def uvUnfold(*args):
weightSolver_Val = cmds.floatSliderGrp("weightSolver", q=1, value=1)
optimizeToOriginal_Val = cmds.floatSliderGrp("optimizeToOriginal",
q=1,
value=1)
maxIterations_Val = cmds.intSliderGrp("unfoldMaxIterations", q=1, value=1)
stopThresh_Val = cmds.floatSliderGrp("stopThresh", q=1, value=1)
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 1):
pinBordBool = 1
pinUVBool = 0
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 2):
pinUVBool = 1
pinBordBool = 0
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 3):
pinUVBool = 0
pinBordBool = 0
cmds.unfold(oa=0,
gb=weightSolver_Val,
gmb=optimizeToOriginal_Val,
i=maxIterations_Val,
ss=stopThresh_Val,
pub=pinBordBool,
ps=pinUVBool,
us=0)
def setRatio(*args):
resW = float(mc.text('resTextW', q=True, l=True))
resH = float(mc.text('resTextH', q=True, l=True))
#mult
mult = setRatioMultiplier()
#Define selection and convert it to uvs
selection = mc.ls(sl=True)
selection = mc.polyListComponentConversion(selection, tuv=True)
#Find center of selection
pivot = mc.polyEvaluate(selection, bc2=True)
pu = ((pivot[0][0] + pivot[0][1]) * 0.5)
pv = ((pivot[1][0] + pivot[1][1]) * 0.5)
#Correct texture/scaling ratio before rotating.
if resH != resW:
scaleV = resH / resW
mc.polyEditUV(pu=pu, pv=pv, su=0, sv=scaleV)
mc.unfold(i=0,
us=True,
s=mc.floatField('ratioField', q=True, v=True))
#Reverse correction
scaleV = resW / resH
mc.polyEditUV(pu=pu, pv=pv, su=0, sv=scaleV)
else:
mc.unfold(i=0,
us=True,
s=mc.floatField('ratioField', q=True, v=True))
mc.select(selection, replace=True)
return
def scaleUVRatio(self, *args):
res = 1024
mult = 1
mult = (mult * (8192 / res)) / 8
densityField = cmds.intField("ratioFld", q=1, v=1)
unfold = 0.0009765625 * densityField
ratioField = unfold * mult
cmds.unfold(i=0, us=True, s=ratioField)
def createUv(self,mesh):
cmds.polyForceUV(mesh, unitize = True)
edges = cmds.polyEvaluate(mesh, e = True)
cmds.select('%s.e[2:%s]' %(mesh, (edges-1)), r=True)
cmds.StitchTogether()
bbox = cmds.polyEvaluate(mesh, bc2 = True)
if bbox[0]>bbox[1]:
cmds.polyEditUV (mesh, r = True, a = 90)
cmds.polyNormalizeUV(mesh,normalizeType = 1, pa = True, cot = False, nd = 1)
cmds.unfold(mesh, i = 5000, ss=0.001, gb = 0, pub = False, ps = False, oa = 1, us = False)
cmds.select(cl=True)
def unfoldPipe(dir):
# Defining direction
if (dir == 1):
first = 1
second = 2
elif (dir == 2):
first = 2
second = 1
cmds.unfold(oa=first, us=False)
maya.mel.eval("polySelectBorderShell 0;") # Selecting UV Shell
cmds.unfold(oa=second, us=False)
def adjUV(*args):
i = 0
testVal = cmds.intField("uvAdjustVal", q=1, v=1)
while (i <= testVal):
weightSolver_Val = cmds.floatSliderGrp("weightSolver", q=1, value=1)
optimizeToOriginal_Val = cmds.floatSliderGrp("optimizeToOriginal",
q=1,
value=1)
maxIterations_Val = cmds.intSliderGrp("unfoldMaxIterations",
q=1,
value=1)
stopThresh_Val = cmds.floatSliderGrp("stopThresh", q=1, value=1)
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 1):
pinBordBool = 1
pinUVBool = 0
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 2):
pinUVBool = 1
pinBordBool = 0
if (cmds.radioButtonGrp("unfoldCheckBox", q=True, sl=1) == 3):
pinUVBool = 0
pinBordBool = 0
cmds.unfold(oa=0,
gb=weightSolver_Val,
gmb=optimizeToOriginal_Val,
i=maxIterations_Val,
ss=stopThresh_Val,
pub=pinBordBool,
ps=pinUVBool,
us=0)
maxIterations_Val = cmds.intSliderGrp("relaxMaxIterations",
q=1,
value=1)
if (cmds.radioButtonGrp("relaxCheckBox", q=True, sl=1) == 1):
pinBordBool = 1
pinUVBool = 0
if (cmds.radioButtonGrp("relaxCheckBox", q=True, sl=1) == 2):
pinUVBool = 1
pinBordBool = 0
if (cmds.radioButtonGrp("relaxCheckBox", q=True, sl=1) == 3):
pinUVBool = 0
pinBordBool = 0
cmds.untangleUV(r="harmonic",
pb=pinBordBool,
ps=pinUVBool,
mri=maxIterations_Val)
i = i + 1
def autoMap(uvMin, uvMax, proporcion=1, firstHalfOfMeshUVArray=firstHalfOfMeshUVs, secondHalfOfMeshUVArray=secondHalfOfMeshUVs): ''' Cycles through two lists of uv ids. First action gets the mapping in the desired horizontal position Second action distributes the vertices vertically through an unfold method ''' for uv in firstHalfOfMeshUVArray: cmds.select (uv, replace=True) moveUVHorizontal(uvMin) for uv in secondHalfOfMeshUVArray: cmds.select(uv, replace=True) moveUVHorizontal(uvMax) cmds.select(firstHalfOfMeshUVArray, replace=True) cmds.select(secondHalfOfMeshUVArray, add=True) cmds.unfold(iterations=10000, optimizeAxis=1, globalMethodBlend=0, stoppingThreshold=0, globalBlend=0, pinUvBorder=0, useScale=False) corregirProporcionAutomap(proporcion)
def layoutUV(obj, type=0):
totalFaces = cmds.polyEvaluate(obj, face=True)
oneThird = totalFaces / 3
if (type == 0):
startFace = 0
endFace = oneThird - 1
cmds.polyProjection(obj + '.f[' + str(startFace) + ':' + str(endFace) +
']',
type="planar")
if (type == 1):
startFace = oneThird
endFace = (oneThird * 2) - 1
cmds.polyProjection(obj + '.f[' + str(startFace) + ':' + str(endFace) +
']',
type="cylindrical")
if (type == 2):
startFace = (oneThird * 2)
endFace = totalFaces - 1
cmds.polyProjection(obj + '.f[' + str(startFace) + ':' + str(endFace) +
']',
type="spherical")
if (type == 3):
cmds.polyCylindricalProjection(obj + '.f[*]')
cmds.polyMapCut(
obj + '.e[17]'
) # WARNING: this does not always select a verticle edge as a cut line
cmds.unfold(obj + '.map[*]',
i=5000,
ss=0.001,
gb=0,
gmb=0.5,
pub=0,
ps=0,
oa=2,
us=False)
def unwrapCylindrical():
# Variables and selection
mode = cmds.radioButtonGrp('mode', q=True, select=True)
seam = cmds.ls(sl=True)
cmds.SelectEdgeRingSp()
cmds.ConvertSelectionToContainedFaces()
body = cmds.ls(sl=True)
# Chooses desired seams
numEdges = (len(seam))
if (numEdges == 1):
seamSel = (seam[0])
else:
seamSel = (seam[0:numEdges])
bodySel = (body[0:(len(body))])
# Unwraps with or without unfolding
if (mode == 1):
cmds.polyPlanarProjection()
cmds.select(seamSel, r=True)
cmds.polyMapCut()
cmds.unfold()
elif (mode == 2):
cmds.select(bodySel, r=True)
cmds.ConvertSelectionToFaces()
shell = cmds.ls(sl=True)
cmds.polyForceUV(unitize=True)
cmds.ConvertSelectionToContainedEdges()
cmds.select(seamSel, d=True)
cmds.polyMapSewMove()
cmds.select(shell, r=True)
cmds.ConvertSelectionToUVs()
cmds.polyLayoutUV()
cmds.select(shell, r=True)
def unwrapByAngle():
unf = cmds.checkBox('unf', q=True, v=True)
lyt = cmds.checkBox('lyt', q=True, v=True)
cmds.polyForceUV(unitize=True)
cmds.selectType(pe=True)
cmds.polySelectConstraint(m=3, t=0x8000,
sm=2) # Constrains selection to soft edges
selEdges = cmds.ls(sl=True)
cmds.polyMapSewMove()
cmds.polySelectConstraint(sm=0) # Turns off constraint
# Unfold if chosen
if (unf == 1):
cmds.unfold()
# Layout if chosen
if (lyt == 1):
cmds.select(selEdges)
cmds.ConvertSelectionToShell()
cmds.ConvertSelectionToUVs()
cmds.polyLayoutUV(sc=1, ws=True, rbf=2)
def unfoldAndRotate(sel):
# unfold horizontal
cmds.unfold(sel+'.map[*]',
i=5000,
ss=0.001,
gb=0.0,
gmb=0.5,
pub=False,
ps= False,
oa=2, # 1: vertical, 2:horizontal
us=False)
# unfold vertical
cmds.unfold(sel+'.map[*]',
i=5000,
ss=0.001,
gb=0.0,
gmb=0.5,
pub=False,
ps= False,
oa=1, # 1: vertical, 2:horizontal
us=False)
# rotate UVs
cmds.polyEditUV(pivotU=0.5, pivotV=0.5, angle=90)
def unwrapBySeams():
# Variables and Selection
unf = cmds.checkBox('unf', q=True, v=True)
lyt = cmds.checkBox('lyt', q=True, v=True)
selEdges = cmds.ls(sl=True)
cmds.ConvertSelectionToShell()
cmds.polyForceUV(unitize=True)
cmds.ConvertSelectionToEdges()
cmds.select(selEdges, d=True)
cmds.polyMapSewMove()
# Unfold if chosen
if (unf == 1):
cmds.unfold()
# Layout if chosen
if (lyt == 1):
cmds.select(selEdges)
cmds.ConvertSelectionToShell()
cmds.ConvertSelectionToUVs()
cmds.polyLayoutUV(sc=1, ws=True, rbf=2)
def createLightmap(self, *args):
selection = cmds.ls(sl=True)
if len(selection) == 0:
return
mesh = selection[0]
if cmds.checkBox("cbDeleteHistory", q=True, v=True) == True:
cmds.delete(mesh, ch=True)
maxArc = cmds.textFieldGrp("tTolerance", q=True, text=True)
if re.search("[a-zA-Z]", maxArc) != None:
cmds.textFieldGrp("tTolerance", e=True, text="5")
maxArc = int(cmds.textFieldGrp("tTolerance", q=True, text=True))
# 1. Create a new UV Set
if "lightmap" in cmds.polyUVSet(q=True, auv=True):
cmds.polyUVSet(uvs="lightmap", delete=True)
faceCount = cmds.polyEvaluate(mesh, f=True)
cmds.polyUVSet(copy=True, nuv="lightmap")
cmds.polyUVSet(mesh, cuv=True, uvs="lightmap")
# 2. Cut every UV Edge
edgeCount = cmds.polyEvaluate(mesh, e=True)
cmds.polyMapCut(mesh + ".e[0:" + str(edgeCount - 1) + "]", cch=True, ch=False)
cmds.progressWindow(
title="Creating Lightmap...",
progress=0,
maxValue=faceCount + 1,
isInterruptable=True,
status="Facecount: " + str(faceCount),
)
# 3. Check if faces are connected and facing the same direction, if they do, then sew the uv edge
i = 0
while i < faceCount:
if cmds.progressWindow(query=True, isCancelled=True):
break
face = mesh + ".f[" + str(i) + "]"
adjacentFaces = self.getAdjacentFaces(mesh, i)
normal1 = self.getFaceNormal(face)
for adj in adjacentFaces:
normal2 = self.getFaceNormal(adj)
arc = self.getAngle(normal1, normal2)
if arc < maxArc:
self.sewFaces(face, adj)
cmds.progressWindow(edit=True, progress=i)
i += 1
cmds.select(mesh)
# 4. unfold
cmds.unfold(i=5000, ss=0.001, gb=False, gmb=0.5, ps=0, oa=0, us=True)
# 5. layout
preset = self.maps[cmds.optionMenuGrp("omTexSize", q=True, value=True)]
cmds.polyMultiLayoutUV(lm=1, sc=1, rbf=1, fr=True, l=2, ps=preset)
cmds.progressWindow(endProgress=True)
def unfld(*args): cmds.unfold(i=5000, ss=0.001, gb=0, gmb=0.5, pub=0, ps=0, oa=0, us=False)
def unwrapSelectedFaces():
cmds.polyPlanarProjection()
cmds.unfold()
def main():
if not mel.eval('exists "u3dUnfold"'):
cmds.loadPlugin('Unfold3D')
selFaces = cmds.ls(sl=1)
selFaces = cmds.ls(selFaces,fl=1)
selObj = selFaces[0].split('.')[0]
faceUnwarp(selFaces)
selUVs = cmds.polyListComponentConversion(selFaces,ff=1,tuv=1)
faceDic = getDic(selFaces)
vtxid_uvid = faceDic[0]
vtxid_edgeid = faceDic[1]
edgeid_vtxid = faceDic[2]
vtxid_faceid = faceDic[3]
faceid_numTriangles = faceDic[4]
edgeid_length = faceDic[5]
triangles = 0
for faceid in faceid_numTriangles:
if faceid_numTriangles[faceid] == 1:
triangles += 1
startVtxid = -1
for vtxid in vtxid_faceid:
if len(vtxid_faceid[vtxid]) == 1 and faceid_numTriangles[vtxid_faceid[vtxid][0]] == 1:
startVtxid = vtxid
if startVtxid == -1:
for vtxid in vtxid_faceid:
if len(vtxid_faceid[vtxid]) == 1:
startVtxid = vtxid
vtxCount = len(vtxid_uvid)
vtxLine0 = []
vtxLine1 = []
if triangles == 2 or triangles == 1:
maxCount = vtxCount/2
nextEdge0 = vtxid_edgeid[startVtxid][0]
nextEdge1 = vtxid_edgeid[startVtxid][1]
currentVtx0 = startVtxid
currentVtx1 = startVtxid
tempCount = 0
while tempCount < maxCount:
tempCount += 1
nextVtxes = edgeid_vtxid[nextEdge0]
for i in nextVtxes:
if i != currentVtx0:
currentVtx0 = i
break
vtxLine0.append(currentVtx0)
nextEdges = vtxid_edgeid[currentVtx0]
for i in nextEdges:
if i != nextEdge0:
nextEdge0 = i
break
tempCount = 0
while tempCount < maxCount:
tempCount += 1
nextVtxes = edgeid_vtxid[nextEdge1]
for i in nextVtxes:
if i != currentVtx1:
currentVtx1 = i
break
vtxLine1.append(currentVtx1)
nextEdges = vtxid_edgeid[currentVtx1]
for i in nextEdges:
if i != nextEdge1:
nextEdge1 = i
break
vtxLineIntersect = list(set(vtxLine0).intersection(set(vtxLine1)))
vtxLine0String = []
for i in vtxLine0:
if not i in vtxLineIntersect:
uvid = vtxid_uvid[i]
vtxLine0String.append( selObj + '.map[' + str(uvid) + ']')
vtxLine1String = []
for i in vtxLine1:
if not i in vtxLineIntersect:
uvid = vtxid_uvid[i]
vtxLine1String.append( selObj + '.map[' + str(uvid) + ']')
cmds.select(selFaces,r=1)
uvbb = cmds.polyEvaluate(selUVs,bc2=1)
if (uvbb[0][1]-uvbb[0][0]) > (uvbb[1][1]-uvbb[1][0]) :
cmds.polyEditUV(rot=1,angle=90)
uvbb0 = cmds.polyEvaluate(vtxLine0String,bc2=1)
uvbb1 = cmds.polyEvaluate(vtxLine1String,bc2=1)
if uvbb0[0][0]<uvbb1[0][0]:
cmds.polyEditUV(vtxLine0String, u=-1,r=0)
cmds.polyEditUV(vtxLine1String, u=-0.9,r=0)
else:
cmds.polyEditUV(vtxLine0String, u=-0.9,r=0)
cmds.polyEditUV(vtxLine1String, u=-1,r=0)
cmds.select(selUVs,r=1)
cmds.select(vtxLine0String,d=1)
cmds.select(vtxLine1String,d=1)
cmds.unfold(i=5000,ss=0.001,gb=0,gmb=0.5,pub=0,ps=0,oa=0,us=0)
cmds.unfold(selUVs,i=5000,ss=0,gb=0,gmb=0,pub=0,ps=0,oa=1,us=0)
else:
maxCount = vtxCount/2
nextEdge0 = vtxid_edgeid[startVtxid][0]
nextEdge1 = vtxid_edgeid[startVtxid][1]
currentVtx0 = startVtxid
currentVtx1 = startVtxid
tempCount = 0
while tempCount < maxCount:
tempCount += 1
nextVtxes = edgeid_vtxid[nextEdge0]
for i in nextVtxes:
if i != currentVtx0:
currentVtx0 = i
break
vtxLine0.append(currentVtx0)
nextEdges = vtxid_edgeid[currentVtx0]
for i in nextEdges:
if i != nextEdge0:
nextEdge0 = i
break
tempCount = 0
while tempCount < maxCount:
tempCount += 1
nextVtxes = edgeid_vtxid[nextEdge1]
for i in nextVtxes:
if i != currentVtx1:
currentVtx1 = i
break
vtxLine1.append(currentVtx1)
nextEdges = vtxid_edgeid[currentVtx1]
for i in nextEdges:
if i != nextEdge1:
nextEdge1 = i
break
vtxLineIntersect = list(set(vtxLine0).intersection(set(vtxLine1)))
vtxLine0String = []
for i in vtxLine0:
if not i in vtxLineIntersect:
uvid = vtxid_uvid[i]
vtxLine0String.append( selObj + '.map[' + str(uvid) + ']')
vtxLine1String = []
for i in vtxLine1:
if not i in vtxLineIntersect:
uvid = vtxid_uvid[i]
vtxLine1String.append( selObj + '.map[' + str(uvid) + ']')
uvbb = cmds.polyEvaluate(selUVs,bc2=1)
cmds.select(selFaces,r=1)
if (uvbb[0][1]-uvbb[0][0]) > (uvbb[1][1]-uvbb[1][0]) :
cmds.polyEditUV(rot=1,angle=90)
cmds.unfold(selUVs,i=5000,ss=0,gb=0,gmb=0,pub=0,ps=0,oa=1,us=0)
uvbb = cmds.polyEvaluate(selUVs,bc2=1)
scale = 1/(uvbb[1][1]-uvbb[1][0])
moveV = 0.5-(uvbb[1][1]+uvbb[1][0])/2
cmds.polyEditUV(selUVs,v=moveV)
cmds.polyEditUV(selUVs,s=1,su=scale,sv=scale,pu=-1,pv=0.5)
length_vtxes = cmds.polyListComponentConversion(vtxLine0String,fuv=1,tv=1)
length_edges = cmds.polyListComponentConversion(length_vtxes,fv=1,te=1,internal=1)
cmds.select(vtxLine0String,r=1)
edgeuvbb = cmds.polyEvaluate(vtxLine0String,bc2=1)
uvheight = edgeuvbb[1][1] - edgeuvbb[1][0]
edgesLength = 0
length_edges = cmds.ls(length_edges,fl=1)
for edgeid in length_edges:
edgesLength += edgeid_length[int(edgeid.split('[')[1][:-1])]
densityScale = edgesLength/uvheight
cmds.polyEditUV(selUVs,s=1,su=densityScale,sv=densityScale,pu=-1,pv=0.5)
cmds.select(selUVs,r=1)
def unfld(*args): cmds.unfold(i=5000, ss=0.001, gb=0, gmb=0.5, pub=0, ps=0, oa=0, us=False)
def straightenUVBorder():
cmds.polyStraightenUVBorder()
cmds.unfold(oa=1, us=False)
