Exemplo n.º 1
0
def animatedSnapFunc(nodeToSnap,
                     vertexSelection,
                     knobsToAnimate,
                     knobsToVerify,
                     minVertices=1,
                     snapFunc=s3d.translateToPointsVerified):
    '''A wrapper to call the relevant snap functions within a framerange loop'''
    temp = None
    try:
        s3d.verifyNodeToSnap(nodeToSnap, knobsToVerify)

        # verify vertex selection once before the loop
        s3d.verifyVertexSelection(vertexSelection, minVertices)

        # now ask for a framerange
        frames = getFrameRange()

        if not frames: return  # Exit eary if cancelled or empty framerange

        # Add a CurveTool for the forced-evaluation hack
        temp = nuke.nodes.CurveTool()

        # Set the anim flag on knobs
        for knob in [nodeToSnap[x] for x in knobsToAnimate]:
            # reset animated status
            if knob.isAnimated():
                knob.clearAnimated()
            knob.setAnimated()

        # Set up Progress Task
        task = nuke.ProgressTask("animatedSnap3D")
        task.setMessage("Matching position of %s to selected vertices" %
                        nodeToSnap.name())

        # Loop through the framerange
        for frame in frames:
            if task.isCancelled():
                break

            # Execute the CurveTool node to force evaluation of the tree
            nuke.execute(temp, frame, frame)

            # this is repetitive, but the vertex selection needs to be computed again
            # in order to get the vertices at the right context (time)
            vertexSelection = s3d.getSelection()

            # this is also repetitive. Selection should be already verified
            # but checking again in case topology has changed between frames
            s3d.verifyVertexSelection(vertexSelection, minVertices)

            # Call the passed snap function from the nukescripts.snap3d module
            snapFunc(nodeToSnap, vertexSelection)

    except ValueError, e:
        nuke.message(str(e))
Exemplo n.º 2
0
def animatedSnapFunc(nodeToSnap, vertexSelection, knobsToAnimate, knobsToVerify, minVertices = 1, snapFunc = s3d.translateToPointsVerified):
  '''A wrapper to call the relevant snap functions within a framerange loop'''
  temp = None
  try:
    s3d.verifyNodeToSnap(nodeToSnap, knobsToVerify)
    
    # verify vertex selection once before the loop
    s3d.verifyVertexSelection(vertexSelection, minVertices)
    
    # now ask for a framerange
    frames = getFrameRange()
   
    if not frames:  return  # Exit eary if cancelled or empty framerange
    
    # Add a CurveTool for the forced-evaluation hack
    temp = nuke.nodes.CurveTool()
    
    # Set the anim flag on knobs
    for knob in [nodeToSnap[x] for x in knobsToAnimate]:
      # reset animated status
      if knob.isAnimated():
        knob.clearAnimated()
      knob.setAnimated()  

    # Set up Progress Task  
    task = nuke.ProgressTask("animatedSnap3D")
    task.setMessage("Matching position of %s to selected vertices" % nodeToSnap.name())
    
    # Loop through the framerange
    for frame in frames:    
      if task.isCancelled():
        break
      
      # Execute the CurveTool node to force evaluation of the tree
      nuke.execute(temp, frame, frame)
      
      # this is repetitive, but the vertex selection needs to be computed again
      # in order to get the vertices at the right context (time)
      vertexSelection = s3d.getSelection()
      
      # this is also repetitive. Selection should be already verified
      # but checking again in case topology has changed between frames
      s3d.verifyVertexSelection(vertexSelection, minVertices)
      
      # Call the passed snap function from the nukescripts.snap3d module
      snapFunc(nodeToSnap, vertexSelection)
    
  except ValueError, e:
    nuke.message(str(e))
Exemplo n.º 3
0
def translateRotateScaleToPointsAnimated(nodeToSnap):
    return animatedSnapFunc(nodeToSnap, s3d.getSelection(),\
                            ["translate", "rotate", "scaling"],\
                            ["translate", "rotate", "scaling", "xform_order", "rot_order"],\
                            minVertices = 3, snapFunc = s3d.translateRotateScaleToPointsVerified)
Exemplo n.º 4
0
def translateToPointsAnimated(nodeToSnap):
    return animatedSnapFunc(nodeToSnap, s3d.getSelection(), \
                            ["translate"],\
                            ["translate", "xform_order"],\
                            minVertices = 1, snapFunc = s3d.translateToPointsVerified)
Exemplo n.º 5
0
def translateRotateScaleToPointsAnimated(nodeToSnap):
  return animatedSnapFunc(nodeToSnap, s3d.getSelection(),\
                          ["translate", "rotate", "scaling"],\
                          ["translate", "rotate", "scaling", "xform_order", "rot_order"],\
                          minVertices = 3, snapFunc = s3d.translateRotateScaleToPointsVerified)
Exemplo n.º 6
0
def translateToPointsAnimated(nodeToSnap):
  return animatedSnapFunc(nodeToSnap, s3d.getSelection(), \
                          ["translate"],\
                          ["translate", "xform_order"],\
                          minVertices = 1, snapFunc = s3d.translateToPointsVerified)
Exemplo n.º 7
0
def animated_snap(transforms=None, node=None, vertices=None, frange=None):
    """A wrapper to call the relevant snap functions within a frame range loop

    Args:
        transforms=None : [str]
            A list of transforms to apply to the snapped object. Should be
            one or more of the following:
                translate, rotate or scaling

            Default: ['translate']

        node=None : (<nuke.Node>)
            The Nuke node to apply the transforms to.

            Default: nuke.thisNode()

        vertices=None : [<nuke.Vertex>]
            The vertices to use to get the transformation.

            Default: snap3d.getSelection()

        frames=None : (<nuke.FrameRange>)
            Provide a FrameRange object to suppress dialog.

    Returns:
        None

    Raises:
        N/A

    """

    min_verts = 1
    if not node:
        node = nuke.thisNode()
    if not vertices:
        vertices = snap3d.getSelection()
    if not transforms:
        transforms = ['translate']

    snap_func = snap3d.translateToPointsVerified

    knobs = list(transforms)
    knobs.append('xform_order')

    if 'rotate' in knobs:
        knobs.append("rot_order")
        snap_func = snap3d.translateRotateToPointsVerified
    if 'scaling' in knobs:
        min_verts = 3
        snap_func = snap3d.translateRotateScaleToPointsVerified

    # Verify valid selections before we enter the loop
    try:
        snap3d.verifyNodeToSnap(node, knobs)
        snap3d.verifyVertexSelection(vertices, min_verts)
    except ValueError as err:
        nuke.message(err)
        return

    if not frange:
        # Ask for a frame range
        frange = _get_frange()

    if not frange:
        # Exit early if cancelled or empty frange
        return

    # Add a CurveTool for the forced-evaluation hack
    temp = nuke.nodes.CurveTool()

    # Set the animated flag on knobs
    for knob in [node[knob_name] for knob_name in transforms]:
        # Reset animated status
        if knob.isAnimated():
            knob.clearAnimated()
        knob.setAnimated()

    # Set up Progress Task
    task = nuke.ProgressTask("Snapping")
    task.setMessage(
        "Matching position of {node_name} to selected vertices".format(
            node_name=node.name()))

    # Loop through the framerange
    for frame in frange:
        if task.isCancelled():
            break

        progress = _frange_percent(frame, frange)
        task.setProgress(progress)

        # Execute the CurveTool node to force evaluation of the tree
        nuke.execute(temp, frame, frame)

        # The vertex selection needs to be computed per frame
        # in order to get the vertices at the right context (time)
        vertices = snap3d.getSelection()

        # Checking vertex selection again in case topology has changed
        try:
            snap3d.verifyVertexSelection(vertices, min_verts)
        except ValueError:
            nuke.message(
                "Number of vertices selected has dropped below {verts}."
                "This is most likely due to changes in geometry topology."
                "\n"
                "Please select new vertices and start again from frame "
                "{frame} on.".format(verts=min_verts, frame=frame))
            break
        else:
            # Call the passed snap function from the nukescripts.snap3d module
            snap_func(node, vertices)

    if temp:
        nuke.delete(temp)
Exemplo n.º 8
0
def animated_snap(transforms=None, node=None, vertices=None, frange=None):
    """A wrapper to call the relevant snap functions within a frame range loop

    Args:
        transforms=None : [str]
            A list of transforms to apply to the snapped object. Should be
            one or more of the following:
                translate, rotate or scaling

            Default: ['translate']

        node=None : (<nuke.Node>)
            The Nuke node to apply the transforms to.

            Default: nuke.thisNode()

        vertices=None : [<nuke.Vertex>]
            The vertices to use to get the transformation.

            Default: snap3d.getSelection()

        frames=None : (<nuke.FrameRange>)
            Provide a FrameRange object to suppress dialog.

    Returns:
        None

    Raises:
        N/A

    """

    min_verts = 1
    if not node:
        node = nuke.thisNode()
    if not vertices:
        vertices = snap3d.getSelection()
    if not transforms:
        transforms = ['translate']

    snap_func = snap3d.translateToPointsVerified

    knobs = list(transforms)
    knobs.append('xform_order')

    if 'rotate' in knobs:
        knobs.append("rot_order")
        snap_func = snap3d.translateRotateToPointsVerified
    if 'scaling' in knobs:
        min_verts = 3
        snap_func = snap3d.translateRotateScaleToPointsVerified

    # Verify valid selections before we enter the loop
    try:
        snap3d.verifyNodeToSnap(node, knobs)
        snap3d.verifyVertexSelection(vertices, min_verts)
    except ValueError as err:
        nuke.message(err)
        return

    if not frange:
        # Ask for a frame range
        frange = _get_frange()

    if not frange:
        # Exit early if cancelled or empty frange
        return

    # Add a CurveTool for the forced-evaluation hack
    temp = nuke.nodes.CurveTool()

    # Set the animated flag on knobs
    for knob in [node[knob_name] for knob_name in transforms]:
        # Reset animated status
        if knob.isAnimated():
            knob.clearAnimated()
        knob.setAnimated()

    # Set up Progress Task
    task = nuke.ProgressTask("Snapping")
    task.setMessage(
        "Matching position of {node_name} to selected vertices".format(
            node_name=node.name()
        )
    )

    # Loop through the framerange
    for frame in frange:
        if task.isCancelled():
            break

        progress = _frange_percent(frame, frange)
        task.setProgress(progress)

        # Execute the CurveTool node to force evaluation of the tree
        nuke.execute(temp, frame, frame)

        # The vertex selection needs to be computed per frame
        # in order to get the vertices at the right context (time)
        vertices = snap3d.getSelection()

        # Checking vertex selection again in case topology has changed
        try:
            snap3d.verifyVertexSelection(vertices, min_verts)
        except ValueError:
            nuke.message(
                "Number of vertices selected has dropped below {verts}."
                "This is most likely due to changes in geometry topology."
                "\n"
                "Please select new vertices and start again from frame "
                "{frame} on.".format(
                    verts=min_verts,
                    frame=frame
                )
            )
            break
        else:
            # Call the passed snap function from the nukescripts.snap3d module
            snap_func(node, vertices)

    if temp:
        nuke.delete(temp)