Python cmds.progressWindow函数代码示例

def Cas_MCW_restoreMisc(undoState , texWindowState):
    if undoState == 1:
        cmds.undoInfo(swf=1)
    if texWindowState == 1:
        texWin = cmds.getPanel(sty ="polyTexturePlacementPanel")
        cmds.textureWindow(texWin[0],e=1,id=1)
    cmds.progressWindow(ep=1)

def updateProgressWindow(i, maxSize):
    if cmds.progressWindow(q=True, ic=True):
        return False
    else:
        cmds.progressWindow(e=True, pr=i, st=("Building: " +
            str(i) + "/" + str(maxSize)))
        return True

def makeSnowflakes(number,size,sizeVar,rgb1,rgb2,transparency,glow):
    '''
    Creates a number of snowflakes
    
    number       : Number of particles to create
    size         : Radius of the snowflakes
    sizeVar      : Variation in the radius
    rgb1         : One end of the colour range in the form (r,g,b)
    rgb2         : The other end of the colour range in the form (r,g,b)
    transparency : Alpha value for the shader
    glow         : Glow value for the shader
    
    The progress window is updated and the shading group list is created. 
    A while loop is initiated to create snowflakes, add them to the list 
    and assign shaders. The list of objects is returned.
    '''
    cmds.progressWindow(e=1,progress=0,status='Making Snowflakes...')
    SGList = createColourList(rgb1,rgb2,transparency,glow,5)
    list=[]
    count=0
    while count<number:
        radius = size+random.uniform(-(size*sizeVar*0.01),(size*sizeVar*0.01))
        list[len(list):] = [makeFlake(random.randint(5,8),radius)]
        cmds.sets(list[-1], e=1, forceElement=SGList[random.randint(0,4)])
        cmds.progressWindow(e=1,step=100/number)
        count += 1
    return list

		def func( *args, **kwargs ):
			try:
				cmd.progressWindow( **dec_kwargs )
			except: print 'error init-ing the progressWindow'

			try:
				return f( *args, **kwargs )
			finally:
				cmd.progressWindow( ep=True )

 def __exit__(self, exc_type, exc_value, traceback):
     if not self.disable:
         if self.ismain:
             cmds.progressBar(self._gMainProgressBar, edit=True, endProgress=True)
         else:
             cmds.progressWindow(endProgress=True)
         if exc_type:
             log.exception('%s : %s'%(exc_type, exc_value))
         del(self)
         return False  # False so that the exception gets re-raised

def planeEmit(sourcePlane,start,emitTime,particleList,maxDistance,minDistance,maxAngle,forceTime,lifeTime,lifeTimeVar,fadeOut,turbulenceAmp,turbulencePer,drift):
    '''
    Emits particles from a plane
    
    sourcePlane   : Name of the plane particles will emit from
    start         : Frame to start emission
    emitTime      : Number of frames to emit for
    particleList  : List containing names of all the particles to be animatied
    maxDistance   : Maximum distance particles will be emitted from at the middle of the curve
    minDistance   : Maximum distance particles will be emitted from at the start and end of the curve
    maxAngle      : Maximum angle to emit particles at
    forceTime     : Number of frames particles will be affected by the emission force
    lifeTime      : Average lifetime of a particle
    lifeTimeVar   : Variation from average lifetime as a percentage
    fadeOut       : Number of frames to scale down particles at the end of their lifetime
    turbulenceAmp : Amplitude of the turbulence animation graph
    turbulencePer : Period of the turbulence animation graph
    drift         : Distance a particle will drift 10 frames. Contains (x,y,z)
    
    Updates the progress window and assigns all the elements in particleList to the class particles. 
    Constrains particle to plane to copy its location and orientation then deletes the constraint 
    and adds a random rotation in the object y axis and moves the particle a random distance away 
    from the plane centre along its surface. Emission angle is randomly chosen and applied to object 
    z axis so that all particles move in line with the plane centre. Runs the relevant class specific 
    procedures to animate the particle.
    '''
    cmds.progressWindow(e=1,progress=0,status='Animating Particles...')
    for i in range(0,len(particleList)):
        particleList[i]=particles(particleList[i])
    count=0
    for x in particleList:
        x.born = start+random.randint(0,emitTime)
        constraint = cmds.parentConstraint(sourcePlane,x.name)
        cmds.delete(constraint)
        rotation = random.uniform(0,360)
        cmds.rotate(0,rotation,0,x.name,r=1,os=1)
        [x0,y0,z0,x1,y1,z1]=cmds.xform(sourcePlane+'.vtx[0:1]',t=1,q=1,ws=1)
        sideLength=((x0-x1)**2+(y0-y1)**2+(z0+z1)**2)**0.5
        distance=random.uniform(0,sideLength/2)
        cmds.move(distance,0,0,x.name,r=1,os=1)
        angle=random.uniform(-maxAngle,maxAngle)
        cmds.rotate(0,0,angle,x.name,r=1,os=1)
        x.explode(x.born,forceTime,random.uniform(minDistance,maxDistance))
        x.drift(x.born,drift,turbulenceAmp*random.random(),turbulencePer+random.randint(-2,2))
        x.lifeTime=int(lifeTime+random.uniform(-lifeTime*lifeTimeVar*0.01,lifeTime*lifeTimeVar*0.01))
        x.fadeOut=random.randint(fadeOut-2,fadeOut+2)
        x.bake()
        cmds.keyframe(x.name,at='visibility',a=1,vc=0)
        count+=1
        cmds.progressWindow(e=1,progress=int((100.0/len(particleList))*count))
    for x in particleList:
        x.birth()
        x.death()
    return

 def loadCharacter(self, x=None) :
     ''' TODO: Stub '''
     item = self.getSelectedCharacter()
     print item
     self.loadTemplate(item)
     return
     print "Loading Character: " + str(x)
     m.progressWindow("peelMocap_progressWindow", st="Loading Character", progress=0)
     loadChar = "%s/character/%s/%s" % (self.pathPrefix, item['group']['title'], item['file'])
     print "load character: %s" % loadChar
     self.cache.importUrl(loadChar)
     m.progressWindow(endProgress=True)

def emitCurve(sourceCurve,curveStart,duration,particleList,maxDistance,minDistance,emitTime,lifeTime,lifeTimeVar,fadeOut,turbulenceAmp,turbulencePer,drift):
    '''
    Emits particles from a curve
    
    sourceCurve   : Name of the curve particles will emit from
    curveStart    : Frame to start emission
    duration      : Number of frames to emit for
    particleList  : List containing names of all the particles to be animatied
    maxDistance   : Maximum distance particles will be emitted from at the middle of the curve
    minDistance   : Maximum distance particles will be emitted from at the start and end of the curve
    emitTime      : Number of frames particles will be affected by the emission force
    lifeTime      : Average lifetime of a particle
    lifeTimeVar   : Variation from average lifetime as a percentage
    fadeOut       : Number of frames to scale down particles at the end of their lifetime
    turbulenceAmp : Amplitude of the turbulence animation graph
    turbulencePer : Period of the turbulence animation graph
    drift         : Distance a particle will drift 10 frames. Contains (x,y,z)
    
    Updates the progress window and assigns all the elements in particleList to the class particles. 
    Creates a locator and keys it to follow the curve linearly over the emission time. At the emit 
    time, copies the coordinates of the locator and moves particle to that location and add a random 
    rotation. The distance is calculated depending on the time the particle is emitted. Runs the 
    relevant class specific procedures to animate the particle.
    '''
    cmds.progressWindow(e=1,progress=0,status='Animating Particles...')
    for i in range(0,len(particleList)):
        particleList[i]=particles(particleList[i])
    count=0
    [emitter] = [cmds.spaceLocator(n='emitter')[0]]
    motionPath = cmds.pathAnimation(fm=1, stu=curveStart,etu=curveStart+duration,c=sourceCurve)
    cmds.keyTangent(motionPath,at='uValue',itt='Linear',ott='Linear')
    for x in particleList:
        launchTime=random.uniform(0,duration)
        [(emitX,emitY,emitZ)]=cmds.getAttr(emitter+'.translate',t=curveStart+launchTime)
        cmds.move(emitX,emitY,emitZ,x.name)
        cmds.rotate(random.uniform(0,360),random.uniform(0,360),random.uniform(0,360),x.name)
        if launchTime/duration <=0.5:
            distance=(launchTime/duration)*2*(maxDistance-minDistance)+minDistance
        else:
            distance=(1-(launchTime/duration))*2*(maxDistance-minDistance)+minDistance
        x.born = int(curveStart+launchTime+random.randint(-1,1))
        x.explode(x.born,emitTime,distance)
        x.drift(x.born,drift,turbulenceAmp*random.random(),turbulencePer+random.randint(-2,2))
        x.lifeTime=int(lifeTime+random.uniform(-lifeTime*lifeTimeVar*0.01,lifeTime*lifeTimeVar*0.01))
        x.fadeOut=random.randint(fadeOut-2,fadeOut+2)
        x.bake()
        cmds.keyframe(x.name,at='visibility',a=1,vc=0)
        count+=1
        cmds.progressWindow(e=1,progress=int((100.0/len(particleList))*count))
    for x in particleList:
        x.birth()
        x.death()
    return

		def func(*args, **kwargs):
			try:
				cmd.progressWindow(**dec_kwargs)
			except: print 'error init-ing the progressWindow'

			try: ret = f(*args, **kwargs)
			except:
				#end the progressWindow on any exception and re-raise...
				raise
			finally:
				cmd.progressWindow(ep=True)

			return ret

 def do(self, *args):
     try:
         sel = mc.ls(sl=1)
         sum = 0.0
         sum = len(sel)
         amount = 0.0
         for item in sel:
             mc.progressWindow(
                 title="Removing References", progress=amount, status="Removing: 0%", isInterruptable=True
             )
             if mc.progressWindow(query=True, isCancelled=True):
                 break
             if mc.progressWindow(query=True, progress=True) >= 100:
                 break
             RN = mc.referenceQuery(item, referenceNode=1)
             Nodes = mc.referenceQuery(RN, referenceNode=True, topReference=True)
             referenceFile = mc.referenceQuery(Nodes, f=1)
             reLoaded = mc.referenceQuery(referenceFile, il=True)
             if reLoaded == 1:
                 mc.file(referenceFile, unloadReference=1)
             amount = float((sel.index(item) + 1)) / float(len(sel)) * 100.0
             mc.progressWindow(edit=True, progress=amount, status=("Removing: " + ` amount ` + "%"))
             # mc.pause( seconds=1 )
         mc.progressWindow(endProgress=1)
     except:
         pass

  def parse_rib_archives(self):
    queue = Queue()
    self._enqueue_rib_files(queue)
    if queue.empty():
      return

    for file in self._process_rib_queue(queue):
      yield file

    if cmds.progressWindow(query=1, isCancelled=1):
      cmds.progressWindow(endProgress=1)
      raise maya_common.MayaZyncException("Submission cancelled")

    cmds.progressWindow(endProgress=1)

 def __enter__(self):
     if not self.disable:
         if self.ismain:
             cmds.progressBar(self._gMainProgressBar,
                           edit=True,
                           beginProgress=True,
                           step=self.step,
                           isInterruptable=self._interruptable,
                           maxValue=self._maxValue)
         else:
             cmds.progressWindow(step=self.step,
                             title=self.title,
                             isInterruptable=self._interruptable,
                             maxValue=self._maxValue)

def defaultButtonPush08(*args):
	cmds.progressWindow(isInterruptable = 1)

	while True:
		WindowCheck = cmds.window(title = '"Press Esc"', widthHeight = (400, 200))
		cmds.paneLayout()
		cmds.scrollField(wordWrap=True, text='"Press Esc"')
		cmds.showWindow(WindowCheck)
		cmds.showSelectionInTitle(WindowCheck)
		cmds.deleteUI(WindowCheck)
	
		if cmds.progressWindow(query = 1, isCancelled = 1):
			cmds.progressWindow(endProgress = 1)
			break
		
		cmds.refresh()

  def _parse_rib_archive(self, ribArchivePath):
    """Parses RIB archive file and tries to extract texture file names and other .rib files to parse.
       It read the file line by line with buffer limit, because the files can be very big.
       RIB files can be binary, in which case parsing them would be possible, but hacky,
       so we won't do that.
       We also check if the user has cancelled."""

    fileSet = set()

    # Please see the link to easily see what those regex match: https://regex101.com/r/X1hBUJ/1
    patterns = [(r'\"((?:(?!\").)*?\.rib)\"', 'rib'),
                (r'\"string fileTextureName\" \[\"((?:(?!\").)*?)\"', 'tex'),
                (r'\"string lightColorMap\" \[\"((?:(?!\").)*?)\"', 'tex'),
                (r'\"string filename\" \[\"((?:(?!\").)*?)\"', 'tex')]
    with open(ribArchivePath, 'r') as content_file:
      line = content_file.readline(10000)
      while line != '' and not cmds.progressWindow(query=1, isCancelled=1):
        for (pattern, t) in patterns:
          for file in re.findall(pattern, line):
            if os.path.exists(file):
              fileSet.add((file, t))
        line = content_file.readline(10000)

    for (f, t) in fileSet:
      yield (f, t)

	def refresh( self, message = None ):
		"""Finally show the progress window"""
		mn,mx = ( self.isRelative() and ( 0,100) ) or self.range()
		p = self.get()

		myargs = dict()
		myargs[ "e" ] = 1
		myargs[ "min" ] = mn
		myargs[ "max" ] = mx
		myargs[ "pr" ] = p
		myargs[ "status" ] = message or ( "Progress %s" % ( "." * ( int(p) % 4 ) ) )

		try:
			cmds.progressWindow( **myargs )
		except RuntimeError,e:
			log.warn(str( e ))
			pass 		# don't know yet why that happens