def detach(extract=False):
"""
Extracts or duplicate selected polygon faces.
"""
selected = mampy.complist()
if not selected:
raise InvalidSelection('Detach only works on edge and polygon components.')
else:
control = selected[0]
if control.type not in [MFn.kMeshPolygonComponent, MFn.kMeshEdgeComponent]:
raise InvalidSelection('Detach only works on edges and polygons.')
new = ComponentList()
for comp in selected:
node = Node(comp.dagpath)
name = '{}_{}'.format(node.transform.short_name, 'ext' if extract else 'dup')
cmds.duplicate(str(comp.dagpath), n=name)
# Delete unwanted children from duplicate hierarchy
dupdag = Node(name)
for child in dupdag.iterchildren():
if child.type == MFn.kTransform:
cmds.delete(str(child))
if extract:
cmds.polyDelFacet(comp.cmdslist())
dupcomp = MeshPolygon.create(dupdag.dagpath).add(comp.indices)
cmds.polyDelFacet(dupcomp.toggle().cmdslist())
cmds.hilite(str(dupdag))
new.append(dupcomp.get_complete())
cmds.select(new.cmdslist(), r=True)
def transfertSelection():
"""
This definition transfers a component selection to another object.
:return: Definition succes. ( Boolean )
"""
selection = cmds.ls(sl=True, long=True)
targetObject = str()
for item in selection:
if "." not in item:
targetObject = item
break
if targetObject != "":
cmds.hilite(targetObject, replace=True)
cmds.selectMode(component=True)
nextSelection = []
for item in selection:
if item != targetObject:
if "." in item:
itemTokens = item.split(".")
nextSelection.append(targetObject + "." + itemTokens[1])
nextSelection and cmds.select(nextSelection)
return True
def set_isolate_set(selected):
set_name = get_isolate_set_name()
# Trying to hide visible children in hierarchy to get wanted isolate
# behavior.
for sel in selected:
for child in sel.iterchildren():
if child in selected or not child.type == MFn.kTransform:
continue
# Only work on visible children
if child.attr['visibility']:
child.attr['visibility'] = False
HIDDEN_CHILDREN.add(child)
hilited = DagpathList(
[dag for dag in mampy.daglist(hl=True) if dag not in selected]
)
if hilited:
cmds.hilite(hilited.cmdslist(), toggle=True)
# In case the dag object was a child of unhilited object rehilite it.
for dag in selected:
cmds.hilite(str(dag))
if not set_name:
for dag in selected:
cmds.isolateSelect(get_active_panel(), addDagObject=str(dag))
return
cmds.sets(clear=set_name)
cmds.sets(selected.cmdslist(), include=set_name)
def transfertSelection():
"""
Transfers a component selection to another object.
:return: Definition succes.
:rtype: bool
"""
selection = cmds.ls(sl=True, long=True)
targetObject = ""
for item in selection:
if "." not in item:
targetObject = item
break
if targetObject != "":
cmds.hilite(targetObject, replace=True)
cmds.selectMode(component=True)
nextSelection = []
for item in selection:
if item != targetObject:
if "." in item:
itemTokens = item.split(".")
nextSelection.append(targetObject + "." + itemTokens[1])
nextSelection and cmds.select(nextSelection)
return True
def set_mask(*masks):
"""Set selection masks in maya.
if the current mask is the given mask toggle object component mode. This is the
default mode maya uses when switching selection masks. You will be able to continue
selecting components but also select other objects as maya objects.
Usage:
set_mask('vertex', 'controlVertex', 'latticePoint')
set_mask('meshComponents')
"""
component_masks = {mask: True for mask in masks}
if (cmds.selectMode(q=True, component=True) and
any(cmds.selectType(q=True, **{mask: True}) for mask in component_masks.iterkeys())):
cmds.selectMode(object=True)
cmds.selectType(ocm=True, alc=False)
cmds.selectType(ocm=True, **component_masks)
cmds.selectType(**component_masks)
cmds.hilite(mampy.daglist().cmdslist())
else:
cmds.selectMode(component=True)
cmds.selectType(allComponents=False)
cmds.selectType(**component_masks)
def exit_tool_and_mask():
"""Exit current tool or toggle selection mode.
When working with other contexts in maya use this function to exit the current
context and return to selection context; if you are using base tools ('select',
move, rotate, scale) toggle selection mode instead.
Usage:
tool_select()
"""
# base_tools = ['{}SuperContext'.format(i) for i in ('select', 'move', 'rotate', 'scale')]
if not cmds.currentCtx() == 'selectSuperContext':
cmds.setToolTo('selectSuperContext')
else:
if cmds.selectMode(q=True, object=True):
hilited = mampy.daglist(hl=True)
if hilited:
cmds.hilite(hilited.cmdslist(), toggle=True)
cmds.select(hilited.cmdslist())
else:
cmds.selectMode(component=True)
else:
cmds.selectMode(object=True)
def run(self,*args):
name = mc.textFieldGrp(self.name, q=True, tx=True)
joint = mc.intSliderGrp(self.joint, q=True, v=True)
obj = mc.ls(sl=True, o=True)
if name == '':
print 'ERROR!!'
return
for i in obj:
mc.select(i)
if mc.objectType(i) == 'mesh':
mc.hilite(i)
curves = mc.polyToCurve(usm=False, f=2, dg=1)
else:
curves = mc.duplicate(rr=True)
if mc.checkBoxGrp(self.reverse, q=True, v1=True):
mc.reverseCurve()
joints = []
for j in range(joint):
mc.select(cl=True)
joints.append(mc.joint(n=name))
mc.select(mc.ls(joints, curves, tr=True))
apg.positionAlongCurve()
for j in range(joint - 1):
mc.parent(joints[j + 1], joints[j])
mc.joint(joints[j], e=True, zso=True, oj='xyz', sao='yup')
if j == joint - 2:
mc.rename(joints[j + 1], name + '_end')
mc.delete(curves)
mc.select(cl=True)
def setHighlight(self, state):
if not self.targetGeom:
return
if state:
m.hilite(self.targetGeom, replace=True)
else:
m.hilite(self.targetGeom, unHilite=True)
def selectVerts(obj, idx):
cmds.selectType(objectComponent=True, allComponents=False)
cmds.selectType(objectComponent=True, vertex=True)
cmds.selectType(vertex=True)
cmds.hilite(obj)
if idx is not None:
cmds.select('pSphere1.vtx[{0}]'.format(idx), replace=True)
def disableObjectVertexSelection(item): ''' Disable vertex selection for specified object @param item: Object to switch selection mode for @type item: str ''' # Hilite item mc.hilite(item,u=1)
def disableObjectVertexSelection(item):
'''
Disable vertex selection for specified object
@param item: Object to switch selection mode for
@type item: str
'''
# Hilite item
mc.hilite(item, u=1)
def disableObjectVertexSelection(item):
"""
Disable vertex selection for specified object
@param item: Object to switch selection mode for
@type item: str
"""
# Hilite item
cmds.hilite(item, u=1)
def disableObjectVertexSelection(item):
"""
Disable vertex selection for specified object
@param item: Object to switch selection mode for
@type item: str
"""
# Hilite item
cmds.hilite(item, u=1)
def face_extraction(faces=None, deleteOrg=True, selectDuplicated=True, transferWeight=True):
'''
メッシュを選択したフェイスで切り分ける
deleteOrg 切り分け元のフェイスを削除するかどうかを指定デフォルトTrue
faces → 外部ツールからフェイスのリストを渡して実行したい場合の引数
'''
if faces is None:
selection = cmds.ls(sl=True)
else:
selection = faces
selObjects = []
for sel in selection:
objNameTemp = sel.split('.')
if not objNameTemp[0] in selObjects:
selObjects.append(objNameTemp[0])
cmds.select(cl=True)
duplicated = [] # 最後の選択格納用
# ハイライトされているオブジェクト毎に処理
for selObj in selObjects:
compTemp = [] # バラバラのコンポーネントをオブジェクト毎に格納するリスト
# 選択されているコンポーネントを整理
for sel in selection:
objNameTemp = sel.split('.')
objName = objNameTemp[0] # コンポーネントのオブジェクト名
# オブジェクト名が一致且つフェイス選択ならリスト入り
if selObj == objName and '.f[' in sel:
compTemp.append(sel)
# print('compTemp ALL : '+str(compTemp))
if len(compTemp) != 0:
dupObj = cmds.duplicate(selObj, rr=True)
# 子供のオブジェクト取得関数呼び出し
children = cmds.listRelatives(dupObj[0], type='transform', ad=True)
# 子供のオブジェクトがある場合は重複を避けるため削除
if children:
cmds.delete(children)
duplicated.append(dupObj[0])
if transferWeight: # ウェイト転送フラグが有効だったら
weight.transfer_weight(selObj, dupObj, logTransfer=False) # ウェイトを転送
faces = ",".join(compTemp) # リストを括弧のない文字列に
faces = faces.replace(selObj, dupObj[0]) # 名前置き換え
delface = faces.split(',')
cmds.selectMode(co=True)
cmds.hilite(dupObj)
cmds.select(delface, r=True)
#print('del face :',delface)
for obj in dupObj:
face_count = str(len(common.conv_comp(obj, mode='face')))
cmds.select(obj+'.f[0:'+face_count+']', tgl=True)
#mel.eval('InvertSelection;') # 選択の反転
deleter = cmds.ls(sl=True)
cmds.delete(deleter) # 最初に選択されていなかったフェース部分のみ削除
# 削除フラグが立っていたら古いフェイス削除
if deleteOrg is True:
cmds.delete(compTemp)
if selectDuplicated:
cmds.select(duplicated)
return duplicated
def deselect_all_but():
preselect = mampy.complist(preSelectHilite=True)
obj = get_object_under_cursor()
if not obj:
return
cmds.select(obj, r=True)
if not preselect:
return
else:
cmds.hilite(obj, toggle=True)
def undoableWrapper(*args, **kargs):
selection = cmds.ls(sl=True, fl=True)
highlight = cmds.ls(hl=True, fl=True)
try:
return function(*args, **kargs)
finally:
if selection:
cmds.select(selection)
else:
cmds.select(clear=True)
if highlight:
cmds.hilite(highlight)
def result(*args,**kargs):
selection = cmds.ls(sl=True,fl=True)
highlight = cmds.ls(hl=True,fl=True)
try:
result = function(*args,**kargs)
finally:
if selection:
cmds.select(selection)
else:
cmds.select(clear=True)
if highlight:
cmds.hilite(highlight)
def selectVtx(self):
vtxList = cmds.textScrollList('vtxList_JellyBean', q=1, si=1)
if not vtxList:
cmds.select(cmds.polyListComponentConversion(self.saveShape, ff=1, fe=1, fuv=1, fvf=1, tv=1), r=1)
cmds.hilite(self.saveShape)
return
if not '.' in vtxList[0]:
_shapeN = cmds.text('shapeInfo_JellyBean', q=1, l=1)
vtxList = ['%s.%s' % (_shapeN, i) for i in vtxList]
else:
_shapeN = cmds.ls(vtxList[0], o=1)
cmds.hilite(_shapeN)
cmds.select(vtxList, r=1)
def on_selectVerts( self, *a ): selJoints = self.UI_tsl.getSelectedItems() if not selJoints: return verts = [] for j in selJoints: verts += meshUtils.jointVertsForMaya( j ) if verts: cmd.hilite( [ self._mesh ] ) cmd.select( verts ) mel.artAttrSkinToolScript( 4 )
def on_selectVerts(self, *a):
selJoints = self.UI_tsl.getSelectedItems()
if not selJoints:
return
verts = []
for j in selJoints:
verts += meshUtils.jointVertsForMaya(j)
if verts:
cmd.hilite([self._mesh])
cmd.select(verts)
mel.artAttrSkinToolScript(4)
def enableObjectVertexSelection(item):
'''
Enable vertex selection for specified object
@param item: Object to switch selection mode for
@type item: str
'''
# Hilite item
mc.hilite(item)
# Get item type
itemType = mc.objectType(mc.listRelatives(item, s=1, ni=1)[0])
# Set selection mode
if itemType == 'mesh':
mc.selectType(ocm=1, vertex=1)
if itemType == 'nurbsSurface' or itemType == 'nurbsCurve':
mc.selectType(ocm=1, controlVertex=1)
def replaceHighlight(newHiglightItems):
selection = SelectHelper.getSelectionDagPaths(False)
hilite = SelectHelper.getSelectionDagPaths(True)
# include selected objects that were in previous hilite
newHilite = [i for i in hilite if i in selection]
newHilite.extend(newHiglightItems)
# remove previous hilite
if len(hilite) > 0:
cmds.hilite(hilite, u=True)
# set new hilite
if len(newHilite) > 0:
cmds.hilite(newHilite, r=True)
def enableObjectVertexSelection(item): ''' Enable vertex selection for specified object @param item: Object to switch selection mode for @type item: str ''' # Hilite item mc.hilite(item) # Get item type itemType = mc.objectType(mc.listRelatives(item,s=1,ni=1)[0]) # Set selection mode if itemType == 'mesh': mc.selectType(ocm=1,vertex=1) if itemType == 'nurbsSurface' or itemType == 'nurbsCurve': mc.selectType(ocm=1,controlVertex=1)
def replaceHighlight(newHiglightItems):
selection = SelectHelper.getSelectionDagPaths(False)
hilite = SelectHelper.getSelectionDagPaths(True)
# include selected objects that were in previous hilite
newHilite = [i for i in hilite if i in selection]
newHilite.extend(newHiglightItems)
# remove previous hilite
if len(hilite) > 0:
cmds.hilite(hilite, u=True)
# set new hilite
if len(newHilite) > 0:
cmds.hilite(newHilite, r=True)
def toggle_mesh_under_cursor():
"""Toggle mesh object under cursor."""
preselect = mampy.complist(preSelectHilite=True)
if not preselect:
under_cursor_mesh = get_object_under_cursor()
if under_cursor_mesh is None:
return
node = Node(under_cursor_mesh)
if cmds.selectMode(q=True, component=True):
cmds.hilite(str(node.transform))
else:
cmds.select(str(node), toggle=True)
else:
node = preselect.pop().mdag
if node.transform in mampy.daglist(hl=True):
cmds.hilite(str(node.transform), unHilite=True)
def straightenVertsFromUI():
"""
Straighten Vertices From UI
"""
# Get Edge Selection
sel = cmds.ls(sl=True, fl=True)
edges = cmds.filterExpand(sel, ex=True, sm=32)
verts = cmds.filterExpand(sel, ex=True, sm=31)
if not edges and verts:
cmds.select(verts)
mel.eval('ConvertSelectionToContainedEdges')
edges = cmds.filterExpand(ex=True, sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = cmds.ls(edges, o=True)
# Get UI Parameters
falloff = cmds.floatSliderGrp('straightenVerts_falloffFSG',
q=True,
value=True)
edgeSpacing = cmds.checkBoxGrp('straightenVerts_edgeSpacingCBG',
q=True,
v1=True)
snapToOrig = cmds.checkBoxGrp('straightenVerts_snapToOrigCBG',
q=True,
v1=True)
delHistory = cmds.checkBoxGrp('straightenVerts_deleteHistoryCBG',
q=True,
v1=True)
# Straighten Vertices
straightenVerts(edgeList=edges,
falloff=falloff,
keepEdgeSpacing=edgeSpacing,
snapToOriginal=snapToOrig,
deleteHistory=delHistory)
# Restore Selection
if sel:
cmds.selectMode(component=True)
cmds.selectType(edge=True)
cmds.hilite(mesh)
cmds.select(edges)
def createJointAtPoint(radius=30):
sel = cmds.ls(sl=1)
hi = cmds.ls(hilite=1)[0]
vtx = cmds.filterExpand(sm=31)
pos = [0.0,0.0,0.0]
for v in vtx:
p = cmds.xform(v, q=1, t=1, ws=1)
for i in range(3):
pos[i] = pos[i] + p[i]
for i in range(3):
pos[i] = pos[i] / len(vtx)
cmds.select(d=1)
cmds.joint(p=pos, radius=radius)
cmds.isolateSelect('modelPanel4',addSelected=1)
cmds.select(hi)
cmds.hilite(replace=1)
cmds.selectType(ocm=1,vertex=1)
def UvLose(*args):
global display7
global selection, ulface
cmds.select(selection)
NameList_Uvlose = []
cmd = r'polyCleanupArgList 4 { "0","2","0","0","0","0","0","0","0","1e-05","0","1e-05","1","0","0","-1","0","0" };'
result = mm.eval(cmd)
ulface = cmds.ls(sl=True)
cmds.ConvertSelectionToShell()
NameList = cmds.ls(sl=True)
cmds.select(clear=1)
cmds.hilite(replace=True)
print ulface
for i in NameList:
NameList_Uvlose.append(i.split('.')[0].encode('utf8'))
if len(NameList_Uvlose) != 0:
display7 = 1
return NameList_Uvlose
def OverSides(*args):
global selection
global display3, osface
cmds.select(selection)
NameList_Os = []
cmd = r'polyCleanupArgList 4 {"0","2","0","0","1","0","0","0","0","1e-05","0","1e-05","0","0","0","-1","0","0" }'
result = mm.eval(cmd)
osface = cmds.ls(sl=True)
cmds.ConvertSelectionToShell()
NameList = cmds.ls(sl=True)
cmds.select(clear=1)
cmds.hilite(replace=True)
print osface
for i in NameList:
NameList_Os.append(i.split('.')[0].encode('utf8'))
if len(NameList_Os) != 0:
display3 = 1
return NameList_Os
def UVoverlap(*args):
global selection
global display8, UVolface
cmds.select(selection)
NameList_Uvoverlap = []
cmds.ConvertSelectionToFaces()
UVolface = cmds.polyUVOverlap(oc=True)
cmds.select(UVolface)
cmds.ConvertSelectionToShell()
NameList = cmds.ls(sl=True)
cmds.select(clear=1)
cmds.hilite(replace=True)
print UVolface
for i in NameList:
NameList_Uvoverlap.append(i.split('.')[0].encode('utf8'))
if len(NameList_Uvoverlap) != 0:
display8 = 1
return NameList_Uvoverlap
def evenEdgeSpacingFromUI():
"""
Even Edge Spacing From UI
"""
# Get Edge Selection
sel = cmds.ls(sl=True, fl=True)
edges = cmds.filterExpand(sel, ex=True, sm=32)
verts = cmds.filterExpand(sel, ex=True, sm=31)
if not edges and verts:
cmds.select(verts)
mel.eval('ConvertSelectionToContainedEdges')
edges = cmds.filterExpand(ex=True, sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = cmds.ls(edges, o=True)
# Get UI Parameters
smooth = cmds.intSliderGrp('evenEdgeSpacing_smoothISG', q=True, v=True)
influence = cmds.floatSliderGrp('evenEdgeSpacing_influenceFSG',
q=True,
v=True)
snapToOrig = cmds.checkBoxGrp('evenEdgeSpacing_snapToOrigCBG',
q=True,
v1=True)
delHistory = cmds.checkBoxGrp('evenEdgeSpacing_deleteHistoryCBG',
q=True,
v1=True)
# Even Edge Spacing
evenEdgeSpacing(edgeList=edges,
smooth=smooth,
influence=influence,
snapToOrig=snapToOrig,
deleteHistory=delHistory)
# Restore Selection
if sel:
cmds.selectMode(component=True)
cmds.selectType(edge=True)
cmds.hilite(mesh)
cmds.select(edges)
def doCheck(self):
# Clean out existing vars to start a new detection
self.emptyUVs = []
unMapLim = 0
unMapCount = 0
unMapRep = ''
# Array for holding polygons and their faces
polyHold = cmds.ls(geometry=True)
faceHold = cmds.polyListComponentConversion(polyHold, tf=True)
# Saving the selection and hilite states
userHil = cmds.ls(hilite=True)
userSel = cmds.ls(selection=True)
# Selecting the faces for contraint
cmds.select(faceHold)
# Constraining the selection to any faces that are unmapped
cmds.polySelectConstraint(mode=3, type=8, textured=2)
self.emptyUVs = cmds.ls(selection=True)
unMapLim = len(self.emptyUVs)
# Clearing out the selections
cmds.polySelectConstraint(disable=True)
cmds.select(clear=True)
# Counting up the faces found to be unmapped
for i in range(0, unMapLim):
cmds.select(self.emptyUVs[i])
unMapCount += cmds.polyEvaluate(self.emptyUVs[i],
faceComponent=True)
# Restoring the original selection state
cmds.selectType(allObjects=True)
cmds.hilite(userHil)
cmds.select(userSel)
# Determining if any unmapped faces have been found and reporting
if self.emptyUVs:
unMapRep = '%d unmapped faces detected.' % (unMapCount)
return unMapRep
def floodReplace(comps, sm_dfrm):
obj = str(comps[0]).split('.')[0]
cmds.hilite(obj, replace=1)
cmds.select(comps)
mel.eval('artSetToolAndSelectAttr( "artAttrCtx", "softMod.{}.weights" );'.
format(sm_dfrm))
mel.eval('artAttrInitPaintableAttr;')
mel.eval('artAttrValues artAttrContext;')
mel.eval('artAttrPaintOperation artAttrCtx Replace;')
mel.eval('artAttrCtx -e -opacity 1 `currentCtx`;')
mel.eval('artAttrCtx -e -value 0 `currentCtx`;')
cmds.select(comps)
mel.eval('invertSelection;')
mel.eval('artAttrCtx -e -clear `currentCtx`;')
cmds.select(obj)
mel.eval('SelectTool;')
def floodSmooth(comps, sm_dfrm, smooth=3):
obj = str(comps[0]).split('.')[0]
cmds.select(obj)
cmds.hilite(obj, replace=1)
cmds.select('{}.vtx[*]'.format(obj))
mel.eval('artSetToolAndSelectAttr( "artAttrCtx", "softMod.{}.weights" );'.
format(sm_dfrm))
mel.eval('artAttrInitPaintableAttr;')
mel.eval('artAttrValues artAttrContext;')
mel.eval('artAttrPaintOperation artAttrCtx Smooth;')
mel.eval('artAttrCtx -e -opacity 1 `currentCtx`;')
cmds.select('{}.vtx[*]'.format(obj))
for i in range(smooth):
mel.eval('artAttrCtx -e -clear `currentCtx`;')
cmds.select(obj)
mel.eval('SelectTool;')
def smoothEdgeLineFromUI():
'''
Smooth Edge Line From UI
'''
# Get Edge Selection
sel = mc.ls(sl=True, fl=True)
edges = mc.filterExpand(sel, ex=True, sm=32)
verts = mc.filterExpand(sel, ex=True, sm=31)
if not edges and verts:
mc.select(verts)
mm.eval('ConvertSelectionToContainedEdges')
edges = mc.filterExpand(ex=True, sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = mc.ls(edges, o=True)
# Get UI Parameters
smooth = mc.intSliderGrp('smoothEdges_smoothISG', q=True, v=True)
falloff = mc.floatSliderGrp('smoothEdges_falloffFSG', q=True, v=True)
edgeSpacing = mc.checkBoxGrp('smoothEdges_edgeSpacingCBG', q=True, v1=True)
snapToOrig = mc.checkBoxGrp('smoothEdges_snapToOrigCBG', q=True, v1=True)
delHistory = mc.checkBoxGrp('smoothEdges_deleteHistoryCBG',
q=True,
v1=True)
# Smooth Edges
smoothEdgeLine(edges,
smooth=smooth,
falloff=falloff,
snapToOrig=snapToOrig,
keepEdgeSpacing=edgeSpacing,
deleteHistory=delHistory)
# Restore Selection
if sel:
mc.selectMode(component=True)
mc.selectType(edge=True)
mc.hilite(mesh)
mc.select(edges)
def advanceMoveMulti():
"""
same as advanceMove but with multicomponents enable
"""
cmds.selectMode(object=True)
selection = cmds.ls(sl=True)
cmds.selectMode(component=True)
cmds.selectMode(object=True)
cmds.selectMode(component=True)
for node in selection:
cmds.delete(node, ch=True)
cmds.selectType(meshComponents=True)
cmds.hilite(node)
cmds.select(clear=True)
#mel.eval('dR_selTypeChanged("meshComponents");')
activePanel = cmds.getPanel(withFocus=True)
cmds.modelEditor(activePanel, e=True, manipulators=False)
cmds.setToolTo('moveSuperContext')
cmds.selectPref(clickDrag=True)
def smoothEdgeLineFromUI():
"""
Smooth Edge Line From UI
"""
# Get Edge Selection
sel = cmds.ls(sl=True, fl=True)
edges = cmds.filterExpand(sel, ex=True, sm=32)
verts = cmds.filterExpand(sel, ex=True, sm=31)
if not edges and verts:
cmds.select(verts)
mel.eval('ConvertSelectionToContainedEdges')
edges = cmds.filterExpand(ex=True, sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = cmds.ls(edges, o=True)
# Get UI Parameters
smooth = cmds.intSliderGrp('smoothEdges_smoothISG', q=True, v=True)
falloff = cmds.floatSliderGrp('smoothEdges_falloffFSG', q=True, v=True)
edgeSpacing = cmds.checkBoxGrp('smoothEdges_edgeSpacingCBG', q=True, v1=True)
snapToOrig = cmds.checkBoxGrp('smoothEdges_snapToOrigCBG', q=True, v1=True)
delHistory = cmds.checkBoxGrp('smoothEdges_deleteHistoryCBG', q=True, v1=True)
# Smooth Edges
smoothEdgeLine(edges,
smooth=smooth,
falloff=falloff,
snapToOrig=snapToOrig,
keepEdgeSpacing=edgeSpacing,
deleteHistory=delHistory)
# Restore Selection
if sel:
cmds.selectMode(component=True)
cmds.selectType(edge=True)
cmds.hilite(mesh)
cmds.select(edges)
def on_selectIntersectingVerts( self, *a ):
selJoints = self.UI_tsl.getSelectedItems()
if not selJoints:
return
allVerts = []
jointVerts = {}
for j in selJoints:
jointVerts[ j ] = verts = meshUtils.jointVertsForMaya( j )
allVerts += verts
allVerts = set( allVerts )
commonVerts = []
for j, jVerts in jointVerts.iteritems():
commonVerts += allVerts.intersection( set( jVerts ) )
if commonVerts:
cmd.hilite( [ self._mesh ] )
cmd.select( commonVerts )
mel.artAttrSkinToolScript( 4 )
def OpenEdge(*args):
global selection
global display5
global opedge
NameList_Oe = []
cmds.select(selection)
# 选择约束开放边
pm.polySelectConstraint(where=1, type=0x8000, mode=3)
opedge = cmds.ls(sl=True)
print opedge
cmds.ConvertSelectionToShell()
NameList = cmds.ls(sl=True)
# 重置约束
cmd = r'resetPolySelectConstraint'
result = mm.eval(cmd)
cmds.select(clear=1)
cmds.hilite(replace=True)
for i in NameList:
NameList_Oe.append(i.split('.')[0].encode('utf8'))
if len(NameList_Oe) != 0:
display5 = 1
return NameList_Oe
def on_selectIntersectingVerts(self, *a):
selJoints = self.UI_tsl.getSelectedItems()
if not selJoints:
return
allVerts = []
jointVerts = {}
for j in selJoints:
jointVerts[j] = verts = meshUtils.jointVertsForMaya(j)
allVerts += verts
allVerts = set(allVerts)
commonVerts = []
for j, jVerts in jointVerts.iteritems():
commonVerts += allVerts.intersection(set(jVerts))
if commonVerts:
cmd.hilite([self._mesh])
cmd.select(commonVerts)
mel.artAttrSkinToolScript(4)
def straightenVertsFromUI():
'''
Straighten Vertices From UI
'''
# Get Edge Selection
sel = mc.ls(sl=True,fl=True)
edges = mc.filterExpand(sel,ex=True,sm=32)
verts = mc.filterExpand(sel,ex=True,sm=31)
if not edges and verts:
mc.select(verts)
mm.eval('ConvertSelectionToContainedEdges')
edges = mc.filterExpand(ex=True,sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = mc.ls(edges,o=True)
# Get UI Parameters
falloff = mc.floatSliderGrp('straightenVerts_falloffFSG',q=True,value=True)
edgeSpacing = mc.checkBoxGrp('straightenVerts_edgeSpacingCBG',q=True,v1=True)
snapToOrig = mc.checkBoxGrp('straightenVerts_snapToOrigCBG',q=True,v1=True)
delHistory = mc.checkBoxGrp('straightenVerts_deleteHistoryCBG',q=True,v1=True)
# Straighten Vertices
straightenVerts( edgeList = edges,
falloff = falloff,
keepEdgeSpacing = edgeSpacing,
snapToOriginal = snapToOrig,
deleteHistory = delHistory)
# Restore Selection
if sel:
mc.selectMode(component=True)
mc.selectType(edge=True)
mc.hilite(mesh)
mc.select(edges)
def evenEdgeSpacingFromUI():
'''
Even Edge Spacing From UI
'''
# Get Edge Selection
sel = mc.ls(sl=True,fl=True)
edges = mc.filterExpand(sel,ex=True,sm=32)
verts = mc.filterExpand(sel,ex=True,sm=31)
if not edges and verts:
mc.select(verts)
mm.eval('ConvertSelectionToContainedEdges')
edges = mc.filterExpand(ex=True,sm=32)
if not edges:
print('Select a list of connected vertices or edges and run again...')
return
# Get Mesh from vertices
mesh = mc.ls(edges,o=True)
# Get UI Parameters
smooth = mc.intSliderGrp('evenEdgeSpacing_smoothISG',q=True,v=True)
influence = mc.floatSliderGrp('evenEdgeSpacing_influenceFSG',q=True,v=True)
snapToOrig = mc.checkBoxGrp('evenEdgeSpacing_snapToOrigCBG',q=True,v1=True)
delHistory = mc.checkBoxGrp('evenEdgeSpacing_deleteHistoryCBG',q=True,v1=True)
# Even Edge Spacing
evenEdgeSpacing( edgeList = edges,
smooth = smooth,
influence = influence,
snapToOrig = snapToOrig,
deleteHistory = delHistory )
# Restore Selection
if sel:
mc.selectMode(component=True)
mc.selectType(edge=True)
mc.hilite(mesh)
mc.select(edges)
def rotateJoint(selectedJoint, rotX, rotY, rotZ, *args):
selectedJoint = cmds.textField(selectedJoint, q=True, tx=True)
rotX = cmds.textField(rotX, q=True, tx=True)
rotY = cmds.textField(rotY, q=True, tx=True)
rotZ = cmds.textField(rotZ, q=True, tx=True)
if not selectedJoint:
print "*Input the joint name"
return
if not rotX or not rotY or not rotZ:
print "*Input the rotate values"
return
cmds.selectMode(object=True)
cmds.hilite(selectedJoint)
cmds.select(selectedJoint + '.rotateAxis', replace=True)
cmds.rotate(rotX,
rotY,
rotZ,
relative=True,
objectSpace=True,
forceOrderXYZ=True)
def __enter__(self):
self.slist = cmds.ls(sl=True)
self.hlist = cmds.ls(hl=True)
if self.hlist:
cmds.hilite(self.hlist, toggle=True)
import maya.cmds as mc
import maya.mel as mel
oEdges = mc.ls(sl=True)
oObj = oEdges[0].split('.')[0]
oFace = ''
for i in oEdges:
if '.f[' in i:
oFace = i
mc.DetachComponent()
mc.select(cl=True)
mc.select(oFace)
mc.ConvertSelectionToShell()
oFacesFinal = mc.ls(sl=True)
mc.select(oObj)
mc.polyMergeVertex(d=0.0001)
mc.select(oFacesFinal)
mc.selectType(smp=0, sme=0, smf=1, smu=0, pv=0, pe=0, pf=1, puv=0)
mc.hilite(oObj, r=True)
mel.eval('doDelete;')
mc.select(oObj, r=True)
mc.polyCloseBorder()
def on_selectMesh( self, *a ): cmd.hilite( unHilite=True ) cmd.select( self._mesh ) mel.artAttrSkinToolScript( 4 )
def polyCleanup(
meshList=[],
quads=False,
nonQuads=False,
concave=False,
holes=False,
nonPlanar=False,
laminaFace=False,
nonManifold=False,
zeroFaceArea=False,
zeroEdgeLen=False,
zeroMapArea=False,
faceAreaTol=0.001,
edgeLenTol=0.001,
mapAreaTol=0.001,
keepHistory=False,
fix=False,
printCmd=False,
):
"""
Perform a check for various "bad" polygon geometry.
@param meshList: List of meshes to operate on. If empty, operate on meshes in the current scene.
@type meshList: list
@param quads: Find all faces with 4 sides. Faces will be triangulated if fix=True.
@type quads: bool
@param nonQuads: Find all faces with more than 4 sides. Faces will be triangulated if fix=True.
@type nonQuads: bool
@param concave: Find all concave faces. Faces will be triangulated if fix=True.
@type concave: bool
@param holes: Find all holed faces. Faces will be triangulated if fix=True.
@type holes: bool
@param nonPlanar: Find all non-planar faces. Faces will be triangulated if fix=True.
@type nonPlanar: bool
@param laminaFace: Find all lamina faces (faces that share the same edges). Faces will be deleted if fix=True.
@type laminaFace: bool
@param nonManifold: Find all non-manifold geometry (edges connected to more than 2 faces).
@type nonManifold: bool
@param zeroFaceArea: Find polygon faces with zero surface area. Faces will be deleted if fix=True.
@type zeroFaceArea: bool
@param zeroLenFace: Find polygon edges with zero length. Edges will be deleted if fix=True.
@type zeroLenFace: bool
@param zeroMapArea: Find polygon faces with zero map (UV) area. Faces will be deleted if fix=True.
@type zeroMapArea: bool
@param faceAreaTol: Zero face area tolerance.
@type faceAreaTol: float
@param edgeLenTol: Zero edge length tolerance.
@type edgeLenTol: float
@param mapAreaTol: Zero map area tolerance.
@type mapAreaTol: float
@param keepHistory: Maintain cleanup history
@type keepHistory: bool
@param fix: Attempt to fix any bad geoemetry found.
@type fix: bool
"""
# Check mesh list
for mesh in meshList:
if not mc.objExists(mesh):
raise Exception('Mesh "' + mesh + '" does not exist!')
if not meshList:
allMeshes = 1
else:
allMeshes = 0
mc.select(meshList)
# Check fix
if fix:
selectOnly = 0
else:
selectOnly = 2
# Check NonManifold
if nonManifold:
if fix:
doNonManifold = 1
else:
doNonManifold = 2
else:
doNonManifold = -1
# Build Poly Cleanup Command
polyCleanupCmd = "polyCleanupArgList 3 {"
polyCleanupCmd += '"' + str(allMeshes) + '",' # [0] - All selectable meshes
polyCleanupCmd += '"' + str(selectOnly) + '",' # [1] - Perform selection only
polyCleanupCmd += '"' + str(int(keepHistory)) + '",' # [2] - Keep construction history
polyCleanupCmd += '"' + str(int(quads)) + '",' # [3] - Check for 4 sided faces
polyCleanupCmd += '"' + str(int(nonQuads)) + '",' # [4] - Check for faces with more than 4 sides
polyCleanupCmd += '"' + str(int(concave)) + '",' # [5] - Check for concave faces
polyCleanupCmd += '"' + str(int(holes)) + '",' # [6] - Check for holed faces
polyCleanupCmd += '"' + str(int(nonPlanar)) + '",' # [7] - Check for non-planar faces
polyCleanupCmd += '"' + str(int(zeroFaceArea)) + '",' # [8] - Check for zero area faces
polyCleanupCmd += '"' + str(faceAreaTol) + '",' # [9] - Tolerance for face area
polyCleanupCmd += '"' + str(int(zeroEdgeLen)) + '",' # [10] - Check for zero length edges
polyCleanupCmd += '"' + str(edgeLenTol) + '",' # [11] - Tolerance for edge length
polyCleanupCmd += '"' + str(int(zeroMapArea)) + '",' # [12] - Check for zero map area faces
polyCleanupCmd += '"' + str(mapAreaTol) + '",' # [13] - Tolerance for map area
polyCleanupCmd += '"0",' # [14] - Shared UVs (unused)
polyCleanupCmd += '"' + str(doNonManifold) + '",' # [15] - Check non-manifold geometry
polyCleanupCmd += '"' + str(int(laminaFace)) + '"' # [16] - Check lamina faces
polyCleanupCmd += "};"
# Perform Poly Cleanup
mm.eval(polyCleanupCmd)
if printCmd:
print polyCleanupCmd
# Generate return value
result = mc.ls(sl=1)
# Restore selection state
if meshList:
mc.select(meshList)
else:
mc.select(cl=True)
hiliteList = mc.ls(hilite=True)
if hiliteList:
mc.hilite(hiliteList, tgl=False)
# Return Result
return result
def set_reference(mode=''):
c_ctx = cmds.currentCtx(q=True)
#print c_ctx
sel = cmds.ls(sl=True, l=True)
#print 'set reference :', mode, sel
current_ctx = cmds.currentCtx()
if mode == 'object':
#print 'set reference object mode :'
cmds.selectMode(o=True)
rot = cmds.xform(sel, q=True, ro=True, ws=True)
pos = cmds.xform(sel, q=True, t=True, ws=True)
rx = rot[0] / 180 * math.pi
ry = rot[1] / 180 * math.pi
rz = rot[2] / 180 * math.pi
cmds.manipScaleContext('Scale', e=True, orientAxes=(rx, ry, rz))
cmds.manipRotateContext('Rotate', e=True, orientAxes=(rx, ry, rz))
cmds.manipMoveContext('Move', e=True, orientAxes=(rx, ry, rz))
cmds.setToolTo('scaleSuperContext') #マニプ表示がおかしくなるのでいったんコンテキスト設定してから戻す
cmds.setToolTo('RotateSuperContext')
cmds.setToolTo('moveSuperContext')
cmds.setToolTo(current_ctx)
else:
if mode == 'vertex':
manip_type = 'PointHandleTowards'
comp = cmds.polyListComponentConversion(sel, tv=True)
comp = cmds.filterExpand(comp, sm=31)
sel_node = '" , "'.join(pre_sel)
#print 'vertex ref :', sel_node, comp[0]
if mode == 'edge':
manip_type = 'AlignHandleWith'
comp = cmds.polyListComponentConversion(sel, te=True)
comp = cmds.filterExpand(comp, sm=32)
sel_node = comp[0]
if mode == 'face':
manip_type = 'AlignHandleWith'
comp = cmds.polyListComponentConversion(sel, tf=True)
comp = cmds.filterExpand(comp, sm=34)
sel_node = comp[0]
if comp:
mel.eval('manipScaleOrient 5;')
mel.eval('{ string $Selection1[]; $Selection1[0] = "' + comp[0] +
'"; manipScale' + manip_type + '($Selection1[0], {"' +
sel_node + '"}, {}, "", 0);; };')
mel.eval('manipRotateOrient 5;')
mel.eval('{ string $Selection1[]; $Selection1[0] = "' + comp[0] +
'"; manipRotate' + manip_type + '($Selection1[0], {"' +
sel_node + '"}, {}, "", 0);; };')
mel.eval('manipMoveOrient 5;')
mel.eval('{ string $Selection1[]; $Selection1[0] = "' + comp[0] +
'"; manipMove' + manip_type + '($Selection1[0], {"' +
sel_node + '"}, {}, "", 0);; };')
cmds.selectMode(co=True)
if pre_ref_mode == 'vertex':
cmds.selectType(pv=1,
smu=0,
smp=1,
pf=0,
pe=0,
smf=0,
sme=0,
puv=0)
if pre_ref_mode == 'edge':
cmds.selectType(pv=0,
smu=0,
smp=0,
pf=0,
pe=1,
smf=0,
sme=1,
puv=0)
if pre_ref_mode == 'face':
cmds.selectType(pv=0,
smu=0,
smp=0,
pf=1,
pe=0,
smf=0,
sme=1,
puv=0)
trans = cmds.xform(sel, q=True, t=True, ws=True)
num = len(trans) / 3
x = y = z = 0
for i in range(0, len(trans), 3):
x += trans[i]
y += trans[i + 1]
z += trans[i + 2]
pos = [x / num, y / num, z / num]
#sel_obj = []
#obj_list = list(set([vtx.split('.')[0] for vtx in pre_sel]))
#if obj_list:
#sel_obj = [cmds.listRelatives(s, p=True)[0] if cmds.nodeType(s)=='mesh' else s for s in obj_list]
#print obj_list, pre_sel
#cmds.hilite(obj_list, r=True)
#cmds.hilite(pre_sel, r=True)
#print 'set to pre mode :', pre_ref_mode
#print 'set to mode pre :', pre_ref_mode
if pre_ref_mode == 'object':
cmds.selectMode(o=True)
else:
cmds.selectMode(co=True)
if pre_obj_list:
cmds.hilite(pre_obj_list, r=True)
if pre_sel:
cmds.select(pre_sel, r=True)
else:
cmds.select(cl=True)
sb.after_pick_context(ctx=c_ctx)
#移動マニプを選択の中心に移動する
cmds.manipPivot(p=pos)
def CreateJNT(*args):
cmds.select(cl=1)
sel = cmds.ls('*setJNT')
IKlist = []
FKlist = []
FKGRPlist = []
skinlist = []
parentList = []
scaleList = []
paweightList = []
scweightList = []
# create IK FK switch
Tr = XF('switchLocation', q=1, ws=1, t=1)
Rt = XF('switchLocation', q=1, ws=1, ro=1)
Roo = XF('switchLocation', q=1, ws=1, roo=1)
XF(cmds.curve(d=1,
p=[(-1.000750770419927, 0.0, -2.001501540839854),
(1.000750770419927, 0.0, -2.001501540839854),
(1.000750770419927, 0.0, -1.000750770419927),
(2.001501540839854, 0.0, -1.000750770419927),
(2.001501540839854, 0.0, 1.000750770419927),
(1.000750770419927, 0.0, 1.000750770419927),
(1.000750770419927, 0.0, 2.001501540839854),
(-1.000750770419927, 0.0, 2.001501540839854),
(-1.000750770419927, 0.0, 1.000750770419927),
(-2.001501540839854, 0.0, 1.000750770419927),
(-2.001501540839854, 0.0, -1.000750770419927),
(-1.000750770419927, 0.0, -1.000750770419927),
(-1.000750770419927, 0.0, -2.001501540839854)],
n='FKIK_ctrl'),
ws=1,
t=Tr,
ro=Rt,
roo=Roo)
selObj = cmds.ls(sl=1)
CtlScale = cmds.getAttr('setJNT_scale.scaleX')
for i in selObj:
cmds.select(i) # ---- scale!!! ----#
cmds.hilite(i)
cmds.select(i + '.cv[:]')
cmds.scale(CtlScale * 3, CtlScale * 3, CtlScale * 3)
cmds.hilite(u=1)
cmds.select(i)
CTLShape = cmds.listRelatives(selObj, s=1)
cmds.setAttr((CTLShape[0] + '.overrideEnabled'), 1)
cmds.setAttr((CTLShape[0] + '.overrideColor'), 17)
cmds.addAttr(ln='FKIK', at='float', min=0, max=10, dv=0, k=1)
cmds.select(cl=1)
# create FK, IK, skin joints
for i in range(len(JNTver)):
if 'IK' in JNTver[i]: # create IK joint
for s in sel:
Tr = XF(s, q=1, ws=1, t=1)
Rt = XF(s, q=1, ws=1, ro=1)
Roo = XF(s, q=1, ws=1, roo=1)
XF(cmds.joint(name=s.split('_')[1] + '_' + JNTver[i] + '_JNT'),
ws=1,
t=Tr,
ro=Rt,
roo=Roo)
IKlist.append(s.split('_')[1] + '_' + JNTver[i] + '_JNT')
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
cmds.select(cl=1)
elif 'skin' in JNTver[i]: # create skin joint
for s in sel:
Tr = XF(s, q=1, ws=1, t=1)
Rt = XF(s, q=1, ws=1, ro=1)
Roo = XF(s, q=1, ws=1, roo=1)
JNT = XF(cmds.joint(name=s.split('_')[1] + '_' + JNTver[i] +
'_JNT'),
ws=1,
t=Tr,
ro=Rt,
roo=Roo)
skinlist.append(s.split('_')[1] + '_' + JNTver[i] + '_JNT')
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
cmds.select(cl=1)
elif 'FK' in JNTver[i]: # create CTRL at FK joint
for s in sel:
Tr = XF(s, q=1, ws=1, t=1)
Rt = XF(s, q=1, ws=1, ro=1)
Roo = XF(s, q=1, ws=1, roo=1)
CtlScale = cmds.getAttr(s + '.ctlSize')
CTL = cmds.circle(nr=(0, 1, 0),
c=(0, 0, 0),
name=s.split('_')[1] + '_' + JNTver[i] +
'_JNT_CTL',
radius=CtlScale)
CTLShape = cmds.listRelatives(CTL, s=1)
cmds.setAttr((CTLShape[0] + '.overrideEnabled'), 1)
cmds.setAttr((CTLShape[0] + '.overrideColor'), 6)
XF(CTL, ws=1, roo=Roo)
JNT = cmds.joint(name=s.split('_')[1] + '_' + JNTver[i] +
'_JNT')
XF(JNT, ws=1, roo=Roo)
cmds.makeIdentity(apply=True, t=1, r=1, s=1, n=0)
FKlist.append(JNT)
offset = cmds.group(CTL,
w=1,
name=s.split('_')[1] + '_' + JNTver[i] +
'_CTL_offset')
XF(offset, ws=1, roo=Roo)
GRP = cmds.group(offset,
w=1,
name=s.split('_')[1] + '_' + JNTver[i] +
'_CTL_GRP')
XF(GRP, ws=1, t=Tr, ro=Rt, roo=Roo)
FKGRPlist.append(GRP)
cmds.delete(CTL[0], ch=1)
for s in range(len(FKlist) - 1): # FK joint grouping
cmds.parent(FKGRPlist[s + 1], FKlist[s])
# create IK handle
ikHan = cmds.ikHandle(n='Leg_IK_handle',
sj=IKlist[1],
ee=IKlist[4],
solver='ikRPsolver')
CA('ikSpringSolver.message', 'Leg_IK_handle.ikSolver', force=True)
cmds.select(cl=1)
# create IK controller
Trik = XF(ikHan[0], q=1, ws=1, t=1)
ikCTL = cmds.curve(
d=1,
p=[(-2.001501540839854, 2.001501540839854, 2.001501540839854),
(-2.001501540839854, -2.001501540839854, 2.001501540839854),
(2.001501540839854, -2.001501540839854, 2.001501540839854),
(2.001501540839854, 2.001501540839854, 2.001501540839854),
(-2.001501540839854, 2.001501540839854, 2.001501540839854),
(-2.001501540839854, 2.001501540839854, -2.001501540839854),
(-2.001501540839854, -2.001501540839854, -2.001501540839854),
(-2.001501540839854, -2.001501540839854, 2.001501540839854),
(2.001501540839854, -2.001501540839854, 2.001501540839854),
(2.001501540839854, -2.001501540839854, -2.001501540839854),
(2.001501540839854, 2.001501540839854, -2.001501540839854),
(2.001501540839854, 2.001501540839854, 2.001501540839854),
(-2.001501540839854, 2.001501540839854, 2.001501540839854),
(-2.001501540839854, 2.001501540839854, -2.001501540839854),
(2.001501540839854, 2.001501540839854, -2.001501540839854),
(2.001501540839854, -2.001501540839854, -2.001501540839854),
(-2.001501540839854, -2.001501540839854, -2.001501540839854)],
n='IK_ctrl')
ikoffset = cmds.group(ikCTL, w=1, n=ikCTL + 'offset')
ikGRP = cmds.group(ikoffset, w=1, n=ikCTL + 'GRP')
XF(ikGRP, ws=1, t=Trik)
cmds.parent(ikHan[0], ikCTL)
# constraint FK IK to skin joints
for s in range(len(sel)):
conpa = cmds.parentConstraint(FKlist[s], IKlist[s], skinlist[s], mo=1)
paList = cmds.parentConstraint(conpa, query=True, weightAliasList=True)
parentList.append(conpa)
paweightList.append(paList)
consc = cmds.scaleConstraint(FKlist[s], IKlist[s], skinlist[s], mo=1)
scList = cmds.scaleConstraint(consc, query=True, weightAliasList=True)
scaleList.append(consc)
scweightList.append(scList)
# connect FK IK switch => skin
selSwitch = cmds.ls('*FKIK_ctrl')
for s in selSwitch:
CA(s + '.FKIK', SN('unitConversion', au=1, n='UC_' + s) + '.input')
SA('UC_' + s + '.conversionFactor', 0.1)
CA('UC_' + s + '.output', SN('reverse', au=1, n='RV_' + s) + '.inputX')
for i in range(len(parentList)):
CA('UC_' + s + '.output',
parentList[i][0] + '.' + paweightList[i][1])
CA('UC_' + s + '.output',
scaleList[i][0] + '.' + scweightList[i][1])
CA('RV_' + s + '.outputX',
parentList[i][0] + '.' + paweightList[i][0])
CA('RV_' + s + '.outputX',
scaleList[i][0] + '.' + scweightList[i][0])
# create IK poleVector
poleCTL = cmds.curve(d=1,
p=[(0.0, 2.001501540839854, 0.0),
(0.0, -2.001501540839854, 0.0), (0.0, 0.0, 0.0),
(0.0, 0.0, -2.001501540839854),
(0.0, 0.0, 2.001501540839854), (0.0, 0.0, 0.0),
(2.001501540839854, 0.0, 0.0),
(-2.001501540839854, 0.0, 0.0)],
n='pole_CTL')
CTLShape = cmds.listRelatives(poleCTL, s=1)
cmds.setAttr((CTLShape[0] + '.overrideEnabled'), 1)
cmds.setAttr((CTLShape[0] + '.overrideColor'), 17)
selObj = cmds.ls(sl=1)
CtlScale = cmds.getAttr('setJNT_scale.scaleX')
for i in selObj:
cmds.select(i) # ---- scale!!! ----#
cmds.hilite(i)
cmds.select(i + '.cv[:]')
cmds.scale(CtlScale * 3, CtlScale * 3, CtlScale * 3)
cmds.hilite(u=1)
cmds.select(i)
Tr = XF('Knee_skin_JNT', q=1, ws=1, t=1)
offsetPole = cmds.group(poleCTL, n=poleCTL + 'offset')
GRPpole = cmds.group(offsetPole, n=poleCTL + 'GRP')
XF(GRPpole, ws=1, t=Tr)
cmds.move(300, GRPpole, moveZ=True, relative=True, objectSpace=True)
cmds.poleVectorConstraint(poleCTL, ikHan[0])
cmds.delete('setJNT_scale')
import maya.cmds as mc
import maya.mel as mel
oEdges = mc.ls(sl=True)
oObj = oEdges[0].split('.')[0]
oFace = ''
for i in oEdges:
if '.f[' in i:
oFace = i
mc.DetachComponent()
mc.select(cl=True)
mc.select(oFace)
mc.ConvertSelectionToShell()
oFacesFinal = mc.ls(sl=True)
mc.select(oObj)
mc.polyMergeVertex(d=0.0001)
mc.select(oFacesFinal)
mc.selectType(smp=0, sme=0, smf=1, smu=0, pv=0, pe=0, pf=1, puv=0)
mc.hilite(oObj, r=True)
def select(self,obj,compType,clearSel=1,addVal=0):
'''Allow easy reselection of specific selection data'''
cmds.select(cl=clearSel)
if self[obj][compType] != None :
cmds.hilite(obj)
cmds.select(self[obj][compType],add=addVal)
def select(self,obj,compType,clearSel=1,addVal=0):
'''Allow easy reselection of specific selection data'''
cmds.select(cl=clearSel)
if self[obj][compType] != None :
cmds.hilite(obj)
cmds.select(self[obj][compType],add=addVal)
def on_selectMesh(self, *a):
cmd.hilite(unHilite=True)
cmd.select(self._mesh)
mel.artAttrSkinToolScript(4)
def evenEdgeSpacing(edgeList,
smooth=0,
influence=1.0,
snapToOrig=False,
deleteHistory=False):
"""
@param edgeList: List of polygon edges to evenly space
@type edgeList: list
@param smooth: Number of smooth iterations to apply
@type smooth: int
@param influence: Amount of result to apply to original vertex positions
@type influence: float
@param snapToOrig: Snap points back to original mesh
@type snapToOrig: bool
@param deleteHistory: Delete construction history.
@type deleteHistory: bool
"""
# Get Edge List
edgeList = cmds.filterExpand(edgeList, ex=True, sm=32) or []
if not edgeList:
raise Exception('Invalid or empty edge list! Unable to even edge spacing...')
edgeCrvList = glTools.tools.extractCurves.extractEdgeCurves(edgeList, keepHistory=False)
evenCrvList = []
for edgeCrv in edgeCrvList:
# Rebuild Even Curve
evenCrv = cmds.rebuildCurve(edgeCrv,
ch=False,
rpo=False,
rt=0,
end=1,
kr=False,
kcp=False,
kep=True,
kt=False,
s=0,
d=1,
tol=0)[0]
# Smooth Curve
if smooth: smoothCurve(evenCrv, smooth, True)
# Snap To Mesh
mesh = cmds.ls(edgeList, o=True)[0]
if snapToOrig:
pts = glTools.utils.component.getComponentStrList(evenCrv)
glTools.utils.mesh.snapPtsToMesh(mesh, pts)
evenCrvList.append(evenCrv)
# Apply Even Spacing to Mesh Edge Vertices
wire = glTools.utils.wire.createMulti(mesh, edgeCrvList, dropoffDist=0.01, prefix=mesh.split(':')[-1])
cmds.setAttr(wire[0] + '.rotation', 0)
cmds.setAttr(wire[0] + '.envelope', influence)
# Blend to Even Curve
for i in range(len(edgeCrvList)):
blendShape = glTools.utils.blendShape.create(baseGeo=edgeCrvList[i], targetGeo=[evenCrvList[i]])
cmds.setAttr(blendShape + '.' + evenCrvList[i], 1)
# ==================
# - Delete History -
# ==================
if deleteHistory:
wireBaseList = glTools.utils.wire.getWireBase(wire[0])
cmds.delete(mesh, ch=True)
for edgeCrv in edgeCrvList:
if cmds.objExists(edgeCrv):
cmds.delete(edgeCrv)
for evenCrv in evenCrvList:
if cmds.objExists(evenCrv):
cmds.delete(evenCrv)
for wireBase in wireBaseList:
if cmds.objExists(wireBase):
cmds.delete(wireBase)
# =================
# - Return Result -
# =================
if edgeList:
cmds.hilite(mesh)
cmds.select(edgeList)
return edgeList
def smoothEdgeLine(edgeList,
smooth=4,
falloff=0.01,
snapToOrig=False,
keepEdgeSpacing=False,
deleteHistory=False):
"""
@param edgeList:
@param smooth:
@param falloff:
@param snapToOrig:
@param keepEdgeSpacing:
@param deleteHistory:
"""
# Get Edge List
edgeList = cmds.filterExpand(edgeList, ex=True, sm=32) or []
if not edgeList:
raise Exception('Invalid or empty edge list! Unable to even edge spacing...')
edgeCrvList = glTools.tools.extractCurves.extractEdgeCurves(edgeList, keepHistory=False)
smoothCrvList = []
for edgeCrv in edgeCrvList:
# Smooth Edge Line
smoothCrv = cmds.duplicate(edgeCrv, n=edgeCrv + '_smoothed')[0]
smoothCurve(crv=smoothCrv,
iterations=smooth,
keepEnds=True,
keepSpacing=keepEdgeSpacing)
# Snap To Mesh
mesh = cmds.ls(edgeList, o=True)[0]
if snapToOrig:
pts = glTools.utils.component.getComponentStrList(smoothCrv)
glTools.utils.mesh.snapPtsToMesh(mesh, pts)
# Append List
smoothCrvList.append(smoothCrv)
# Apply Smoothed Edge to Vertices
wire = glTools.utils.wire.createMulti(mesh, edgeCrvList, dropoffDist=falloff, prefix=mesh.split(':')[-1])
cmds.setAttr(wire[0] + '.rotation', 0)
# Blend to Smooth Curve
for i in range(len(edgeCrvList)):
blendShape = glTools.utils.blendShape.create(baseGeo=edgeCrvList[i], targetGeo=[smoothCrvList[i]])
cmds.setAttr(blendShape + '.' + smoothCrvList[i], 1)
# ==================
# - Delete History -
# ==================
if deleteHistory:
wireBaseList = glTools.utils.wire.getWireBase(wire[0])
cmds.delete(mesh, ch=True)
for edgeCrv in edgeCrvList:
if cmds.objExists(edgeCrv):
cmds.delete(edgeCrv)
for smoothCrv in smoothCrvList:
if cmds.objExists(smoothCrv):
cmds.delete(smoothCrv)
for wireBase in wireBaseList:
if cmds.objExists(wireBase):
cmds.delete(wireBase)
# =================
# - Return Result -
# =================
if edgeList:
cmds.hilite(mesh)
cmds.select(edgeList)
return edgeList
def straightenVerts(edgeList,
falloff=0.01,
influence=1.0,
snapToOriginal=False,
keepEdgeSpacing=False,
deleteHistory=False):
"""
Straighten specified polygon vertices.
@param influence:
@param keepEdgeSpacing:
@param edgeList: List of polygon edges to straighten.
@type edgeList: list
@param falloff: Falloff distance around selected vertices.
@type falloff: float
@param snapToOriginal: Snap vertices back to closest point on original mesh.
@type snapToOriginal: bool
@param deleteHistory: Delete construction history.
@type deleteHistory: bool
"""
# Get Edge List
edgeList = cmds.filterExpand(edgeList, ex=True, sm=32) or []
if not edgeList:
raise Exception('Invalid or empty edge list! Unable to straighten vertices...')
# Build Edge Curve from Vertices
edgeCrvList = glTools.tools.extractCurves.extractEdgeCurves(edgeList, keepHistory=False)
straightCrvList = []
for edgeCrv in edgeCrvList:
# Build Straight Curve
straightCrv = cmds.rebuildCurve(edgeCrv,
ch=False,
rpo=False,
rt=0,
end=1,
kr=False,
kcp=False,
kep=True,
kt=False,
s=1,
d=1,
tol=0)[0]
# Rebuild Straight Curve
dist = []
total = 0.0
params = []
pts = glTools.utils.base.getMPointArray(edgeCrv)
max = cmds.getAttr(straightCrv + '.maxValue')
if keepEdgeSpacing:
for i in range(pts.length() - 1):
d = (pts[i] - pts[i + 1]).length()
dist.append(d)
total += d
for i in range(len(dist)):
d = dist[i] / total * max
if i: d += params[-1]
params.append(d)
else:
params = glTools.utils.mathUtils.distributeValue(pts.length(), rangeEnd=max)[1:-1]
params = [straightCrv + '.u[' + str(i) + ']' for i in params]
cmds.insertKnotCurve(params, ch=False, numberOfKnots=1, add=True, ib=False, rpo=True)
# Snap To Mesh
mesh = cmds.ls(edgeList, o=True)[0]
if snapToOriginal:
pts = glTools.utils.component.getComponentStrList(straightCrv)
glTools.utils.mesh.snapPtsToMesh(mesh, pts)
# Append List
straightCrvList.append(straightCrv)
# =================
# - Deform Points -
# =================
# Build Wire Deformer
wire = glTools.utils.wire.createMulti(mesh, edgeCrvList, dropoffDist=falloff, prefix=mesh.split(':')[-1])
cmds.setAttr(wire[0] + '.rotation', 0)
# Blend to Straight Curve
for i in range(len(edgeCrvList)):
blendShape = glTools.utils.blendShape.create(baseGeo=edgeCrvList[i], targetGeo=[straightCrvList[i]])
cmds.setAttr(blendShape + '.' + straightCrvList[i], influence)
# ==================
# - Delete History -
# ==================
if deleteHistory:
wireBaseList = glTools.utils.wire.getWireBase(wire[0])
cmds.delete(mesh, ch=True)
for edgeCrv in edgeCrvList:
if cmds.objExists(edgeCrv):
cmds.delete(edgeCrv)
for straightCrv in straightCrvList:
if cmds.objExists(straightCrv):
cmds.delete(straightCrv)
for wireBase in wireBaseList:
if cmds.objExists(wireBase):
cmds.delete(wireBase)
# =================
# - Return Result -
# =================
if edgeList:
cmds.hilite(mesh)
cmds.select(edgeList)
return edgeList
def __exit__(self, *args):
cmds.select(self.slist, r=True)
if self.hlist:
cmds.hilite(self.hlist)
