def check_non_manifold_geometry(self):
self.result_message = ''
geometry = pm.ls(geometry=True)
transforms = pm.listRelatives(geometry, p=True, path=True)
result_objects = []
for it in transforms:
nmv = pm.polyInfo(it, nmv=True)
nme = pm.polyInfo(it, nme=True)
lf = pm.polyInfo(it, lf=True)
is_vertex = self.check_null_list(nmv, 'non-manifold vertex')
is_edge = self.check_null_list(nme, 'non-manifold edges')
is_face = self.check_null_list(lf, 'lamina faces')
if (is_vertex or is_edge or is_face) is True:
result_objects.append(it)
pm.select(result_objects)
return self.result_message
def mesh_check():
logger.debug("Mesh Check")
all_shapes = pmc.ls(shapes=True)
check_results = []
for shape in all_shapes:
inv_edges = pmc.polyInfo(shape, ie=True)
inv_verts = pmc.polyInfo(shape, iv=True)
lamina_faces = pmc.polyInfo(shape, lf=True)
nonm_edges = pmc.polyInfo(shape, nme=True)
nonm_verts = pmc.polyInfo(shape, nmv=True)
error_list = [
shape, inv_edges, inv_verts, lamina_faces, nonm_edges, nonm_verts
]
if error_list.count(None) < 5:
check_results.append(error_list)
return True
def selectNonManifold(*args):
geos = pm.ls(type='mesh')
for geo in geos:
if geo.isIntermediate():
continue
obj = geo.listRelatives(p=True, type='transform')
p = pm.polyInfo(obj, nme=True, nmv=True)
if p:
pm.select(p)
return 'select'
def noNonManifold():
geos = pm.ls(type='mesh')
hasNMfold = False
for geo in geos:
if geo.isIntermediate():
continue
obj = geo.listRelatives(p=True, type='transform')
p = pm.polyInfo(obj, nme=True, nmv=True)
if p:
hasNMfold = True
break
return hasNMfold
def noLaminaFaces():
geos = pm.ls(type='mesh')
hasLamina = False
for geo in geos:
if geo.isIntermediate():
continue
obj = geo.listRelatives(p=True, type='transform')
p = pm.polyInfo(obj, lf=True)
if p:
hasLamina = True
break
return hasLamina
def place_objects():
cmds.select(mesh_name)
number_of_faces = cmds.polyEvaluate(f=True)
# we're comparing with up
comparisonVector = OpenMaya.MVector(0, 1, 0)
if len(tree_list) != 0:
increment_age(tree_list)
global seeds
#print(seeds)
for x in range(seeds):
place = random.randint(0, number_of_faces)
face = pm.MeshFace("{}.f[{}]".format(mesh_name, place))
# check normal of face
pm.select(face)
polyInfo = pm.polyInfo(fn=True)
polyInfoArray = re.findall(r"[\w.-]+", polyInfo[0]) # convert the string to array with regular expression
polyInfoX = float(polyInfoArray[2])
polyInfoY = float(polyInfoArray[3])
polyInfoZ = float(polyInfoArray[4])
face_normal = OpenMaya.MVector(polyInfoX, polyInfoY, polyInfoZ)
deltaAngle = math.degrees(face_normal.angle(comparisonVector))
# the angle is in degrees so the result is
# "if the difference between this normal and 'up' is more then 20 degrees, turn the point off"
global angle
angle = cmds.intSliderGrp('input_angle', query=True, value=True)
if abs(deltaAngle) > angle:
continue
# Get center of face
pt = face.__apimfn__().center(OpenMaya.MSpace.kWorld)
centerPoint = pm.datatypes.Point(pt)
plant = cmds.textField(plant_name, query=True, text=True)
cmds.select(plant)
tree_list.append(TreeInfo(cmds.instance(plant)))
cmds.move(centerPoint[0], centerPoint[1], centerPoint[2])
tree_list[-1].update_fitness
def find_non_manifold_objects():
"""
Print if there are objects with non-manifold geometry in the scene
:return:
"""
print("Finding objects with non-manifold geometry...")
geometry_list = pm.ls(
geometry=True) # get a list of all geometry nodes in the scene
nm_list = []
# check each mesh for non-manifold edges or vertices
for mesh in geometry_list:
nm_geom = pm.polyInfo(mesh, nme=True, nmv=True)
# only keep those that have non-manifold geometry
if nm_geom:
nm_list.extend(nm_geom) # select the actual geometry
# Print Result
if nm_list: print("Found: ", nm_list)
else: print("No non-manifold edges or vertices in the scene.")
pass
def createShape(self, i_isGroup, i_mesh):
"""create voxels
Keyword arguments:
i_isGroup: if the result is one object or each voxel seperated
i_mesh: the voxel
"""
distanceLimit = math.sqrt(self._voxelSize*self._voxelSize*3)
for p in self._voxelsPosList:
r = self._oriMdl.getClosestPointAndNormal((p[0], p[1], p[2]))
closestPoint = r[0] + self._oriMdl.getTranslation()
# when the cube is far from the surface
if distanceLimit < getLength((p[0]-closestPoint[0],
p[1]-closestPoint[1],
p[2]-closestPoint[2])):
continue
dp = dotProduct(normalize([p[0]-closestPoint[0],
p[1]-closestPoint[1],
p[2]-closestPoint[2]]),
normalize(r[1]))
# doc product > 0 means two vectors angle is from 0~90
if dp < 0:
mesh = pm.duplicate(i_mesh, name='Voxel1')
pm.move(p[0], p[1], p[2], mesh, ws=True)
self._voxelsList.append(mesh)
# print "Create Voxel @ "+str(p[0])+","+str(p[1])+","+str(p[2])+" "+str(mesh)
voxelGrp = pm.group(self._voxelsList, name='VoxelGrp1')
if i_isGroup ==True:
if len(self._voxelsList)>1:
pm.polyUnite(voxelGrp, name='V1')
pm.polyMergeVertex(distance=0.0)
pm.delete(pm.polyInfo(laminaFaces=True))
pm.delete(self._oriMdl)
def createCurveFromEdge(name='spline_loca', step=1):
sel = pm.selectedNodes()
if len(sel) != 1:
cmds.error('Trabaje en un objeto y sus edge')
edges = pm.filterExpand(sm=32)
if len(edges) == 1:
cmds.error('Seleccione edges continuos')
#Guardo el nombre del objeto
nameObj = sel[0].split('|')[1]
#Cantidad de edges
cant = len(edges)
infoVerts = []
fVerts = []
lVerts = []
#Recorro los edge y spliteo para conseguir el principio y final de cada edge
for i in range(0, cant, step):
infoVerts = pm.polyInfo(edges[i], ev=1)
infoVerts = infoVerts[0].split(" ")
fVerts.append(infoVerts[8])
lVerts.append(infoVerts[12])
#ordeno y compongo la seleccion de vertices
vertexNum = []
[vertexNum.append(x) for x in fVerts + lVerts if x not in vertexNum]
#si tiene step diferente a 1, agrego el primero y el ultimo
if step != 1:
if not fVerts in vertexNum:
vertexNum.insert(-1, lVerts)
if not lVerts in vertexNum:
vertexNum.insert(0, fVerts)
vertexSel = []
[vertexSel.append(nameObj + '.vtx[' + str(x) + ']') for x in vertexNum]
#saco la posicion de cada vertice
xOrig = mc.xform(vertexSel, q=True, ws=True, t=True)
#Formateo las posicions de vertices
origPts = zip(xOrig[0::3], xOrig[1::3], xOrig[2::3])
#Cuento la cantidad de puntos para la curva
vertCount = len(vertexSel)
#Creo la curva
crv = mc.curve(n=name, p=origPts, degree=2)
#Limpio la curva
try:
mc.rebuildCurve(crv,
ch=False,
rpo=True,
rt=False,
end=True,
kr=False,
kcp=False,
kep=True,
kt=True,
s=vertCount,
d=3,
tol=0.01)
mc.rebuildCurve(crv,
ch=True,
rpo=True,
rt=False,
end=True,
kr=False,
kcp=False,
kep=True,
kt=False,
s=0,
d=3,
tol=0.01)
except:
pass
return crv
getSel = pm.ls(os=1)
vtxGrp = pm.ls(pm.polyListComponentConversion(getSel,fe=1,tv=1),fl=1)
vtxNum = len(vtxGrp)
vtxPosGrp = [pm.xform(vtx, q=True, ws=True, t=True)for vtx in vtxGrp]
tmpPoly = mc.polyCreateFacet(p=[tuple(vec) for vec in vtxPosGrp ])[0]
pm.xform(tmpPoly,cp=1)
centerPos = mc.xform(tmpPoly, q=True, ws=True, rp=True)
distGrp = [((vec[0] - centerPos[0]) ** 2 + (vec[1] - centerPos[1]) ** 2 + (vec[2] - centerPos[2]) ** 2) ** 0.5 for vec in vtxPosGrp]
dist = sum(distGrp)/vtxNum
circle = pm.circle(s=vtxNum, r=dist, c=(0, 0, 0), d=3, ch=False)[0]
pm.xform(circle, ws=True, t=tuple(centerPos))
wu = (vtxPosGrp[0][0] - centerPos[0]),(vtxPosGrp[0][1] - centerPos[1]),(vtxPosGrp[0][2] - centerPos[2])
pm.normalConstraint(tmpPoly,circle,aim=[0,0,1],u=[0,1,0],wu=(0,1,0))
e2vInfos= pm.polyInfo(getSel,ev=1)
e2vDict = {}
for info in e2vInfos:
evList = [ int(i) for i in re.findall('\\d+', info) ]
e2vDict.update(dict([(evList[0], evList[1:])]))
# average normal
vtxGrp = pm.mel.eval("PolySelectConvert 3;")
avNmGrp = pm.polyNormalPerVertex(getSel,q=1,xyz=1)
#
#
# A tool to copy and paste normal data via the polyNormalPerVertex command and exporting that data out
# to a text file and pasting it somewhere else.
#
##############################################################################################################################
import pymel.core as pm
import maya.OpenMayaAnim as animAPI
import maya.mel as mel
pm.ls(sl = True)
175, 350 159 149 340
pm.select(ball.f[159])
pm.select(ball.f[350])
pm.polyInfo(pm.ls(sl = True).f[350], vf = True)
pm.polyNormalPerVertex(ball.vtxFace[175][159], q = True, xyz = True)
pm.polyNormalPerVertex(ball.vtxFace[175][350], xyz = pm.polyNormalPerVertex(ball.vtxFace[175][159], q = True, xyz = True))
pm.polyNormalPerVertex(ball.vtxFace[175][340], xyz = pm.polyNormalPerVertex(ball.vtxFace[175][159], q = True, xyz = True))
def moriToolUI(mayaFalse = False):
windowID = 'moritool'#checking if window already exists
if pm.window(windowID, exists = True):
pm.deleteUI(windowID)
pm.windowPref( 'moritool', remove=True )
pm.window(windowID, title = u'Prism 森ツール')
moriToolLayout = pm.columnLayout( 'moriToolLayout', width = 400)
vertexFrame = pm.frameLayout(label = u'頂点関連', labelIndent = 5, marginHeight = 5, parent = moriToolLayout, nch = 5)
def run():
# validate that we selected 1 skinned mesh and 1 non-skinned mesh
sel = pm.ls(sl=True)
if len(sel)!=2:
raise Exception("copyWeightsToFurCards: select skin mesh, shift select fur cards. Aborted.")
#
src_mesh_trans = sel[0]
src_mesh_shape = pm.listRelatives(src_mesh_trans, s=True)[0]
if type(src_mesh_shape) != pm.nodetypes.Mesh:
raise Exception("copyWeightsToFurCards: source object must be a skinned mesh.")
#
fur_trans = sel[1]
fur_shape = pm.listRelatives(fur_trans, s=True)[0]
if type(fur_shape) != pm.nodetypes.Mesh:
raise Exception("copyWeightsToFurCards: target object must be a mesh.")
#
src_skincluster = getRelatedSkinCluster(src_mesh_trans)
if type(src_skincluster) != pm.nodetypes.SkinCluster:
raise Exception("copyWeightsToFurCards: source mesh must have a skinCluster deformer.")
#
fur_skincluster = getRelatedSkinCluster(fur_trans)
if fur_skincluster != None:
raise Exception("copyWeightsToFurCards: target mesh must not be skinned.")
# bind the fur cards to the same influences as the source mesh
src_influences = src_skincluster.getInfluence()
pm.select(src_influences, r=True)
pm.select(fur_trans, add=True)
fur_skincluster = pm.skinCluster(tsb=True)
# copy skin weights from source to fur cards
pm.copySkinWeights( ss=str(src_skincluster),
ds=str(fur_skincluster),
noMirror=True,
surfaceAssociation = "closestPoint",
influenceAssociation = "oneToOne")
# split mesh into list of vertex lists (1 per shell)
vertex_shells = []
num_faces = pm.polyEvaluate(fur_trans,f=True)
faces_checked = set(range(num_faces))
#
gMainProgressBar = mel.eval('$tmp = $gMainProgressBar');
pm.progressBar( gMainProgressBar,
edit=True,
beginProgress=True,
isInterruptable=True,
status='Gathering vertex shells...',
maxValue=num_faces )
#
while len(faces_checked)>0:
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=num_faces-len(faces_checked))
face = faces_checked.pop()
shell_faces = pm.polySelect( fur_trans, extendToShell=face )
faces_checked = faces_checked.difference(shell_faces)
face_vert_info = pm.polyInfo(faceToVertex=True)
verts_in_shell = []
#pm.polyInfo returns horrible unicode format that must be parsed
for face_verts_str in face_vert_info:
verts_str = face_verts_str.split(":")[1]
vert_strings = verts_str.split(" ")
for v in vert_strings:
try:
v_id = int(v)
verts_in_shell.append(v_id)
except:
pass
vertex_shells.append(verts_in_shell)
# now search for closest vertex in each shell...
sel_list = OpenMaya.MSelectionList()
sel_list.add(str(fur_shape))
nodeDagPath = sel_list.getDagPath(0)
mfnMesh = OpenMaya.MFnMesh(nodeDagPath)
space = OpenMaya.MSpace.kWorld
pm.progressBar(gMainProgressBar, edit=True, step=0, status="Getting vertex positions...")
verts = OpenMaya.MPointArray()
verts = mfnMesh.getPoints(OpenMaya.MSpace.kWorld)
pm.progressBar(gMainProgressBar, edit=True, status="Finding closest vertex per card...")
pm.progressBar(gMainProgressBar, edit=True, step=0, maxValue=len(vertex_shells))
closest_vert_per_shell = []
for i,shell in enumerate(vertex_shells):
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=i)
closest_dist = None
closest_vert = None
for vert_id in shell:
point = verts[vert_id]
closestPoint, faceIdx = mfnMesh.getClosestPoint(point, space)
dist = closestPoint.distanceTo(point)
if closest_dist==None:
closest_dist = dist
closest_vert = vert_id
elif dist < closest_dist:
closest_dist = dist
closest_vert = vert_id
closest_vert_per_shell.append(closest_vert)
pm.progressBar(gMainProgressBar, edit=True, status="Apply weights for each card...")
pm.progressBar(gMainProgressBar, edit=True, step=0, maxValue=len(vertex_shells))
#
vtx_base = str(fur_trans)+".vtx["
for i,shell in enumerate(vertex_shells):
#progress
if pm.progressBar(gMainProgressBar, query=True, isCancelled=True ) :
return
pm.progressBar(gMainProgressBar, edit=True, step=i)
#get weight value of closest vertex
c = closest_vert_per_shell[i]
vtx = vtx_base+str(c)+"]"
values = pm.skinPercent(fur_skincluster,vtx,q=1,v=1,ib=0.0001)
transforms = pm.skinPercent(fur_skincluster,vtx,q=1,t=None,ib=0.0001)
influences = []
for i in range(len(transforms)):
influences.append((transforms[i],values[i]))
#paste weight values on all other vertices in shell
for v in shell:
vtx = vtx_base+str(v)+"]"
pm.skinPercent(fur_skincluster,vtx,tv=influences)
pm.progressBar(gMainProgressBar, edit=True, endProgress=True)
def bNumNumInc(poly_mesh) :
all_vertexs = pm.polyInfo(poly_mesh, ve=1)
num = len(all_vertexs)
b_num = len(boundaryVertexs(all_vertexs))/2
inc = int(num)/int(b_num)
return inc