def fillColor(color, colorName):
validateChannels()
channel = getCurrentColorSetNames()[0]
colorName = COLOR_SET_NAMES[channel] if colorName == None else colorName
warnMessage = "Fill %s channel's color to %s?" % (channel, colorName)
resetAll = channel == MAIN_COLOR_SET
if resetAll:
warnMessage = "Fill all channels color to %s?" % (colorName)
result = cmds.confirmDialog(title='Warning',
message=warnMessage,
button=['OK', 'Cancel'],
defaultButton='OK',
cancelButton='Cancel',
dismissString='Cancel')
if result != "OK":
return
for mesh in getMeshIter():
colors = mesh.getVertexColors(MAIN_COLOR_SET)
numColors = len(colors)
if resetAll:
for colorSet in RESERVED_SETS:
defaultColor = COLOR_SET_COLORS[colorSet]
newColor = [a * b for a, b in zip(color, defaultColor)]
newColors = om.MColorArray(numColors, om.MColor(newColor))
mesh.setCurrentColorSetName(colorSet)
mesh.setVertexColors(newColors, getIncrementIter(numColors))
else:
defaultColor = COLOR_SET_COLORS[channel]
newColor = [a * b for a, b in zip(color, defaultColor)]
newColors = om.MColorArray(numColors, om.MColor(newColor))
mesh.setVertexColors(newColors, getIncrementIter(numColors))
def create_vertex_color_set(mesh_fn, color_set_name, vertex_colors, mdg):
"""
Create color set
"""
mesh_name = mesh_fn.fullPathName()
vert_ids = xrange(len(vertex_colors))
colarray = OpenMaya.MColorArray(map(OpenMaya.MColor, vertex_colors))
current_color_sets = mesh_fn.getColorSetNames()
if color_set_name in current_color_sets:
cmds.polyColorSet(mesh_name, delete=True, colorSet=color_set_name)
clr_vertex_name = "{}.colorPerVertex".format(mesh_name)
if cmds.objExists(clr_vertex_name):
cmds.setAttr(clr_vertex_name, lock=False, keyable=True)
vertex_name = "{}.vertexColor".format(mesh_name)
if cmds.objExists(vertex_name):
cmds.setAttr(vertex_name, lock=False, keyable=True)
mesh_fn.createColorSet(color_set_name,
False,
rep=OpenMaya.MFnMesh.kRGB,
modifier=mdg)
mesh_fn.setCurrentColorSetName(color_set_name, modifier=mdg)
mesh_fn.setVertexColors(colarray, vert_ids, modifier=mdg)
def vtxColor_2_finalData(inMesh, inColors, div=1.0, defaultAlpha=1):
meshFn = getMFnMesh(inMesh)
vfs = cmd.filterExpand('%s.vtxFace[*]' % inMesh, sm=70)
#vfs_2_v_f_dict = {}
v_2_vfs_dict = {}
vis = []
fis = []
for vf in vfs:
vi = int(vf.split('[')[1].split(']')[0])
fi = int(vf.split('[')[2].split(']')[0])
vis.append(vi)
fis.append(fi)
if vi not in v_2_vfs_dict.keys():
v_2_vfs_dict[vi] = []
v_2_vfs_dict[vi].append(vf)
#print v_2_vfs_dict
vf_2_color_dict = {}
for i, color in enumerate(inColors):
for vf in v_2_vfs_dict[i]:
vf_2_color_dict[vf] = list(color)
outColors = []
for vf in vfs:
color = vf_2_color_dict[vf]
color = [x / div for x in color]
color.append(defaultAlpha)
outColors.append(color)
outColors = om2.MColorArray(outColors)
return outColors, fis, vis
def combineChannels(self, switchToMain, *args):
currentChannel = None
for mesh in getMeshIter():
currentChannel = mesh.currentColorSetName()
validateChannels()
iter = getMeshIter()
# combine SUB_COLOR_SETS' into MAIN_COLOR_SET
for mesh in iter:
rColors = mesh.getVertexColors(R_CHANNEL)
gColors = mesh.getVertexColors(G_CHANNEL)
bColors = mesh.getVertexColors(B_CHANNEL)
aColors = mesh.getVertexColors(A_CHANNEL)
colors = om.MColorArray(mesh.numVertices, om.MColor((1, 1, 1, 1)))
for i in xrange(mesh.numVertices):
colors[i] = om.MColor(
(rColors[i].r, gColors[i].g, bColors[i].b, aColors[i].r))
mesh.setCurrentColorSetName(MAIN_COLOR_SET)
mesh.setVertexColors(colors, getIncrementIter(mesh.numVertices))
mesh.syncObject()
if switchToMain:
currentChannel = MAIN_COLOR_SET
if currentChannel != None:
for mesh in getMeshIter():
mesh.setCurrentColorSetName(currentChannel)
self.updateUi()
def static_compare(mesh, target, clamp=10, world=True):
"""
Compares two meshes on a given static frame.
Sets a vertex color value to show the distance values.
:param mesh: The name or path to the mesh to visualize on.
:param target: The name or path of the mesh we are comparing against.
:param clamp: The value to clamp against. All values be scaled accordingly.
:param world: Whether to compare in world space or object space.
"""
# Get the Dag Paths to the mesh shapes
mesh = get_shape(mesh)
target = get_shape(target)
# Turn on visualization of the vertex colors on the shape
mesh_path = mesh.fullPathName()
mc.polyOptions(mesh_path, colorShadedDisplay=True)
# Get Mesh objects from the shapes.
mesh_mesh = om.MFnMesh(mesh)
target_mesh = om.MFnMesh(target)
# For each mesh, get their points
space = om.MSpace.kWorld if world else om.MSpace.kObject
mesh_points = mesh_mesh.getPoints(space)
target_points = target_mesh.getPoints(space)
print("mesh points = ", len(mesh_points))
print("target points = ", len(target_points))
colors = om.MColorArray()
ids = []
# Loop through to calculate the colors
for i, mpoint in enumerate(mesh_points):
tpoint = target_points[i]
# Get the distance between the vertices.
distance = math.sqrt(((mpoint.x - tpoint.x)**2) +
((mpoint.y - tpoint.y)**2) +
((mpoint.z - tpoint.z)**2))
# If our distance is not zero, then process it
if distance:
# First scale according to the clamp value
scaled = distance / clamp
# Then clamp it off at 1
clamped = min(scaled, 1)
# Finally we only want half its value since our base color is 50% grey
distance = clamped / 2.0
# Start from 50% grey and bias to the red channel as distance grows
color = om.MColor((0.5 + distance, 0.5 - distance, 0.5 - distance))
colors.append(color)
ids.append(i)
# Apply the colors
mesh_mesh.setVertexColors(colors, ids)
def smooth_vertex_with_falloff():
#dist = Om2.MVector()
for vtx_a in xrange(vtx):
near_colors = Om2.MColorArray()
near_distances = []
for vtx_b in xrange(vtx):
dist = mesh_vector_array[vtx_a] - mesh_vector_array[vtx_b]
if dist.length() < max_dist:
near_distances.append(dist.length())
near_colors.append(color_array[vtx_b])
final_color_array[vtx_a] = distance_falloff.get_falloff(
near_distances, near_colors)
return final_color_array
def verifyLayerState(self, layer):
if layer == 'composite':
return
else:
obj = sxglobals.settings.shapeArray[
len(sxglobals.settings.shapeArray) - 1]
selectionList = OM.MSelectionList()
selectionList.add(obj)
nodeDagPath = OM.MDagPath()
nodeDagPath = selectionList.getDagPath(0)
MFnMesh = OM.MFnMesh(nodeDagPath)
layerColors = OM.MColorArray()
layerColors = MFnMesh.getFaceVertexColors(colorSet=layer)
# States: visibility, mask, adjustment
state = [False, False, False]
state[0] = (bool(
maya.cmds.getAttr(str(obj) + '.' + str(layer) + 'Visibility')))
for k in range(len(layerColors)):
if ((layerColors[k].a > 0)
and (layerColors[k].a <
sxglobals.settings.project['AlphaTolerance'])):
state[2] = True
elif ((layerColors[k].a >=
sxglobals.settings.project['AlphaTolerance'])
and (layerColors[k].a <= 1)):
state[1] = True
if not state[0]:
hidden = 'H'
else:
hidden = ' '
if state[1]:
mask = 'M'
else:
mask = ' '
if state[2]:
adj = 'A'
else:
adj = ' '
layerName = sxglobals.settings.project['LayerData'][layer][6]
itemString = hidden + mask + adj + ' ' + layerName
return itemString
def compute(self, plug, data):
if plug == self.aOutShape:
thisObj = self.thisMObject()
origHandle = data.inputValue(self.aOrigShape)
deformedHandle = data.inputValue(self.aDeformedShape)
outHandle = data.outputValue(self.aOutShape)
colorRamp = om2.MRampAttribute(thisObj, self.aColorRamp)
if self.isOrigDirty:
self.isOrigDirty = False
self.origEdgeLenArray = self.getEdgeLen(origHandle)
if self.isDeformedDirty:
self.isDeformedDirty = False
self.deformedEdgeLenArray = self.getEdgeLen(deformedHandle)
origEdges = self.origEdgeLenArray
defmEdges = self.deformedEdgeLenArray
if len(origEdges) == len(defmEdges):
outHandle.copy(deformedHandle)
outHandle.setMObject(deformedHandle.asMesh())
outMesh = outHandle.asMesh()
meshFn = om2.MFnMesh(outMesh)
numVerts = meshFn.numVertices
vertColors = om2.MColorArray()
vertColors.setLength(numVerts)
for i in xrange(numVerts):
delta = 0.5
delta += ((origEdges[i] - defmEdges[i]) / origEdges[i])
vertColor = colorRamp.getValueAtPosition(delta)
vertColors[i] = vertColor
if not self.setAndAssignColors(meshFn, vertColors):
self.setVertexColors(meshFn, vertColors)
else:
print("Edge count doesn't match.")
data.setClean(plug)
def glDrawTriangles(drawManager, camMatrix, coords, ssOffsets, color, colors):
colorsArray = ompy.MColorArray()
for i in range(0, coords.length()):
if (colors.length() == 0):
colorsArray.append(
ompy.MColor([color[0], color[1], color[2], color[3]]))
else:
colorsArray.append(
ompy.MColor(
[colors[i][0], colors[i][1], colors[i][2], colors[i][3]]))
for i in range(0, coords.length()):
coords[i] += utils_screenTo3dOffset(
camMatrix, coords[i], ssOffsets[min(i,
ssOffsets.length() - 1)])
drawManager.mesh(ompyr.MUIDrawManager.kTriangles, coords, None,
colorsArray)
def loadTexture(fileName, fileType):
if (fileName == None or len(fileName) == 0):
return
maya.mel.eval("PaintVertexColorTool;")
context = cmds.currentCtx()
cmds.artAttrPaintVertexCtx(context,
whichTool="colorPerVertex",
e=True,
ifm="rgba",
ifl=fileName)
mesh = getMesh()
if isMainColorSet():
subColorSets = SUB_COLOR_SETS
colors = mesh.getVertexColors(MAIN_COLOR_SET)
else:
subColorSets = [mesh.currentColorSetName()]
colors = mesh.getVertexColors(subColorSets[0])
# filter unused channel
for subColorSet in subColorSets:
mesh.setCurrentColorSetName(subColorSet)
useR = int(subColorSet == R_CHANNEL or subColorSet == MAIN_COLOR_SET)
useG = int(subColorSet == G_CHANNEL or subColorSet == MAIN_COLOR_SET)
useB = int(subColorSet == B_CHANNEL or subColorSet == MAIN_COLOR_SET)
useA = int(subColorSet == A_CHANNEL)
numColors = len(colors)
subColors = om.MColorArray(numColors, om.MColor((1.0, 1.0, 1.0, 1.0)))
for i in xrange(numColors):
color = colors[i]
subColors[i] = om.MColor((color.r * useR + color.a * useA,
color.g * useG + color.a * useA,
color.b * useB + color.a * useA, 1))
mesh.setVertexColors(subColors, getIncrementIter(numColors))
def static_compare(mesh, target, clamp=1, world=False, saturation=0.8):
"""
Compares two meshes on a given static frame.
Sets a vertex color value to show the distance values.
Colors will go from green at the least to red at the point of clamping.
:param mesh: The name or path to the mesh to visualize on.
:param target: The name or path of the mesh we are comparing against.
:param clamp: The value to clamp against. All values be scaled accordingly.
i.e if you clamp at 10, absolute red will be 10 units
:param world: Whether to compare in world space or object space.
:param saturation: The maximum saturation value to use
"""
# Get the Dag Paths to the mesh shapes
mesh = get_shape(mesh)
target = get_shape(target)
# Turn on visualization of the vertex colors on the shape
mesh_path = mesh.fullPathName()
mc.polyOptions(mesh_path, colorShadedDisplay=True)
# Get Mesh objects from the shapes.
mesh_mesh = om.MFnMesh(mesh)
target_mesh = om.MFnMesh(target)
# For each mesh, get their points
space = om.MSpace.kWorld if world else om.MSpace.kObject
mesh_points = mesh_mesh.getPoints(space)
target_points = target_mesh.getPoints(space)
if len(mesh_points) != len(target_points):
raise RuntimeError("Meshes do not have the same vertex count")
colors = om.MColorArray()
ids = []
# Loop through to calculate the colors
for i, mpoint in enumerate(mesh_points):
tpoint = target_points[i]
# Get the distance between the vertices.
distance = math.sqrt(((mpoint.x - tpoint.x)**2) +
((mpoint.y - tpoint.y)**2) +
((mpoint.z - tpoint.z)**2))
hue = 0
sat = 0
val = 0.5
# If our distance is not zero, then process it
if distance:
sat = saturation
val = 1
# First scale according to the clamp value
scaled = distance / clamp
# Then clamp it off at 1
clamped = min(scaled, 1)
hue = 180 - ((360 * clamped) / 2)
# Start from 50% grey and bias to the red channel as distance grows
color = om.MColor((hue, sat, val), om.MColor.kHSV)
colors.append(color)
ids.append(i)
# Apply the colors
mesh_mesh.setVertexColors(colors, ids)
def _importCtm(self, fileName, importOptions):
verbose = importOptions.get('verbose', False)
context = openctm.ctmNewContext(openctm.CTM_IMPORT)
# Extract file
openctm.ctmLoad(context, fileName)
e = openctm.ctmGetError(context)
if e != 0:
s = openctm.ctmErrorString(e)
print(s)
openctm.ctmFreeContext(context)
raise Exception(s)
# Extract indices
triCount = openctm.ctmGetInteger(context, openctm.CTM_TRIANGLE_COUNT)
ctmIndices = openctm.ctmGetIntegerArray(context, openctm.CTM_INDICES)
polyCount = [3] * triCount
# Extract vertices
vertCount = openctm.ctmGetInteger(context, openctm.CTM_VERTEX_COUNT)
ctmVertices = openctm.ctmGetFloatArray(context, openctm.CTM_VERTICES)
vertices = OpenMaya.MFloatPointArray()
vertices.setLength(vertCount)
# Extract Normals
ctmVertNormals = None
vertNormals = OpenMaya.MFloatPointArray()
hasNormals = openctm.ctmGetInteger(
context, openctm.CTM_HAS_NORMALS) == openctm.CTM_TRUE
if hasNormals:
ctmVertNormals = openctm.ctmGetFloatArray(context,
openctm.CTM_NORMALS)
vertNormals.setLength(vertCount)
# Extract UVs
hasUVs = openctm.ctmGetInteger(context, openctm.CTM_UV_MAP_COUNT) > 0
ctmTexCoords = None
uCoords = OpenMaya.MFloatArray()
vCoords = OpenMaya.MFloatArray()
if hasUVs:
ctmTexCoords = openctm.ctmGetFloatArray(context,
openctm.CTM_UV_MAP_1)
uCoords.setLength(vertCount)
vCoords.setLength(vertCount)
textureFilename = openctm.ctmGetUVMapString(
context, openctm.CTM_UV_MAP_1, openctm.CTM_FILE_NAME)
# TODO: Load texture file
if textureFilename:
pass
# Extract colors
colorAttrib = openctm.ctmGetNamedAttribMap(context, "Color")
hasVertexColors = colorAttrib != openctm.CTM_NONE
ctmColors = None
vertexColors = OpenMaya.MColorArray()
if hasVertexColors:
ctmColors = openctm.ctmGetFloatArray(context, colorAttrib)
vertexColors.setLength(vertCount)
pointToIndex = {}
ctmVertIndexToUniqueIndex = {}
nrSkippedVertices = 0
for i in range(vertCount):
ctmVertIndex = i * 3
p = (float(ctmVertices[ctmVertIndex]),
float(ctmVertices[ctmVertIndex + 1]),
float(ctmVertices[ctmVertIndex + 2]))
if p not in pointToIndex:
index = i - nrSkippedVertices
pointToIndex[p] = index
ctmVertIndexToUniqueIndex[i] = index
vertices[index].x = p[0]
vertices[index].y = p[1]
vertices[index].z = p[2]
if hasNormals:
vertNormals[index].x = float(ctmVertNormals[ctmVertIndex])
vertNormals[index].y = float(ctmVertNormals[ctmVertIndex +
1])
vertNormals[index].z = float(ctmVertNormals[ctmVertIndex +
2])
if hasUVs:
ctmUVIndex = i * 2
uCoords[index] = float(ctmTexCoords[ctmUVIndex])
vCoords[index] = float(ctmTexCoords[ctmUVIndex + 1])
if hasVertexColors:
ctmColIndex = i * 4
vertexColors[index].r = float(ctmColors[ctmColIndex])
vertexColors[index].g = float(ctmColors[ctmColIndex + 1])
vertexColors[index].b = float(ctmColors[ctmColIndex + 2])
vertexColors[index].a = float(ctmColors[ctmColIndex + 3])
else:
ctmVertIndexToUniqueIndex[i] = pointToIndex[p]
nrSkippedVertices += 1
uniqVertCount = len(pointToIndex)
vertices.setLength(uniqVertCount)
vertNormals.setLength(uniqVertCount)
indices = [
ctmVertIndexToUniqueIndex[ctmIndices[i]]
for i in range(3 * triCount)
]
if hasUVs:
uCoords.setLength(uniqVertCount)
vCoords.setLength(uniqVertCount)
if hasVertexColors:
vertexColors.setLength(uniqVertCount)
if verbose:
method = openctm.ctmGetInteger(context,
openctm.CTM_COMPRESSION_METHOD)
if method == openctm.CTM_METHOD_RAW:
methodStr = "RAW"
elif method == openctm.CTM_METHOD_MG1:
methodStr = "MG1"
elif method == openctm.CTM_METHOD_MG2:
methodStr = "MG2"
else:
methodStr = "Unknown"
print("File: %s" % fileName)
print("Comment: %s" %
str(openctm.ctmGetString(context, openctm.CTM_FILE_COMMENT)))
print("Compression Method: %s" % methodStr)
print("Vertices Count : %d" % vertCount)
print("Unique Vertices Count : %d" % uniqVertCount)
print("Triangles Count: %d" % triCount)
print("Has normals: %r" % hasNormals)
print("Has UVs: %r" % hasUVs)
print("Has Vertex Colors: %r" % hasVertexColors)
fnMesh = OpenMaya.MFnMesh()
newMesh = fnMesh.create(vertices, polyCount, indices, uCoords, vCoords)
if hasNormals:
fnMesh.setVertexNormals(vertNormals, range(len(vertices)))
if hasVertexColors:
fnMesh.setVertexColors(vertexColors, range(len(vertices)))
fnMesh.updateSurface()
# Assign initial shading group
slist = OpenMaya.MGlobal.getSelectionListByName("initialShadingGroup")
initialSG = slist.getDependNode(0)
fnSG = OpenMaya.MFnSet(initialSG)
if fnSG.restriction() == OpenMaya.MFnSet.kRenderableOnly:
fnSG.addMember(newMesh)
def validateChannels():
# create MAIN_COLOR_SET if not exist: rename existing color set or create a new one if no color sets defined
for mesh in getMeshIter():
currentColorSet = mesh.currentColorSetName()
colorSets = mesh.getColorSetNames()
if colorSets == None or not MAIN_COLOR_SET in colorSets:
mainColors = om.MColorArray(mesh.numVertices,
om.MColor((1.0, 1.0, 1.0, 1.0)))
mesh.createColorSet(MAIN_COLOR_SET, True)
mesh.setColors(mainColors, MAIN_COLOR_SET)
mesh.setCurrentColorSetName(MAIN_COLOR_SET)
mesh.setVertexColors(mainColors,
getIncrementIter(mesh.numVertices))
mesh.syncObject()
mainColors = None
for subColorSet in SUB_COLOR_SETS:
if colorSets == None or not subColorSet in colorSets:
if mainColors == None:
mainColors = mesh.getVertexColors(MAIN_COLOR_SET)
numColors = len(mainColors)
mesh.createColorSet(subColorSet, True)
useR = int(subColorSet == R_CHANNEL
or subColorSet == A_CHANNEL)
useG = int(subColorSet == G_CHANNEL
or subColorSet == A_CHANNEL)
useB = int(subColorSet == B_CHANNEL
or subColorSet == A_CHANNEL)
subColors = om.MColorArray(numColors,
om.MColor((1.0, 1.0, 1.0, 1.0)))
for i in xrange(numColors):
color = mainColors[i]
subColors[i] = om.MColor(
(color.r * useR, color.g * useG, color.b * useB, 1))
mesh.setCurrentColorSetName(subColorSet)
mesh.setVertexColors(subColors, getIncrementIter(numColors))
# make sure color_sets[0] is MAIN_COLOR_SET
colorSets = mesh.getColorSetNames()
if colorSets[0] != MAIN_COLOR_SET:
otherSet = colorSets[0]
aBuff = mesh.getVertexColors(otherSet)
bBuff = mesh.getVertexColors(MAIN_COLOR_SET)
mesh.setCurrentColorSetName(otherSet)
mesh.setVertexColors(bBuff, getIncrementIter(len(bBuff)))
mesh.setCurrentColorSetName(MAIN_COLOR_SET)
mesh.setVertexColors(aBuff, getIncrementIter(len(aBuff)))
mesh.syncObject()
cmds.polyColorSet(rename=True,
colorSet=otherSet,
newColorSet="__TEMP")
cmds.polyColorSet(rename=True,
colorSet=MAIN_COLOR_SET,
newColorSet=otherSet)
cmds.polyColorSet(rename=True,
colorSet="__TEMP",
newColorSet=MAIN_COLOR_SET)
if (currentColorSet == None or len(currentColorSet) == 0):
mesh.setCurrentColorSetName(R_CHANNEL)
else:
mesh.setCurrentColorSetName(currentColorSet)
def getLayerPaletteAndOpacity(self, obj, layer):
selectionList = OM.MSelectionList()
selectionList.add(obj)
nodeDagPath = OM.MDagPath()
nodeDagPath = selectionList.getDagPath(0)
MFnMesh = OM.MFnMesh(nodeDagPath)
layerColorArray = OM.MColorArray()
layerColorArray = MFnMesh.getFaceVertexColors(colorSet=layer)
black = OM.MColor()
black = (0, 0, 0, 1)
layerPaletteArray = OM.MColorArray()
layerPaletteArray.setLength(8)
for k in range(0, 8):
layerPaletteArray[k] = black
n = 0
alphaMax = 0
for k in range(len(layerColorArray)):
match = False
for p in range(0, 8):
if ((layerColorArray[k].r == layerPaletteArray[p].r)
and (layerColorArray[k].g == layerPaletteArray[p].g)
and (layerColorArray[k].b == layerPaletteArray[p].b)):
match = True
if (not match) and (n < 8):
layerPaletteArray[n] = layerColorArray[k]
n += 1
if layerColorArray[k].a > alphaMax:
alphaMax = layerColorArray[k].a
if maya.cmds.floatSlider('layerOpacitySlider', exists=True):
maya.cmds.floatSlider('layerOpacitySlider',
edit=True,
value=alphaMax)
sxglobals.settings.layerAlphaMax = alphaMax
for k in range(0, 8):
maya.cmds.palettePort('layerPalette',
edit=True,
rgb=(k, layerPaletteArray[k].r,
layerPaletteArray[k].g,
layerPaletteArray[k].b))
maya.cmds.palettePort('layerPalette', edit=True, redraw=True)
if 'layer' not in layer:
if maya.cmds.optionMenu('layerBlendModes', exists=True):
maya.cmds.optionMenu('layerBlendModes',
edit=True,
enable=False)
if maya.cmds.text('layerOpacityLabel', exists=True):
maya.cmds.text('layerOpacityLabel', edit=True, enable=False)
if maya.cmds.floatSlider('layerOpacitySlider', exists=True):
maya.cmds.floatSlider('layerOpacitySlider',
edit=True,
enable=False)
return
# Blend modes are only valid for color layers,
# not material channels
else:
if maya.cmds.text('layerOpacityLabel', exists=True):
maya.cmds.text('layerOpacityLabel', edit=True, enable=True)
if maya.cmds.floatSlider('layerOpacitySlider', exists=True):
maya.cmds.floatSlider('layerOpacitySlider',
edit=True,
enable=True)
attr = ('.' + sxglobals.settings.project['RefNames'][
sxglobals.settings.tools['selectedLayerIndex'] - 1] +
'BlendMode')
mode = maya.cmds.getAttr(str(obj) + attr) + 1
maya.cmds.optionMenu('layerBlendModes',
edit=True,
select=mode,
enable=True)
def compositeLayers(self):
# startTimeOcc = maya.cmds.timerX()
if sxglobals.settings.tools['compositeEnabled']:
numLayers = sxglobals.settings.project['LayerCount']
maya.cmds.polyColorSet(sxglobals.settings.shapeArray,
currentColorSet=True,
colorSet='composite')
for selected in sxglobals.settings.shapeArray:
selectionList = OM.MSelectionList()
selectionList.add(selected)
nodeDagPath = OM.MDagPath()
nodeDagPath = selectionList.getDagPath(0)
MFnMesh = OM.MFnMesh(nodeDagPath)
sourceColorArray = OM.MColorArray()
targetColorArray = OM.MColorArray()
targetColorArray = MFnMesh.getFaceVertexColors(
colorSet='layer1')
faceIds = OM.MIntArray()
vtxIds = OM.MIntArray()
lenSel = len(targetColorArray)
faceIds.setLength(lenSel)
vtxIds.setLength(lenSel)
# generate faceID and vertexID arrays
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
k = 0
while not fvIt.isDone():
faceIds[k] = fvIt.faceId()
vtxIds[k] = fvIt.vertexId()
k += 1
fvIt.next()
sel = str(selected)
shading = int(maya.cmds.getAttr(sel + '.shadingMode'))
# Set layer1 to black if hidden
visAttr = '.layer1Visibility'
vis = bool(maya.cmds.getAttr(sel + visAttr))
if not vis:
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
k = 0
while not fvIt.isDone():
targetColorArray[k].r = 0.0
targetColorArray[k].g = 0.0
targetColorArray[k].b = 0.0
targetColorArray[k].a = 1.0
k += 1
fvIt.next()
# accumulate targetColorArray through the remaining layers
if shading == 0:
if numLayers > 1:
for i in range(2, numLayers + 1):
sourceLayer = 'layer' + str(i)
modeAttr = '.' + sourceLayer + 'BlendMode'
mode = int(maya.cmds.getAttr(sel + modeAttr))
visAttr = '.' + sourceLayer + 'Visibility'
vis = bool(maya.cmds.getAttr(sel + visAttr))
sourceColorArray = MFnMesh.getFaceVertexColors(
colorSet=sourceLayer)
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
if not vis:
continue
elif mode == 0:
k = 0
while not fvIt.isDone():
targetColorArray[k].r = (
sourceColorArray[k].r *
sourceColorArray[k].a +
targetColorArray[k].r *
(1 - sourceColorArray[k].a))
targetColorArray[k].g = (
sourceColorArray[k].g *
sourceColorArray[k].a +
targetColorArray[k].g *
(1 - sourceColorArray[k].a))
targetColorArray[k].b = (
sourceColorArray[k].b *
sourceColorArray[k].a +
targetColorArray[k].b *
(1 - sourceColorArray[k].a))
#targetColorArray[k].a = 1.0
k += 1
fvIt.next()
elif mode == 1:
k = 0
while not fvIt.isDone():
targetColorArray[k].r += sourceColorArray[
k].r * sourceColorArray[k].a
targetColorArray[k].g += sourceColorArray[
k].g * sourceColorArray[k].a
targetColorArray[k].b += sourceColorArray[
k].b * sourceColorArray[k].a
#targetColorArray[k].a = 1.0
k += 1
fvIt.next()
elif mode == 2:
# layer2 lerp with white using (1-alpha), multiply with layer1
k = 0
while not fvIt.isDone():
sourceColorArray[k].r = (
(sourceColorArray[k].r *
sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
sourceColorArray[k].g = (
(sourceColorArray[k].g *
sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
sourceColorArray[k].b = (
(sourceColorArray[k].b *
sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
targetColorArray[k].r = sourceColorArray[
k].r * targetColorArray[k].r
targetColorArray[k].g = sourceColorArray[
k].g * targetColorArray[k].g
targetColorArray[k].b = sourceColorArray[
k].b * targetColorArray[k].b
k += 1
fvIt.next()
else:
print('SX Tools Error: Invalid blend mode')
return
elif shading == 1:
targetColorArray = MFnMesh.getFaceVertexColors(
colorSet=sxglobals.settings.tools['selectedLayer'])
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
k = 0
while not fvIt.isDone():
if targetColorArray[k].a == 0.0:
targetColorArray[k].r = 0.0
targetColorArray[k].g = 0.0
targetColorArray[k].b = 0.0
k += 1
fvIt.next()
elif shading == 2:
targetColorArray = MFnMesh.getFaceVertexColors(
colorSet=sxglobals.settings.tools['selectedLayer'])
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
k = 0
while not fvIt.isDone():
targetColorArray[k].r = targetColorArray[k].a
targetColorArray[k].g = targetColorArray[k].a
targetColorArray[k].b = targetColorArray[k].a
targetColorArray[k].a = 1.0
k += 1
fvIt.next()
MFnMesh.setFaceVertexColors(targetColorArray, faceIds, vtxIds)
def mergeLayers(self, objects, sourceLayer, targetLayer, up):
# startTimeOcc = maya.cmds.timerX()
attrA = '.' + str(sourceLayer) + 'BlendMode'
attrB = '.' + str(targetLayer) + 'BlendMode'
color = sxglobals.settings.project['LayerData'][sourceLayer][1]
fillColor = OM.MColor()
fillColor.r = color[0]
fillColor.g = color[1]
fillColor.b = color[2]
fillColor.a = color[3]
for obj in objects:
mode = int(maya.cmds.getAttr(obj + attrA))
selectionList = OM.MSelectionList()
selectionList.add(obj)
nodeDagPath = OM.MDagPath()
nodeDagPath = selectionList.getDagPath(0)
MFnMesh = OM.MFnMesh(nodeDagPath)
sourceColorArray = OM.MColorArray()
targetColorArray = OM.MColorArray()
fillColorArray = OM.MColorArray()
sourceColorArray = MFnMesh.getFaceVertexColors(
colorSet=sourceLayer)
targetColorArray = MFnMesh.getFaceVertexColors(
colorSet=targetLayer)
fillColorArray = MFnMesh.getFaceVertexColors(colorSet=sourceLayer)
faceIds = OM.MIntArray()
vtxIds = OM.MIntArray()
lenSel = len(sourceColorArray)
faceIds.setLength(lenSel)
vtxIds.setLength(lenSel)
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
k = 0
while not fvIt.isDone():
faceIds[k] = fvIt.faceId()
vtxIds[k] = fvIt.vertexId()
fillColorArray[k] = fillColor
k += 1
fvIt.next()
fvIt = OM.MItMeshFaceVertex(nodeDagPath)
# alpha blend
if mode == 0:
k = 0
while not fvIt.isDone():
targetColorArray[k].r = (
sourceColorArray[k].r * sourceColorArray[k].a +
targetColorArray[k].r * (1 - sourceColorArray[k].a))
targetColorArray[k].g = (
sourceColorArray[k].g * sourceColorArray[k].a +
targetColorArray[k].g * (1 - sourceColorArray[k].a))
targetColorArray[k].b = (
sourceColorArray[k].b * sourceColorArray[k].a +
targetColorArray[k].b * (1 - sourceColorArray[k].a))
targetColorArray[k].a += sourceColorArray[k].a
if targetColorArray[k].a > 1.0:
targetColorArray[k].a = 1.0
k += 1
fvIt.next()
# additive
elif mode == 1:
k = 0
while not fvIt.isDone():
faceIds[k] = fvIt.faceId()
vtxIds[k] = fvIt.vertexId()
targetColorArray[
k].r += sourceColorArray[k].r * sourceColorArray[k].a
targetColorArray[
k].g += sourceColorArray[k].g * sourceColorArray[k].a
targetColorArray[
k].b += sourceColorArray[k].b * sourceColorArray[k].a
targetColorArray[k].a += sourceColorArray[k].a
if targetColorArray[k].a > 1.0:
targetColorArray[k].a = 1.0
k += 1
fvIt.next()
# multiply
elif mode == 2:
# layer2 lerp with white using (1-alpha), multiply with layer1
k = 0
while not fvIt.isDone():
faceIds[k] = fvIt.faceId()
vtxIds[k] = fvIt.vertexId()
sourceColorArray[k].r = (
(sourceColorArray[k].r * sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
sourceColorArray[k].g = (
(sourceColorArray[k].g * sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
sourceColorArray[k].b = (
(sourceColorArray[k].b * sourceColorArray[k].a) +
(1.0 * (1 - sourceColorArray[k].a)))
targetColorArray[
k].r = sourceColorArray[k].r * targetColorArray[k].r
targetColorArray[
k].g = sourceColorArray[k].g * targetColorArray[k].g
targetColorArray[
k].b = sourceColorArray[k].b * targetColorArray[k].b
k += 1
fvIt.next()
else:
print('SX Tools Error: Invalid blend mode')
return
if up:
maya.cmds.polyColorSet(obj,
currentColorSet=True,
colorSet=targetLayer)
MFnMesh.setFaceVertexColors(targetColorArray, faceIds, vtxIds)
maya.cmds.polyColorSet(obj,
currentColorSet=True,
colorSet=sourceLayer)
MFnMesh.setFaceVertexColors(fillColorArray, faceIds, vtxIds)
else:
maya.cmds.polyColorSet(obj,
currentColorSet=True,
colorSet=sourceLayer)
MFnMesh.setFaceVertexColors(targetColorArray, faceIds, vtxIds)
maya.cmds.polyColorSet(obj,
currentColorSet=True,
colorSet=targetLayer)
MFnMesh.setFaceVertexColors(fillColorArray, faceIds, vtxIds)
maya.cmds.setAttr(str(obj) + attrA, 0)
maya.cmds.setAttr(str(obj) + attrB, 0)