def makeShards(number, size, sizeVar, rgb1, rgb2, transparency, glow):
'''
Creates a number of ice shard particles
number : Number of particles to create
size : Radius of the particles
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 octahedrons, add them to the list
and assign shaders. The list of objects is returned.
'''
cmds.progressWindow(e=1, progress=0, status='Making Shards...')
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):] = [cmds.polyPlatonicSolid(r=radius, st=2)[0]]
cmds.polySoftEdge(list[-1], a=0)
cmds.sets(list[-1], e=1, forceElement=SGList[random.randint(0, 4)])
cmds.progressWindow(e=1, step=100 / number)
count += 1
return list
def CreateBushes(self, posX=0, posZ=0):
brushesBase = cmds.polyPrimitive(r=0.4, pt=0)[0]
cmds.polyChipOff(dup=False, kft=False)
cmds.polyChipOff(dup=False, kft=True, ltz=0.1, ran=1.0)
cmds.polyExtrudeFacet(ltz=0.2)
cmds.polySmooth()
cmds.polySeparate()
cmds.xform(cp=True)
for leaf in cmds.ls(sl=True):
leafScale = round(random.uniform(2, 2.5), 3)
cmds.select(leaf)
cmds.polySoftEdge(a=0, name=leaf)
cmds.scale(leafScale, leafScale, leafScale)
leafPosition = cmds.xform(leaf, q=True, rp=True, ws=True)
if leafPosition[1] < 0:
cmds.delete(leaf)
else:
cmds.xform(leaf, t=leafPosition, ws=True)
self.SetRandomLeafColor(leaf)
cmds.setAttr(brushesBase + ".translateX", posX)
cmds.setAttr(brushesBase + ".translateZ", posZ)
return cmds.rename(brushesBase, 'Bushes#')
def ldmt_turboSmooth():
mods = cmds.getModifiers()
mel.eval('resetPolySelectConstraint;')
sel = cmds.ls(sl=1,o=1)
sel = sel[0]
cmds.select(sel+'.e[*]',r=1)
cmds.polySelectConstraint(m=3,t=0x8000,sm=1)
cmds.sets(n="ldmt_turboSmoothQS")
currentSel = cmds.ls(sl=1)
if currentSel != []:
try:
cmds.polyCrease(value=1)
except:
pass
cmds.select(sel,r=1)
cmds.polySmooth(sel,mth=0,sdt=2,ovb=2,ofb=3,ofc=1,ost=1,ocr=1,dv=1,bnr=1,c=0,kb=0,ksb=1,khe=1,kt=0,kmb=0,suv=1,peh=1,sl=1,dpe=1,ps=0.1,ro=1,ch=1)
cmds.select("ldmt_turboSmoothQS",r=1)
currentSel = cmds.ls(sl=1)
if currentSel != []:
try:
cmds.polySoftEdge(a=0,ch=1)
cmds.polyCrease(value=0)
except:
pass
if mods == 4:
try:
cmds.polyCrease(value=1)
except:
pass
cmds.polySelectConstraint(m=0,dis=1)
cmds.select(sel,r=1)
cmds.delete("ldmt_turboSmoothQS")
def makeShards(number,size,sizeVar,rgb1,rgb2,transparency,glow):
'''
Creates a number of ice shard particles
number : Number of particles to create
size : Radius of the particles
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 octahedrons, add them to the list
and assign shaders. The list of objects is returned.
'''
cmds.progressWindow(e=1,progress=0,status='Making Shards...')
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):] = [cmds.polyPlatonicSolid(r=radius,st=2)[0]]
cmds.polySoftEdge(list[-1],a=0)
cmds.sets(list[-1], e=1, forceElement=SGList[random.randint(0,4)])
cmds.progressWindow(e=1,step=100/number)
count += 1
return list
def run(): #get selected edgeloop edgeLoop = cmds.ls(selection=True) #get verticles in the edge loop vertLoop = cmds.polyListComponentConversion(edgeLoop, fromEdge=True, toVertex=True) #sort individual verticles into a list vertLoop = cmds.ls(vertLoop, flatten=True) #open undo chunk so entire operation is a single action cmds.undoInfo(openChunk = True) #soften the mesh normals mesh = cmds.listRelatives(parent=1) cmds.polySoftEdge(mesh, angle=180) #run on each vertex on the edgeloop for vert in vertLoop: #unlock the normal of the vertex cmds.polyNormalPerVertex(vert, unFreezeNormal=True) #get the normals of the vertex on the loop vertNormals = list(cmds.polyNormalPerVertex(vert, query=True, xyz=True)) #get only the first three vectors vertNormals = vertNormals[:3] # select the neighboring verticles using the declared function below vertNeighbors(vert, vertLoop) #set their normal angle to match the vertex on the loop cmds.polyNormalPerVertex(xyz=vertNormals) #reselect the edge loops cmds.select(edgeLoop) #close undo chunk, operation is done cmds.undoInfo(closeChunk = True)
def initGeometry(self):
selection = m.ls(sl=True)
meshes = m.ls(selection=True,
long=True,
dagObjects=True,
allPaths=True,
type='mesh',
noIntermediate=True)
if meshes:
for mesh in meshes:
transform = com.getParent(mesh)
if transform:
self.backupers.append(backuper.Backuper(mesh, transform))
m.polyNormalPerVertex(mesh, ufn=True)
m.polySoftEdge(transform, a=180, ch=False)
geomProcessor = geom_processor.GeomProcessor(mesh)
geomProcessor.params = Parameters
self.processors.append(geomProcessor)
else:
pm.confirmDialog(
title='Error',
message='Invalid selection. Select at least one mesh.',
button=['OK'],
defaultButton='OK',
icon='critical')
return
m.select(selection, r=True)
def crystalise(base):
'''
Adds hexagonal crystals to a branch
base : The branch to be crystallised
A crystal is created by scaling the top and bottom rings of vertices of a
cylinder. The crystal is aligned to the base branch and scaled to match.
The crystal is duplicated, randomly distributed along the branch and scaled
relative to their positioning. The crystals are combined with the base branch
mesh and this object is returned.
'''
crystal=[cmds.polyCylinder(r=1,sx=6,sy=2)[0]]
cmds.polySoftEdge(crystal[0], a=0)
cmds.scale(0.6,0.3,0.6,crystal[0]+'.f[12:13]',r=1)
[(tx,ty,tz)] = cmds.getAttr(base+'.translate')
[(rx,ry,rz)] = cmds.getAttr(base+'.rotate')
cmds.move(tx,ty,tz,crystal[0])
cmds.rotate(rx,ry,rz,crystal[0])
[x1,y1,z1,x2,y2,z2] = cmds.xform(base+'.vtx[0:1]',q=1,t=1,ws=1)
baseScale = cmds.getAttr(base+'.scaleX')
cmds.scale(0.5,0.2,0.5,crystal[0])
length = ((x2-x1)**2+(z2-z1)**2)**0.5
for i in range(0,6):
crystal[len(crystal):]=[cmds.duplicate(crystal[0])[0]]
for x in crystal:
dist = (random.random())
cmds.move(length*dist,0,0,x,os=1,r=1,wd=1)
size = (1.5-dist)*(length/3)
cmds.scale(size,size,size,x,r=1)
cmds.rotate(0,30,0,x,r=1)
crystal += [base]
return combineParts(crystal,base)
def dessBranche(formule, puissance, getPosDeb, taille, epaisseur, embout,
nbSousBranches, proportion, rotationBranche):
g_branche = cmds.group(empty=True, name="branche")
pIniRotate = tuple(getPosDeb)
for i in range(1, nbSousBranches + 1):
getX = int(taille * proportion)
getPosDeb, getPosFin = dessCourbe(formule, puissance, getPosDeb,
taille, epaisseur, getX)
taille -= getX
c = cmds.rename("branche_" + formule + "_" + str(i))
cmds.parent(c, g_branche)
if (embout == 1):
s = cmds.polySphere(sx=6, sy=6, radius=2, n="embout")
cmds.polySoftEdge(a=180)
elif (embout == 2):
s = cmds.polyCube(w=2, h=2, d=2, n="embout")
cmds.rotate(45, 0, 45)
else:
s = cmds.polyCone(ax=[0, -1, 0], r=2, sa=12, n="embout")
cmds.polySoftEdge(a=60)
cmds.move(getPosFin[0], getPosFin[1], getPosFin[2], s)
cmds.parent(s, g_branche)
cmds.rotate(0, rotationBranche, 0, g_branche, pivot=pIniRotate)
return g_branche
def uvShellHardEdges():
'''
Sets uv border edges on a mesh has hard, and everythign else as soft.
'''
objList = cmds.ls(sl=True, o=True)
finalBorder = []
for subObj in objList:
cmds.select(subObj, r=True)
cmds.polyNormalPerVertex(ufn=True)
cmds.polySoftEdge(subObj, a=180, ch=1)
cmds.select(subObj + '.map[*]', r=True)
polySelectBorderShell(borderOnly=True)
uvBorder = cmds.polyListComponentConversion(te=True, internal=True)
uvBorder = cmds.ls(uvBorder, fl=True)
for curEdge in uvBorder:
edgeUVs = cmds.polyListComponentConversion(curEdge, tuv=True)
edgeUVs = cmds.ls(edgeUVs, fl=True)
if len(edgeUVs) > 2:
finalBorder.append(curEdge)
cmds.polySoftEdge(finalBorder, a=0, ch=1)
cmds.select(objList)
def HardedgeNormals(self): henselVerArray = cmds.ls( selection=True, fl=True ) if not henselVerArray: pass print "nothing selected" return if self.selectlive: # print"test: sel islive in HardedgeNormals" self.selectlive = False # print "self.selectlive", self.selectlive cmds.polyNormalPerVertex(ufn=True) cmds.select(cmds.polyListComponentConversion( henselVerArray, te=True )) cmds.polySoftEdge( a=self.NormalAngle.value() ) # cmds.polyNormalPerVertex(cmds.polyListComponentConversion( selVerArray, tv=True ),ufn=True) cmds.select(henselVerArray) self.VecOriginlist = nrmedittool.BuildVecOrigin() self.SliderIntensity.setValue(0) self.selectlive = True return else: # print"test: sel is not live in HardedgeNormals" cmds.polyNormalPerVertex(ufn=True) cmds.select(cmds.polyListComponentConversion( henselVerArray, te=True )) cmds.polySoftEdge( a=self.NormalAngle.value() ) cmds.select(henselVerArray) self.VecOriginlist = nrmedittool.BuildVecOrigin() return
def gameOpt():
# dialogue box
softenEdgeDialogue = cmds.confirmDialog(t='Soften Edges',
b=['Yes', 'No'],
defaultButton='Yes',
cancelButton='No',
dismissString='No')
# this softens the mesh's edges, should the user click 'Yes'
if softenEdgeDialogue == 'Yes':
for i in objs:
cmds.select(i)
cmds.polySoftEdge(a=180)
# this runs optimization commands for game engine
for i in objs:
cmds.select(i)
cmds.snapMode(gr=True)
cmds.move(rpr=True)
cmds.snapMode(gr=False)
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0, pn=1)
cmds.DeleteHistory()
# deselect
cmds.select(clear=True)
def initGeometry(self):
selection = m.ls(sl=True)
meshes = m.ls(
selection=True,
long=True,
dagObjects=True,
allPaths=True,
type='mesh',
noIntermediate=True
)
if meshes:
for mesh in meshes:
transform = com.getParent(mesh)
if transform:
self.backupers.append(backuper.Backuper(mesh, transform))
m.polyNormalPerVertex(mesh, ufn=True)
m.polySoftEdge(transform, a=180, ch=False)
geomProcessor = geom_processor.GeomProcessor(mesh)
geomProcessor.params = Parameters
self.processors.append(geomProcessor)
else:
pm.confirmDialog(
title='Error',
message='Invalid selection. Select at least one mesh.',
button=['OK'],
defaultButton='OK',
icon='critical'
)
return
m.select(selection, r=True)
def shell_border_edges_to_hard():
"""
Sets uv border edges on a mesh has hard, and everythign else as soft.
"""
objList = cmds.ls(sl=True, o=True)
finalBorder = []
for subObj in objList:
cmds.select(subObj, r=True)
cmds.polyNormalPerVertex(ufn=True)
cmds.polySoftEdge(subObj, a=180, ch=1)
cmds.select(subObj + '.map[*]', r=True)
polySelectBorderShell(borderOnly=True)
uvBorder = cmds.polyListComponentConversion(te=True, internal=True)
uvBorder = cmds.ls(uvBorder, fl=True)
for curEdge in uvBorder:
edgeUVs = cmds.polyListComponentConversion(curEdge, tuv=True)
edgeUVs = cmds.ls(edgeUVs, fl=True)
if len(edgeUVs) > 2:
finalBorder.append(curEdge)
cmds.polySoftEdge(finalBorder, a=0, ch=1)
cmds.select(objList)
def crystalise(base):
'''
Adds hexagonal crystals to a branch
base : The branch to be crystallised
A crystal is created by scaling the top and bottom rings of vertices of a
cylinder. The crystal is aligned to the base branch and scaled to match.
The crystal is duplicated, randomly distributed along the branch and scaled
relative to their positioning. The crystals are combined with the base branch
mesh and this object is returned.
'''
crystal = [cmds.polyCylinder(r=1, sx=6, sy=2)[0]]
cmds.polySoftEdge(crystal[0], a=0)
cmds.scale(0.6, 0.3, 0.6, crystal[0] + '.f[12:13]', r=1)
[(tx, ty, tz)] = cmds.getAttr(base + '.translate')
[(rx, ry, rz)] = cmds.getAttr(base + '.rotate')
cmds.move(tx, ty, tz, crystal[0])
cmds.rotate(rx, ry, rz, crystal[0])
[x1, y1, z1, x2, y2, z2] = cmds.xform(base + '.vtx[0:1]', q=1, t=1, ws=1)
baseScale = cmds.getAttr(base + '.scaleX')
cmds.scale(0.5, 0.2, 0.5, crystal[0])
length = ((x2 - x1)**2 + (z2 - z1)**2)**0.5
for i in range(0, 6):
crystal[len(crystal):] = [cmds.duplicate(crystal[0])[0]]
for x in crystal:
dist = (random.random())
cmds.move(length * dist, 0, 0, x, os=1, r=1, wd=1)
size = (1.5 - dist) * (length / 3)
cmds.scale(size, size, size, x, r=1)
cmds.rotate(0, 30, 0, x, r=1)
crystal += [base]
return combineParts(crystal, base)
def import_obj(file_path):
dirname, filename = os.path.split(file_path)
filename, ext = os.path.splitext(filename)
load_obj_plugin()
# usually when import and obj mesh the imported object name will be polySurface1
# check if there is already a polysSurface object in the scene root
if cmds.objExists('|polySurface1'):
import_name = '|{}_polySurface1'.format(filename)
else:
import_name = '|polySurface1'
# delete the mtl file before importing, we don't really want to create a new material
mtl_file = os.path.join(dirname, filename + '.mtl')
if os.path.exists(mtl_file):
os.remove(mtl_file)
cmds.file(file_path, i=True, typ='OBJ', options='mo=0')
# check if there is already an object with the filename in the scene
# if so update this mesh vertex position otherwise only rename the imported mesh
if cmds.objExists(filename):
sel = om.MSelectionList()
sel.add(import_name)
sel.add(filename)
mmesh_source = om.MFnMesh(sel.getDagPath(0))
mmesh_target = om.MFnMesh(sel.getDagPath(1))
if mmesh_source.numVertices != mmesh_target.numVertices:
raise Exception(
"Error, imported mesh doesn't have the same vertex count. {} -> {}"
.format(mmesh_source.numVertices, mmesh_target.numVertices))
points = mmesh_source.getPoints()
mmesh_target.setPoints(points)
cmds.delete(import_name)
else:
# clean object set
shapes = cmds.listRelatives(import_name, shapes=True, fullPath=True)
if shapes:
for shape in shapes:
objGroup = cmds.listConnections(shape,
type='objectSet',
exactType=True,
destination=False)
if objGroup:
cmds.delete(objGroup)
# polySoftEdge -a 180 -ch 1 polySurface1
cmds.polySoftEdge(import_name, a=180, ch=1)
cmds.delete(import_name, constructionHistory=True)
cmds.rename(import_name, filename)
# remove file
os.remove(file_path)
def softenEdge(*args):
mmSelectedItems = cmds.ls(sl = 1)
for mmItem in mmSelectedItems:
cmds.select(mmItem)
cmds.polySoftEdge(a=180);
cmds.select(cl = 1)
def softEdgeSelection():
"""
unlock normals and soft edge
"""
sel = cmds.ls(sl=True)
for node in sel:
cmds.polyNormalPerVertex(node, ufn=True)
cmds.polySoftEdge(node, angle=normalAngle)
def kmSoftEdge0(self):
selectionList = mc.ls(selection=True, type='transform')
if selectionList:
for obj in selectionList:
mc.polySoftEdge(obj, angle=0)
sel = mc.select(selectionList)
else:
print ">> No selection"
def createShape_mesh(numVertices,
numFaces,
faceCounts,
faceConnects,
points,
hardEdges,
name=None,
parent=None):
"""
Creates a mesh from the given parameters. These inputs are usually generated from the print_createShape_mesh function.
"""
if not parent:
parentMObject = OpenMaya.MObject()
else:
if not ka_pymel.isPyTransform(parent):
parent = pymel.PyNode(parent)
parentMObject = parent.__apimobject__()
if not name and parent:
name = parent.nodeName() + 'Shape'
faceCounts_MintArray = OpenMaya.MIntArray()
for i in faceCounts:
faceCounts_MintArray.append(i)
faceConnects_MIntArray = OpenMaya.MIntArray()
for i in faceConnects:
faceConnects_MIntArray.append(i)
points_MFloatPointArray = OpenMaya.MFloatPointArray()
for point in points:
points_MFloatPointArray.append(OpenMaya.MFloatPoint(*point))
meshFS = OpenMaya.MFnMesh()
newMesh = meshFS.create(numVertices, numFaces, points_MFloatPointArray,
faceCounts_MintArray, faceConnects_MIntArray,
parentMObject)
#for edge in hardEdges:
#meshFS.setEdgeSmoothing(edge, False)
meshFS.updateSurface()
if name:
mesh = cmds.rename(meshFS.name(), name)
else:
mesh = meshFS.name()
hardEdgesStrings = []
for edge in hardEdges:
hardEdgesStrings.append('%s.e[%s]' % (mesh, str(edge)))
cmds.sets(mesh, e=True, fe='initialShadingGroup')
cmds.polySoftEdge(*hardEdgesStrings, ch=0, a=0)
return pymel.PyNode(mesh)
def createMayaHelixNodes(self, x, y, colorname, strandType, mID):
"""
Create all the Maya nodes, set the initial attributes and connections.
There are 3 Maya nodes associated with each Strand: Transform Node,
Shape Node (spHalfCylinderHelixNode), and a Mesh Node (a generic Maya
Node that is used for rendering) The Mesh Node is the child of the
Transform Node, and spHalfCylinderHelixNode node inputs the shape data
into the Mesh Node, using cmds.connectAttr command
________________
| Transform Node |
----------------
|
________________ .inMesh .outputMesh _____________________
| Mesh Node |<---------------------------| HalfCylinderHelixNode |
---------------- -----------------------
"""
m = Mom()
cylinderName = "%s%s" % (m.helixNodeName, mID)
transformName = "%s%s" % (m.helixTransformName, mID)
meshName = "%s%s" % (m.helixMeshName, mID)
# shaderName = "%s%s" % (m.helixShaderName, mID)
cmds.createNode("transform", name=transformName, skipSelect=True)
cmds.setAttr("%s.rotateX" % transformName, 90)
cmds.setAttr("%s.translateX" % transformName, x)
cmds.setAttr("%s.translateY" % transformName, y)
cmds.createNode("mesh",
name=meshName,
parent=transformName,
skipSelect=True)
cmds.createNode("spHalfCylinderHelixNode",
name=cylinderName,
skipSelect=True)
cmds.connectAttr("%s.outputMesh" % cylinderName,
"%s.inMesh" % meshName)
# XXX - [SB] This should go away and we will ask the model for
# the right numbers...
vhi = self._virtualHelixItem
part = vhi.partItem().part()
cSType = part.crossSectionType()
cmds.setAttr("%s.rotation" % cylinderName, part.twistPerBase())
cmds.setAttr("%s.parity" % cylinderName, vhi.isEvenParity())
if cSType == LatticeType.HONEYCOMB:
cmds.setAttr("%s.rotationOffset" % cylinderName, 250)
cmds.setAttr("%s.decoratorRotOffset" % cylinderName, 90)
elif cSType == LatticeType.SQUARE:
cmds.setAttr("%s.rotationOffset" % cylinderName, 125)
cmds.setAttr("%s.decoratorRotOffset" % cylinderName, 200)
else:
raise NotImplementedError
cmds.setAttr("%s.strandType" % cylinderName, strandType)
self.updateColor(mID, colorname)
cmds.select(transformName)
cmds.polySoftEdge(a=89.99)
cmds.setAttr("%s.displayEdges" % meshName, 2)
cmds.select(clear=True)
return (cylinderName, transformName, meshName)
def unlockAndHarden():
"""
comverts selected components to vertices, unlocks and harden
"""
if cmds.ls(sl=True):
newSel = cmds.polyListComponentConversion(ff=True, fe=True, fuv=True, fvf=True, tv=True)
cmds.select(newSel)
cmds.polyNormalPerVertex(ufn=True)
cmds.polySoftEdge(angle=0, ch=False)
def smooth_copy(mesh, progressBar, progressStep): # 331
orig_name = self.static_base_meshes[0] # modified by Hiura
self.original_mesh = snapshot(mesh, 0) # modified by Hiura
self.original_mesh = cm.rename(self.original_mesh,
orig_name + "_MorphExport")
cm.polySoftEdge(self.original_mesh, a=180, ch=0)
cm.polyTriangulate(self.original_mesh, ch=0) # added by Hiura
self.vert_count = get_vert_count(self.original_mesh)
store_original_vert_positions(progressBar, progressStep)
def importObj(self, file, groupName): '''Import and prep an obj file. This is used to import the terrain object as well as the agent geometry objects.''' importedNodes = mc.file(file, returnNewNodes=True, type="OBJ", options='mo=0', groupName=groupName, groupReference=True, i=True) meshes = mc.ls(importedNodes, long=True, type="mesh") for mesh in meshes: mc.polySoftEdge(mesh, a=180, ch=False) [newGroup] = mc.ls(importedNodes, long=True, assemblies=True) return newGroup
def softenModel():
"""Applies polySoftEdge softening to all edges in the model"""
# select all edges of the parent, soften, and return to old selection
selected = cmds.ls(selection=True)
cmds.select(getParent(selected[0]), replace=True)
cmds.select(cmds.polyListComponentConversion(te=True))
cmds.polySoftEdge(a=180)
cmds.select(selected, replace=True)
def mirrorGeometry(node, across=0, merge=True, softEdge=True, threshold=0.001):
shapes = cmds.listRelatives(node, s=True, pa=True)
if not shapes:
return False
if cmds.objectType(shapes[0]) != 'mesh':
return False
shape = shapes[0]
pivot = cmds.xform(node, q=True, ws=True, piv=True)
if across == 0:
direction = 4
index = 2
elif across == 1:
direction = 0
index = 0
else:
direction = 2
index = 1
kwargs = {}
if merge:
kwargs['mm'] = True
kwargs['mt'] = threshold
else:
kwargs['mm'] = False
cmds.polyMirrorFace(shape, ws=True, d=direction, p=pivot[0:3], **kwargs)
if softEdge:
vertices = cmds.polyListComponentConversion(shape,
fv=1,
ff=1,
fe=1,
fuv=1,
fvf=1,
tv=1)
vertices = cmds.ls(vertices, fl=True)
centerVertices = []
for vertex in vertices:
pos = cmds.pointPosition(vertex, w=True)
if abs(pivot[index] - pos[index]) <= threshold:
centerVertices.append(vertex)
centerEdges = []
if centerVertices:
centerEdges = cmds.polyListComponentConversion(centerVertices,
fv=1,
ff=1,
fuv=1,
fvf=1,
te=1,
internal=1)
if centerEdges:
cmds.polySoftEdge(centerEdges, a=180)
def j_doFreezeVtx():
'''
do freeze vertex position on channelBox
'''
obj = mc.ls(sl = 1)
mc.select(clear =1)
for i in obj:
mc.polySoftEdge( i, a =180 , ch = 0 )
mc.delete( obj , ch =1 )
mc.select(obj , r =1)
print "Complete !!"
def j_doFreezeVtx():
'''
do freeze vertex position on channelBox
'''
obj = mc.ls(sl=1)
mc.select(clear=1)
for i in obj:
mc.polySoftEdge(i, a=180, ch=0)
mc.delete(obj, ch=1)
mc.select(obj, r=1)
print "Complete !!"
def initializeRibbon(initWidth):
mc.polyPlane(sx = 240, sy = 2.0, n = "ribbonTemp", w = initWidth, h = 0.165)
mc.rename("polyPlane1", "ribbonTempHistory")
mc.polySoftEdge( a = 180)
mc.lattice( n = 'ribbon', cp = True, dv = (2, 4, 2), objectDentered = True, ldv = (2, 3, 2), outsideLattice = True )
mc.hide()
mc.select('ribbonTempHistory.vtx[1]', r=True )
mc.ChamferVertex()
mc.rename( "polyChamfer1", "tempChamfer" )
mc.seAttr( 'tempChamfer.width', 1)
mc.delete( 'ribbonTemp.vtx[72]' )
return
def initializeBalloon(initRadius):
mc.polySphere(sx = 12, sy = 8, n = "balloonTemp", r = initRadius)
mc.rename( "polySphere1", "balloonTempHistory")
mc.polySoftEdge( a = 180 )
mc.lattice( n = 'balloon', cp = True, dv = (2, 4, 2), objectCentered = True, ldv = (2, 3, 2), outsideLattice = True )
mc.hide()
mc.select('balloonTemp.vtx[84]', r=True)
mc.ChamferVertex()
mc.rename( "polyChamfer1", "tempChamfer" )
mc.setAttr( 'tempChamfer.width', .1 )
mc.delete( 'balloonTemp.f[72]' )
return
def toAlembic(parameters, arguments):
"""
Converts an Obj file to Alembic file.
:param parameters: Command line parameters.
:type parameters: object
:param arguments: Command line arguments.
:type arguments: object
:return: Definition success.
:rtype: bool
"""
inputFile = parameters.inputFile
if inputFile is None:
sys.stderr.write("!> {0} | No input file provided!\n".format(inspect.getmodulename(__file__)))
return
if not os.path.exists(inputFile):
sys.stderr.write("!> {0} | '{1}' file doesn't exists'!\n".format(inspect.getmodulename(__file__), inputFile))
return
outputFile = os.path.abspath(parameters.outputFile if parameters.outputFile else re.sub(r"\.\w+$", ".abc", inputFile))
exportAll = parameters.exportAll
frameRange = parameters.frameRange
try:
frameIn, frameOut = frameRange.split("-")
except ValueError:
sys.stderr.write("!> {0} | The frame range format could not be determined!\n".format(inspect.getmodulename(__file__)))
return
not cmds.pluginInfo("AbcExport", q=True, loaded=True) and cmds.loadPlugin("AbcExport")
cmds.file(inputFile, o=True)
# Processing ".obj" file normals.
if re.search(r"\.obj$", inputFile, flags=re.IGNORECASE):
for mesh in cmds.ls(type="mesh", long=True):
cmds.polyNormalPerVertex(mesh, ufn=True)
cmds.polySoftEdge(mesh, a=180, ch=False)
if exportAll:
jobCommand = "-frameRange {0} {1} -uvWrite -file {2}".format(frameIn, frameOut, outputFile)
else:
rootNodes = list(set([getRoot(mesh) for mesh in cmds.ls(type="mesh", long=True)]))
rootFlags = " ".join(["-root {0}".format(rootNode) for rootNode in rootNodes])
jobCommand = "-frameRange {0} {1} -uvWrite {2} -file {3}".format(frameIn, frameOut, rootFlags, outputFile)
sys.stderr.write("{0} | Exporting to 'Alembic' with following job command: '{1}'\n".format(inspect.getmodulename(__file__), jobCommand))
cmds.AbcExport(j=jobCommand)
return True
def createBaseMesh():
ob = cmd.ls(sl=True)[0]
if (cmd.nodeType(ob) == 'transform') and (cmd.attributeQuery(
'name', node=ob, exists=True)):
#initialize
merge = True
name = cmd.getAttr('%s.name' % ob)
frames = cmd.getAttr('%s.count' % ob)
ctlObj = cmd.getAttr('%s.myCtl' % ob)
thresh = 0.015
extrudeAmt = 0.2
edgeAmt = 0.05
newGp = cmd.group(em=True, w=True, n='%s_GEO_GP' % name)
cmd.addAttr(newGp, ln='name', dt='string')
cmd.setAttr("%s.name" % newGp, name, type='string')
#create the new objects
for i in range(1, frames + 1):
cmd.setAttr('%s.frame' % ctlObj, i)
newName = '%s_%02d_GEO' % (name, i)
newOb = cmd.duplicate(ob, n=newName)[0]
cmd.setAttr('%s.v' % newOb, 0)
#insert a handler here to detect double faces or bad geo
if merge:
cmd.polyMergeVertex(newOb, ch=1, d=thresh)
selectBorderEdges(newOb)
cmd.polyExtrudeEdge(ch=1, d=2, lty=edgeAmt)
cmd.polyExtrudeFacet(newOb, ch=1, kft=True, ltz=extrudeAmt, d=2)
cmd.select(newOb)
mel.eval(
'polyCleanupArgList 4 { "0","1","1","0","1","0","0","0","0","1e-005","0","1e-005","0","1e-005","0","-1","0","0"}'
)
cmd.polySoftEdge(newOb, ch=1, a=180)
cmd.parent(newOb, newGp)
cmd.setKeyframe('%s.v' % newOb, t=[i - 1, i + 1], v=0)
cmd.setKeyframe('%s.v' % newOb, t=i, v=1)
for xyz in ['x', 'y', 'z']:
cmd.setAttr('%s.t%s' % (newOb, xyz), 0)
cmd.delete(newOb, ch=True)
shit = cmd.ls('*%s*' % newName, io=True, type='mesh')
if shit:
cmd.delete(shit)
#check for non-manifold and fix
if (cmds.polyInfo(newOb, nme=True, nmv=True, nue=True, nuv=True)):
print('%s had nonmanifold Geo, attempting fix...' % newOb)
mel.eval(
'polyCleanupArgList 4 { "0","1","0","0","0","0","0","0","0","1e-005","0","1e-005","0","1e-005","0","1","0","0" }'
)
else:
cmd.error('You must select only one mesh object')
def create_platonic_sphere_a():
mel.eval(
'polyPlatonic -primitive 4 -subdivisionMode 0 -subdivisions 1 -radius 1 -sphericalInflation 1;'
)
sphere = cmds.ls(selection=True)
cmds.polySoftEdge(sphere, a=180)
cmds.select(sphere)
message = 'Create > Polygon Primitives > <span style=\"color:#FF0000;text-decoration:underline;\">Platonic Solid</span>'
cmds.inViewMessage(amg=message, pos='botLeft', fade=True, alpha=.9)
cmds.inViewMessage(amg='(Settings: Icosahedron, Quads, 1, 1, 1)',
pos='botLeft',
fade=True,
alpha=.9)
def add_spikes(obj):
"""This function adds spikes to a polygon object."""
try:
polyCount = cmds.polyEvaluate(obj, face=True)
except:
raise
for i in range(0,polyCount):
face="%s.f[%s]" % (obj,i)
cmds.polyExtrudeFacet(face, ltz=1, ch=0)
cmds.polyExtrudeFacet(face, ltz=1, ch=0, ls=[0.1,0.1,0.1])
cmds.polySoftEdge(obj, a=180, ch=0)
cmds.select(obj)
def softEdgeSelection(unlockAndHarden=180, history=True):
"""
unlock normals and soft edge
"""
normalAngle = SETTINGS.get('default_normal_angle')
if normalAngle == None:
normalAngle = unlockAndHarden
SETTINGS.add('default_normal_angle', normalAngle)
if cmds.ls(sl=True):
newSel = cmds.polyListComponentConversion(fv=True, ff=True, fuv=True, fvf=True, te=True, vfa=True)
if newSel:
cmds.select(newSel)
#cmds.polyNormalPerVertex(ufn=True)
cmds.polySoftEdge(angle=normalAngle, ch=history)
def prepare_geo(self, original, smooth, smoothValue, projectUV, scaleUV):
if smooth:
print '> smooth normals...'
cmds.polySoftEdge(a=smoothValue, ch=False)
if projectUV:
print '> project uvs...'
cmds.polyProjection(original+'.f[*]',
ch=False,
type='Planar',
ibd=True,
isu=scaleUV,
isv=scaleUV,
md='y')
cmds.select(original, r=True)
def j_doFreezeVtx(): #10
u'''
清除点的位移信息
'''
obj = mc.ls(type = "mesh")
if len(obj) == 0:
j_text1 = u'There Is No Mesh To Operate !';
return j_text1 ;
mc.select(clear =1)
for i in obj:
mc.polySoftEdge( i, a =180 , ch = 0 )
mc.delete( obj , ch =1 )
mc.select(obj , r =1)
print "Complete !!"
def j_doFreezeVtx(): #10
u'''
清除点的位移信息
'''
obj = mc.ls(type="mesh")
if len(obj) == 0:
j_text1 = u'There Is No Mesh To Operate !'
return j_text1
mc.select(clear=1)
for i in obj:
mc.polySoftEdge(i, a=180, ch=0)
mc.delete(obj, ch=1)
mc.select(obj, r=1)
print "Complete !!"
def importObj(self, file, groupName):
'''Import and prep an obj file. This is used to import the terrain
object as well as the agent geometry objects.'''
importedNodes = mc.file(file,
returnNewNodes=True,
type="OBJ",
options='mo=0',
groupName=groupName,
groupReference=True,
i=True)
meshes = mc.ls(importedNodes, long=True, type="mesh")
for mesh in meshes:
mc.polySoftEdge(mesh, a=180, ch=False)
[newGroup] = mc.ls(importedNodes, long=True, assemblies=True)
return newGroup
def apply_hard_soft_edges():
'''grabs target meshes to match hard soft edges'''
targets = get_target_meshes(baseObject=cmds.ls(sl=True))
hardEdges, edgeCount = getInfo(sel=cmds.ls(sl=True))
for obj in targets:
'''set all edges to 180'''
cmds.polySoftEdge(str(obj) + '.e[0:' + str(edgeCount) + ']',
angle=180,
ch=1)
print obj
for edge in hardEdges:
cmds.polySoftEdge(str(obj) + '.e[0:' + str(edge) + ']',
angle=0,
ch=1)
def setOrigNormalSoft( target ):
ioMeshs = sgModelDag.getIntermediateObjects( target )
for ioMesh in ioMeshs:
mesh = cmds.createNode( 'mesh' )
meshObj = sgModelDag.getTransform( mesh )
cmds.connectAttr( ioMesh+'.outMesh', mesh+'.inMesh' )
cmds.refresh()
cmds.disconnectAttr( ioMesh+'.outMesh', mesh+'.inMesh' )
cmds.polyNormalPerVertex( mesh, ufn=1 )
cmds.polySoftEdge( mesh, a=180, ch=1 )
cmds.connectAttr( mesh+'.outMesh', ioMesh+'.inMesh' )
cmds.refresh()
cmds.disconnectAttr( mesh+'.outMesh', ioMesh+'.inMesh' )
cmds.delete( meshObj )
def setOrigNormalSoft(target):
ioMeshs = sgModelDag.getIntermediateObjects(target)
for ioMesh in ioMeshs:
mesh = cmds.createNode('mesh')
meshObj = sgModelDag.getTransform(mesh)
cmds.connectAttr(ioMesh + '.outMesh', mesh + '.inMesh')
cmds.refresh()
cmds.disconnectAttr(ioMesh + '.outMesh', mesh + '.inMesh')
cmds.polyNormalPerVertex(mesh, ufn=1)
cmds.polySoftEdge(mesh, a=180, ch=1)
cmds.connectAttr(mesh + '.outMesh', ioMesh + '.inMesh')
cmds.refresh()
cmds.disconnectAttr(mesh + '.outMesh', ioMesh + '.inMesh')
cmds.delete(meshObj)
def smooth_shells(lssl=None, hist=None):
"""Usage(optional, select objects):
>> smooth_shell(hist=False)
Args:
- hist, bool, (default True) construction history
"""
lssl = cm.ls(lssl)
if not lssl:
lssl = [x for x
in cm.ls(sl=1)
if cm.listRelatives(x, s=1, type="mesh")]
hist = True if hist is None else hist
for sel in lssl:
cm.polySoftEdge(sel, a=180, ch=hist)
borders = shell_border(sel + ".map[*]")
# cm.select(borders)
cm.polySoftEdge(borders, a=0, ch=hist)
def addPolyRemeshNodeType(svgTransform, svgExtruder, svgTool, svgMesh, svgAdjuster):
cmds.select(svgTransform)
polyRemeshNode = cmds.polyRemesh(nodeState=1, interpolationType=0, tessellateBorders=0, refineThreshold=1.0)[0]
cmds.addAttr( polyRemeshNode, hidden=True, longName='typeMessage', attributeType='message' )
cmds.connectAttr( svgTool+'.remeshMessage', polyRemeshNode+'.typeMessage' )
cmds.connectAttr( svgExtruder+'.capComponents', polyRemeshNode+'.inputComponents' )
#set normals
cmds.polySoftEdge(svgMesh, angle=30, ch=1)
#add the UV proj node
addUVNodeToSVG(svgTransform, svgExtruder)
#connect the deformer
connectSVGShellDeformer(svgMesh, svgTransform, svgExtruder, svgTool, svgAdjuster)
showThesvgTool(svgTool, svgTransform)
def Action_SelectAngle(self):
maya_cmds.undoInfo(openChunk=True)
try:
maya_cmds.polySoftEdge(caching=True,
angle=self.window.Float_SelectAngle.value())
maya_cmds.polySelectConstraint(mode=2, type=0x8000, smoothness=1)
mel_eval('resetPolySelectConstraint')
maya_cmds.polySelectConstraint(mode=2, type=0x8000, propagate=4)
mel_eval('resetPolySelectConstraint')
setA = maya_cmds.sets()
setB = maya_cmds.sets(
maya_cmds.polyListComponentConversion(maya_cmds.ls(
selection=True, objectsOnly=True),
toEdge=True))
maya_cmds.select(maya_cmds.sets(setA, subtract=setB))
maya_cmds.delete(setA, setB)
except Exception as e:
print >> stderr, str(e)
maya_cmds.undoInfo(closeChunk=True)
def resetMesh():
"""Softens, deletes creases, and sets vertex colors to a sane default"""
selected = cmds.ls(selection=True)
cmds.select(getParent(selected[0]), replace=True)
setColorset()
# Soften all edges
cmds.select(cmds.polyListComponentConversion(te=True))
cmds.polySoftEdge(a=180)
# Reset vertex colors of every vertex to a base color + no crease data
cmds.select(cmds.polyListComponentConversion(tv=True))
(r, g, b) = DEFAULT_COLOR
cmds.polyColorPerVertex(r=r, g=g, b=b, a=0)
# Restore selection
cmds.select(selected, replace=True)
def tieOff():
global balloonRadius, balloonQuantity
knotVals = mc.pointPosition('balloonTemp.vtx[96]', w=True)
knotThickness = balloonRadius * .05
endHeight = balloonRadius * .15
knotRadius = knotVals[0]
knotPos = ( knotVals[1] - (.5 * knotThickness))
mc.polyCylinder( n="knotTemp", r=knotRadius, h=knotThickness, sx=12, sy=3, sz=0, rcp=0, cuv=3)
mc.delete( 'knotTemp.f[36:37]')
mc.setAttr( 'knotTemp.translateY', knotPos )
mc.scale(1.25, 1.75, 1.25, 'knotTemp.vtx[12:35]', r=True )
mc.lattice( n='knot', cp=True, dv =(2, 2, 2), objectCentered=True, ldv=(2,2,2))
mc.move( (.75 * knotThickness), 'knotLattice.pt[1][0][0:1]', r=True, y=True)
mc.move( (.25 * knotThickness), 'knotLattice.pt[0][0][0:1]', r=True, y=True)
mc.duplicate('knotTemp')
mc.rotate(180, 'knotTemp1', z=True)
mc.polyCone( n="endTemp", r=knotRadius*2, h=endHeight, sx=12, sy=6, sz=3, rcp=0, cuv=3)
mc.delete( 'endTemp.f[60:83]', 'endTemp.f[96:107]')
mc.setAttr( 'endTemp.translateY', knotPos - knotThickness/2 )
mc.scale( 1.15, 1, 1.15, 'endTemp.vtx[36:59]')
mc.move((.5 * endHeight), 'endTemp.vtx[0:11]', 'endTemp.vtx[72]', y=True, r=True)
mc.polyUnite( 'balloonTemp', 'knotTemp', 'knotTemp1', 'endTemp', ch=True )
mc.polySoftEdge( a = 180 )
mc.polyMergeVertex( d=.001)
mc.polyEditUV('polySurface1.map[0:126]', pu=0.5, pv=1, su=1, sv=0.575)
mc.polyEditUV('polySurface1.map[127:230]', pu=0.5, pv=0.35, su=2, sv=.25)
mc.polyEditUV('polySurface1.map[267:318]', u=0, v=-0.1, pu=0.5, pv=0, su=1, sv=.5)
mc.polyEditUV('polySurface1.map[231:266]', 'polySurface1.map[319]', u=0, v=-.175, pu=0.5, pv=0.25, su=0.25, sv=0.25)
mc.polyMergeUV('polySurface1.map[103:126]', d=0.5, ch=True )
mc.polyEditUV('polySurface1.map[104]', r=False, u=0)
mc.polyEditUV('polySurface1.map[103]', r=False, u=1)
mc.polySmooth('polySurface1', mth=0, dv=1, c=1, kb=0, ksb=1, khe=0, kt=1, kmb=0, suv=0, peh=0, sl=1, dpe=1, ps=0.1 , ro=1, ch=True)
mc.DeleteHistory()
mc.delete( 'knotTemp1')
mc.rename('polySurface1', 'balloon1')
mc.select(cl=True)
return
def J_getGeoSmoothNormalToUv():
sel = om.MGlobal.getActiveSelectionList()
newDag = cmds.duplicate(sel.getComponent(0))
cmds.polySoftEdge(newDag, a=180, ch=1)
cmds.select(newDag)
mesh = om.MFnMesh(sel.getComponent(0)[0])
mesh.createUVSet("map5")
mesh.clearUVs("map5")
sel = om.MGlobal.getActiveSelectionList()
mesh1 = om.MFnMesh(sel.getComponent(0)[0])
faceCount = mesh.numPolygons
uvid = 0
for i in range(0, faceCount, 1):
vertexCount = 0
for verticesId in mesh.getPolygonVertices(i):
vertexNormal = mesh.getFaceVertexNormal(i, verticesId)
vertexBiNormal = mesh.getFaceVertexBinormal(i, verticesId)
vertexTangent = mesh.getFaceVertexTangent(i, verticesId)
vertexBiTangent = mesh.getFaceVertexNormal(i, verticesId).__xor__(
mesh.getFaceVertexTangent(i, verticesId))
matrix1 = om.MFloatMatrix(
((vertexTangent.x, vertexTangent.y, vertexTangent.z,
0), (vertexBiTangent.x, vertexBiTangent.y, vertexBiTangent.z,
0), (vertexNormal.x, vertexNormal.y, vertexNormal.z, 0),
(0, 0, 0, 0)))
smoothNormal = vertexNormal = mesh1.getFaceVertexNormal(
i, verticesId)
matrix2 = om.MFloatMatrix(
((smoothNormal.x, 0, 0, 0), (smoothNormal.y, 0, 0, 0),
(smoothNormal.z, 0, 0, 0), (0, 0, 0, 0)))
print matrix1.__mul__(matrix2)
mesh.setUV(uvid,
matrix1.__mul__(matrix2).getElement(0, 0),
matrix1.__mul__(matrix2).getElement(1, 0), "map5")
mesh.assignUV(i, vertexCount, uvid, "map5")
uvid += 1
vertexCount += 1
def prepare():
get_ui_values()
selection = cmds.ls(sl=True)
cmds.polyPlane(name = "REFPLANE", axis = [0,0,1], width = 1, height = float(resolution_y)/resolution_x, subdivisionsX=1, subdivisionsY=1)
cmds.move(0.5,float(resolution_y)/resolution_x/2,0)
###CREATE ATTRIBUTES
for obj in selection:
shape = cmds.listRelatives(obj, shapes=True)
if (cmds.objectType(shape, isType='pointLight') or cmds.objectType(shape, isType='spotLight')) and cmds.getAttr(obj + '.visibility'):
cmds.select(shape[0])
if not 'hqzLightStart' in cmds.listAttr():
cmds.addAttr(attributeType = 'float', niceName='HQZ Light Start', longName='hqzLightStart', shortName='hqzls', defaultValue=0, keyable=True)
if not 'hqzLightEnd' in cmds.listAttr():
cmds.addAttr(attributeType = 'float', niceName='HQZ Light End', longName='hqzLightEnd', shortName='hqzle', defaultValue=0, keyable=True)
if not 'hqzSpectralLight' in cmds.listAttr():
cmds.addAttr(attributeType = 'bool', niceName='HQZ Spectral Light', longName='hqzSpectralLight', shortName='hqzsl', defaultValue=True, keyable=True)
if not 'hqzSpectralStart' in cmds.listAttr():
cmds.addAttr(attributeType = 'float', niceName='HQZ Spectral Start', longName='hqzSpectralStart', shortName='hqzss', defaultValue=400, minValue=400, maxValue=700, keyable=True)
if not 'hqzSpectralEnd' in cmds.listAttr():
cmds.addAttr(attributeType = 'float', niceName='HQZ Spectral End', longName='hqzSpectralEnd', shortName='hqzse', defaultValue=700, minValue=400, maxValue=700, keyable=True)
if cmds.objectType(shape, isType='spotLight') and cmds.getAttr(obj + '.visibility'):
try:
cmds.setAttr(obj+'.rotateX', 0)
cmds.setAttr(obj+'.rotateY', -90)
cmds.setAttr(obj+'.rotateY', lock = True)
cmds.setAttr(obj+'.rotateX', lock = True)
except:
pass
if cmds.objectType(shape, isType='mesh') and (cmds.getAttr(obj + '.v')):
cmds.select(shape[0])
if not 'hqzMaterial' in cmds.listAttr():
cmds.addAttr(attributeType = 'byte', niceName='HQZ Material', longName='hqzMaterial', shortName='hqzmat', defaultValue = 0, keyable = True)
cmds.polySoftEdge(obj, a = 180, ch = 0)
try:
cmds.select(selection, replace=True)
except:
pass
def makeSeamless(meshName): """Makes a supplied mesh "seamless" in Unity by deleting its UV coordinates, smoothing normals, triangulating, and clearing material assignments""" # clear uvs so there are no seams or tangents uvs = cmds.polyUVSet(meshName, q=True, auv=True) for uv in uvs: try: cmds.polyUVSet(meshName, e=True, uvSet=uv, delete=True) except: pass uvSet = cmds.polyUVSet(meshName, q=True, auv=True)[0] sel = om.MSelectionList() sel.add(meshName) dagPath = om.MDagPath() sel.getDagPath(0, dagPath) fn = om.MFnMesh(dagPath) fn.clearUVs(uvSet) # smooth normals so there are no normal separations cmds.polySoftEdge(meshName, a=180, ch=True) # triangulate geometry cmds.polyTriangulate(meshName) # apply a single material so there are no submesh separations cmds.sets(meshName, e=True, forceElement='initialShadingGroup') # delete all history cmds.delete(meshName, ch=True) cmds.select(clear=True)
def batch_render():
del_pointcloud()
#autoload Mental-Ray, from http://forums.cgsociety.org/archive/index.php/t-1001360.html
#cmds.loadPlugin('Mayatomr', quiet=True)
#cmds.setAttr('defaultRenderGlobals.ren', 'mentalRay', type='string')
cmds.undoInfo(state=False)
#imageFormat 32 means PNG, from here: http://www.oputo.com/html/blog/2010/06/12/defaultrenderglobals-imageformat/
cmds.setAttr('defaultRenderGlobals.imageFormat', 32)
#hide our TEMPLATE
cmds.hide( "template_skin" )
cmds.hide( "template_bone" )
input_bones_list = cmds.getFileList(folder=path_of_files, filespec='bone*.obj')
frames_rendered = 0
for curr_bone in input_bones_list:
#take off the .obj, then get the last four digits of the name of the file
#split_name = curr_bone.split('.')
#file_name = split_name[0]
#curr_digits = file_name[-4:]
#print curr_digits
curr_digits, bone_name, frm_name = get_bone_digit(curr_bone)
# Assign shader to objects
if draw_mesh:
cmds.file(path_of_files + bone_name, i=True)
cmds.file(path_of_files + frm_name, i=True)
cmds.sets("Mesh", edit=True, forceElement="boneShader")
frm_mesh_name = "frm" + curr_digits + "_Mesh"
cmds.sets(frm_mesh_name, edit=True, forceElement="skinShader")
cmds.select('Mesh')
cmds.polySoftEdge(a=soften_angle)
cmds.select(frm_mesh_name)
cmds.polySoftEdge(a=soften_angle)
#load the point cloud
if draw_points:
point_cloud_file = path_of_files + "frm" + curr_digits + ".xyz"
load_xyz( point_cloud_file )
path_to_file = cmds.render()
if path_to_file[-3:] != "png":
print "Render is NOT outputting pngs! Quitting..."
break
#rename the rendered file
output_name = "frame" + curr_digits + ".png"
split_path = path_to_file.split('/')
split_path[-1] = output_name
new_path = "/".join(split_path)
#os.rename(path_to_file, new_path)
move(path_to_file, new_path)
print 'RENDERED TO: ', new_path
#delete the meshes
if draw_mesh:
cmds.select('Mesh')
cmds.delete()
frm_mesh_name = "frm" + curr_digits + "_Mesh"
cmds.select(frm_mesh_name)
cmds.delete()
#delete the point cloud
if draw_points:
del_pointcloud()
frames_rendered = frames_rendered + 1
if frames_rendered > max_num_frames:
break
#show our templates
cmds.showHidden( "template_skin" )
cmds.showHidden( "template_bone" )
load_xyz( path_of_files + "frm0000.xyz" )
import maya.cmds as cmds
sels = cmds.listRelatives( cmds.ls( sl=1 ), c=1, ad=1, type='transform' )
if not sels:
sels = cmds.ls( sl=1 )
targetOrigs= []
for sel in sels:
shapes = cmds.listRelatives( sel, s=1, f=1 )
if not shapes: continue
for shape in shapes:
if cmds.nodeType( shape ) != 'mesh': continue
if cmds.listConnections( shape + '.inMesh', s=1, d=0 ): continue
targetOrigs.append( shape )
for targetOrig in targetOrigs:
cmds.polyNormalPerVertex( targetOrig, ufn=True )
cmds.polySoftEdge( targetOrig, a=180, ch=0 )
def normHard(*args): cmds.polySoftEdge(a=0)
def normSoft(*args): cmds.polySoftEdge(a=180)
def setObjectToDisplay(self):
'''
Sets the object that will be displayed in the viewport
'''
#first delete display object if exist
if self._mVoroDisplay:
cmds.delete(self._mVoroDisplay)
self._mVoroDisplay = None
# Retrieve breaked object faces
mVoroOutputMeshFn = OpenMaya.MFnMesh(self._mVoroOutputMeshDAG)
aAllFaces = cmds.getAttr(self._mVoroOutputMeshDAG.fullPathName() + '.fxFaceIdx')
fCount = len(aAllFaces)
# Get only internal faces
aInFaces = [f for f in xrange(fCount) if aAllFaces[f] < 0]
util = OpenMaya.MScriptUtil()
util.createFromList(aInFaces, len(aInFaces))
aInFacesIdsPtr = util.asIntPtr()
aInFacesIds = OpenMaya.MIntArray(aInFacesIdsPtr, len(aInFaces))
mfnComponents = OpenMaya.MFnSingleIndexedComponent()
components = mfnComponents.create(OpenMaya.MFn.kMeshPolygonComponent)
mfnComponents.addElements(aInFacesIds)
# Iterate over faces and convert to edges
mFaceEdges = OpenMaya.MIntArray()
mOuterEdges = set(xrange(mVoroOutputMeshFn.numEdges()))
mInnerEdges = set()
mFaceIter = OpenMaya.MItMeshPolygon(self._mVoroOutputMeshDAG, components)
while not mFaceIter.isDone():
mFaceIter.getEdges(mFaceEdges)
mInnerEdges.update(mFaceEdges)
mFaceIter.next()
# Select outer edges and apply polySoftEdge
mOuterEdges.difference_update(mInnerEdges)
aOuterEdges = list(mOuterEdges)
util.createFromList(aOuterEdges, len(aOuterEdges))
aOuterEdgesIdsPtr = util.asIntPtr()
aOuterEdgesIds = OpenMaya.MIntArray(aOuterEdgesIdsPtr, len(aOuterEdges))
mfnComponents = OpenMaya.MFnSingleIndexedComponent()
components = mfnComponents.create(OpenMaya.MFn.kMeshEdgeComponent)
mfnComponents.addElements(aOuterEdgesIds)
self._mVoroDisplay = cmds.duplicate(self._mVoroObject, name = 'IS_Display', rc = True, rr = True)
mPolyShape = cmds.listRelatives(self._mVoroDisplay[0], fullPath = True)[1]
cmds.setAttr(self._mVoroDisplay[0] + '.visibility', True)
mSelection = OpenMaya.MSelectionList()
mDagPath = OpenMaya.MDagPath()
mSelection.add(self._mVoroDisplay[0])
mSelection.getDagPath(0, mDagPath)
mOuterEdgesSel = OpenMaya.MSelectionList()
mOuterEdgesSel.add(mDagPath, components)
OpenMaya.MGlobal.setActiveSelectionList(mOuterEdgesSel)
cmds.polySoftEdge(a = self._mSoften, ws = True, ch = False)
cmds.setAttr(mPolyShape + '.displayEdges', self._mDisplayType)
cmds.setAttr(mPolyShape + '.overrideEnabled', True)
cmds.setAttr(mPolyShape + '.overrideColor', 1)
if (cmds.attributeQuery('hiddenInOutliner', node = self._mVoroDisplay[0], exists = True)):
cmds.setAttr(self._mVoroDisplay[0] + '.hiddenInOutliner', True)
cmds.select(clear = True)
def positionReorder(**kwargs):
meshes = kwargs.get('meshes',[])
################################################################
#
# do some error checking
#
################################################################
if len(meshes) < 2:
cmds.error('please select 2 meshes')
fromMesh = meshes[0]
toMesh = meshes[1]
if cmds.nodeType(fromMesh) != 'mesh':
shapes = cmds.listRelatives( fromMesh, shapes=True)
if shapes is not None and len(shapes) > 0 and cmds.nodeType(shapes[0]) == 'mesh':
fromMesh = shapes[0]
else:
cmds.error('source mesh was not found')
if cmds.nodeType(toMesh) != 'mesh':
shapes = cmds.listRelatives( toMesh, shapes=True)
if shapes is not None and len(shapes) > 0 and cmds.nodeType(shapes[0]) == 'mesh':
toMesh = shapes[0]
else:
cmds.error('destination mesh was not found')
if len( cmds.listHistory( toMesh ) ) > 1:
cmds.error('destination mesh ( '+toMesh+' ) has history, please delete history')
################################################################
#
# use api to get the mesh data from
# the source and destination meshes
#
################################################################
selectionList = om.MSelectionList()
selectionList.add( fromMesh )
selectionList.add( toMesh )
fromDagPath = selectionList.getDagPath(0)
toDagPath = selectionList.getDagPath(1)
fromMeshFn = om.MFnMesh( fromDagPath )
toMeshFn = om.MFnMesh( toDagPath )
fromPoints = fromMeshFn.getPoints()
toPoints = toMeshFn.getPoints()
fromDagNodeFn = om.MFnDagNode(fromDagPath)
toDagNodeFn = om.MFnDagNode(toDagPath)
fromBoundingBox = fromDagNodeFn.boundingBox
toBoundingBox = toDagNodeFn.boundingBox
################################################################
#
# More error checking!
# make sure source mesh doesn't have
# more points than the destination mesh
#
################################################################
if len(fromPoints) > len(toPoints):
cmds.error('source mesh ( '+fromMesh+' ) has more points than destination mesh ( '+toMesh+' ). Source mesh must have the same number of points or less points than the destination mesh')
################################################################
#
# build lookup tables for points and faces
#
################################################################
fromVertices = fromMeshFn.getVertices()
toVertices = toMeshFn.getVertices()
fromVertPolyTable = [None]*len(fromPoints)
fromPolyVertTable = []
index = 0
for faceID,numberOfVerts in enumerate(fromVertices[0]):
fromPolyVertTable.append([])
for x in range(numberOfVerts):
vertID = fromVertices[1][index]
fromPolyVertTable[faceID].append(vertID)
if fromVertPolyTable[vertID] is None:
fromVertPolyTable[vertID] = [faceID]
else:
fromVertPolyTable[vertID].append(faceID)
index = index+1
toVertPolyTable = [None]*len(toPoints)
toPolyVertTable = []
index = 0
for faceID,numberOfVerts in enumerate(toVertices[0]):
toPolyVertTable.append([])
for x in range(numberOfVerts):
vertID = toVertices[1][index]
toPolyVertTable[faceID].append(vertID)
if toVertPolyTable[vertID] is None:
toVertPolyTable[vertID] = [faceID]
else:
toVertPolyTable[vertID].append(faceID)
index = index+1
################################################################
#
# create a list of destination points that
# are in the bounding box of the source
# mesh and have a matching point
#
################################################################
toSearchPoints = {}
toMatchingPoints = {}
for index,point in enumerate(toPoints):
if fromBoundingBox.contains(point):
matchingPoint = findMatchingPoint(point=point, meshFn=fromMeshFn, meshPoints=fromPoints)
if matchingPoint != None:
#print(index,matchingPoint)
toSearchPoints[index] = None
toMatchingPoints[index] = matchingPoint
################################################################
#
# create a list of destination faceIds
# associated with bounding box points
#
################################################################
toMatchingPolys = {}
toBorderingPolys = {}
for toIndex in toSearchPoints:
toPolyIds = toVertPolyTable[toIndex]
for toPolyId in toPolyIds:
toVerts = toPolyVertTable[toPolyId]
for toVert in toVerts:
found = toSearchPoints.get(toVert,False)
#toUsePoints[toVert] = False
if found == False:
toBorderingPolys[toPolyId] = True
else:
toMatchingPolys[toPolyId] = True
# just a double check to make sure the matching
# polys list doesn't contain any connecting polys items
for toPolyId in toBorderingPolys:
toMatchingPolys.pop(toPolyId,False)
################################################################
#
# Find any matching points, from the connecting polys,
# between the source and destination meshes
#
################################################################
toPointsConvert = {}
for toPolyId in toBorderingPolys:
toPolyVerts = toMeshFn.getPolygonVertices( toPolyId )
for toPolyVert in toPolyVerts:
matchingPoint = toMatchingPoints.get(toPolyVert,None)
if matchingPoint != None:
toPointsConvert[toPolyVert] = matchingPoint
################################################################
#
# create points conversion table for the destination mesh
#
################################################################
newIndex = len(fromPoints)
for toIndex,toPoint in enumerate(toPoints):
matchingPointFound = toMatchingPoints.get(toIndex,None)
if matchingPointFound == None:
toPointsConvert[toIndex] = newIndex
newIndex = newIndex+1
################################################################
#
# new points, poly and polyconnects lists
#
################################################################
newPoints = om.MPointArray()
newPoints.setLength( len(toPoints) )
newPolys = []
newPolyConnects = []
################################################################
#
# get info from the source mesh (the from mesh)
#
################################################################
for index,fromPoint in enumerate(fromPoints):
newPoints[index] = fromPoint
for fromPolyVerts in fromPolyVertTable:
newPolys.append(len(fromPolyVerts))
for fromPolyVert in fromPolyVerts:
newPolyConnects.append(fromPolyVert)
################################################################
#
# get data from the destination mesh (the to mesh)
#
################################################################
for toPointId,toPointConvertId in toPointsConvert.iteritems():
newPoints[toPointConvertId] = toPoints[toPointId]
for toPolyId,toPolyVerts in enumerate(toPolyVertTable):
isMatchingPoly = toMatchingPolys.get(toPolyId,None)
if isMatchingPoly == None:
newPolys.append(len(toPolyVerts))
for toPolyVert in toPolyVerts:
newPolyConnects.append(toPointsConvert[toPolyVert])
################################################################
#
# create a new mesh with the vertex IDs reordered
#
################################################################
reorderedMesh = om.MFnMesh()
reorderedMesh.create( newPoints, newPolys, newPolyConnects )
meshShape = reorderedMesh.partialPathName()
meshTransform = cmds.listRelatives(meshShape,parent=True)[0]
cmds.select(meshTransform)
cmds.hyperShade(assign='initialShadingGroup')
cmds.polySoftEdge(meshTransform, angle=0, ch=False)
toMeshTransform = cmds.listRelatives(toMesh,parent=True)[0]
newMeshName = cmds.rename(meshTransform,toMeshTransform+'_reordered')
cmds.select(newMeshName)
print('Finished Reordering Vertex IDs')
def traverseReorder(**kwargs):
faces = kwargs.get('faces',[])
vertex1s = kwargs.get('vertex1s',[])
vertex2s = kwargs.get('vertex2s',[])
targetList = kwargs.get('targetList',[])
fromMesh = cmds.listRelatives(faces[0],parent=True)[0]
toMesh = cmds.listRelatives(faces[1],parent=True)[0]
fromFaceId = extractIndex(faces[0])
fromVertex1Id = extractIndex(vertex1s[0])
fromVertex2Id = extractIndex(vertex2s[0])
toFaceId = extractIndex(faces[1])
toVertex1Id = extractIndex(vertex1s[1])
toVertex2Id = extractIndex(vertex2s[1])
################################################################
#
# use api to get the mesh data from
# the source and destination meshes
#
################################################################
selectionList = om.MSelectionList()
selectionList.add( fromMesh )
selectionList.add( toMesh )
fromDagPath = selectionList.getDagPath(0)
toDagPath = selectionList.getDagPath(1)
fromMeshFn = om.MFnMesh( fromDagPath )
toMeshFn = om.MFnMesh( toDagPath )
fromPoints = fromMeshFn.getPoints()
toPoints = toMeshFn.getPoints()
fromDagNodeFn = om.MFnDagNode(fromDagPath)
toDagNodeFn = om.MFnDagNode(toDagPath)
################################################################
#
# start creation of poly and point convert tables
#
################################################################
toPointConvert = [None]*len(toPoints)
toPointConvert[toVertex1Id] = fromVertex1Id
toPointConvert[toVertex2Id] = fromVertex2Id
################################################################
#
# build lookup tables for points and faces
#
################################################################
fromVertices = fromMeshFn.getVertices()
toVertices = toMeshFn.getVertices()
fromVertPolyTable = [None]*len(fromPoints)
fromPolyVertTable = []
index = 0
for faceID,numberOfVerts in enumerate(fromVertices[0]):
fromPolyVertTable.append([])
for x in range(numberOfVerts):
vertID = fromVertices[1][index]
fromPolyVertTable[faceID].append(vertID)
if fromVertPolyTable[vertID] is None:
fromVertPolyTable[vertID] = [faceID]
else:
fromVertPolyTable[vertID].append(faceID)
index = index+1
toVertPolyTable = [None]*len(toPoints)
toPolyVertTable = []
index = 0
for faceID,numberOfVerts in enumerate(toVertices[0]):
toPolyVertTable.append([])
for x in range(numberOfVerts):
vertID = toVertices[1][index]
toPolyVertTable[faceID].append(vertID)
if toVertPolyTable[vertID] is None:
toVertPolyTable[vertID] = [faceID]
else:
toVertPolyTable[vertID].append(faceID)
index = index+1
fromPolyId = fromFaceId
toPolyId = toFaceId
fromStartVertexId = fromVertex1Id
fromEndVertexId = fromVertex2Id
toStartVertexId = toVertex1Id
toEndVertexId = toVertex2Id
fromPolyData = traversePoly( fromPolyId, fromStartVertexId, fromEndVertexId, fromPolyVertTable[fromPolyId] )
toPolyData = traversePoly( toPolyId, toStartVertexId, toEndVertexId, toPolyVertTable[toPolyId] )
fromCheckPolys = [fromPolyData]
toCheckPolys = [toPolyData]
fromPolysFound = [False]*len(fromVertices[0])
toPolysFound = [False]*len(toVertices[0])
for count in range( len(fromPolyVertTable) ):
newFromCheckPolys = []
newToCheckPolys = []
newFromCheckPolyIDs = []
newToCheckPolyIDs = []
for checkIndex,checkItem in enumerate(fromCheckPolys):
fromPolyId = fromCheckPolys[checkIndex]['id']
toPolyId = toCheckPolys[checkIndex]['id']
fromPolyEdges = fromCheckPolys[checkIndex]['edges']
toPolyEdges = toCheckPolys[checkIndex]['edges']
fromPolysFound[fromPolyId] = True
toPolysFound[toPolyId] = True
for edgeIndex,edgeItem in enumerate(fromPolyEdges):
fromStartVertexId = fromPolyEdges[edgeIndex][0]
fromEndVertexId = fromPolyEdges[edgeIndex][1]
toStartVertexId = toPolyEdges[edgeIndex][0]
toEndVertexId = toPolyEdges[edgeIndex][1]
fromConnectingPolyId = getConnectingPoly( fromPolyId, set(fromVertPolyTable[fromStartVertexId]), set(fromVertPolyTable[fromEndVertexId]) )
toConnectingPolyId = getConnectingPoly( toPolyId, set(toVertPolyTable[toStartVertexId]), set(toVertPolyTable[toEndVertexId]) )
if fromConnectingPolyId != None and toConnectingPolyId != None:
fromPolyData = traversePoly( fromConnectingPolyId, fromStartVertexId, fromEndVertexId, fromPolyVertTable[fromConnectingPolyId] )
toPolyData = traversePoly( toConnectingPolyId, toStartVertexId, toEndVertexId, toPolyVertTable[toConnectingPolyId] )
fromPolyPoints = fromPolyData['polyPoints']
toPolyPoints = toPolyData['polyPoints']
for fromPolyPointIndex,fromPolyPoint in enumerate(fromPolyPoints):
fromPolyPointId = fromPolyPoints[fromPolyPointIndex]
toPolyPointId = toPolyPoints[fromPolyPointIndex]
toPointConvert[toPolyPointId] = fromPolyPointId
if not fromPolysFound[fromPolyData['id']] and fromPolyData['id'] not in newFromCheckPolyIDs:
newFromCheckPolyIDs.append( fromPolyData['id'] )
newFromCheckPolys.append( fromPolyData )
newToCheckPolys.append( toPolyData )
fromCheckPolys = list(newFromCheckPolys)
toCheckPolys = list(newToCheckPolys)
newToPointConvert = [None]*len(toPoints)
newPolys = []
newPolyConnects = []
newIndex = len(fromPoints)
for toId,fromId in enumerate(toPointConvert):
if fromId == None:
newToPointConvert[toId] = newIndex
newIndex = newIndex+1
else:
newToPointConvert[toId] = fromId
index = 0
for faceID,numberOfVerts in enumerate(toVertices[0]):
newPolys.append(numberOfVerts)
for x in range(numberOfVerts):
vertID = toVertices[1][index]
newPolyConnects.append( newToPointConvert[vertID] )
index = index+1
################################################################
#
# create a new mesh with the vertex IDs reordered
#
################################################################
if len(targetList) > 0:
for target in targetList:
################################################################
#
# use api to get the target mesh points list
#
################################################################
targetMesh = cmds.listRelatives( target, shapes=True )[0]
targetSelectionList = om.MSelectionList()
targetSelectionList.add( targetMesh )
targetDagPath = targetSelectionList.getDagPath(0)
targetMeshFn = om.MFnMesh( targetDagPath )
targetPoints = targetMeshFn.getPoints()
newTargetPoints = om.MPointArray()
newTargetPoints.setLength( len(targetPoints) )
for toId,fromId in enumerate(newToPointConvert):
newTargetPoints[fromId] = targetPoints[toId]
reorderedMesh = om.MFnMesh()
reorderedMesh.create( newTargetPoints, newPolys, newPolyConnects )
meshShape = reorderedMesh.partialPathName()
meshTransform = cmds.listRelatives(meshShape,parent=True)[0]
cmds.select(meshTransform)
cmds.hyperShade(assign='initialShadingGroup')
cmds.polySoftEdge(meshTransform, angle=0, ch=False)
#toMeshTransform = cmds.listRelatives(toMesh,parent=True)[0]
newMeshTransform = cmds.rename(meshTransform,target+'_reordered')
# copy and paste transform attributes
t = cmds.getAttr(target+'.translate')[0]
r = cmds.getAttr(target+'.rotate')[0]
s = cmds.getAttr(target+'.scale')[0]
cmds.setAttr( newMeshTransform+'.translate', t[0], t[1], t[2] )
cmds.setAttr( newMeshTransform+'.rotate', r[0], r[1], r[2] )
cmds.setAttr( newMeshTransform+'.scale', s[0], s[1], s[2] )
cmds.select(newMeshTransform)
else:
newPoints = om.MPointArray()
newPoints.setLength( len(toPoints) )
for toId,fromId in enumerate(newToPointConvert):
newPoints[fromId] = toPoints[toId]
reorderedMesh = om.MFnMesh()
reorderedMesh.create( newPoints, newPolys, newPolyConnects )
meshShape = reorderedMesh.partialPathName()
meshTransform = cmds.listRelatives(meshShape,parent=True)[0]
cmds.select(meshTransform)
cmds.hyperShade(assign='initialShadingGroup')
cmds.polySoftEdge(meshTransform, angle=0, ch=False)
toMeshTransform = cmds.listRelatives(toMesh,parent=True)[0]
newMeshTransform = cmds.rename(meshTransform,toMeshTransform+'_reordered')
# copy and paste transform attributes
t = cmds.getAttr(toMeshTransform+'.translate')[0]
r = cmds.getAttr(toMeshTransform+'.rotate')[0]
s = cmds.getAttr(toMeshTransform+'.scale')[0]
cmds.setAttr( newMeshTransform+'.translate', t[0], t[1], t[2] )
cmds.setAttr( newMeshTransform+'.rotate', r[0], r[1], r[2] )
cmds.setAttr( newMeshTransform+'.scale', s[0], s[1], s[2] )
cmds.select(newMeshTransform)
print('Finished Reordering Vertex IDs')
def hardenNormals(*args):
cmds.polySoftEdge(a=0, ch=True)
print 'Harden Normals Edges'
def softenNormals(*args):
cmds.polySoftEdge(a=180, ch=True)
print 'Soften Normals Edges'