,
)
flow_node, ffd_node, lattice_node, ffd_base = pm.flow(plane,
dv=(100, 2, 2))
# NOTE 设置外部影响
ffd_node.outsideLattice.set(1)
ffd_node.local.set(1)
plane_node.width.set(50)
lattice_node.v.set(0)
ffd_base.v.set(0)
# NOTE 设置运动路径
motion_path.fractionMode.set(1)
animCurve = motion_path.listConnections(type="animCurve")[0]
# NOTE 关键帧设置为线性
animCurve.setTangentTypes(range(animCurve.numKeys()),
inTangentType="linear",
outTangentType="linear")
# NOTE 打组
pm.group(lattice_node,
ffd_base,
plane,
anim_curve,
n=sel + "_follow_grp")
pm.select(plane)
def save(filename,
objs=None,
forceOverwrite=False,
forceKeys=False,
start=None,
end=None):
'''
Given a list of objects, save all the anim curves for t/r/s/v and user defined
to the given filename.
:param bool forceOverwrite: Allow prompting if the dest file already exists
:param bool forceKeys: Put keys on the objects
.. todo::
* Check if an attribute ISN'T keyed in the source and mark the static
value somehow. Specifically, if parent/world stuff isn't present,
copying animations goes poorly.
* At some point animation layers need to be addressed properly.
'''
global TAGGING_ATTR
# USING CMDS VERSION FOR SPEED
#listAttr = cmds.listAttr
#listConnections = cmds.listConnections
#addAttr = cmds.addAttr
#setAttr = cmds.setAttr
#duplicate = cmds.duplicate
# ---
sel = selected()
objs = objs if objs else selected()
info = createNode('network')
info.addAttr('start', at='long')
info.addAttr('end', at='long')
info.addAttr('staticValues', dt='string')
if start is None:
start = playbackOptions(q=True, min=True)
if end is None:
end = playbackOptions(q=True, max=True)
if start >= end:
end = start + 1
info.start.set(start)
info.end.set(end)
defaultAttrs = [t + a for t in 'trs' for a in 'xyz'] + ['visibility']
dups = []
staticValues = {}
for obj in objs:
zooHack = ['ikBlend'] if obj.hasAttr('ikBlend') else [
] # Since use uses builtin ik trans, this doesn't get picked up.
if obj.hasAttr('tx'):
attrs = chain(listAttr(obj.name(), ud=True, k=True), defaultAttrs,
zooHack)
else:
attrs = chain(listAttr(obj.name(), ud=True, k=True), zooHack)
for attr in attrs:
_processAttr(obj.name() + '.' + attr, dups, forceKeys,
staticValues, start, end)
if not dups:
warning("Nothing was animated")
return
info.staticValues.set(core.text.asciiCompress(json.dumps(staticValues)))
select(dups, info)
exportSelected(filename, force=forceOverwrite)
select(sel)
delete(dups)
def exportSelected(self, scene, shot, filename, dumbify, history):
# geo list is the one that will be exported
geoList = []
# dumbify set contains all geo under current selection
dumbifySet = set()
lightSet = set()
selection = pm.selected()
# add file node from displacements to selection. otherwise it will be ignored in export
for obj in selection:
if obj.type() =='VRayDisplacement' and obj.displacement.connections():
selection.append(obj.displacement.connections()[0])
if dumbify:
# dumbify
# this duplicates all geometry and links them with a blendshape.
# the duplicates are moved to a seperate group and then cached.
# this has the effect of removing any logic and just leaving geometry
for sel in selection:
for mesh in sel.getChildren(ad=True, type='mesh'):
if not mesh.intermediateObject.get() and self.visibleInHierarchy(mesh):
dumbifySet.add(mesh.getParent())
for light in sel.getChildren(ad=True, type=['VRayLightSphereShape', 'VRayLightDomeShape', 'VRayLightRectShape','VRayLightIESShape', 'VRayLightMesh']):
lightSet.add(light.getParent())
exportGrp = pm.group(em=True, name=filename+'_grp')
geoGrp = pm.group(em=True, name='geoGrp')
geoGrp.setParent(exportGrp)
for obj in dumbifySet:
dupli = pm.duplicate(obj)[0]
for child in dupli.getChildren():
if not child.type() == 'mesh':
pm.delete(child)
elif child.hasAttr('intermediateObject') and child.intermediateObject.get():
pm.delete(child)
dupli.setParent(geoGrp)
# renaming the duplicate so it get's the namespace back
dupli.rename(obj.nodeName())
try:
pm.blendShape(self.getNonIntermediateShape(obj), self.getNonIntermediateShape(dupli), origin='world', n=dupli.nodeName()+'_bs', w=[0,1])
except Exception as e:
print '%s throws %s'%(obj,e)
# keep object sets for easy vray clipping
inheritedSets = self.getInheritedSetMembership(obj)
for s in inheritedSets:
if not pm.objExists(s.nodeName(stripNamespace=True)+'Export'):
newSet = pm.sets(em=True, n = s.nodeName(stripNamespace=True)+'Export')
geoList.append(newSet)
pm.sets(pm.PyNode(s.nodeName(stripNamespace=True)+'Export'), forceElement=dupli)
if lightSet:
lightGrp = pm.group(em=True, name='lightGrp')
lightGrp.setParent(exportGrp)
for light in lightSet:
dupli = pm.duplicate(light)[0]
dupli.setParent(lightGrp)
dupli.rename(light.nodeName())
geoList.append(exportGrp)
else:
geoList = selection
# export geo
pm.select(geoList, r=True, ne=True)
geoPath = pm.exportSelected(os.path.join(self.cachePath, scene, shot, filename+'.ma'),
typ='mayaAscii',
constructionHistory = history,
channels = False,
constraints = False,
expressions = False,
force =True,
shader = True,
preserveReferences=False
)
self.removeStudentLic(geoPath)
self.removeNamespaces(geoPath)
# export abc
abcOptions = []
for sel in geoList:
if 'dagNode' in sel.type(inherited=True):
abcOptions.append('-root %s'%sel.fullPath())
frameRange = [pm.playbackOptions(q=True, min=True), pm.playbackOptions(q=True, max=True)]
abcOptions.append('-frameRange %s %s'%(frameRange[0], frameRange[1]))
abcPath = os.path.join(self.cachePath, scene, shot, filename+'.abc')
abcOptions.append('-file "' + abcPath.replace('\\', '/') + '"')
abcOptions.append('-uvWrite')
abcOptions.append('-wholeFrameGeo')
abcOptions.append('-worldSpace')
abcOptions.append('-writeVisibility')
abcOptions.append('-writeCreases')
abcOptions.append('-writeUVSets')
abcOptions.append('-dataFormat ogawa')
pm.AbcExport(verbose = True, jobArg = ' '.join(abcOptions))
# cleanup
if dumbify:
for obj in geoList:
pm.delete(obj)