def func(*args, **kwargs):
initialState = cmd.autoKeyframe(q=True, state=True)
cmd.autoKeyframe(state=False)
try:
return f(*args, **kwargs)
finally:
cmd.autoKeyframe(state=initialState)
def putObjects(self, atCurrentFrame=False):
# print self.sel
# print self.putObjectList
autoKey = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False)
# current #NO LONGER USED, REMOVE ONCE MERGED WITH WORK COPY OF KET
# CLASS
if atCurrentFrame:
current = cmds.currentTime(q=True)
if self.start > current:
self.offset = current - self.start
else:
self.offset = ((self.start - current) * -1.0) + 0.0
# print self.offset
# put
num = len(self.objects)
i = 1
uiEnable()
for obj in self.objects:
if cmds.objExists(obj.name):
message(str(i) + ' of ' + str(num) + ' -- ' + obj.name, maya=True)
cmds.refresh(f=1)
obj.offset = self.offset
obj.putAttribute()
else:
cmds.warning(
'Object ' + obj.name + ' does not exist, skipping.')
i = i + 1
uiEnable()
cmds.autoKeyframe(state=autoKey)
def __exit__(self,exit_type,value,traceback):
'''Exit the scope, restoring all of the state information'''
if self.cache_mgr:
self.cache_mgr.restore_state()
if self.em_mgr:
self.em_mgr.restore_state()
cmds.autoKeyframe(e=True, state=self.auto_key_state, characterOption=self.auto_key_chars)
def __enter__(self):
'''Enter the scope, setting up the evaluator managers and initial states'''
self.em_mgr = emModeManager()
self.em_mgr.setMode('emp')
self.em_mgr.setMode('+cache')
# Enable idle build to make sure we can rebuild the graph when waiting.
self.em_mgr.idle_action = emModeManager.idle_action_build
# Setup caching options
self.cache_mgr = CacheEvaluatorManager()
self.cache_mgr.save_state()
self.cache_mgr.plugin_loaded = True
self.cache_mgr.enabled = True
self.cache_mgr.cache_mode = CACHE_STANDARD_MODE_EVAL
self.cache_mgr.resource_guard = False
self.cache_mgr.fill_mode = 'syncAsync'
# Setup autokey options
self.auto_key_state = cmds.autoKeyframe(q=True, state=True)
self.auto_key_chars = cmds.autoKeyframe(q=True, characterOption=True)
cmds.autoKeyframe(e=True, state=False)
self.waitForCache()
return self
def func( *args, **kwargs ): initialState = cmd.autoKeyframe( q=True, state=True ) cmd.autoKeyframe( state=False ) try: return f( *args, **kwargs ) finally: cmd.autoKeyframe( state=initialState )
def load():
'''loads animation environment'''
print "loading animation environment presets..."
#set autoKey
cmds.autoKeyframe( state=True )
#set 24fps and playback on all viewports
cmds.playbackOptions(ps=1.0, v='all')
#set unlimited undo's
cmds.undoInfo( state=True, infinity=True )
#set manipulator sizes
if lib.checkAboveVersion(2014):
cmds.manipOptions( r=False, hs=55, ls=4, sph=1 )
else:
cmds.manipOptions( r=False, hs=55, ls=4 )
#set framerate visibility
mel.eval("setFrameRateVisibility(1);")
#gimbal rotation
cmds.manipRotateContext('Rotate', e=True, mode=2)
#world translation
cmds.manipMoveContext('Move', e=True, mode=2)
#time slider height
aPlayBackSliderPython = mel.eval('$tmpVar=$gPlayBackSlider')
cmds.timeControl(aPlayBackSliderPython, h=45, e=True);
#special tick color
cmds.displayRGBColor("timeSliderTickDrawSpecial", 1,0.5,0)
#check if hotkeys have been set
if (cmds.hotkey( 't', ctl=True, query=True, name = True)== 'CharacterAnimationEditorNameCommand'):
print "Hotkeys have been previously loaded"
else:
setHotkeys('default')
print "ENVIRONMENT SET\n", #the comma forces output on the status line
def __exit__(self, *exc_info):
cmds.autoKeyframe(state=self.autoKeyState)
cmds.currentTime(self.time)
if self.selection:
cmds.select(self.selection)
def __exit__(self, exc_type, exc_value, traceback):
# Close the undo chunk, warn if any exceptions were caught:
cmds.autoKeyframe(state=self.autoKeyState)
log.debug('autoKeyState restored: %s' % self.autoKeyState)
if self.manage_em and self.evalmode:
evalManagerState(mode=self.evalmode)
log.debug('evalManager restored: %s' % self.evalmode)
if self.manage_time:
cmds.currentTime(self.timeStore['currentTime'])
cmds.playbackOptions(min=self.timeStore['minTime'])
cmds.playbackOptions(max=self.timeStore['maxTime'])
cmds.playbackOptions(ast=self.timeStore['startTime'])
cmds.playbackOptions(aet=self.timeStore['endTime'])
cmds.playbackOptions(ps=self.timeStore['playSpeed'])
log.debug('currentTime restored: %f' %
self.timeStore['currentTime'])
if self.mangage_undo:
cmds.undoInfo(closeChunk=True)
else:
cmds.undoInfo(swf=True)
if not exc_type == None and self.suppress_exceptions:
log.exception('%s : %s' % (exc_type, exc_value))
# If we're suppressing exceptions, return True, otherwise return
# according to if an exception is being handled or not
# https://stackoverflow.com/questions/43946416/return-value-of-exit
return self.suppress_exceptions or exc_type == None
def __exit__(self, exc_type, exc_value, traceback):
# Close the undo chunk, warn if any exceptions were caught:
cmds.autoKeyframe(state=self.autoKeyState)
log.info('autoKeyState restored: %s' % self.autoKeyState)
if self.manage_em and self.evalmode:
evalManagerState(mode=self.evalmode)
log.info('evalManager restored: %s' % self.evalmode)
if self.manage_time:
cmds.currentTime(self.timeStore['currentTime'])
cmds.playbackOptions(min=self.timeStore['minTime'])
cmds.playbackOptions(max=self.timeStore['maxTime'])
cmds.playbackOptions(ast=self.timeStore['startTime'])
cmds.playbackOptions(aet=self.timeStore['endTime'])
cmds.playbackOptions(ps=self.timeStore['playSpeed'])
log.info('currentTime restored: %f' %
self.timeStore['currentTime'])
if self.mangage_undo:
cmds.undoInfo(closeChunk=True)
else:
cmds.undoInfo(swf=True)
if exc_type:
log.exception('%s : %s' % (exc_type, exc_value))
# If this was false, it would re-raise the exception when complete
return True
def store(self):
'''
store animation
'''
# make sure o
if self.poseOnly:
self.mtrx.append(cmds.xform(self.obj, q=True, m=True, ws=True))
else:
if self.keys:
current = cmds.currentTime(q=True)
# ui off
cn.uiEnable(controls='modelPanel')
# autokey state
autoK = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False)
for key in self.keys:
cmds.currentTime(key)
self.pos.append(cmds.xform(self.obj, q=True, rp=True, ws=True))
self.rot.append(cmds.xform(self.obj, q=True, ro=True, ws=True))
self.mtrx.append(cmds.xform(self.obj, q=True, m=True, ws=True))
# restore everything
cmds.currentTime(current)
cmds.autoKeyframe(state=autoK)
cn.uiEnable(controls='modelPanel')
else:
message('No keys, forcing timeline range.', maya=True)
self.keys = range(int(self.rng.start), int(self.rng.end))
self.rng.keyStart = self.rng.start
self.rng.keyEnd = self.rng.end
self.store()
def changeRO(obj, ro):
'''
'''
roLst = ['xyz', 'yzx', 'zxy', 'xzy', 'yxz', 'zyx']
if cmds.getAttr(obj + '.rotateOrder', settable=1):
keyframes = getKeyedFrames(obj)
origRO = cmds.getAttr(obj + '.rotateOrder')
if ro != roLst[origRO]:
if keyframes:
cn.uiEnable(controls='modelPanel')
r = getRange()
autoK = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False)
i = r[0]
current = r[2]
cmds.currentTime(i)
cmds.currentTime(cmds.findKeyframe(which='previous'))
cmds.xform(obj, roo=ro)
for key in keyframes:
cmds.currentTime(key)
cmds.setAttr(obj + '.rotateOrder', origRO)
cmds.xform(obj, roo=ro)
cmds.setKeyframe(obj + '.rotate')
cmds.currentTime(current)
cmds.autoKeyframe(state=autoK)
cn.eulerFilter(obj, tangentFix=True)
cn.uiEnable(controls='modelPanel')
else:
cmds.xform(obj, roo=ro)
# done
message('Rotate order changed: -- ' + roLst[origRO] + ' to ' + ro, maya=True)
else:
message('Rotate order already set -- ' + ro)
else:
message('FAIL. Rotate order is LOCKED or CONNECTED to a custom attribute.', maya=True)
def restoreSettings(self):
'''
restore all UI settings
'''
cmds.autoKeyframe(state=self.dataStore['autoKey'])
# timeline management
cmds.currentTime(self.dataStore['currentTime'])
cmds.playbackOptions(min=self.dataStore['minTime'])
cmds.playbackOptions(max=self.dataStore['maxTime'])
cmds.playbackOptions(ast=self.dataStore['startTime'])
cmds.playbackOptions(aet=self.dataStore['endTime'])
cmds.playbackOptions(ps=self.dataStore['playSpeed'])
cmds.playbackOptions(loop=self.dataStore['playLoop'])
# unit management
cmds.currentUnit(time=self.dataStore['timeUnit'])
cmds.currentUnit(linear=self.dataStore['sceneUnits'])
if not cmds.upAxis(axis=True, q=True) == self.dataStore['upAxis']:
cmds.upAxis(axis=self.dataStore['upAxis'])
log.debug('Restored PlayBack / Timeline setup')
# viewport colors
cmds.displayPref(displayGradient=self.dataStore['displayGradient'])
cmds.displayRGBColor(resetToSaved=True)
# objects colors
cmds.displayColor("curve", self.dataStore['curvecolor'], dormant=True)
# panel management
for panel, data in self.dataStore['panelStore'].items():
try:
cmdString = data['settings'].replace('$editorName', panel)
mel.eval(cmdString)
log.debug("Restored Panel Settings Data >> %s" % panel)
mel.eval('lookThroughModelPanel("%s","%s")' % (data['activeCam'], panel))
log.debug("Restored Panel Active Camera Data >> %s >> cam : %s" % (panel, data['activeCam']))
except:
log.debug("Failed to fully Restore ActiveCamera Data >> %s >> cam : %s" % (panel, data['activeCam']))
# camera management
for cam, settings in self.dataStore['cameraTransforms'].items():
try:
cmds.setAttr('%s.translate' % cam, settings[0][0][0], settings[0][0][1], settings[0][0][2])
cmds.setAttr('%s.rotate' % cam, settings[1][0][0], settings[1][0][1], settings[1][0][2])
cmds.setAttr('%s.scale' % cam, settings[2][0][0], settings[2][0][1], settings[2][0][2])
log.debug('Restored Default Camera Transform Data : % s' % cam)
except:
log.debug("Failed to fully Restore Default Camera Transform Data : % s" % cam)
# sound management
if self.dataStore['displaySound']:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=1, sound=self.dataStore['activeSound'])
log.debug('Restored Audio setup')
else:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=0)
log.debug('Scene Restored fully')
return True
def restoreSettings(self):
'''
restore all UI settings
'''
cmds.autoKeyframe(state=self.dataStore['autoKey'])
# timeline management
cmds.currentTime(self.dataStore['currentTime'])
cmds.playbackOptions(min=self.dataStore['minTime'])
cmds.playbackOptions(max=self.dataStore['maxTime'])
cmds.playbackOptions(ast=self.dataStore['startTime'])
cmds.playbackOptions(aet=self.dataStore['endTime'])
cmds.playbackOptions(ps=self.dataStore['playSpeed'])
cmds.playbackOptions(loop=self.dataStore['playLoop'])
# unit management
cmds.currentUnit(time=self.dataStore['timeUnit'])
cmds.currentUnit(linear=self.dataStore['sceneUnits'])
if not cmds.upAxis(axis=True, q=True) == self.dataStore['upAxis']:
cmds.upAxis(axis=self.dataStore['upAxis'])
log.debug('Restored PlayBack / Timeline setup')
# viewport colors
cmds.displayPref(displayGradient=self.dataStore['displayGradient'])
cmds.displayRGBColor(resetToSaved=True)
# objects colors
cmds.displayColor("curve", self.dataStore['curvecolor'], dormant=True)
# panel management
for panel, data in self.dataStore['panelStore'].items():
try:
cmdString = data['settings'].replace('$editorName', panel)
mel.eval(cmdString)
log.debug("Restored Panel Settings Data >> %s" % panel)
mel.eval('lookThroughModelPanel("%s","%s")' % (data['activeCam'], panel))
log.debug("Restored Panel Active Camera Data >> %s >> cam : %s" % (panel, data['activeCam']))
except:
log.debug("Failed to fully Restore ActiveCamera Data >> %s >> cam : %s" % (panel, data['activeCam']))
# camera management
for cam, settings in self.dataStore['cameraTransforms'].items():
try:
cmds.setAttr('%s.translate' % cam, settings[0][0][0], settings[0][0][1], settings[0][0][2])
cmds.setAttr('%s.rotate' % cam, settings[1][0][0], settings[1][0][1], settings[1][0][2])
cmds.setAttr('%s.scale' % cam, settings[2][0][0], settings[2][0][1], settings[2][0][2])
log.debug('Restored Default Camera Transform Data : % s' % cam)
except:
log.debug("Failed to fully Restore Default Camera Transform Data : % s" % cam)
# sound management
if self.dataStore['displaySound']:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=1, sound=self.dataStore['activeSound'])
log.debug('Restored Audio setup')
else:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=0)
log.debug('Scene Restored fully')
return True
def distributeKeys(step=3.0, destructive=True, forceWholeFrames=True):
'''
operates on selected curves
'''
s = GraphSelection()
sel = cmds.ls(sl=1, fl=True)
rng = fr.Get()
if s.crvs:
# gather info
autoK = cmds.autoKeyframe(q=True, state=True)
frames = getKeyedFrames(s.crvs)
# process start/end of loop
framesNew = []
if rng.selection:
for f in frames:
if f >= rng.keyStart and f <= rng.keyEnd:
framesNew.append(f)
frames = framesNew
#
cut = []
# print frames
if forceWholeFrames:
framesOrig = frames
frames = [round(frame) for frame in frames]
framesPartial = list(set(framesOrig) - set(frames))
cut = [frame for frame in framesPartial]
# print cut, '______cut'
lastFrame = frames[len(frames) - 1]
count = frames[0]
i = frames[0]
# turn off autokey
cmds.autoKeyframe(state=False)
framesNew = []
# process keys
while i < lastFrame:
if i == count:
cmds.setKeyframe(s.crvs, i=True, t=count)
framesNew.append(count)
count = count + step
else:
if i in frames:
cut.append(i)
i = i + 1
# remove keys is destructive
if destructive:
framesDel = sorted(list(set(frames) - set(framesNew)))
for frame in framesDel:
cut.append(frame)
# print framesOrig, '________orig'
# print framesNew, '________new'
# print cut, '_________cut'
if cut:
for frame in cut:
if frame >= rng.keyStart and frame <= rng.keyEnd:
cmds.cutKey(sel, clear=1, time=(frame, frame))
# restore autokey
cmds.autoKeyframe(state=autoK)
else:
message('Select one or more anima curves', maya=1)
def snap_objects(driver, driven, bake=False, translate=True, rotate=True):
"""This function will take an object of list of objects (driven) and snap them in world space
translate and rotation to match the driver. If bake, do this across the time range"""
if not isinstance(driver, basestring) or not cmds.objExists(driver):
raise RuntimeError(
'{0} does not exist in the maya session'.format(driver))
if isinstance(driven, list):
for each in driven:
if not isinstance(each, basestring) or not cmds.objExists(each):
raise RuntimeError(
'{0} does not exist in the maya session'.format(each))
elif isinstance(driven, basestring):
if not cmds.objExists(driven):
raise RuntimeError(
'{0} does not exist in the maya session'.format(driven))
driven = [driven]
# if bake is off, snap a single frame
if not bake:
for each in driven:
match_tranformation(driver, each, translate, rotate)
# else
else:
# query the user's auto key state
autokey_enabled = cmds.autoKeyframe(query=True, state=True)
# query the current frame
current_frame = get_current_frame()
# set the keyable attributes
attributes = []
if translate:
attributes.append("translate")
if rotate:
attributes.append("rotate")
# turn off auto key. this is because for some reason using this bake process, the current
# frame doesn't get correctly snapped with autokey on
cmds.autoKeyframe(state=False)
# loop through the time range
start, end = get_timeline_range()
for i in range(start, (end + 1)):
# change the frame
cmds.setAttr("time1.outTime", int(i))
# loop through the selection and locator lists
for each in driven:
# snap the locator to the selection
match_tranformation(driver, each, translate, rotate)
# key the locator
cmds.setKeyframe(each,
time=i,
shape=False,
attribute=attributes)
# restore the current frame
cmds.setAttr("time1.outTime", current_frame)
# restore the autokey
cmds.autoKeyframe(state=autokey_enabled)
def setValue(mPlug, value, autoKey):
"""Set the argument value on the argument plug, setting an
autoKeyframe on that attribute, if autoKey is True.
The plug argument must be an MPlug."""
if autoKey:
cmds.autoKeyframe(edit=True, addAttr=mPlug.name())
plug.Plug(mPlug).value = value
def __exit__(self, *args):
#reset settings
mc.cycleCheck(evaluation=self.resetCycleCheck)
mc.autoKeyframe(state=self.resetAutoKey)
if self.sel:
mc.select(self.sel)
self.isolate(False)
def bakeTempLocator(self, startTime=None, endTime=None):
_str_func = 'PostBake.bakeTempLocator'
if startTime is None:
startTime = self.startTime
if endTime is None:
endTime = self.endTime
ct = mc.currentTime(q=True)
self._bakedLoc = cgmMeta.asMeta(LOC.create(name='bakeLoc'))
self._bakedLoc.rotateOrder = self.obj.rotateOrder
SNAP.matchTarget_set(self._bakedLoc.mNode, self.obj.mNode)
_len = endTime - startTime
_progressBar = cgmUI.doStartMayaProgressBar(_len, "Processing...")
_obj = VALID.objString(self._bakedLoc.mNode, noneValid=False)
_target = VALID.objString(
self.obj.mNode, noneValid=False
) #ATTR.get_message(_obj, 'cgmMatchTarget','cgmMatchDat',0)
ak = mc.autoKeyframe(q=True, state=True)
mc.autoKeyframe(state=False)
mc.refresh(su=True)
completed = True
for i in range(startTime, endTime + 1):
mc.currentTime(i)
SNAP.go(_obj, _target, True, True, pivot='rp')
mc.setKeyframe(_obj, at=['translate', 'rotate'])
if _progressBar:
if mc.progressBar(_progressBar, query=True, isCancelled=True):
log.warning('Bake cancelled!')
completed = False
break
mc.progressBar(_progressBar,
edit=True,
status=("{0} On frame {1}".format(_str_func,
i)),
step=1,
maxValue=_len)
mc.refresh(su=False)
mc.autoKeyframe(state=ak)
cgmUI.doEndMayaProgressBar(_progressBar)
mc.currentTime(ct)
return completed
def func(*args, **kwargs): initialState = cmd.autoKeyframe(q=True, state=True) cmd.autoKeyframe(state=False) try: ret = f(*args, **kwargs) except: raise finally: cmd.autoKeyframe(state=initialState) return ret
def __exit__(self, exc_type, exc_value, traceback):
# Close the undo chunk, warn if any exceptions were caught:
cmds.autoKeyframe(state=self.autoKeyState)
cmds.currentTime(self.timeStore)
log.info('autoKeyState restored: %s' % self.autoKeyState)
log.info('currentTime restored: %f' % self.timeStore)
cmds.undoInfo(closeChunk=True)
if exc_type:
log.exception('%s : %s'%(exc_type, exc_value))
# If this was false, it would re-raise the exception when complete
return True
def __exit__(self, exc_type, exc_value, traceback):
# Close the undo chunk, warn if any exceptions were caught:
cmds.autoKeyframe(state=self.autoKeyState)
cmds.currentTime(self.timeStore)
log.info('autoKeyState restored: %s' % self.autoKeyState)
log.info('currentTime restored: %f' % self.timeStore)
cmds.undoInfo(closeChunk=True)
if exc_type:
log.exception('%s : %s' % (exc_type, exc_value))
# If this was false, it would re-raise the exception when complete
return True
def func(*args, **kwargs):
initialState = cmd.autoKeyframe(q=True, state=True)
cmd.autoKeyframe(state=False)
try:
ret = f(*args, **kwargs)
except:
raise
finally:
cmd.autoKeyframe(state=initialState)
return ret
def actualFunc(*args): start = time.clock() initialAutoKeyState = cmd.autoKeyframe(q=True,state=True) cmd.autoKeyframe(state=False) api.mel.zooAllViews(0) retVal = f(*args) api.mel.zooAllViews(1) cmd.autoKeyframe(state=initialAutoKeyState) print 'time taken',time.clock()-start,'secs' return retVal
def actualFunc(*args):
start = time.clock()
initialAutoKeyState = cmd.autoKeyframe(q=True, state=True)
cmd.autoKeyframe(state=False)
api.mel.zooAllViews(0)
retVal = f(*args)
api.mel.zooAllViews(1)
cmd.autoKeyframe(state=initialAutoKeyState)
print 'time taken', time.clock() - start, 'secs'
return retVal
def restoreSettings(self):
'''
restore all UI settings
'''
cmds.autoKeyframe(state=self.dataStore['autoKey'])
#timeline management
cmds.currentTime(self.dataStore['currentTime'])
cmds.playbackOptions(min=self.dataStore['minTime'])
cmds.playbackOptions(max=self.dataStore['maxTime'])
cmds.playbackOptions(ast=self.dataStore['startTime'])
cmds.playbackOptions(aet=self.dataStore['endTime'])
cmds.playbackOptions(ps=self.dataStore['playSpeed'])
#unit management
cmds.currentUnit(time=self.dataStore['timeUnit'])
cmds.currentUnit(linear=self.dataStore['sceneUnits'])
cmds.upAxis(axis=self.dataStore['upAxis'])
log.info('Restored PlayBack / Timeline setup')
#panel management
for panel, data in self.dataStore['panelStore'].items():
cmdString = data['settings'].replace('$editorName', panel)
mel.eval(cmdString)
log.info("Restored Panel Settings Data >> %s" % panel)
mel.eval('lookThroughModelPanel("%s","%s")' %
(data['activeCam'], panel))
log.info("Restored Panel Active Camera Data >> %s >> cam : %s" %
(panel, data['activeCam']))
# camera management
for cam, settings in self.dataStore['cameraTransforms'].items():
cmds.setAttr('%s.translate' % cam, settings[0][0][0],
settings[0][0][1], settings[0][0][2])
cmds.setAttr('%s.rotate' % cam, settings[1][0][0],
settings[1][0][1], settings[1][0][2])
cmds.setAttr('%s.scale' % cam, settings[2][0][0],
settings[2][0][1], settings[2][0][2])
log.info('Restored Default Camera Transform Data : % s' % cam)
#sound management
if self.dataStore['displaySound']:
cmds.timeControl(self.gPlayBackSlider,
e=True,
ds=1,
sound=self.dataStore['activeSound'])
log.info('Restored Audio setup')
else:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=0)
return True
def __enter__(self):
self.sel = mc.ls(sl=True)
self.modelPanels = mc.getPanel(type='modelPanel')
self.isolate(True)
mc.select(clear=True)
#save and turn off settings that might print to the script editor
self.resetCycleCheck = mc.cycleCheck(query=True, evaluation=True)
mc.cycleCheck(evaluation=False)
self.resetAutoKey = mc.autoKeyframe(query=True, state=True)
mc.autoKeyframe(state=False)
def distributeKeys(count=3.0, destructive=True):
sel = cmds.ls(sl=1, fl=True)
rng = fr.Get()
if sel:
# gather info
autoK = cmds.autoKeyframe(q=True, state=True)
frames = getKeyedFrames(sel)
if not frames:
# add a bake if no keys exist, then get keys again
message('No keys found, setting a key start/end of range.', maya=1)
cmds.setKeyframe(sel, t=(rng.start, rng.start))
cmds.setKeyframe(sel, t=(rng.end, rng.end))
frames = getKeyedFrames(sel)
# return None
# process start/end of loop
framesNew = []
if rng.selection:
for f in frames:
if f >= rng.keyStart and f <= rng.keyEnd:
framesNew.append(f)
frames = framesNew
#
print frames
lastFrame = frames[len(frames) - 1]
step = frames[0]
i = frames[0]
cut = []
# turn off autokey
cmds.autoKeyframe(state=False)
# process keys
while i < lastFrame:
if i == step:
cmds.setKeyframe(sel, i=True, t=step)
step = step + count
else:
if i in frames:
cut.append(i)
i = i + 1
# remove keys is destructive
if destructive:
# print cut, '_________'
if cut:
for frame in cut:
cmds.cutKey(sel, clear=1, time=(frame, frame))
# restore autokey
cmds.autoKeyframe(state=autoK)
else:
message('Select one or more objects', maya=1)
def snapWorld():
sels = cmds.ls(sl=True)
if not sels: return
tc = mel.eval('$tmpVar=$gPlayBackSlider')
tcRange = range(
*[int(num) for num in cmds.timeControl(tc, q=True, rangeArray=True)])
if len(tcRange) == 1: tcRange.append(tcRange[0] + 1)
sel = sels[-1]
cmds.currentTime(tcRange[0])
cmds.autoKeyframe(state=True)
__keyFrameTransform__(sel, False)
tw = cmds.xform(sel, q=True, worldSpace=True, translation=True)
rw = cmds.xform(sel, q=True, worldSpace=True, rotation=True)
if len(sels) == 1:
for ct in tcRange[1:]:
cmds.currentTime(ct)
try:
cmds.xform(sel, translation=tw, worldSpace=True)
except:
pass
try:
cmds.xform(sel, rotation=rw, worldSpace=True)
except:
pass
__keyFrameTransform__(sel)
__keyFrameTransform__(sel, False)
else:
try:
cmds.parentConstraint(sels,
name='snapTargetParentConstraint',
maintainOffset=True)
except:
cmds.headsUpMessage(u'对象属性被锁定，无法吸附目标', time=1)
return
for ct in tcRange[1:]:
cmds.currentTime(ct)
__keyFrameTransform__(sel)
__keyFrameTransform__(sel, False)
cmds.delete('snapTargetParentConstraint')
cmds.currentTime(tcRange[-1])
cmds.timeControl(tc, e=True, forceRefresh=True)
def storeSettings(self):
'''
main work function, store all UI settings
'''
self.dataStore['autoKey'] = cmds.autoKeyframe(query=True, state=True)
# timeline management
self.dataStore['currentTime'] = cmds.currentTime(q=True)
self.dataStore['minTime'] = cmds.playbackOptions(q=True, min=True)
self.dataStore['maxTime'] = cmds.playbackOptions(q=True, max=True)
self.dataStore['startTime'] = cmds.playbackOptions(q=True, ast=True)
self.dataStore['endTime'] = cmds.playbackOptions(q=True, aet=True)
self.dataStore['playSpeed'] = cmds.playbackOptions(query=True,
playbackSpeed=True)
# unit management
self.dataStore['timeUnit'] = cmds.currentUnit(q=True,
fullName=True,
time=True)
self.dataStore['sceneUnits'] = cmds.currentUnit(q=True,
fullName=True,
linear=True)
self.dataStore['upAxis'] = cmds.upAxis(q=True, axis=True)
#panel management
self.dataStore['panelStore'] = {}
for panel in [
'modelPanel1', 'modelPanel2', 'modelPanel3', 'modelPanel4'
]:
if not cmds.modelPanel(panel, q=True, exists=True):
continue
self.dataStore['panelStore'][panel] = {}
self.dataStore['panelStore'][panel]['settings'] = cmds.modelEditor(
panel, q=True, sts=True)
activeCam = cmds.modelPanel(panel, q=True, camera=True)
if not cmds.nodeType(activeCam) == 'camera':
activeCam = cmds.listRelatives(activeCam)[0]
self.dataStore['panelStore'][panel]['activeCam'] = activeCam
#camera management
#TODO : store the camera field of view etc also
self.dataStore['cameraTransforms'] = {}
for cam in ['persp', 'top', 'side', 'front']:
self.dataStore['cameraTransforms'][cam] = [
cmds.getAttr('%s.translate' % cam),
cmds.getAttr('%s.rotate' % cam),
cmds.getAttr('%s.scale' % cam)
]
#sound management
self.dataStore['activeSound'] = cmds.timeControl(self.gPlayBackSlider,
q=True,
s=1)
self.dataStore['displaySound'] = cmds.timeControl(self.gPlayBackSlider,
q=True,
ds=1)
def restoreSettings(self):
'''
restore all UI settings
'''
cmds.autoKeyframe(state=self.dataStore['autoKey'])
#timeline management
cmds.currentTime(self.dataStore['currentTime'])
cmds.playbackOptions(min=self.dataStore['minTime'])
cmds.playbackOptions(max=self.dataStore['maxTime'])
cmds.playbackOptions(ast=self.dataStore['startTime'])
cmds.playbackOptions(aet=self.dataStore['endTime'])
cmds.playbackOptions(ps=self.dataStore['playSpeed'])
#unit management
cmds.currentUnit(time=self.dataStore['timeUnit'])
cmds.currentUnit(linear=self.dataStore['sceneUnits'])
cmds.upAxis(axis=self.dataStore['upAxis'])
log.info('Restored PlayBack / Timeline setup')
#panel management
for panel, data in self.dataStore['panelStore'].items():
cmdString = data['settings'].replace('$editorName', panel)
mel.eval(cmdString)
log.info("Restored Panel Settings Data >> %s" % panel)
mel.eval('lookThroughModelPanel("%s","%s")' % (data['activeCam'], panel))
log.info("Restored Panel Active Camera Data >> %s >> cam : %s" % (panel, data['activeCam']))
# camera management
for cam, settings in self.dataStore['cameraTransforms'].items():
cmds.setAttr('%s.translate' % cam, settings[0][0][0], settings[0][0][1], settings[0][0][2])
cmds.setAttr('%s.rotate' % cam, settings[1][0][0], settings[1][0][1], settings[1][0][2])
cmds.setAttr('%s.scale' % cam, settings[2][0][0], settings[2][0][1], settings[2][0][2])
log.info('Restored Default Camera Transform Data : % s' % cam)
#sound management
if self.dataStore['displaySound']:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=1, sound=self.dataStore['activeSound'])
log.info('Restored Audio setup')
else:
cmds.timeControl(self.gPlayBackSlider, e=True, ds=0)
return True
def replay(s, data):
"""
Places the data back onto the objects in the scene at the current time.
Accepts = { object : { attribute : [val1, val2, val3, ... ] } }
"""
frame = cmds.currentTime(q=True) # Current time to start at
index = 0 # Current index
# Validate objects and build a working set of data
validData = {}
for o, attrs in data.items():
if cmds.objExists(o): # Check for object existance
for at in attrs:
if cmds.attributeQuery(at, n=o, ex=True):
validData["%s.%s" % (o, at)] = data[o][at]
else:
print "%s.%s could not be found. Skipping!" % (o, at)
else:
print "%s could not be found. Skipping!" % o
# Ok our data is now valid. Lets get a posin! Phew. The final step...
if not validData: raise RuntimeError, "Nothing in the Clip to pose."
cmds.undoInfo(openChunk=True)
autokeyState = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False) # Turn off autokey
try: # Open undo block!
for attr, vals in validData.iteritems():
frames = len(vals) # Get length to iterate!
break
for i in range(frames):
cmds.currentTime(frame + i) # Jump to frame
for attr, vals in validData.iteritems(): # Lots of looping. :(
try:
cmds.setAttr(attr, vals[i])
cmds.setKeyframe(attr)
except RuntimeError as e:
print "Warning \"%s\" :: %s" % (attr, e)
print "Clip posed!"
finally:
cmds.autoKeyframe(state=autokeyState)
cmds.undoInfo(closeChunk=True)
def replay(s, data):
"""
Places the data back onto the objects in the scene at the current time.
Accepts = { object : { attribute : [val1, val2, val3, ... ] } }
"""
frame = cmds.currentTime(q=True) # Current time to start at
index = 0 # Current index
# Validate objects and build a working set of data
validData = {}
for o, attrs in data.items():
if cmds.objExists(o): # Check for object existance
for at in attrs:
if cmds.attributeQuery(at, n=o, ex=True):
validData["%s.%s" % (o, at)] = data[o][at]
else:
print "%s.%s could not be found. Skipping!" % (o, at)
else:
print "%s could not be found. Skipping!" % o
# Ok our data is now valid. Lets get a posin! Phew. The final step...
if not validData: raise RuntimeError, "Nothing in the Clip to pose."
cmds.undoInfo(openChunk=True)
autokeyState = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False) # Turn off autokey
try: # Open undo block!
for attr, vals in validData.iteritems():
frames = len(vals) # Get length to iterate!
break
for i in range(frames):
cmds.currentTime(frame + i) # Jump to frame
for attr, vals in validData.iteritems(): # Lots of looping. :(
try:
cmds.setAttr(attr, vals[i])
cmds.setKeyframe(attr)
except RuntimeError as e:
print "Warning \"%s\" :: %s" % (attr, e)
print "Clip posed!"
finally:
cmds.autoKeyframe(state=autokeyState)
cmds.undoInfo(closeChunk=True)
def __enter__(self):
self.autoKeyState = cmds.autoKeyframe(query=True, state=True)
self.timeStore['currentTime'] = cmds.currentTime(q=True)
self.timeStore['minTime'] = cmds.playbackOptions(q=True, min=True)
self.timeStore['maxTime'] = cmds.playbackOptions(q=True, max=True)
self.timeStore['startTime'] = cmds.playbackOptions(q=True, ast=True)
self.timeStore['endTime'] = cmds.playbackOptions(q=True, aet=True)
self.timeStore['playSpeed'] = cmds.playbackOptions(query=True, playbackSpeed=True)
# force AutoKey OFF
cmds.autoKeyframe(state=self.autokey)
if self.mangage_undo:
cmds.undoInfo(openChunk=True)
else:
cmds.undoInfo(swf=False)
if self.manage_em:
if r9Setup.mayaVersion() >= 2016:
self.evalmode = cmds.evaluationManager(mode=True, q=True)[0]
if self.evalmode == 'parallel':
evalManagerState(mode='off')
def __enter__(self):
self.autoKeyState = cmds.autoKeyframe(query=True, state=True)
self.timeStore['currentTime'] = cmds.currentTime(q=True)
self.timeStore['minTime'] = cmds.playbackOptions(q=True, min=True)
self.timeStore['maxTime'] = cmds.playbackOptions(q=True, max=True)
self.timeStore['startTime'] = cmds.playbackOptions(q=True, ast=True)
self.timeStore['endTime'] = cmds.playbackOptions(q=True, aet=True)
self.timeStore['playSpeed'] = cmds.playbackOptions(query=True, playbackSpeed=True)
# force AutoKey OFF
cmds.autoKeyframe(state=self.autokey)
if self.mangage_undo:
cmds.undoInfo(openChunk=True)
else:
cmds.undoInfo(swf=False)
if self.manage_em:
if r9Setup.mayaVersion() >= 2016:
self.evalmode = cmds.evaluationManager(mode=True, q=True)[0]
if self.evalmode == 'parallel':
evalManagerState(mode='off')
def autoKeyed():
"""Returns the attribute(s) that the autoKeyframe command will set.
The attribute(s) is returned in a set. If autoKeyframe is off, an
empty set is returned."""
# If autoKeyframe is off, nothing to do.
if not isEnabled():
return set()
autoKeyed = cmds.autoKeyframe(query=True, listAttr=True)
return set() if autoKeyed is None else set(autoKeyed)
def storeSettings(self):
'''
main work function, store all UI settings
'''
self.dataStore['autoKey'] = cmds.autoKeyframe(query=True, state=True)
# timeline management
self.dataStore['currentTime'] = cmds.currentTime(q=True)
self.dataStore['minTime'] = cmds.playbackOptions(q=True, min=True)
self.dataStore['maxTime'] = cmds.playbackOptions(q=True, max=True)
self.dataStore['startTime'] = cmds.playbackOptions(q=True, ast=True)
self.dataStore['endTime'] = cmds.playbackOptions(q=True, aet=True)
self.dataStore['playSpeed'] = cmds.playbackOptions(query=True, playbackSpeed=True)
self.dataStore['playLoop'] = cmds.playbackOptions(query=True, loop=True)
# unit management
self.dataStore['timeUnit'] = cmds.currentUnit(q=True, fullName=True, time=True)
self.dataStore['sceneUnits'] = cmds.currentUnit(q=True, fullName=True, linear=True)
self.dataStore['upAxis'] = cmds.upAxis(q=True, axis=True)
# viewport colors
self.dataStore['displayGradient'] = cmds.displayPref(q=True, displayGradient=True)
# objects colors
self.dataStore['curvecolor'] = cmds.displayColor("curve", q=True, dormant=True)
# panel management
self.dataStore['panelStore'] = {}
for panel in ['modelPanel1', 'modelPanel2', 'modelPanel3', 'modelPanel4']:
if not cmds.modelPanel(panel, q=True, exists=True):
continue
self.dataStore['panelStore'][panel] = {}
self.dataStore['panelStore'][panel]['settings'] = cmds.modelEditor(panel, q=True, sts=True)
activeCam = cmds.modelPanel(panel, q=True, camera=True)
if not cmds.nodeType(activeCam) == 'camera':
activeCam = cmds.listRelatives(activeCam, f=True)[0]
self.dataStore['panelStore'][panel]['activeCam'] = activeCam
# camera management
# TODO : store the camera field of view etc also
self.dataStore['cameraTransforms'] = {}
for cam in ['persp', 'top', 'side', 'front']:
try:
self.dataStore['cameraTransforms'][cam] = [cmds.getAttr('%s.translate' % cam),
cmds.getAttr('%s.rotate' % cam),
cmds.getAttr('%s.scale' % cam)]
except:
log.debug("Camera doesn't exists : %s" % cam)
# sound management
self.dataStore['activeSound'] = cmds.timeControl(self.gPlayBackSlider, q=True, s=1)
self.dataStore['displaySound'] = cmds.timeControl(self.gPlayBackSlider, q=True, ds=1)
def apply_operation(in_frame, out_frame, attr1, attr2, out_attr, func):
autokey = cmds.autoKeyframe(state=True, q=True)
err = cmds.undoInfo(openChunk=True)
try:
cmds.autoKeyframe(state=False)
# Collect data:
attr1_data = []
attr2_data = []
for frame in range(int(in_frame), int(out_frame) + 1):
attr1_data.append(cmds.getAttr(attr1, t=frame))
attr2_data.append(cmds.getAttr(attr2, t=frame))
for i, (at1, at2) in enumerate(zip(attr1_data, attr2_data)):
frame = i + in_frame
ans = func(at1, at2)
cmds.setKeyframe(out_attr, t=frame, v=ans)
except Exception as err:
raise
finally:
cmds.autoKeyframe(state=autokey)
cmds.undoInfo(closeChunk=True)
if err:
cmds.undo()
def addCharacter(self, close, *args):
project = cmds.optionMenu(self.widgets["project"], q=True, value=True)
selectedCharacter = cmds.textScrollList(self.widgets["characterList"],
q=True,
si=True)[0]
rigPath = self.mayaToolsDir + "/General/ART/Projects/" + project + "/AnimRigs/" + selectedCharacter + ".mb"
#find existing namespaces in scene
namespaces = cmds.namespaceInfo(listOnlyNamespaces=True)
#reference the rig file
cmds.file(rigPath,
r=True,
type="mayaBinary",
loadReferenceDepth="all",
namespace=selectedCharacter,
options="v=0")
#clear selection and fit view
cmds.select(clear=True)
#query autoKeyFrame state
if not cmds.autoKeyframe(q=True, state=True):
cmds.viewFit()
#cmds.viewFit()
panels = cmds.getPanel(type='modelPanel')
#turn on smooth shading
for panel in panels:
editor = cmds.modelPanel(panel, q=True, modelEditor=True)
cmds.modelEditor(editor,
edit=True,
displayAppearance="smoothShaded",
displayTextures=True,
textures=True)
#find new namespaces in scene (this is here in case I need to do something later and I need the new name that was created)
newCharacterName = selectedCharacter
newNamespaces = cmds.namespaceInfo(listOnlyNamespaces=True)
for name in newNamespaces:
if name not in namespaces:
newCharacterName = name
#launch UI
import ART_animationUI
reload(ART_animationUI)
ART_animationUI.AnimationUI()
if close:
cmds.deleteUI(self.widgets["window"])
def __exit__(self, exc_type, exc_value, traceback):
# Close the undo chunk, warn if any exceptions were caught:
cmds.autoKeyframe(state=self.autoKeyState)
log.info('autoKeyState restored: %s' % self.autoKeyState)
if self.manage_em and self.evalmode:
evalManagerState(mode=self.evalmode)
log.info('evalManager restored: %s' % self.evalmode)
if self.manage_time:
cmds.currentTime(self.timeStore['currentTime'])
cmds.playbackOptions(min=self.timeStore['minTime'])
cmds.playbackOptions(max=self.timeStore['maxTime'])
cmds.playbackOptions(ast=self.timeStore['startTime'])
cmds.playbackOptions(aet=self.timeStore['endTime'])
cmds.playbackOptions(ps=self.timeStore['playSpeed'])
log.info('currentTime restored: %f' % self.timeStore['currentTime'])
if self.mangage_undo:
cmds.undoInfo(closeChunk=True)
else:
cmds.undoInfo(swf=True)
if exc_type:
log.exception('%s : %s'%(exc_type, exc_value))
# If this was false, it would re-raise the exception when complete
return True
def extractShp(normalPoseFrame, downPoseFrame, upPoseFrame, geo):
'''
Description:
Main function.
Extract target shape for selected controls.
Select controls and select geometry last.
Arguments:
normalPoseFrame(int)
downPoseFrame(int)
upPoseFrame(int)
geo(string)
Returns:
Nothing
'''
cmds.autoKeyframe(state = False)
ctrls = cmds.ls(sl = True)
# Unlock translate attribute of geo
cmds.setAttr('%s.translate' %geo, lock = False)
for ctrl in ctrls:
# Go to the down pose frame and get translate and rotate
ctrlTrns, ctrlRo = getTrRo(ctrl, downPoseFrame)
# Back to the normal pose frame and extract target
duplicateGeo(normalPoseFrame, ctrl, ctrlTrns, ctrlRo, geo, 'down')
# Go to the up pose frame and get translate and rotate
ctrlTrns, ctrlRo = getTrRo(ctrl, upPoseFrame)
# Back to the normal pose frame and extract target
duplicateGeo(normalPoseFrame, ctrl, ctrlTrns, ctrlRo, geo, 'up')
def transferAnimation(markers, mocap, offsets, frameNumber, areDividedMarkers):
cmds.autoKeyframe(state=True)
markerGroupOffset = getObjectPoint(markers)
mocapGroupOffset = getObjectPoint(mocap)
markersList = []
if (areDividedMarkers):
markersParents = cmds.listRelatives(markers)
for i in range(len(markersParents)):
markersList += cmds.listRelatives(markersParents[i])
markersList = sorted(markersList)
else:
markersList = cmds.listRelatives(markers)
cmds.currentTime(frameNumber)
for i in range(len(markersList)):
mocapPoint = getObjectPoint(markersList[i][:-4])
newMarkerPoint = [
mocapPoint[0] + mocapGroupOffset[0] + offsets[i][0],
mocapPoint[1] + mocapGroupOffset[1] + offsets[i][1],
mocapPoint[2] + mocapGroupOffset[2] + offsets[i][2]
]
cmds.setAttr(markersList[i] + ".translateX",
newMarkerPoint[0] - markerGroupOffset[0])
cmds.setAttr(markersList[i] + ".translateY",
newMarkerPoint[1] - markerGroupOffset[1])
cmds.setAttr(markersList[i] + ".translateZ",
newMarkerPoint[2] - markerGroupOffset[2])
cmds.setKeyframe(markersList[i])
def addCharacter(self, close, *args):
project = cmds.optionMenu(self.widgets["project"], q = True, value = True)
selectedCharacter = cmds.textScrollList(self.widgets["characterList"], q = True, si = True)[0]
rigPath = self.mayaToolsDir + "/General/ART/Projects/" + project + "/AnimRigs/" + selectedCharacter + ".mb"
#find existing namespaces in scene
namespaces = cmds.namespaceInfo(listOnlyNamespaces = True)
#reference the rig file
cmds.file(rigPath, r = True, type = "mayaBinary", loadReferenceDepth = "all", namespace = selectedCharacter, options = "v=0")
#clear selection and fit view
cmds.select(clear = True)
#query autoKeyFrame state
if not cmds.autoKeyframe(q = True, state = True):
cmds.viewFit()
#cmds.viewFit()
panels = cmds.getPanel(type = 'modelPanel')
#turn on smooth shading
for panel in panels:
editor = cmds.modelPanel(panel, q = True, modelEditor = True)
cmds.modelEditor(editor, edit = True, displayAppearance = "smoothShaded", displayTextures = True, textures = True )
#find new namespaces in scene (this is here in case I need to do something later and I need the new name that was created)
newCharacterName = selectedCharacter
newNamespaces = cmds.namespaceInfo(listOnlyNamespaces = True)
for name in newNamespaces:
if name not in namespaces:
newCharacterName = name
#launch UI
import ART_animationUI
reload(ART_animationUI)
ART_animationUI.AnimationUI()
if close:
cmds.deleteUI(self.widgets["window"])
#**********************************************************************************
#********************* IK FK switch matching **********************************
#**********************************************************************************
import maya.cmds as cmds
akf = cmds.autoKeyframe(q=True, state=True)
if akf:
cmds.autoKeyframe(state=0)
selecList = cmds.ls(sl=True)
for selection in selecList:
if "IK" in selection or "FK" in selection:
namespace = selection.split(':')
namespace = namespace[0]+":" if len(namespace)>1 else ""
ctrl_IK =""
ctrl_IK_pole = ""
ctrls_FK_tip = ""
ctrls_FK_mid = ""
ctrls_FK_base = ""
ctrl_IK_FK_switch = ""
jnt_base = ""
jnt_mid = ""
lc_base = ""
lc_mid = ""
if "ctrl_arm_IK_left" == selection or "ctrl_hand_FK_left" == selection:
ctrl_IK = namespace+"ctrl_arm_IK_left"
ctrl_IK_pole = namespace+"ctrl_elbow_IK_left"
ctrls_FK_tip = namespace+"ctrl_hand_FK_left"
ctrls_FK_mid = namespace+"ctrl_elbow_FK_left"
def __init__( self, *args ):
self.get_global()
selected = cmds.ls( sl = True )
controller_list = {}
opposite_set = None
auto_key = cmds.autoKeyframe( st = True, q = True )
if auto_key:
cmds.autoKeyframe( st = False )
if selected:
for obj in selected:
obj_set_attr = '{0}.{1}'.format( obj, self.set_parent_str )
if cmds.objExists( obj_set_attr ):
obj_set = cmds.listConnections( obj_set_attr )
if obj_set:
obj_set = obj_set[0]
opposite_set_attr = '{0}.{1}'.format( obj_set, self.opposite_set_str )
if cmds.objExists( opposite_set_attr ):
opposite_set = cmds.listConnections( opposite_set_attr )
if opposite_set:
opposite_set = opposite_set[0]
for controller in cmds.sets( opposite_set, q = True ):
controller_order_attr = '{0}.{1}'.format( controller, self.snap_order_attr )
if cmds.objExists( controller_order_attr ):
controller_order = cmds.getAttr( controller_order_attr )
if controller_order:
controller_order = int( controller_order[0] )
controller_list[controller_order] = controller
for controller in controller_list.values():
obj_snap_attr = '{0}.{1}'.format( controller, self.snap_parent_str )
print obj_snap_attr
if cmds.objExists( obj_snap_attr ):
snap_obj = cmds.listConnections( obj_snap_attr )
if snap_obj:
snap_obj = snap_obj[0]
tra = cmds.xform( snap_obj, ws = True, rp = True, q = True )
rot = cmds.xform( snap_obj, ws = True, ro = True, q = True )
try:
cmds.xform( controller, ws = True, t = tra )
except:
pass
try:
cmds.xform( controller, ws = True, ro = rot )
except:
try:
rot_x = cmds.getAttr( '{0}.rotateX'.format( snap_obj ) )
cmds.setAttr( '{0}.rotateX'.format( controller ), rot_x )
except:
pass
try:
rot_x = cmds.getAttr( '{0}.rotateY'.format( snap_obj ) )
cmds.setAttr( '{0}.rotateY'.format( controller ), rot_x )
except:
pass
try:
rot_x = cmds.getAttr( '{0}.rotateZ'.format( snap_obj ) )
cmds.setAttr( '{0}.rotateZ'.format( controller ), rot_x )
except:
pass
if not opposite_set:
OpenMaya.MGlobal.displayError( "Can not find FKIK Snap on selected controller!" )
else:
switch_attr = cmds.listConnections( '{0}.{1}'.format( opposite_set, self.switch_parent_str ), plugs = True )[0]
current_time = cmds.currentTime( query = True )
cmds.setKeyframe( switch_attr, time = current_time - 1 )
cmds.setKeyframe( cmds.sets( obj_set, q = True ), cmds.sets( opposite_set, q = True ) )
if cmds.getAttr( switch_attr ) == 0:
cmds.setAttr( switch_attr, 1 )
elif cmds.getAttr( switch_attr ) == 1:
cmds.setAttr( switch_attr, 0 )
cmds.setKeyframe( switch_attr )
else:
OpenMaya.MGlobal.displayError( "You need to select a controller!" )
if auto_key:
cmds.autoKeyframe( st = True )
cmds.select( cl = True )
cmds.rowColumnLayout('drvrRowColLo', p = 'mainColLo', numberOfColumns = 5)
cmds.textField('drvrTxtFld', p = 'drvrRowColLo', text = 'Driver Object')
cmds.text(p = 'drvrRowColLo', label = '.')
cmds.textField('drvrAttrTxtFld', p = 'drvrRowColLo', text = 'Driver Attribute')
cmds.textField('drvrMinValTxtFld', p = 'drvrRowColLo', text = 'Min Value')
cmds.textField('drvrMaxTxtFld', p = 'drvrRowColLo', text = 'Max Value')
cmds.window(winName, e = True, w = 300, h = 300)
cmds.showWindow(winName)
# Transfer Attributes Value to Parent #
selLs = cmds.ls(sl = True)
cmds.autoKeyframe(state = False)
for sel in selLs:
loc = sel
prnt = cmds.listRelatives(loc, p = True)[0]
attrList = cmds.listAttr(loc, keyable = True)
for attr in attrList:
locAttrVal = cmds.getAttr('%s.%s' %(loc, attr))
cmds.setAttr('%s.%s' %(prnt, attr), locAttrVal)
# Set default value for locator attribute
if 'scale' in attr or 'visibility' in attr:
dftVal = 1
else:
dftVal = 0
cmds.setAttr('%s.%s' %(loc, attr), dftVal)
def __enter__(self):
self.autoKeyState = cmds.autoKeyframe(query=True, state=True)
self.time = int(cmds.currentTime(q=True))
self.selection = cmds.ls(sl=True)
def __enter__(self):
self.autoKeyState=cmds.autoKeyframe(query=True, state=True)
self.timeStore=cmds.currentTime(q=True)
cmds.undoInfo(openChunk=True)
def matchValue_iterator(matchObj = None,
matchAttr = None,
drivenObj = None,
drivenAttr = None,
driverAttr = None,
minIn = -179, maxIn = 179, maxIterations = 40, matchValue = None,
iterMode = 'step'):
"""
Started with Jason Schleifer's afr js_iterator and 'tweaked'
matchObj - The object to match to the driven
driven - the object moved by the driver
"""
_str_func = 'matchValue_iterator'
log.debug("|{0}| >> ...".format(_str_func))
if type(minIn) not in [float,int]:raise ValueError,"matchValue_iterator>>> bad minIn: %s"%minIn
if type(maxIn) not in [float,int]:raise ValueError,"matchValue_iterator>>> bad maxIn: %s"%maxIn
__matchMode__ = False
#>>> Data gather and arg check
mi_matchObj = cgmMeta.validateObjArg(matchObj,'cgmObject',noneValid=True)
d_matchAttr = cgmMeta.validateAttrArg(matchAttr,noneValid=True)
if mi_matchObj:
__matchMode__ = 'matchObj'
minValue = minIn
maxValue = maxIn
elif d_matchAttr:
__matchMode__ = 'matchAttr'
elif matchValue is not None:
__matchMode__ = 'value'
else:
raise ValueError,"|{0}| >> No match given. No matchValue given".format(_str_func)
__drivenMode__ = False
mi_drivenObj = None
if drivenObj and drivenAttr:
d_drivenAttr = cgmMeta.validateAttrArg("{0}.{1}".format(drivenObj,drivenAttr),noneValid=True)
else:
mi_drivenObj = cgmMeta.validateObjArg(drivenObj,'cgmObject',noneValid=True)
d_drivenAttr = cgmMeta.validateAttrArg(drivenAttr,noneValid=True)
if mi_drivenObj and not drivenAttr:#not an object match but a value
__drivenMode__ = 'object'
elif d_drivenAttr:
__drivenMode__ = 'attr'
mPlug_driven = d_drivenAttr['mi_plug']
f_baseValue = mPlug_driven.value
minRange = float(f_baseValue - 10)
maxRange = float(f_baseValue + 10)
mPlug_driven
log.debug("|{0}| >> Attr mode. Attr: {1} | baseValue: {2} ".format(_str_func,mPlug_driven.p_combinedShortName,f_baseValue))
else:
raise ValueError,"|{0}| >> No driven given".format(_str_func)
d_driverAttr = cgmMeta.validateAttrArg(driverAttr,noneValid=False)
mPlug_driver = d_driverAttr['mi_plug']
if not mPlug_driver:
raise ValueError,"|{0}| >> No driver given".format(_str_func)
log.debug("|{0}| >> Source mode: {1} | Target mode: {2}| Driver: {3}".format(_str_func,__matchMode__,__drivenMode__,mPlug_driver.p_combinedShortName))
# Meat ==========================================================================================
b_autoFrameState = mc.autoKeyframe(q=True, state = True)
if b_autoFrameState:
mc.autoKeyframe(state = False)
minValue = float(minIn)
maxValue = float(maxIn)
minUse = copy.copy(minValue)
maxUse = copy.copy(maxValue)
f_lastClosest = None
f_lastValue = None
cnt_sameValue = 0
b_matchFound = None
b_firstIter = True
d_valueToSetting = {}
#Source type: value
for i in range(maxIterations):
if __matchMode__ == 'value':
if __drivenMode__ == 'attr':
if iterMode == 'bounce':
log.debug("matchValue_iterator>>> Step : %s | min: %s | max: %s | baseValue: %s | current: %s"%(i,minValue,maxValue,f_baseValue,mPlug_driven.value))
if MATH.is_float_equivalent(mPlug_driven.value,matchValue,3):
log.debug("matchValue_iterator>>> Match found: %s == %s | %s: %s | step: %s"%(mPlug_driven.p_combinedShortName,matchValue,mPlug_driver.p_combinedShortName,minValue,i))
b_matchFound = minValue
break
f_currentDist = abs(matchValue-mPlug_driven.value)
mPlug_driver.value = minValue#Set to min
f_minDist = abs(matchValue-mPlug_driven.value)#get Dif
f_minSetValue = mPlug_driven.value
mPlug_driver.value = maxValue#Set to max
f_maxDist = abs(matchValue-mPlug_driven.value)#Get dif
f_maxSetValue = mPlug_driven.value
f_half = ((maxValue-minValue)/2.0) + minValue#get half
#First find range
if f_minSetValue > matchValue or f_maxSetValue < matchValue:
log.error("Bad range, alternate range find. minSetValue = %s > %s < maxSetValue = %s"%(f_minSetValue,matchValue,f_maxSetValue))
if not MATH.is_float_equivalent(matchValue,0) and not MATH.is_float_equivalent(minValue,0) and not MATH.is_float_equivalent(f_minSetValue,0):
#if none of our values are 0, this is really fast
minValue = (minValue * matchValue)/f_minSetValue
log.debug("matchValue_iterator>>> Equated: %s"%minValue)
f_closest = f_minDist
mPlug_driver.value = minValue#Set to min
else:
if f_minDist>f_maxDist:#if min dif greater, use half as new min
if f_half < minIn:
raise StandardError, "half min less than minValue"
f_half = minIn
minValue = f_half
#log.debug("matchValue_iterator>>>Going up")
f_closest = f_minDist
else:
if f_half > maxIn:
raise StandardError, "half max less than maxValue"
f_half = maxIn
maxValue = f_half
#log.debug("matchValue_iterator>>>Going down")
f_closest = f_maxDist
elif iterMode == 'step':
currentDriven = mPlug_driven.value
if i == 0:
log.debug("|{0}| >> First step getting base data...".format(_str_func))
f_lastValue = currentDriven
_stepSmall = .000001
minStep = _stepSmall
_stepBig = 10
f_stepBase = mPlug_driver.value
f_stepEnd = f_stepBase + _stepBig
"""
mPlug_driver.value = currentDriven + .1
f_up = mPlug_driven.value
mPlug_driver.value = currentDriven - .1
f_down = mPlug_driven.value
diff_up = abs(f_baseValue - f_down)
diff_dn = abs(f_baseValue - f_up)
log.debug("|{0}| >> up :{1} | down: {2}".format(_str_func,diff_up,diff_dn))
if diff_up > diff_dn:
_dir = 'up'
_mult = 1
else:
_dir = 'dn'
_mult = -1"""
log.info(cgmGEN._str_subLine)
log.debug("|{0}| >> Iter :{1} | stepBase: {2} | stepEnd: {5} | step: {6} | current: {3} | match: {4}".format(_str_func,
i,
f_stepBase,
currentDriven,
matchValue,
f_stepEnd,
_stepBig))
if MATH.is_float_equivalent(currentDriven,matchValue,3):
log.debug("|{0}| >> Match found...".format(_str_func))
b_matchFound = f_stepBase
break
f_currentDist = (matchValue-currentDriven)
mPlug_driver.value = f_stepBase#setp min
f_minValue = mPlug_driven.value
f_minDist = (matchValue-mPlug_driven.value)#get Dif
mPlug_driver.value = f_stepEnd
f_maxDist = (matchValue-mPlug_driven.value)#Get dif
f_maxValue = mPlug_driven.value
f_stepHalf = f_stepBase + ((_stepBig/2.0))
f_half = f_stepHalf
mPlug_driver.value = f_half
f_halfDist = (matchValue-mPlug_driven.value)#Get dif
f_halfValue = mPlug_driven.value
log.debug("|{0}| >> minValue: {1} | halfValue: {3} | maxValue: {2} | current: {4}".format(_str_func,f_minValue,f_maxValue,f_halfValue,currentDriven))
log.debug("|{0}| >> minDist: {1} | halfDist: {3} | maxDist: {2} | | currentDist: {4}".format(_str_func,f_minDist,f_maxDist,f_halfDist,f_currentDist))
log.debug("|{0}| >> baseStep: {1} | halfStep: {3} | endStep: {2} | ".format(_str_func,f_stepBase,f_stepEnd,f_stepHalf))
if matchValue > f_minValue and matchValue < f_maxValue:
log.debug("|{0}| >> Between...".format(_str_func))
#(minStep *_mult)
if matchValue < f_halfValue:
log.debug("|{0}| >> Less than half".format(_str_func))
f_stepBase = f_stepBase
f_stepEnd = f_stepHalf
elif matchValue > f_halfValue:
log.debug("|{0}| >> more than half".format(_str_func))
f_stepBase = f_stepHalf
f_stepEnd = f_stepBase + (_stepBig)
else:
f_stepBase = f_stepBase + (_stepSmall)
_stepBig = _stepBig/2.0
#minStep = f_lastValue + minStep
elif matchValue > f_maxValue:
log.debug("|{0}| >> Greater".format(_str_func))
_dir = 'up'
_mult = 1
_stepBig = 10
f_stepBase = f_stepEnd
f_stepEnd = f_stepEnd + (_stepBig)
elif matchValue < f_minValue:
log.debug("|{0}| >> Less...".format(_str_func))
_dir = 'dn'
_stepBig = -10
f_stepBase = f_stepBase + (_stepBig)
f_stepEnd = f_stepBase + (_stepBig)
else:
raise ValueError,"nope"
f_closest = f_stepBase
#Old method
"""
mPlug_driver.value = minValue#Set to min
f_minDist = abs(matchValue-mPlug_driven.value)#get Dif
f_minSetValue = mPlug_driven.value
mPlug_driver.value = maxValue#Set to max
f_maxDist = abs(matchValue-mPlug_driven.value)#Get dif
f_maxSetValue = mPlug_driven.value
f_half = ((maxValue-minValue)/2.0) + minValue#get half
#First find range
if not MATH.is_float_equivalent(matchValue,0) and not MATH.is_float_equivalent(minValue,0) and not MATH.is_float_equivalent(f_minSetValue,0):
#if none of our values are 0, this is really fast
minValue = (minValue * matchValue)/f_minSetValue
log.debug("matchValue_iterator>>> Equated: %s"%minValue)
f_closest = f_minDist
mPlug_driver.value = minValue#Set to min
elif b_firstIter:
log.debug("matchValue_iterator>>> first iter. Trying matchValue: %s"%minValue)
b_firstIter = False
minValue = matchValue
f_closest = f_minDist
elif f_minSetValue > matchValue or f_maxSetValue < matchValue:
log.debug("matchValue_iterator>>> Finding Range....")
if matchValue < mPlug_driven.value:
#Need to shift our range down
log.debug("matchValue_iterator>>> Down range: minSetValue: %s"%f_minSetValue)
f_baseValue = f_maxDist
minValue = f_baseValue - f_minDist
maxValue = f_baseValue + f_minDist
f_closest = f_minDist
elif matchValue > mPlug_driven.value:
#Need to shift our range up
log.debug("matchValue_iterator>>> Up range: maxSetValue: %s"%f_maxSetValue)
f_baseValue = f_minDist
minValue = f_baseValue - f_maxDist
maxValue = f_baseValue + f_maxDist
f_closest = f_maxDist
else:
if f_minDist>f_maxDist:#if min dif greater, use half as new min
if f_half < minIn:f_half = minIn
minValue = f_half
#log.debug("matchValue_iterator>>>Going up")
f_closest = f_minDist
else:
if f_half > maxIn:f_half = maxIn
maxValue = f_half
#log.debug("matchValue_iterator>>>Going down")
f_closest = f_maxDist"""
#log.debug("matchValue_iterator>>>f1: %s | f2: %s | f_half: %s"%(f_minDist,f_maxDist,f_half))
#log.debug("#"+'-'*50)
if f_closest == f_lastClosest:
cnt_sameValue +=1
if cnt_sameValue >3:
log.error("matchValue_iterator>>> Value unchanged. Bad Driver. lastValue: %s | currentValue: %s"%(f_lastValue,mPlug_driven.value))
break
else:
cnt_sameValue = 0
f_lastClosest = f_closest
else:
log.warning("matchValue_iterator>>> driven mode not implemented with value mode: %s"%__drivenMode__)
break
#>>>>>matchObjMode
elif __matchMode__ == 'matchObj':
pos_match = mc.xform(mi_matchObj.mNode, q=True, ws=True, rp=True)
pos_driven = mc.xform(mi_drivenObj.mNode, q=True, ws=True, rp=True)
log.debug("matchValue_iterator>>> min: %s | max: %s | pos_match: %s | pos_driven: %s"%(minValue,maxValue,pos_match,pos_driven))
if MATH.is_vector_equivalent(pos_match,pos_driven,2):
log.debug("matchValue_iterator>>> Match found: %s <<pos>> %s | %s: %s | step: %s"%(mi_matchObj.getShortName(),mi_drivenObj.getShortName(),mPlug_driver.p_combinedShortName,minValue,i))
b_matchFound = mPlug_driver.value
break
mPlug_driver.value = minValue#Set to min
pos_min = mc.xform(mi_drivenObj.mNode, q=True, ws=True, rp=True)
#f_minDist = MATH.mag( MATH.list_subtract(pos_match,pos_min))#get Dif
f_minDist = distance.returnDistanceBetweenObjects(mi_drivenObj.mNode,mi_matchObj.mNode)
mPlug_driver.value = maxValue#Set to max
pos_max = mc.xform(mi_drivenObj.mNode, q=True, ws=True, rp=True)
f_maxDist = distance.returnDistanceBetweenObjects(mi_drivenObj.mNode,mi_matchObj.mNode)
f_half = ((maxValue-minValue)/2.0) + minValue#get half
if f_minDist>f_maxDist:#if min dif greater, use half as new min
minValue = f_half
f_closest = f_minDist
else:
maxValue = f_half
f_closest = f_maxDist
if f_minDist==f_maxDist:
minValue = minValue + .1
if f_closest == f_lastClosest:
cnt_sameValue +=1
if cnt_sameValue >3:
log.error("matchValue_iterator>>> Value unchanged. Bad Driver. lastValue: %s | currentValue: %s"%(f_lastValue,mPlug_driver.value))
break
else:
cnt_sameValue = 0
f_lastClosest = f_closest
log.debug("matchValue_iterator>>>f1: %s | f2: %s | f_half: %s"%(f_minDist,f_maxDist,f_half))
log.debug("#"+'-'*50)
else:
log.warning("matchValue_iterator>>> matchMode not implemented: %s"%__matchMode__)
break
#>>> Check autokey back on
if b_autoFrameState:
mc.autoKeyframe(state = True)
if b_matchFound is not None:
return b_matchFound
#log.warning("matchValue_iterator>>> Failed to find value for: %s"%mPlug_driven.p_combinedShortName)
return False
def restore(self, useSelected=False, offset=[]):
'''
restore animation
'''
reOrder = False
if useSelected:
self.obj = cmds.ls(sl=1)[0]
rooPut = cmds.getAttr(self.obj + '.rotateOrder')
if self.rooGet != rooPut:
reOrder = True
print 'reorder'
# type of restore
if self.poseOnly:
# find if obj is keyed, if keyed insert key otherwise setAttr
pass
else:
if self.keys:
current = cmds.currentTime(q=True)
# ui off
cn.uiEnable(controls='modelPanel')
# autokey state
autoK = cmds.autoKeyframe(q=True, state=True)
cmds.autoKeyframe(state=False)
i = 0
for key in self.keys:
if key >= self.rng.keyStart and key <= self.rng.keyEnd:
cmds.currentTime(key)
cmds.xform(self.obj, t=self.pos[i], ws=True)
# new method for applying rotations, accounts for differences in rotation order
if reOrder:
self.rot[i] = reorderAngles(matrix=self.mtrx[i], rooOld=self.rooGet, rooNew=rooPut)
cmds.xform(self.obj, ro=self.rot[i], ws=True)
'''
# removed due to crappyness, applying matrix messes with jointOrient Value
if cmds.nodeType(self.obj) == 'lol':
cmds.xform(self.obj, t=self.pos[i], ws=True)
if reOrder:
rot[i] = reorderAngles(matrix=mtrx[i], rooOld=rooGet, rooNew=rooPut)
cmds.xform(self.obj, ro=self.rot[i], ws=True)
else:
cmds.xform(self.obj, m=self.mtrx[i], ws=True)
'''
# object space offset X, Y, Z
if offset:
# objects need to be in same rotate order space
# add feature to translate values to different rotate orders
cmds.xform(self.obj, r=True, os=True, ro=(offset[0], 0, 0))
cmds.xform(self.obj, r=True, os=True, ro=(0, offset[1], 0))
cmds.xform(self.obj, r=True, os=True, ro=(0, 0, offset[2]))
# account for non-keyable rotate or translate attrs
cmds.setKeyframe(self.obj + '.rotate')
cmds.setKeyframe(self.obj + '.translate')
# getCurves for translate and rotate
# crv = getAnimCurves(self.obj)
cn.eulerFilter(self.obj, tangentFix=True)
else:
pass
# print 'nope'
i = i + 1
# tangent fix
# cn.eulerFilter(crv, tangentFix=True)
# restore everything
cmds.currentTime(current)
cmds.autoKeyframe(state=autoK)
cn.uiEnable(controls='modelPanel')
else:
message('No keys.', maya=True)
def _update_inversion_for_deformer(deformer):
# The deformer outputs to the inverted mesh, which then generally goes into a blendShape
# and then a skinCluster to get the final mesh. We need to figure out how changes to
# the inverted mesh affect the final output mesh that the user is sculpting.
#
# First, we need to find the inverted mesh. This is the first mesh in our future.
# Note that the deformer could be plugged directly into the blendShape, but if this
# is done, we have no mesh to modify to do this.
#
# Doing this instead of just looking at .outputGeometry avoids problems when Maya
# silently adds helper nodes between us and the geometry, such as createColorSet.
inverted_shape = _find_inverted_shape_for_deformer(deformer)
if not inverted_shape:
raise Exception('Couldn\'t find the output inverted mesh for "%s".' % deformer)
# Get the mesh that's being sculpted.
posed_mesh = _get_active_sculpting_mesh_for_deformer(deformer)
if not posed_mesh:
OpenMaya.MGlobal.displayError('Deformer "%s" isn\'t being sculpted.' % deformer)
return
# Temporarily disable the deformer.
old_node_state = cmds.getAttr('%s.nodeState' % deformer)
cmds.setAttr('%s.nodeState' % deformer, 1)
# In 2016 SP1, auto-keyframe makes cmds.move extremely slow, so disable it while we
# do this.
old_autokeyframe = cmds.autoKeyframe(q=True, st=True)
cmds.autoKeyframe(st=False)
try:
# We need to find out the effect that translating the blend shape vertices
# has. Do this by moving vertices on the actual blend shape. We've disabled
# the deformer while we test this.
# The base shape data:
basePoints = _get_mesh_points(posed_mesh)
# The base shape after being deformed on each axis:
cmds.move(1, 0, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
xPoints = _get_mesh_points(posed_mesh)
cmds.move(-1, 0, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
cmds.move(0, 1, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
yPoints = _get_mesh_points(posed_mesh)
cmds.move(0, -1, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
cmds.move(0, 0, 1, '%s.vtx[*]' % inverted_shape, r=True, os=True)
zPoints = _get_mesh_points(posed_mesh)
cmds.move(0, 0, -1, '%s.vtx[*]' % inverted_shape, r=True, os=True)
# If moving points has no effect, something's wrong. The blend shape may not
# be enabled, or there could be another deformer in the way that's replacing
# the shape entirely.
if basePoints and abs(basePoints[0].x - xPoints[0].x) < 0.001:
OpenMaya.MGlobal.displayError('Moving the inverted mesh isn\'t moving the output mesh. Is the blend shape for this mesh enabled?')
return
finally:
# Restore the deformer's state.
cmds.setAttr('%s.nodeState' % deformer, old_node_state)
# Restore autoKeyframe.
cmds.autoKeyframe(st=old_autokeyframe)
# Calculate the inversion matrices.
deformer_node = _get_mobject(deformer)
inversion_matrix_plug = OpenMaya.MFnDependencyNode(deformer_node).findPlug('inversionMatrix', False)
fnMatrixData = OpenMaya.MFnMatrixData()
for i in xrange(basePoints.length()):
matrix = OpenMaya.MMatrix()
_set_matrix_row(matrix, 0, xPoints[i] - basePoints[i])
_set_matrix_row(matrix, 1, yPoints[i] - basePoints[i])
_set_matrix_row(matrix, 2, zPoints[i] - basePoints[i])
matrix = matrix.inverse()
matrix_node = fnMatrixData.create(matrix)
matrix_element_plug = inversion_matrix_plug.elementByLogicalIndex(i)
matrix_element_plug.setMObject(matrix_node)
# Now that we've updated the inversion, tell the deformer to recalculate the
# .tweak values based on the .inverseTweak and the new .inversionMatrix.
cmds.setAttr('%s.recalculateTweak' % deformer, 1)
def isEnabled():
return cmds.autoKeyframe(query=True, state=True)
def _update_inversion_for_deformer(deformer):
# The deformer outputs to the inverted mesh, which then generally goes into a blendShape
# and then a skinCluster to get the final mesh. We need to figure out how changes to
# the inverted mesh affect the final output mesh that the user is sculpting.
#
# First, we need to find the inverted mesh. This is the first mesh in our future.
# Note that the deformer could be plugged directly into the blendShape, but if this
# is done, we have no mesh to modify to do this.
#
# Doing this instead of just looking at .outputGeometry avoids problems when Maya
# silently adds helper nodes between us and the geometry, such as createColorSet.
inverted_shape = _find_inverted_shape_for_deformer(deformer)
if not inverted_shape:
raise Exception('Couldn\'t find the output inverted mesh for "%s".' %
deformer)
# Get the mesh that's being sculpted.
posed_mesh = _get_active_sculpting_mesh_for_deformer(deformer)
if not posed_mesh:
OpenMaya.MGlobal.displayError('Deformer "%s" isn\'t being sculpted.' %
deformer)
return
# Temporarily disable the deformer.
old_node_state = cmds.getAttr('%s.nodeState' % deformer)
cmds.setAttr('%s.nodeState' % deformer, 1)
# In 2016 SP1, auto-keyframe makes cmds.move extremely slow, so disable it while we
# do this.
old_autokeyframe = cmds.autoKeyframe(q=True, st=True)
cmds.autoKeyframe(st=False)
try:
# We need to find out the effect that translating the blend shape vertices
# has. Do this by moving vertices on the actual blend shape. We've disabled
# the deformer while we test this.
# The base shape data:
basePoints = _get_mesh_points(posed_mesh)
# The base shape after being deformed on each axis:
cmds.move(1, 0, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
xPoints = _get_mesh_points(posed_mesh)
cmds.move(-1, 0, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
cmds.move(0, 1, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
yPoints = _get_mesh_points(posed_mesh)
cmds.move(0, -1, 0, '%s.vtx[*]' % inverted_shape, r=True, os=True)
cmds.move(0, 0, 1, '%s.vtx[*]' % inverted_shape, r=True, os=True)
zPoints = _get_mesh_points(posed_mesh)
cmds.move(0, 0, -1, '%s.vtx[*]' % inverted_shape, r=True, os=True)
# If moving points has no effect, something's wrong. The blend shape may not
# be enabled, or there could be another deformer in the way that's replacing
# the shape entirely.
if basePoints and abs(basePoints[0].x - xPoints[0].x) < 0.001:
OpenMaya.MGlobal.displayError(
'Moving the inverted mesh isn\'t moving the output mesh. Is the blend shape for this mesh enabled?'
)
return
finally:
# Restore the deformer's state.
cmds.setAttr('%s.nodeState' % deformer, old_node_state)
# Restore autoKeyframe.
cmds.autoKeyframe(st=old_autokeyframe)
# Calculate the inversion matrices.
deformer_node = _get_mobject(deformer)
inversion_matrix_plug = OpenMaya.MFnDependencyNode(deformer_node).findPlug(
'inversionMatrix', False)
fnMatrixData = OpenMaya.MFnMatrixData()
for i in xrange(basePoints.length()):
matrix = OpenMaya.MMatrix()
_set_matrix_row(matrix, 0, xPoints[i] - basePoints[i])
_set_matrix_row(matrix, 1, yPoints[i] - basePoints[i])
_set_matrix_row(matrix, 2, zPoints[i] - basePoints[i])
matrix = matrix.inverse()
matrix_node = fnMatrixData.create(matrix)
matrix_element_plug = inversion_matrix_plug.elementByLogicalIndex(i)
matrix_element_plug.setMObject(matrix_node)
# Now that we've updated the inversion, tell the deformer to recalculate the
# .tweak values based on the .inverseTweak and the new .inversionMatrix.
cmds.setAttr('%s.recalculateTweak' % deformer, 1)
death : Scales down the particle to 0 at the end of its lifetime
bake : Combines all animation layers
emitCurve : Emits particles from a curve
followCurve : Animates a trail of particles following a curve
planeEmit : Emits particles from a plane
reloadFile : Reloads Maya scene to free memory and increase performance
In this module, one of the functions is called with a
particle list. Those particles are then individually
animated using a combination of the class specific functions.
'''
import maya.cmds as cmds
import random
cmds.cycleCheck(e=0)
cmds.autoKeyframe(state=0)
class particles():
'''Contains procedures to animate individual particles and stores their unique variables'''
def __init__(self,name):
'''Saves the object's name to an instance of the class'''
self.name=name
def explode(self,start,duration,distance):
'''
Emits a particle along its local Y axis with decreasing speed
start : Start of emission frame
duration : Number of frames to reach final destination
distance : Total distance to move object
def __init__(self, *args):
self.get_global()
selected = cmds.ls(sl=True)
controller_list = {}
opposite_set = None
auto_key = cmds.autoKeyframe(st=True, q=True)
if auto_key:
cmds.autoKeyframe(st=False)
if selected:
for obj in selected:
obj_set_attr = '{0}.{1}'.format(obj, self.set_parent_str)
if cmds.objExists(obj_set_attr):
obj_set = cmds.listConnections(obj_set_attr)
if obj_set:
obj_set = obj_set[0]
opposite_set_attr = '{0}.{1}'.format(
obj_set, self.opposite_set_str)
if cmds.objExists(opposite_set_attr):
opposite_set = cmds.listConnections(
opposite_set_attr)
if opposite_set:
opposite_set = opposite_set[0]
for controller in cmds.sets(opposite_set, q=True):
controller_order_attr = '{0}.{1}'.format(
controller, self.snap_order_attr)
if cmds.objExists(controller_order_attr):
controller_order = cmds.getAttr(
controller_order_attr)
if controller_order:
controller_order = int(
controller_order[0])
controller_list[
controller_order] = controller
for controller in controller_list.values():
obj_snap_attr = '{0}.{1}'.format(controller,
self.snap_parent_str)
print obj_snap_attr
if cmds.objExists(obj_snap_attr):
snap_obj = cmds.listConnections(obj_snap_attr)
if snap_obj:
snap_obj = snap_obj[0]
tra = cmds.xform(snap_obj, ws=True, rp=True, q=True)
rot = cmds.xform(snap_obj, ws=True, ro=True, q=True)
try:
cmds.xform(controller, ws=True, t=tra)
except:
pass
try:
cmds.xform(controller, ws=True, ro=rot)
except:
try:
rot_x = cmds.getAttr(
'{0}.rotateX'.format(snap_obj))
cmds.setAttr('{0}.rotateX'.format(controller),
rot_x)
except:
pass
try:
rot_x = cmds.getAttr(
'{0}.rotateY'.format(snap_obj))
cmds.setAttr('{0}.rotateY'.format(controller),
rot_x)
except:
pass
try:
rot_x = cmds.getAttr(
'{0}.rotateZ'.format(snap_obj))
cmds.setAttr('{0}.rotateZ'.format(controller),
rot_x)
except:
pass
if not opposite_set:
OpenMaya.MGlobal.displayError(
"Can not find FKIK Snap on selected controller!")
else:
switch_attr = cmds.listConnections('{0}.{1}'.format(
opposite_set, self.switch_parent_str),
plugs=True)[0]
current_time = cmds.currentTime(query=True)
cmds.setKeyframe(switch_attr, time=current_time - 1)
cmds.setKeyframe(cmds.sets(obj_set, q=True),
cmds.sets(opposite_set, q=True))
if cmds.getAttr(switch_attr) == 0:
cmds.setAttr(switch_attr, 1)
elif cmds.getAttr(switch_attr) == 1:
cmds.setAttr(switch_attr, 0)
cmds.setKeyframe(switch_attr)
else:
OpenMaya.MGlobal.displayError("You need to select a controller!")
if auto_key:
cmds.autoKeyframe(st=True)
cmds.select(cl=True)
