def checkSoftSelect(*args):
# checks if symmetry is on
softSelect = mc.softSelect(query=True, softSelectEnabled=True)
# print("softSelect: {0}".format(softSelect))
if softSelect != 0:
mc.softSelect(softSelectEnabled=0)
return softSelect
def adjustDrop(newDrop, newRadius): global balloonDrop mc.softSelect(softSelectEnabled = False) mc.select( "balloonLattice.pt[0:1][0][0]", "balloonLattice.pt[0:1][0][1]", r = True ) newDrop = (newDrop * newRadius) mc.move( (-1 * (newRadius + newDrop)), a = True, y = True) return
def testSoftSelection(self):
# open maya file
mayaFile = os.path.abspath('UsdReferenceAssemblySelectionTest.ma')
cmds.file(mayaFile, open=True, force=True)
# load all the assemblies
self._LoadAll('Collapsed')
# enable soft select with a medium radius
OBJECT_MODE = 3
cmds.softSelect(softSelectEnabled=1, softSelectFalloff=OBJECT_MODE,
softSelectDistance=4.0)
centerCube = 'Cube_49'
neighborCube = 'Cube_48'
neighborFullName = cmds.ls(neighborCube, long=True)[0]
cmds.select(centerCube)
# make sure more than 1 thing was selected
softSel = self._GetSoftSelection()
self.assertEqual(len(softSel), 9)
self.assertTrue(self._ContainsAssembly(neighborFullName, softSel))
# clear the selection
cmds.select([])
# set one of the things nearby and make it expanded
cmds.assembly(neighborCube, edit=True, active='Expanded')
# select thing again. It should no longer include the thing that we've
# made expanded.
cmds.select(centerCube)
softSel = self._GetSoftSelection()
self.assertFalse(self._ContainsAssembly(neighborFullName, softSel))
def makeTree(shaders):
'''
Creates a tree.
shaders: A list of shaders for the tree crown.
On exit: A tree has been modeled, and is returned as a tuple
containing the object name and the node name. Some of the
variables are chosen randomly to create different results.
'''
height = random.uniform(0.3,1.5)
trunk = cmds.polyCylinder(name = "trunk", h = height, r = 0.07)
cmds.sets(trunk[0], edit=True, forceElement="trunkMaterialGroup")
cmds.xform(trunk, translation = (0,height/2.0 + 0.2,0))
crown = cmds.polySphere(name = "crown", r = 0.5)
cmds.xform(crown, translation = (0,height + 0.6,0))
cmds.softSelect(sse = True, ssd = 0.86)
cmds.select(crown[0] + ".vtx[381]")
translation = random.uniform(0.3,1.5)
cmds.move(translation, y = True, r = True)
cmds.softSelect(sse = False)
shader = random.choice(shaders)
scale_ = random.uniform(0.7,1.8)
cmds.select(crown)
cmds.scale(scale_, scale_, scale_, pivot = (0,height,0))
cmds.sets(crown[0], edit=True, forceElement= shader[1])
tree = cmds.polyUnite(trunk[0],crown[0])
cmds.delete(tree[0], ch = True)
return tree
def testGeoSampler():
sel = cmd.ls(sl=True)
if len(sel) == 0:
raise Exception("Selezionare il piano!")
print '--------- Selection is: ' + sel[0] + ' ---------'
cmd.selectMode(component=True)
cmd.select(sel[0] + '.vtx[:]')
cmd.polyGeoSampler(cs=False, cdo=False, dg=False, ac=True, bf=False)
vtxNumber = len(cmd.getAttr(sel[0] + '.vtx[:]'))
# cmd.softSelect(sse=1, ssd=1)
for i in range(0, vtxNumber):
v = sel[0] + '.vtx[%d]' % i
cmd.select(v, r=True)
vColor = cmd.polyColorPerVertex(query=True, r=True, g=True, b=True)
r = vColor[0]
g = vColor[1]
b = vColor[2]
h = colorToElevation(r, g, b)
cmd.move(h, y=True, r=True)
cmd.softSelect(sse=0)
cmd.selectMode(object=True)
def LoadDelta(Args):
global adress
# Open dialog window to choose directory to load delta
folder = cmds.fileDialog2( cap='Choose directory to load Delta', fm=3, dialogStyle=1 )
adress = folder[0]+"\\"
pathList_cleared = []
targetBlendDict = {}
named_targetBlendDict = {}
print "Loading Delta :)"
# Getting .bsp files from choosen folder
pathList = os.listdir( adress )
if len(pathList) == 0:
print "Folder is empty"
for element in pathList:
if '.bsp' in element:
pathList_cleared.append( element )
else:
print 'wrong type - ', element
pathList = pathList_cleared
headObj = cmds.ls( sl=True )
object_qnty_check(headObj)
headObject = headObj[0]
step = 25
for i in range( len(pathList) ):
start_time = timeit.default_timer()
named_targetBlendDict.clear()
path_name = open( adress+pathList[i],'r' )
DeltaDict = pickle.load( path_name )
targetBlendDict.clear()
new_name = pathList[i].split('.')[0]
cmds.duplicate( headObj[0], n=headObject+'_' + new_name )
cmds.select( headObject+'_'+new_name )
cmds.move( step, 0, 0 )
step += 25
for key in compOpacities:
weight = compOpacities.get(key)
x = baseVertDict[key][0] + (DeltaDict[key][0] * weight)
y = baseVertDict[key][1] + (DeltaDict[key][1] * weight)
z = baseVertDict[key][2] + (DeltaDict[key][2] * weight)
targetBlendDict[key] = [x, y, z]
copy_headObj = cmds.ls( sl=True )
for head in copy_headObj:
for i in targetBlendDict:
named_targetBlendDict[head+'.vtx' + str(i)] = targetBlendDict[i]
for head in copy_headObj:
for vert, value in named_targetBlendDict.iteritems():
cmds.xform( vert, t=value )
print "Loading time - ", head, ( timeit.default_timer() - start_time )
cmds.softSelect( sse=1 )
names = cmds.listAttr( "blendShape1", m=True, k=True )[1:]
fullNames = []
for i in names:
fullNames.append( headObj[0] + '_' + i )
cmds.blendShape( fullNames, headObj )
cmds.delete( fullNames )
return adress
def CL_Displace_noShape(height, sse=0, ssd=0):
curves = cmd.ls(type='nurbsCurve')
checkClosed(curves)
checkPlanar(curves)
checkIntersection(curves)
sel = cmd.ls(sl=True)
if len(sel) == 0:
raise Exception("Selezionare il piano!")
print '--------- Selection is: ' + sel[0] + ' ---------'
cmd.selectMode(component=True)
cmd.softSelect(sse=sse, ssd=ssd)
count = 1
for c in curves:
vtxNumber = len(cmd.getAttr(sel[0]+'.vtx[:]'))
for i in range(0, vtxNumber):
v = sel[0]+'.vtx[%d]' % i
vPosition = cmd.xform(v, query=True, translation=True, worldSpace=True)
if testIfInsideCurve(vPosition, c, (1, 0, 0)):
cmd.move(height, v, y=True, r=True)
print "Terminato displacement livello " + str(count)
count += 1
cmd.softSelect(sse=0)
cmd.selectMode(o=True)
cmd.polyTriangulate(sel[0])
def displacePointsInsideMesh(plane, mesh, height, sse, ssd): """ Select vertices of plane that are inside mesh and displace those vertices (with amount height) :param plane: object to displace :param mesh: shape for select vertices to displace :param height: height of displacement :param sse: enable soft selection 0 False 1 True :param ssd: soft select distance :return: None """ cmd.selectMode(component=True) cmd.softSelect(sse=sse, ssd=ssd) vtxNumber = len(cmd.getAttr(plane+'.vtx[:]')) for i in range(0, vtxNumber): v = plane+'.vtx[%d]' % i cmd.select(v, r=True) vPosition = cmd.xform(v, query=True, translation=True, worldSpace=True) if test_if_inside_mesh(mesh, vPosition): cmd.move(height, y=True, r=True) cmd.softSelect(sse=0) cmd.selectMode(o=True)
def main():
cmds.softSelect(sse=1, ssd=85.0, ssf=2)
lines, dimensions = read_in_lines()
print(dimensions)
x = dimensions[0]
y = dimensions[1]
cmds.polyPlane(width=x, height=y, sx=x, sy=y)
raise_points(lines, dimensions, 15)
def setDefaultFalloffCurve(self):
""""""
cmds.optionVar( clearArray='falloffCurveOptionVar' )
cmds.optionVar(stringValueAppend=[ 'falloffCurveOptionVar', '0,1,2'])
cmds.optionVar(stringValueAppend=[ 'falloffCurveOptionVar', '1,0,2'])
cmds.gradientControlNoAttr( self.gradient, e=True, optionVar='falloffCurveOptionVar' )
cmds.gradientControlNoAttr( self.gradient, e=True, asString='0,1,2,1,0,2' )
cmds.softSelect(e=1, ssc='0,1,2,1,0,2')
def applysettings(self):
cmds.softSelect(softSelectEnabled=self.enabled,
softSelectDistance=self.distance,
softSelectCurve=self.curve,
softSelectColorCurve=self.colorcurve,
softSelectFalloff=self.falloff,
enableFalseColor=self.falsecolorenabled,
compressUndo=self.undocompressed)
def setDefaultFalloffCurve(self):
""""""
cmds.optionVar( clearArray='falloffCurveOptionVar' )
cmds.optionVar(stringValueAppend=[ 'falloffCurveOptionVar', '0,1,2'])
cmds.optionVar(stringValueAppend=[ 'falloffCurveOptionVar', '1,0,2'])
cmds.gradientControlNoAttr( self.gradient, e=True, optionVar='falloffCurveOptionVar' )
cmds.gradientControlNoAttr( self.gradient, e=True, asString='0,1,2,1,0,2' )
cmds.softSelect(e=1, ssc='0,1,2,1,0,2')
def createCluster(selection_list):
target_point_weight = {}
for dag_path, point_weight_list in selection_list.items():
_getConvertedData(dag_path, point_weight_list, target_point_weight)
cmds.softSelect(e=True, sse=False)
cmds.select(target_point_weight.keys())
cluster_node = cmds.cluster()
for point, weight in target_point_weight.items():
cmds.percent(cluster_node[0], point, v=weight)
def value_noise(self):
"""
This function modifies the grid by using an implementation of value Noise
"""
logger.debug("Starting deformation with value noise")
if not self.check_terrain():
return
# Disable softSelection to avoid errors in other functions
cmds.softSelect(sse=False)
self.noise_seed = rand(0, 1) * 10000
logger.debug("Random seed is: {}".format(self.noise_seed))
# List of every vertex on the object
vertices = cmds.ls(self.gridObject + ".vtx[*]", flatten=True)
# Multiplier to scale deformation according to the selected size.
height_multiplier = self.gridDimensions / 100.0
# Set the max Y value for the points.
# Multiply by 3 because this generates smaller values than soft selection
height_limit = self.maxHeight * height_multiplier * 3.0
# Nested for loops to get "coordinates" of each vertex
for x in range(0, self.gridSubdivisions + 1):
for y in range(0, self.gridSubdivisions + 1):
# Normalize x and y coordinates to fit range 0-1
normalized_x = x * 1.0 / self.gridSubdivisions
normalized_y = y * 1.0 / self.gridSubdivisions
# Store evaluated noise from each coordinate multiplied by a scale
# Add octaves together and return to 0 to 1 range
value = smooth_noise(normalized_x * 4.0, normalized_y * 4.0,
self.noise_seed)
value += smooth_noise(normalized_x * 8.0, normalized_y * 8.0,
self.noise_seed) * .5
value += smooth_noise(normalized_x * 16.0, normalized_y * 16.0,
self.noise_seed) * .25
value += smooth_noise(normalized_x * 32.0, normalized_y * 32.0,
self.noise_seed) * .125
value /= (1 + .5 + .25 + .125)
# Calculate vertex index on the object using x and y
index = x * (self.gridSubdivisions + 1) + y
# Move the vertex on Y with the noise value
cmds.move(0, value * height_limit, 0, vertices[index], r=True)
def createStone(self):
""" This method creates the form of stone. """
# create a sphere
subdivisionsX = 40
subdivisionsY = 50
if self.typeStone == 'small':
size = 6.
if self.typeStone == 'big':
size = 9.
self.currentStone = mc.polySphere(sx=subdivisionsX,
sy=subdivisionsY,
r=size)
# change its form
mc.scale(1, 0.5, 0.6, r=True)
mc.move(0, size / 3.4, 0, r=True)
stoneRY = random.randrange(0, 360)
mc.rotate(0, stoneRY, 0, r=True, os=True)
mc.softSelect(softSelectEnabled=True, ssd=4, sud=0.5)
#mc.softSelect( ssd=0.6, sud=0.3 )
for i in range(20):
vertexNumber = random.randrange(
0, self.totalNumberVertexSphere(subdivisionsX, subdivisionsY))
moveX = size / 200 * random.randrange(10, 20)
moveY = size / 200 * random.randrange(5, 20)
moveZ = size / 200 * random.randrange(5, 20)
mc.select(self.currentStone[0] + '.vtx[' + str(vertexNumber) + ']')
mc.move(moveX, moveY, moveZ, r=True)
mc.softSelect(softSelectEnabled=False)
mc.displaySmoothness(divisionsU=3,
divisionsV=3,
pointsWire=16,
pointsShaded=4,
polygonObject=3)
# Modify -> Freeze Transformation
mc.select(self.currentStone[0])
mc.makeIdentity(apply=True, t=1, r=1, s=1, n=0, pn=1)
# delete history
maya.mel.eval("DeleteHistory")
mc.select(clear=True)
return self.currentStone[0]
def polytocurve():
poly = cm.ls(sl=True)
vtxTotal = cm.polyEvaluate(v=True)
vtxCoordList = []
for i in range(0, vtxTotal, 2):
cm.select(poly[0]+'.vtx['+str(i)+']', add=True)
for i in range(1, vtxTotal, 2):
cm.select(poly[0]+'.vtx['+str(i)+']', add=True)
for i in range(1, vtxTotal, 2):
cm.select(deselect=True)
cm.select(poly[0]+'.vtx['+str(i)+']', add=True)
vtxCoord = cm.xform(q=True, t=True, ws=True)
vtxCoordList.append(vtxCoord)
print vtxCoordList
cm.softSelect(sse=0)
cm.curve(d=1, p=vtxCoordList, n='hairStrand' ) #cm.insertKnotCurve( 'hairStrand', ch=True, p=0.3, nk=2 )
def surfaceVertSelector(startElement, *args):
count = args[0]
#print count
vertCount = 0
startDist = 0
cmds.select(startElement)
# Find all of the verts on the selected mesh and see if they are less than count. If they are then set count to be all verts.
allVerts = cmds.polyEvaluate(v=True)
#print allVerts
if count > allVerts:
count = allVerts
#print args[0]
# Run through the mesh and using soft select to traverse out and find verts until we reach the count value.
while vertCount < count:
startDist = startDist+0.1
#print "startDist: ", startDist
cmds.softSelect(softSelectEnabled=True, ssf=1, ssd=startDist)
selection = om.MSelectionList()
surfaceVertSelector = om.MRichSelection()
om.MGlobal.getRichSelection(surfaceVertSelector)
surfaceVertSelector.getSelection(selection)
dagPath = om.MDagPath()
component = om.MObject()
iter = om.MItSelectionList( selection,om.MFn.kMeshVertComponent )
elements = []
while not iter.isDone():
iter.getDagPath( dagPath, component )
dagPath.pop()
node = dagPath.fullPathName()
fnComp = om.MFnSingleIndexedComponent(component)
for i in range(fnComp.elementCount()):
elements.append('%s.vtx[%i]' % (node, fnComp.element(i)))
iter.next()
vertCount = len(elements)
#print "vertCount: ", vertCount
cmds.softSelect(softSelectEnabled=False)
cmds.select(elements)
def createStone(self):
""" This method creates the form of stone. """
# create a sphere
subdivisionsX = 40
subdivisionsY = 50
if self.typeStone == 'small':
size = 6.
if self.typeStone == 'big':
size = 9.
self.currentStone = mc.polySphere(sx=subdivisionsX, sy=subdivisionsY, r=size)
# change its form
mc.scale( 1, 0.5, 0.6, r=True )
mc.move( 0, size/3.4, 0, r=True )
stoneRY = random.randrange ( 0, 360 )
mc.rotate( 0, stoneRY, 0, r=True, os=True )
mc.softSelect( softSelectEnabled=True, ssd=4, sud=0.5 )
#mc.softSelect( ssd=0.6, sud=0.3 )
for i in range(20):
vertexNumber = random.randrange(0, self.totalNumberVertexSphere(subdivisionsX, subdivisionsY))
moveX = size/200 * random.randrange ( 10, 20 )
moveY = size/200 * random.randrange ( 5, 20 )
moveZ = size/200 * random.randrange ( 5, 20 )
mc.select (self.currentStone[0] + '.vtx[' + str(vertexNumber) + ']')
mc.move( moveX, moveY, moveZ, r=True)
mc.softSelect( softSelectEnabled=False )
mc.displaySmoothness( divisionsU=3, divisionsV=3, pointsWire=16, pointsShaded=4, polygonObject=3 )
# Modify -> Freeze Transformation
mc.select( self.currentStone[0] )
mc.makeIdentity( apply=True, t=1, r=1, s=1, n=0, pn=1 )
# delete history
maya.mel.eval( "DeleteHistory" )
mc.select( clear=True )
return self.currentStone[0]
def querysettings(self, name=''):
self.presetname = name
self.enabled = cmds.softSelect(q=True, softSelectEnabled=True)
self.distance = cmds.softSelect(q=True, softSelectDistance=True)
self.curve = cmds.softSelect(q=True, softSelectCurve=True)
self.colorcurve = cmds.softSelect(q=True, softSelectColorCurve=True)
self.falloff = cmds.softSelect(q=True, softSelectFalloff=True)
self.falsecolorenabled = cmds.softSelect(q=True, enableFalseColor=True)
self.undocompressed = cmds.softSelect(q=True, compressUndo=True)
def polytocurve():
poly = cm.ls(sl=True)
vtxTotal = cm.polyEvaluate(v=True)
vtxCoordList = []
for i in range(0, vtxTotal, 2):
cm.select(poly[0] + '.vtx[' + str(i) + ']', add=True)
for i in range(1, vtxTotal, 2):
cm.select(poly[0] + '.vtx[' + str(i) + ']', add=True)
for i in range(1, vtxTotal, 2):
cm.select(deselect=True)
cm.select(poly[0] + '.vtx[' + str(i) + ']', add=True)
vtxCoord = cm.xform(q=True, t=True, ws=True)
vtxCoordList.append(vtxCoord)
print vtxCoordList
cm.softSelect(sse=0)
cm.curve(d=1, p=vtxCoordList, n='hairStrand'
) #cm.insertKnotCurve( 'hairStrand', ch=True, p=0.3, nk=2 )
def softCluster():
selectionVrts = cmds.ls(selection=True, flatten=True)
if selectionVrts:
posVtx = _getAverage(selectionVrts)
cmds.softSelect(sse=True)
softElementData = _softSelection()
selection = ["%s.vtx[%d]" % (el[0], el[1]) for el in softElementData]
model = selectionVrts[0].split('.')[0]
cmds.select(model, r=True)
cluster = cmds.cluster(name='%s_cls' % model,
relative=False,
bindState=True)
clusterGrp = cmds.createNode('transform', name='%s_grp' % cluster[1])
cmds.xform(cluster,
rotatePivot=posVtx,
scalePivot=posVtx,
objectSpace=True)
cmds.xform(clusterGrp,
rotatePivot=posVtx,
scalePivot=posVtx,
objectSpace=True)
cmds.parent(cluster[1], clusterGrp)
cmds.connectAttr('%s.worldInverseMatrix' % clusterGrp,
'%s.bindPreMatrix' % cluster[0])
weight = [0.0]
zero = 0.0
VertexNb = cmds.polyEvaluate(model, v=1) - 1
for x in range(VertexNb):
weight.append(zero)
cmds.setAttr('{0}.weightList[0].weights[0:{1}]'.format(
cluster[0], VertexNb),
*weight,
size=len(weight))
shape = cmds.listRelatives(cluster[1], shapes=True)[0]
cmds.setAttr('%s.originX' % shape, posVtx[0])
cmds.setAttr('%s.originY' % shape, posVtx[1])
cmds.setAttr('%s.originZ' % shape, posVtx[2])
for i in range(len(softElementData)):
cmds.percent(cluster[0], selection[i], v=softElementData[i][2])
cmds.select(cluster[1], r=True)
def createBladeOfGrass(self):
""" This method creates a blade of grass. """
# random the high of blade
self.grassHeight = 0.2 * random.randrange(6, 10)
# create the plane of blade
mc.polyPlane(axis=(0, 0, 0),
subdivisionsX=2,
subdivisionsY=6,
height=4)
mc.move(0, 2, 0)
self.currentBlade = mc.ls(sl=True)
# create the form of blade
mc.displaySmoothness(divisionsU=3,
divisionsV=3,
pointsWire=16,
pointsShaded=4,
polygonObject=3)
mc.select(self.currentBlade[0] + ".vtx[18:20]", r=True)
mc.softSelect(softSelectEnabled=True, ssd=20, sud=0.5)
mc.scale(0.1, 1, 1, p=(0, 9.86, 0), r=True)
mc.softSelect(ssd=8.08, sud=0.5)
# bend the grass
bendGrassRandom = 15 * (3.0 - random.random())
mc.rotate(bendGrassRandom, 0, 0, os=True, r=True, p=(0, 9.18, 0))
mc.select(self.currentBlade)
extrudeFace = mc.polyExtrudeFacet(self.currentBlade[0] + ".f[0:11]",
constructionHistory=1,
keepFacesTogether=1,
pvx=0,
pvy=4.84,
pvz=0.14,
divisions=1,
twist=0,
taper=1,
off=0,
thickness=0,
smoothingAngle=30)
mc.setAttr(extrudeFace[0] + ".localTranslate",
0,
0,
0.05,
type='double3')
mc.softSelect(softSelectEnabled=False)
# scale the blade
mc.select(self.currentBlade)
mc.scale(1, self.grassHeight, 1, r=True)
# delete history
maya.mel.eval("DeleteHistory")
# change the position
self.changePositionBlade()
return self.currentBlade
def setSoftSelectionFromSelection(self):
"""
Get the current soft selection. If no soft selection is made a
RuntimeError will be raised.
:raises RuntimeError: if no soft selection is made
"""
self.ssActive, self.ssData = api.getSoftSelection()
self.setSoftSelection.emit()
# reset values if no soft selection
if not self.ssData:
self.ssActive = None
self.ssData = {}
self.ssSettings = {}
raise RuntimeError("No soft selection detected!")
self.ssSettings = {
"ssc": cmds.softSelect(query=True, ssc=True),
"ssf": cmds.softSelect(query=True, ssf=True),
"ssd": cmds.softSelect(query=True, ssd=True)
}
def copyFromMayaFalloffCurve(self):
""""""
# Read maya's native soft select falloff curve
curveValue = cmds.softSelect(q=1, ssc=1).split(',')
curveValue = zip(curveValue[0::3], curveValue[1::3], curveValue[2::3])
curveValue = [','.join(v) for v in curveValue]
if cmds.optionVar( exists='falloffCurveOptionVar' ):
cmds.optionVar( clearArray='falloffCurveOptionVar' )
[cmds.optionVar( stringValueAppend=['falloffCurveOptionVar', v] ) for v in curveValue]
cmds.gradientControlNoAttr( self.gradient, e=True, optionVar='falloffCurveOptionVar' )
def music_displace(songInfo, terrainHeight, pObject, vtxDire='n',
sSelect=False, sSelectCurve=None, sSelectMode=0,
sSelectRadius=5, dips=False, seprAxisMv=False,
reverse=False, refresh=True, queue=None):
'''Used to gather the song values from the songInfo 'TerrainWaveFile'
class file and then use the values to move the 'pObjects' vertices.
Parameters:
songInfo [object] : 'TerrainWaveFile' class object from the
'terrainWave' file.
terrainHeight [float] : The maximum height of the vertex movement and
the value to which all other values will
range from.
pObject [str] : The name of the poly object in the scene.
vtxDire [str] : The vertex direction to which each point will
be moved in. This can be a single or
combination of x,y,z,and n with n being
normal.
sSelect [bool] : If True, soft select is enabled with the
following options:
sSelectCurve [str] : The soft select falloff curve used for the
soft select.
sSelectMode [int] : The type of falloff mode will have. The
value used relates to the location in the
option menu in the soft select options.
sSelectRadius [float] : The radius of the soft select area from
which points it will select from the
centre of the selection.
dips [bool] : If True, negative values from the 'songInfo'
will be used. Else, all the values created
will be positive.
seprAxisMv [bool] : If True, each of the axis moves ill be
seperated and not merged into one move
command. This doesn't effect the 'n' option
since this uses a different move command to
the options x, y, and z.
reverse [bool] : If True, the song will be reverse, starting
from the end rather than the beginning.
On Exit:
The 'pObject's vertices will be moved in relation to the song's
amplitude, in relation to the 'terrainHeight'.
'''
nVtx = cmds.polyEvaluate(pObject, v=True)
if sSelect:
if sSelectCurve == None:
cmds.softSelect(sse=1,ssc=mf.SSELECT_CURVES[0], ssf=sSelectMode,
ssd=sSelectRadius)
else:
cmds.softSelect(sse=1,ssc=sSelectCurve, ssf=sSelectMode,
ssd=sSelectRadius)
else:
cmds.softSelect(sse=0)
move_vtx_positions(songInfo.createheightvals(nVtx, terrainHeight, dips),
pObject, vtxDire, reverse, seprAxisMv, refresh, queue)
if queue:
queue.put('Complete')
def copyFromMayaFalloffCurve(self):
""""""
# Read maya's native soft select falloff curve
curveValue = cmds.softSelect(q=1, ssc=1).split(',')
curveValue = zip(curveValue[0::3], curveValue[1::3], curveValue[2::3])
curveValue = [','.join(v) for v in curveValue]
if cmds.optionVar( exists='falloffCurveOptionVar' ):
cmds.optionVar( clearArray='falloffCurveOptionVar' )
[cmds.optionVar( stringValueAppend=['falloffCurveOptionVar', v] ) for v in curveValue]
cmds.gradientControlNoAttr( self.gradient, e=True, optionVar='falloffCurveOptionVar' )
def create_cluster():
cluster_name = cmds.textField('UI_cluster_clusterPrefix', q=True, tx=True) + cmds.textField('UI_cluster_clusterName', q=True, tx=True)
cluster_name = cluster_name.replace (" ", "_")
# cluster soft selections
# Use Weight Set Override
if cmds.checkBox('UI_useWeights_CheckBox', q=True, value=True) is True:
elements, weights = use_weight_set()
else:
elements, weights = softSelection()
cmds.softSelect( sse=0)
mel.eval("polyConvertToShell;")
vertex_count = cmds.ls(sl=True, fl=True)
if cmds.objExists("loc_guide_deformer") is True:
parent_cluster(cluster_name)
else:
cmds.cluster (name = cluster_name, bs = True)
for vertex in vertex_count:
cmds.percent (cluster_name, vertex, value = 0)
for x in range(len(elements)):
cmds.percent (cluster_name, elements[x], value = weights[x])
def deform_rock(self, sphere, radius):
"""
This function takes a sphere with its radius and deforms it.
Parameters:
sphere (str): The sphere that is going to be modified.
radius (float): The radius of the sphere.
"""
logger.debug("Deforming a rock: {}".format(sphere))
# Random radius used for soft selection
soft_select_radius = rand(-.1, .1) * radius
# Smooth curve used for selection
rock_falloff = "1,0,2,0,1,2"
# Move random range far from 0
# If radius was greater than 0, add 1. Else substract 1
soft_select_radius = (soft_select_radius + 1 * radius) \
if soft_select_radius >= 0 \
else (soft_select_radius - 1 * radius)
# List of every vertex on the object
vertices = cmds.ls(sphere + ".vtx[*]", flatten=True)
# Enable soft selection with generated radius
cmds.softSelect(sse=True,
ssd=3 * abs(soft_select_radius),
ssc=rock_falloff)
# Select and scale base of sphere to create planar base
cmds.select(vertices[-2])
cmds.scale(1, .00005 * radius, 1, pivot=(0, -1 * radius, 0), r=True)
# Change selection radius
cmds.softSelect(sse=True,
ssd=1.5 * abs(soft_select_radius),
ssc=rock_falloff)
# Select and move a vertex in the middle of the sphere
cmds.select(vertices[len(vertices) / 2])
cmds.move(0.8 * radius, 0, 0, r=True, cs=True, ls=True, wd=True)
# Select and move the top of the sphere
cmds.select(vertices[-1])
cmds.move(0.4 * radius, 0, 0, r=True, cs=True, ls=True, wd=True)
# Disable softSelection to avoid errors in other functions
cmds.softSelect(sse=False)
# Move pivot down to base of the sphere
cmds.move(0, -.95 * radius, 0, sphere + ".scalePivot", r=True)
cmds.move(0, -.95 * radius, 0, sphere + ".rotatePivot", r=True)
def get_soft_selected_data(self):
compOpacities = {}
if not cmds.softSelect(q=True, sse=True):
print "Soft Selection is turned off"
return
if not cmds.ls(sl=True):
print 'Nothing Selected for Blend'
return
if cmds.objectType(cmds.ls(sl=True)[0]) != 'mesh':
print 'Vertices Not Selected for Blend'
return
richSel = OpenMaya.MRichSelection()
try:
# get currently active soft selection
OpenMaya.MGlobal.getRichSelection(richSel)
except RuntimeError:
print "Verts are not selected"
return
richSelList = OpenMaya.MSelectionList()
richSel.getSelection(richSelList)
selCount = richSelList.length()
for x in xrange(selCount):
shapeDag = OpenMaya.MDagPath()
shapeComp = OpenMaya.MObject()
try:
richSelList.getDagPath(x, shapeDag, shapeComp)
except RuntimeError:
# nodes like multiplyDivides will error
continue
compFn = OpenMaya.MFnSingleIndexedComponent(shapeComp)
try:
# get the secret hidden opacity value for each component (vert, cv, etc)
for i in xrange(compFn.elementCount()):
weight = compFn.weight(i)
compOpacities[compFn.element(i)] = weight.influence()
except Exception, e:
print e.__str__()
print 'Soft selection appears invalid, skipping for shape "%s".' % shapeDag.partialPathName(
)
def SaveSoftSelected(*Args):
global compOpacities
compOpacities.clear()
global vertListCompOKeys
global baseVertDict
baseVertDict.clear()
targetVertDict.clear()
set_BS_to_0()
# Get dict with Soft Selected verts and their weight
opacityMult = 1.0
if cmds.softSelect(q=True, sse=True):
richSel = OpenMaya.MRichSelection()
try:
# get currently active soft selection
OpenMaya.MGlobal.getRichSelection(richSel)
except RuntimeError:
print "Verts are not selected"
sys.exit()
richSelList = OpenMaya.MSelectionList()
richSel.getSelection(richSelList)
selCount = richSelList.length()
for x in xrange(selCount):
shapeDag = OpenMaya.MDagPath()
shapeComp = OpenMaya.MObject()
try:
richSelList.getDagPath(x, shapeDag, shapeComp)
except RuntimeError:
# nodes like multiplyDivides will error
continue
compFn = OpenMaya.MFnSingleIndexedComponent(shapeComp)
try:
# get the secret hidden opacity value for each component (vert, cv, etc)
for i in xrange(compFn.elementCount()):
weight = compFn.weight(i)
compOpacities['['+str(compFn.element(i))+']'] = weight.influence() * opacityMult
except Exception, e:
print e.__str__()
print 'Soft selection appears invalid, skipping for shape "%s".' % shapeDag.partialPathName()
def makePlanIrregular(self, myGround):
""" This method makes the plan irregular. """
# set the softSelect on and give it the size range
mc.softSelect ( softSelectEnabled=True )
mc.softSelect ( ssd=350, sud=0.5 )
for i in range(5):
# select a random vertexes
vertexRandom = random.randrange( 0, self.getTotalNumberVertex() )
# select a random value for moving the vertex
vertexMove = random.randrange( -30, 70 )
# select the vertexes and move it
mc.select ( myGround + '.vtx[' + str(vertexRandom) + ']', replace=True )
mc.move ( 0, vertexMove, 0, relative=True )
# set the softSelect off
mc.softSelect ( softSelectEnabled=False )
mc.select( clear=True )
def createBladeOfGrass(self):
""" This method creates a blade of grass. """
# random the high of blade
self.grassHeight = 0.2 * random.randrange ( 6, 10 );
# create the plane of blade
mc.polyPlane( axis=(0, 0, 0), subdivisionsX=2, subdivisionsY=6, height=4 );
mc.move( 0, 2, 0 )
self.currentBlade = mc.ls( sl=True );
# create the form of blade
mc.displaySmoothness( divisionsU=3, divisionsV=3, pointsWire=16, pointsShaded=4, polygonObject=3 );
mc.select( self.currentBlade[0] + ".vtx[18:20]", r=True ) ;
mc.softSelect( softSelectEnabled=True, ssd=20, sud=0.5 );
mc.scale( 0.1, 1, 1, p=(0, 9.86, 0), r=True );
mc.softSelect( ssd=8.08, sud=0.5 );
# bend the grass
bendGrassRandom = 15 * (3.0 - random.random())
mc.rotate( bendGrassRandom, 0, 0, os=True, r=True, p=(0, 9.18, 0) );
mc.select( self.currentBlade )
extrudeFace = mc.polyExtrudeFacet( self.currentBlade[0] + ".f[0:11]", constructionHistory=1, keepFacesTogether=1, pvx=0, pvy=4.84, pvz=0.14, divisions=1, twist=0, taper=1, off=0, thickness=0, smoothingAngle=30 );
mc.setAttr( extrudeFace[0] + ".localTranslate", 0, 0, 0.05, type='double3' );
mc.softSelect( softSelectEnabled=False )
# scale the blade
mc.select( self.currentBlade )
mc.scale( 1, self.grassHeight, 1, r=True )
# delete history
maya.mel.eval( "DeleteHistory" )
# change the position
self.changePositionBlade()
return self.currentBlade
def surfaceVertSelector(startElement, *args):
count = args[0]
#print count
vertCount = 0
startDist = 0
cmds.select(startElement)
# Find all of the verts on the selected mesh and see if they are less than count. If they are then set count to be all verts.
allVerts = cmds.polyEvaluate(v=True)
#print allVerts
if count > allVerts:
count = allVerts
#print args[0]
# Run through the mesh and using soft select to traverse out and find verts until we reach the count value.
while vertCount < count:
startDist = startDist + 0.1
#print "startDist: ", startDist
cmds.softSelect(softSelectEnabled=True, ssf=1, ssd=startDist)
selection = om.MSelectionList()
surfaceVertSelector = om.MRichSelection()
om.MGlobal.getRichSelection(surfaceVertSelector)
surfaceVertSelector.getSelection(selection)
dagPath = om.MDagPath()
component = om.MObject()
iter = om.MItSelectionList(selection, om.MFn.kMeshVertComponent)
elements = []
while not iter.isDone():
iter.getDagPath(dagPath, component)
dagPath.pop()
node = dagPath.fullPathName()
fnComp = om.MFnSingleIndexedComponent(component)
for i in range(fnComp.elementCount()):
elements.append('%s.vtx[%i]' % (node, fnComp.element(i)))
iter.next()
vertCount = len(elements)
#print "vertCount: ", vertCount
cmds.softSelect(softSelectEnabled=False)
cmds.select(elements)
def setDefaultFalloffMode(self):
""""""
cmds.optionMenuGrp(self.falloffModeOption, e=1, sl=2)
cmds.softSelect(ssf=1)
def _resetDeltaSelection(base_geometry,
percentage=1.0,
axis='xyz',
positive=False,
worldSpace=False):
"""
Reset the vertex position between a BASE mesh and a TARGET mesh based on vertex selection
Arguments:
base_geometry {str} -- Mesh to which the target is taking vertex position (default Mesh)
Keyword Arguments:
percentage {float} -- Amount of % the vertex position is blending. Between 0.0 and 1.0 (default: {1.0})
axis {str} -- On Which axis the vertex are moving (default: {'xyz'})
positive {bool} -- The deformation is expanding. False: The deformation is resetting towards the BASE mesh (default: {False})
#CBB: Optimization could be done, Maybe use OpenMaya.MFnMesh.setPoints() ??
"""
if _resetDeltaSelection.isInterrupted():
return
selectionVtx = mc.ls(sl=1, flatten=1)
delta_geometry = selectionVtx[0].split('.vtx')[0]
indexVtxList = [
int(x.split('[')[-1].split(']')[0]) for x in selectionVtx
]
base_vert_positions = getAllVertexPositions(base_geometry,
worldSpace=worldSpace)
self.delta_vert_positions = getAllVertexPositions(
delta_geometry, worldSpace=worldSpace)
mSLmesh = om2.MGlobal.getSelectionListByName(
base_geometry).getDependNode(0)
dag = om2.MFnDagNode(mSLmesh).getPath()
vertsIter = om2.MItMeshVertex(dag)
if mc.softSelect(q=1, sse=1):
softSelect = self.getSoftSelection()
softIndex = softSelect.keys()
indexVtxList = softIndex
else:
softIndex = []
newPosDelta = self.delta_vert_positions.values()[:]
replacement = {}
gShowProgress_step = float(100) / vertsIter.count()
while not vertsIter.isDone():
actual_pos = vertsIter.position(om2.MSpace.kObject)
vrtxIndex = vertsIter.index()
if vrtxIndex in softIndex:
vector = om2.MVector(
self.delta_vert_positions[vrtxIndex]) - om2.MVector(
base_vert_positions[vrtxIndex])
vector *= softSelect[vrtxIndex]
deltaV = list(
om2.MVector(self.delta_vert_positions[vrtxIndex]) -
vector)
replacement[vrtxIndex] = deltaV
# _resetDeltaSelection.step(gShowProgress_step)
elif vrtxIndex in indexVtxList:
replacement[vrtxIndex] = actual_pos
# _resetDeltaSelection.step(gShowProgress_step)
vertsIter.next()
## replace index with replacement value
for (index, replace) in zip(replacement.keys(),
replacement.values()):
newPosDelta[index] = replace
if percentage == 0.0:
return
if percentage == 1.0:
if len(axis) > 2:
self.setAllVertexPositions(delta_geometry,
newPosDelta,
worldSpace=worldSpace)
else:
if axis == 'x':
new_pos = []
for b, delta in zip(self.delta_vert_positions.values(),
newPosDelta):
pos = (delta[0], b[1], b[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
elif axis == 'y':
new_pos = []
for target, delta in zip(
self.delta_vert_positions.values(),
newPosDelta):
pos = (target[0], delta[1], target[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
elif axis == 'z':
new_pos = []
for target, delta in zip(
self.delta_vert_positions.values(),
newPosDelta):
pos = (target[0], target[1], delta[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
else:
percentage = max(min(percentage, 1.0), 0.0)
if len(axis) > 2:
new_pos = []
for delta, base in zip(self.delta_vert_positions.values(),
newPosDelta):
vector = om2.MVector(delta) - om2.MVector(base)
vector *= percentage
if positive:
deltaV = om2.MVector(delta) + vector
else:
deltaV = om2.MVector(delta) - vector
new_pos.append(deltaV)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
else:
if axis == 'x':
new_pos = []
deltaV_pos = []
for delta, base in zip(
self.delta_vert_positions.values(),
newPosDelta):
vector = om2.MVector(delta) - om2.MVector(base)
vector *= percentage
if positive:
deltaV = om2.MVector(delta) + vector
else:
deltaV = om2.MVector(delta) - vector
deltaV_pos.append(deltaV)
for target, delta in zip(
self.delta_vert_positions.values(),
deltaV_pos):
pos = (delta[0], target[1], target[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
if axis == 'y':
new_pos = []
deltaV_pos = []
for delta, base in zip(
self.delta_vert_positions.values(),
newPosDelta):
vector = om2.MVector(delta) - om2.MVector(base)
vector *= percentage
if positive:
deltaV = om2.MVector(delta) + vector
else:
deltaV = om2.MVector(delta) - vector
deltaV_pos.append(deltaV)
for target, delta in zip(
self.delta_vert_positions.values(),
deltaV_pos):
pos = (target[0], delta[1], target[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
if axis == 'z':
new_pos = []
deltaV_pos = []
for delta, base in zip(
self.delta_vert_positions.values(),
newPosDelta):
vector = om2.MVector(delta) - om2.MVector(base)
vector *= percentage
if positive:
deltaV = om2.MVector(delta) + vector
else:
deltaV = om2.MVector(delta) - vector
deltaV_pos.append(deltaV)
for target, delta in zip(
self.delta_vert_positions.values(),
deltaV_pos):
pos = (target[0], target[1], delta[2])
new_pos.append(pos)
self.setAllVertexPositions(delta_geometry,
new_pos,
worldSpace=worldSpace)
def doMove(self,**kws):
if kws:log.debug("Snap.doMove>>> kws: %s"%kws)
if len(self.l_targets) == 1:
#>>> Check our target
i_target = cgmMeta.cgmNode( self.l_targets[0] )
log.debug("i_target: %s"%i_target)
targetType = i_target.getMayaType()
if self.b_snapComponents:
components = self.i_obj.getComponents()
if not components:raise StandardError,"This objects has no components to snap: '%s'"%self.i_obj.getShortName()
#>>>Progress bar
mayaMainProgressBar = gui.doStartMayaProgressBar(len(components))
for c in components:
if mc.progressBar(mayaMainProgressBar, query=True, isCancelled=True ) :
break
mc.progressBar(mayaMainProgressBar, edit=True, status = ("Wrapping '%s'"%c), step=1)
if targetType in ['mesh','nurbsSurface','nurbsCurve']:
pos = distance.returnWorldSpacePosition(c)
targetLoc = mc.spaceLocator()
mc.move (pos[0],pos[1],pos[2], targetLoc[0])
closestLoc = locators.locClosest([targetLoc[0]],i_target.mNode)
if self._posOffset:
self.doOrientObjToSurface(i_target.mNode,closestLoc)
mc.move (self._posOffset[0],self._posOffset[1],self._posOffset[2], [closestLoc], r=True, rpr = True, os = True, wd = True)
position.movePointSnap(c,closestLoc)
mc.delete([targetLoc[0],closestLoc])
gui.doEndMayaProgressBar(mayaMainProgressBar)#Close out this progress bar
else:
pos = False
if self.b_snaptoSurface:#>>> If our target is surface we can use
if targetType in ['mesh','nurbsCurve','nurbsSurface']:
i_locObj = self.i_obj.doLoc()#Get our position loc
i_locTarget = cgmMeta.cgmObject( locators.locClosest([i_locObj.mNode],i_target.mNode) )#Loc closest
#i_locObj.rename('objLoc')
#i_locTarget.rename('targetLoc')
if self._posOffset:
try:
self.doOrientObjToSurface(i_target.mNode,i_locTarget.mNode)
mc.move (self._posOffset[0],self._posOffset[1],self._posOffset[2], [i_locTarget.mNode], r=True, rpr = True, os = True, wd = True)
except StandardError,error:
log.warn("self._posOffset failure!")
log.error(error)
pos = i_locTarget.getPosition(True)
i_locObj.delete()
i_locTarget.delete()
elif self.b_midSurfacePos:
log.debug("Snap.move>>> midSurfacePos mode!")
if targetType not in ['mesh','nurbsCurve','nurbsSurface']:
log.warning("Can't do midSurfacPos on targetType: '%s'"%targetType)
return False
#Get the axis info
axisToCheck = kws.pop('axisToCheck',False)
if not axisToCheck:
axisToCheck = []
up = dictionary.returnVectorToString(self._upVector) or False
if not up:
raise StandardError,"SnapFactory>>> must have up vector for midSurfaceSnap: %s"%self._upVector
for a in ['x','y','z']:
if a != up[0]:
axisToCheck.append(a)
if not axisToCheck:
raise StandardError,"SnapFactory>>> couldn't find any axis to do"
#i_locObj = self.i_obj.doLoc()#Get our position loc
#log.debug(axisToCheck)
pos = RayCast.findMeshMidPointFromObject(i_target.mNode, self.i_obj.mNode, axisToCheck=axisToCheck,**kws)
#i_locObj.delete()
else:
pos = i_target.getPosition(True)
if pos:
if self.i_obj.isComponent():
if self.b_softSelection:#Only need to do this if soft select is on
mc.softSelect(softSelectEnabled = True)
mc.select(self.i_obj.getComponent())
mc.move (pos[0],pos[1],pos[2],rpr=True)
mc.select(cl=True)
else:
mc.move (pos[0],pos[1],pos[2], self.i_obj.getComponent())
else:
mc.move (pos[0],pos[1],pos[2], self.i_obj.mNode, rpr=True)
def changeFalloffMode(self):
""""""
selIndex = cmds.optionMenuGrp(self.falloffModeOption, q=1, sl=1) - 1
cmds.softSelect(ssf=selIndex)
def makeBarrel(*args):
#Molding and Shaping first Plank
cmds.polyCube( sx=8, sy=8, sz=4, h=20 )
cmds.scale( 1, 1, 0.3 )
cmds.select('pCube1.e[32:39]', 'pCube1.e[128:135]', 'pCube1.e[420:423]', 'pCube1.e[472:475]')
cmds.softSelect(ssd=19, sud=0.5)
cmds.move( 0, 0, -2, relative = True)
cmds.softSelect(ssd=12.5, sud=0.5)
cmds.scale(1.4,1,1)
cmds.softSelect(ssd=5, sud=0.2)
cmds.select('pCube1.e[56:63]', 'pCube1.e[104:111]', 'pCube1.e[432:435]', 'pCube1.e[484:487]')
cmds.scale(1.05,1,1)
cmds.select('pCube1.e[8:15]', 'pCube1.e[152:159]', 'pCube1.e[408:411]', 'pCube1.e[460:463]')
cmds.scale(1.05,1,1)
cmds.sets('pCube1', addElement = toBeGrouped)
#Moving WholePlank & Duplication Process
cmds.select('pCube1.vtx[4]')
cmds.softSelect(ssd=500, sud=1)
cmds.move(-cmds.pointPosition('pCube1.vtx[4]')[0], -cmds.pointPosition('pCube1.vtx[4]')[1], -cmds.pointPosition('pCube1.vtx[4]')[2], relative = True)
cmds.move(0,0,-4, rotatePivotRelative = True, relative = True)
cmds.select('pCube1')
cmds.rename('pCube1', 'BarrelPlank1')
i=0
while (i < 23):
cmds.duplicate(returnRootsOnly = True)
cmds.rotate(0,15,0, relative = True)
i = i+1
#Creates Metal Rings With Variation
#Chance of Top Four Top Rings
i = 0
numbOfTopRings = rand.randint(1,4)
openLoc = [0,0,0,0]
while (i < numbOfTopRings):
location = rand.randint(0,3)
while (openLoc[location] == 1):
location = rand.randint(0,3)
if(location == 0):
#0
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,19.5,0,relative = True)
cmds.scale(4.55,45.1,4.55, relative = True)
cmds.select('pTorus1.e[40:59]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
openLoc[location] = 1
elif(location == 1):
#1
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,18,0,relative = True)
cmds.scale(4.83,45.1,4.83, relative = True)
cmds.select('pTorus1.e[40:59]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
openLoc[location] = 1
elif(location == 2):
#2
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,16.5,0,relative = True)
cmds.scale(5.05,60,5.05, relative = True)
cmds.select('pTorus1.e[40:59]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
openLoc[location] = 1
else:
#3
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,12.5,0,relative = True)
cmds.scale(5.45,70,5.45, relative = True)
cmds.select('pTorus1.e[40:59]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.98, 0.98, 0.98, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
i += 1
#Guarented bottom ring then a change of two others
#Guarented
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,0.45,0,relative = True)
cmds.scale(4.55,45.1,4.55, relative = True)
cmds.select('pTorus1.e[120:139]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
i = 0
numbOfTopRings = rand.randint(0,2)
openLoc = [0,0]
while (i < numbOfTopRings):
location = rand.randint(0,1)
while (openLoc[location] == 1):
location = rand.randint(0,1)
if(location == 0):
#0
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,3.8,0,relative = True)
cmds.scale(5.12,60,5.12, relative = True)
cmds.select('pTorus1.e[120:139]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
openLoc[location] = 1
else:
#1
cmds.softSelect(ssd=5, sud=0.2)
cmds.polyTorus(sx=20, sy=8, r=1, sr=0.01)
cmds.move(0,5.5,0,relative = True)
cmds.scale(5.38,60,5.38, relative = True)
cmds.select('pTorus1.e[120:139]')
cmds.softSelect(ssd=1.05, sud = 0.2)
cmds.scale(0.97, 0.97, 0.97, relative = True)
cmds.sets('pTorus1', addElement = toBeGrouped)
cmds.rename('pTorus1', 'MetalRing1')
openLoc[location] = 1
i += 1
#Make the lid and bottom
#Bottom
cmds.polyCube(sx=2, sy = 1, sz = 1, h = 0.143, d = 8.07)
cmds.sets('pCube1', addElement = toBeGrouped)
cmds.move(0,0.143,0)
#Create planks off of first
i = 0
while (i < 4):
if(i<4):
cmds.duplicate(returnRootsOnly = True)
cmds.move(1.01,0,0, relative = True)
i = i+1
#Shape Planks into rounded bottom
cmds.softSelect(sse=0)
def shapeLidPlank(plank,scale1,scale2,scale3): #ScalesPlankEdges
i = 0
while (i < 2):
selectCube = cmds.format('pCube^1s.e', stringArg=(plank))
cmds.select("{0}[{1}]".format(selectCube,8), "{0}[{1}]".format(selectCube,11), "{0}[{1}]".format(selectCube,14), "{0}[{1}]".format(selectCube,17))
cmds.scale(1, 1, scale1, relative = True)
cmds.select("{0}[{1}]".format(selectCube,9), "{0}[{1}]".format(selectCube,12), "{0}[{1}]".format(selectCube,15), "{0}[{1}]".format(selectCube,18))
cmds.scale(1, 1, scale2, relative = True)
cmds.select("{0}[{1}]".format(selectCube,10), "{0}[{1}]".format(selectCube,13), "{0}[{1}]".format(selectCube,16), "{0}[{1}]".format(selectCube,19))
cmds.scale(1, 1, scale3, relative = True)
i = i+1
shapeLidPlank(2,0.997351,0.98069,0.962469)
shapeLidPlank(3,0.963,0.925,0.885)
shapeLidPlank(4,0.8835,0.8,0.7)
shapeLidPlank(5,0.698,0.4,0.2)
cmds.select('pCube5.f[1]','pCube5.f[3]','pCube5.f[5]','pCube5.f[7:8]')
cmds.delete()
cmds.polyCloseBorder('pCube5.e[5]', 'pCube5.e[7]', 'pCube5.e[9]', 'pCube5.e[11]')
#mirror half of the lid
cmds.polyUnite('pCube1','pCube2','pCube3','pCube4','pCube5')
cmds.delete(ch = True)
cmds.polyMirrorFace( 'polySurface1', direction=0, mergeMode=1 )
cmds.sets('polySurface1', addElement = toBeGrouped)
cmds.rename('polySurface1', 'LidBottom')
#Decide To create top & Where to Place Top
lidOn = 0
if(cmds.radioButtonGrp(queryDic['lidControl'], q=True, select=True)==3):
lidOn = rand.randint(0,4)
if(cmds.radioButtonGrp(queryDic['lidControl'], q=True, select=True)==1 or lidOn > 0):
#createTop
cmds.duplicate(returnRootsOnly = True)
cmds.polyCube(w = 7.433, h = 0.13)
cmds.move(0,0,0.973)
cmds.select('pCube1.e[8:9]')
cmds.scale(1.07,1,1, relative = True)
cmds.polyMirrorFace( 'pCube1', direction = 0, mergeMode=1, axis = 2 )
cmds.polyUnite( 'pCube1', 'LidBottom1', n='Lid' )
cmds.sets('Lid', addElement = toBeGrouped)
cmds.rename('Lid', 'LidTop')
cmds.delete(ch = True)
cmds.delete('LidBottom1')
lidLocRan = 0
if(cmds.radioButtonGrp(queryDic['lidLoc'], q=True, select=True)==4):
lidLocRan = rand.randint(1,3)
if(cmds.radioButtonGrp(queryDic['lidLoc'], q=True, select=True)==1 or lidLocRan==1):
cmds.move(0,19.5,0)
elif(cmds.radioButtonGrp(queryDic['lidLoc'], q=True, select=True)==2 or lidLocRan==2):
cmds.move(0,19.5,0)
cmds.rotate(0,rand.random()*359,rand.random()*16, r=True, ws = True)
cmds.rotate(0,rand.random()*359,0, r=True, ws = True)
elif(cmds.radioButtonGrp(queryDic['lidLoc'], q=True, select=True)==3 or lidLocRan==3):
cmds.rotate(0,rand.random()*359, 98.852097)
cmds.move(6.2,4.3,0)
#Finaly Group everything in the toBeGrouped set and cleanup
cmds.select( toBeGrouped )
cmds.group( n='Barrel1' )
cleanUp()
def selectSoftSelection(self):
"""
Set the stored soft selection.
"""
cmds.softSelect(sse=1, **self.ssSettings)
OpenMaya.MGlobal.setActiveSelectionList(self.ssActive)
def soft_random(self):
"""
This function modifies the grid by using Soft Selection
"""
logger.debug("Starting deformation with soft selection")
if not self.check_terrain():
return
# Multipliers to scale deformation according to the selected size.
radius_multiplier = self.gridDimensions / 100.0
height_multiplier = self.gridDimensions / 100.0
points_multiplier = self.gridSubdivisions / 100.0
# Scale the limit of the height to modify it after randomizing
height_limit = self.maxHeight * height_multiplier / 2.0
# List of every vertex on the object
vertices = cmds.ls(self.gridObject + ".vtx[*]", flatten=True)
# Number of vertices that are going to be modified.
# We add 2 to at least modify 2 vertices
vertices_to_edit = int(self.maxPoints * points_multiplier + 2)
logger.debug("About to edit: {} vertices".format(vertices_to_edit))
# Number of sections to divide the terrain
# These sections are used to better distribute the deformed vertices
# If there are not enough vertices, use all of them individually
section_amount = 8 if vertices_to_edit >= 8 else vertices_to_edit
# The size that each section should have
section_size = len(vertices) / section_amount
# Create a list from index i until the section is full
# Do that from index 0 in vertices to the end of the list,
# skipping the number of elements of the section
vertex_sections = [
vertices[i:i + section_size]
for i in range(0, len(vertices), section_size)
]
# Fill a list with numbers from 0 to the number of sections in that the grid is divided
grid_indexes = [i for i in range(0, section_amount)]
# Shuffle that so the grids are chosen in a random order
shuffle(grid_indexes)
# Loop with through a set number of vertices
for v in range(vertices_to_edit):
# Enable soft selection to move smoothly
cmds.softSelect(sse=True,
ssd=self.softSelectRadius * radius_multiplier,
ssc=choice(self.curves))
# Select a random vertex on the grid
grid_index = v % section_amount
cmds.select(choice(vertex_sections[grid_indexes[grid_index]]))
# Randomize movement on that vertex
random_y = rand(-height_limit, height_limit)
# Add variation so the range doesn't start in 0
random_y = random_y + height_limit if random_y >= 0 else random_y - height_limit
# Apply movement
cmds.move(0, random_y, 0, r=True)
# Disable softSelection to avoid errors in other functions
cmds.softSelect(sse=False)
# Soften edges
cmds.polySoftEdge(self.gridObject, a=180, ch=1)
def create_rocks(self, rocks_name, rocks_amount, mat_name, color, normal,
hue, brightness_range, saturation_range):
"""
This function creates certain amount of rocks with a set name
Parameters:
rocks_name: The name that rocks will have
rocks_amount: The amount of rocks that are going to be generated
mat_name: The name for Rocks' Blinn
color: Color map used by the Blinn
normal: Normal map used
hue: The hue selected for the rocks to use in the ambient color
brightness_range: range given by the user to set the ambient color
"""
if logger.level == logging.DEBUG:
start_time = time.time()
# Disable softSelection to avoid errors in other functions
cmds.softSelect(sse=False)
# Get a percentage of the size compared to original rock
size_multiplier = self.gridDimensions / 100.0
# Assign a group name based on the name selected
rocks_group = rocks_name + "_grp"
# Variable used in for loop to check if there is an existing terrain
terrain_verification = 1
# Assign material
material = create_material(mat_name, color, normal)
switch_node = cmds.shadingNode("tripleShadingSwitch", asUtility=True)
cmds.connectAttr("%s.output" % switch_node,
"%s.ambientColor" % material)
# Rock creation
for i in range(rocks_amount):
# Set new radius using the multiplier
sphere_radius = self.sphereStartRadius * size_multiplier
# Create sphere as base for rocks
new_sphere = cmds.polySphere(name=rocks_name,
radius=sphere_radius,
subdivisionsAxis=20,
subdivisionsHeight=20)
# Deform newly created sphere
self.deform_rock(new_sphere[0], sphere_radius)
# Disable softSelection to avoid errors in other functions
cmds.softSelect(sse=False)
# Select sphere again
cmds.select(new_sphere)
# Variations to scale
random_scale_x = rand(.2, 1)
random_scale_y = random_scale_x + rand(
-.1, .1) # Small variations on other axes
random_scale_z = random_scale_x + rand(
-.1, .1) # Small variations on other axes
# Scale using variables
cmds.scale(random_scale_x, random_scale_y, random_scale_z)
# Freeze transformations
cmds.makeIdentity(apply=True)
# Random numbers locations based on terrain size
random_position_x = rand(-self.gridDimensions / 2,
self.gridDimensions / 2)
random_position_z = rand(-self.gridDimensions / 2,
self.gridDimensions / 2)
# Move sphere inside range defined by terrain
cmds.move(random_position_x, 0, random_position_z)
# Try to snap rocks to terrain only if there is a terrain
if terrain_verification > 0:
try:
# Select actual terrain
cmds.select(self.gridObject, new_sphere)
# Constraint to Terrain's Geometry
cmds.geometryConstraint(weight=True)
# Constraint to Terrain's normals to make rocks point the right direction
cmds.normalConstraint(weight=True,
aimVector=(0, 1, 0),
upVector=(1, 0, 0),
worldUpType=0)
# Delete constraints
cmds.delete(
cmds.listRelatives(new_sphere, children=True)[1:])
except ValueError:
logger.warn(
"No terrain was previously created, or got deleted. Spawning rocks randomly..."
)
terrain_verification -= 1
# Try to select the group, if its not possible, then create it
try:
cmds.select(new_sphere, rocks_group)
except ValueError:
cmds.group(name=rocks_group, empty=True)
cmds.select(new_sphere, rocks_group)
# Parent rocks to group and save rock's new name
actual_rock = cmds.parent()
# Connect shape to switch Node
sphere_shape = cmds.listRelatives(actual_rock[0], shapes=True)[0]
cmds.connectAttr("%s.instObjGroups[0]" % sphere_shape,
"%s.input[%i].inShape" % (switch_node, i))
# Create color nodes
random_brightness = rand(brightness_range[0], brightness_range[1])
random_saturation = rand(saturation_range[0], saturation_range[1])
color = colorsys.hsv_to_rgb(hue / 360.0, random_saturation,
random_brightness * 1.0)
logger.debug("HUE is {}".format(hue))
logger.debug("Rock is having {} color".format(color))
color_node = cmds.shadingNode("colorConstant", asUtility=True)
cmds.setAttr("%s.inColor" % color_node,
color[0],
color[1],
color[2],
type="double3")
cmds.connectAttr("%s.outColor" % color_node,
"%s.input[%i].inTriple" % (switch_node, i))
# Assign material to rock
cmds.select(actual_rock)
cmds.hyperShade(assign=material)
if logger.level == logging.DEBUG:
logger.debug("--- ROCK CREATION took: {} ---".format(time.time() -
start_time))
def __init__(self,
obj,
targets=[],
move=True,
orient=False,
aim=False,
pos=[],
snapToSurface=False,
midSurfacePos=False,
posOffset=False,
aimVector=[0, 0, 1],
upVector=[0, 1, 0],
worldUpType='scene',
snapComponents=False,
softSelection=False,
softSelectDistance=20,
mode=None,
**kws):
"""
Asserts objects existance and that it has a transform. Then initializes.
Keyword arguments:
obj(string/instance)
targets(list) -- target objects
snapToSurface -- if target is a snappable surface will try to do that
posOffset
snapComponents(bool) -- will try to use components if True
aimVector(vector) -- aim vector for object
upVector(vector) -- up vector for object (used as lathe axis for midpoint surface snap too)
midSurfacePos(bool) -- mid point snap with a surface
worldUpType(string) -- arg for various modes (aim, orient, etc)
softSelection(bool) -- soft select mode for component objects only
softSelectDistance(float) -- arg for mc.softSelect
ToDo:
1) midSurfacePos
"""
#>>> Check our obj
log.debug("obj: %s" % obj)
log.debug("targets: %s" % targets)
if issubclass(type(obj), cgmMeta.cgmNode):
self.i_obj = obj
else:
i_node = cgmMeta.cgmNode(obj)
if i_node.isComponent():
self.i_obj = i_node
else:
self.i_obj = cgmMeta.cgmObject(obj)
assert VALID.is_transform(self.i_obj.mNode) or self.i_obj.isComponent(
), "Not a snappable object. Not a transform: '%s" % self.i_obj.getShortName(
)
#>>> Pass through args
self.b_snaptoSurface = snapToSurface
self.b_midSurfacePos = midSurfacePos
self.b_snapComponents = snapComponents
self.b_softSelection = softSelection
self.b_midSurfacePos = midSurfacePos
self.b_aim = aim
self._softSelectionDistance = softSelectDistance,
self._posOffset = posOffset
self._aimVector = aimVector
self._upVector = upVector
self._worldUpType = worldUpType
#>>> Check our targets
if targets and not type(targets) == list: targets = [targets]
self.l_targets = []
self.d_targetTypes = {}
self.d_targetPositions = {}
for t in targets:
self.registerTarget(t)
if not self.l_targets:
log.error("No existing targets found")
return
if self.b_softSelection:
#Should we save soft select info before changing?
mc.softSelect(softSelectDistance=softSelectDistance)
mc.softSelect(softSelectFalloff=0)
log.debug("targetTypes: %s" % self.d_targetTypes)
if move:
log.debug("Moving")
self.doMove(**kws)
if orient:
log.debug("orienting")
self.doOrient(**kws)
if aim:
log.debug("orienting")
self.doAim(**kws)
def doMove(self, **kws):
if kws: log.debug("Snap.doMove>>> kws: %s" % kws)
if len(self.l_targets) == 1:
#>>> Check our target
i_target = cgmMeta.cgmNode(self.l_targets[0])
log.debug("i_target: %s" % i_target)
targetType = i_target.getMayaType()
if self.b_snapComponents:
components = self.i_obj.getComponents()
if not components:
raise StandardError, "This objects has no components to snap: '%s'" % self.i_obj.getShortName(
)
#>>>Progress bar
mayaMainProgressBar = gui.doStartMayaProgressBar(
len(components))
for c in components:
if mc.progressBar(mayaMainProgressBar,
query=True,
isCancelled=True):
break
mc.progressBar(mayaMainProgressBar,
edit=True,
status=("Wrapping '%s'" % c),
step=1)
if targetType in ['mesh', 'nurbsSurface', 'nurbsCurve']:
pos = distance.returnWorldSpacePosition(c)
targetLoc = mc.spaceLocator()
mc.move(pos[0], pos[1], pos[2], targetLoc[0])
closestLoc = locators.locClosest([targetLoc[0]],
i_target.mNode)
if self._posOffset:
self.doOrientObjToSurface(i_target.mNode,
closestLoc)
mc.move(self._posOffset[0],
self._posOffset[1],
self._posOffset[2], [closestLoc],
r=True,
rpr=True,
os=True,
wd=True)
position.movePointSnap(c, closestLoc)
mc.delete([targetLoc[0], closestLoc])
gui.doEndMayaProgressBar(
mayaMainProgressBar) #Close out this progress bar
else:
pos = False
if self.b_snaptoSurface: #>>> If our target is surface we can use
if targetType in ['mesh', 'nurbsCurve', 'nurbsSurface']:
i_locObj = self.i_obj.doLoc() #Get our position loc
i_locTarget = cgmMeta.cgmObject(
locators.locClosest([i_locObj.mNode],
i_target.mNode)) #Loc closest
#i_locObj.rename('objLoc')
#i_locTarget.rename('targetLoc')
if self._posOffset:
try:
self.doOrientObjToSurface(
i_target.mNode, i_locTarget.mNode)
mc.move(self._posOffset[0],
self._posOffset[1],
self._posOffset[2],
[i_locTarget.mNode],
r=True,
rpr=True,
os=True,
wd=True)
except StandardError, error:
log.warn("self._posOffset failure!")
log.error(error)
pos = i_locTarget.getPosition(True)
i_locObj.delete()
i_locTarget.delete()
elif self.b_midSurfacePos:
log.debug("Snap.move>>> midSurfacePos mode!")
if targetType not in [
'mesh', 'nurbsCurve', 'nurbsSurface'
]:
log.warning(
"Can't do midSurfacPos on targetType: '%s'" %
targetType)
return False
#Get the axis info
axisToCheck = kws.pop('axisToCheck', False)
if not axisToCheck:
axisToCheck = []
up = dictionary.returnVectorToString(
self._upVector) or False
if not up:
raise StandardError, "SnapFactory>>> must have up vector for midSurfaceSnap: %s" % self._upVector
for a in ['x', 'y', 'z']:
if a != up[0]:
axisToCheck.append(a)
if not axisToCheck:
raise StandardError, "SnapFactory>>> couldn't find any axis to do"
#i_locObj = self.i_obj.doLoc()#Get our position loc
#log.debug(axisToCheck)
pos = RayCast.findMeshMidPointFromObject(
i_target.mNode,
self.i_obj.mNode,
axisToCheck=axisToCheck,
**kws)
#i_locObj.delete()
else:
pos = i_target.getPosition(True)
if pos:
if self.i_obj.isComponent():
if self.b_softSelection: #Only need to do this if soft select is on
mc.softSelect(softSelectEnabled=True)
mc.select(self.i_obj.getComponent())
mc.move(pos[0], pos[1], pos[2], rpr=True)
mc.select(cl=True)
else:
mc.move(pos[0], pos[1], pos[2],
self.i_obj.getComponent())
else:
mc.move(pos[0],
pos[1],
pos[2],
self.i_obj.mNode,
rpr=True)
compFn = OpenMaya.MFnSingleIndexedComponent(shapeComp)
try:
# get the secret hidden opacity value for each component (vert, cv, etc)
for i in xrange(compFn.elementCount()):
weight = compFn.weight(i)
compOpacities['['+str(compFn.element(i))+']'] = weight.influence() * opacityMult
except Exception, e:
print e.__str__()
print 'Soft selection appears invalid, skipping for shape "%s".' % shapeDag.partialPathName()
# Load SoftSelection from file, if it is turned off
else:
ssd = open (cmds.fileDialog2( cap='Choose file with SoftSelected verts', fm=1, dialogStyle=1, ff='.ssd files (*.ssd)' )[0])
compOpacities = pickle.load (ssd)
# List of Soft Selected verts
vertListCompOKeys = compOpacities.keys()
cmds.softSelect(sse=0)
# Selecting whole object
name = cmds.ls ( sl=True )
if len(name) == 0:
print "Object is not selected"
sys.exit()
main_name = name[0].split('.')
cmds.select(main_name[0])
# Get dict of Soft Selected verts and their coord
headObj = cmds.ls(sl=True)
for head in headObj:
for vert in vertListCompOKeys:
head_vert = head + '.vtx' + str(vert)
vertCoord = cmds.xform(head_vert, q=True, t=True)
baseVertDict[vert] = vertCoord
m1.getPartNameBase()
m1.modulePuppet.getGeo()
targetObj = mc.ls(sl=True)[0]
distance.returnClosestPointOnSurfaceInfo(targetObj,'test_controlSurface')
distance.returnClosestUV(targetObj,'test_controlSurface')
log.info(a)
nodes.createFollicleOnMesh('spine_controlSurface','test')
locators.locMeClosestUVOnSurface(mc.ls(sl=True)[0], 'test_controlSurface', pivotOnSurfaceOnly = False)
mesh = 'Morphy_Body_GEO'
i_obj = cgmMeta.cgmObject('hips_anim')
mControlFactory.returnBaseControlSize(i_obj, mesh,axis = ['x','y','z-'])
mControlFactory.returnBaseControlSize(i_obj, mesh,axis = ['z-'])
mc.softSelect(softSelectEnabled = True)
mc.softSelect(q = True, softSelectDistance = True)
mc.softSelect(q = True, softSelectUVDistance = True)
mc.softSelect(q = True, softSelectFalloff = 2)
mc.softSelect(softSelectFalloff = 0)
mc.softSelect(softSelectDistance = 20)
mc.softSelect(softSelectUVDistance = 30)
#252ms
m1.isSkeletonized()
mControlFactory.go(obj)
m1.setState('skeleton')
tFactory.returnModuleBaseSize(m2)
m2.rigNull.skinJoints
def changeSoftSelectValue(self):
curveValue = cmds.gradientControlNoAttr(self.gradient, q=1, asString=1)
cmds.softSelect(e=1, ssc=curveValue)
def changeSoftSelectValue(self):
curveValue = cmds.gradientControlNoAttr(self.gradient, q=1, asString=1)
cmds.softSelect(e=1, ssc=curveValue)
def setDefaultFalloffMode(self):
""""""
cmds.optionMenuGrp(self.falloffModeOption, e=1, sl=2)
cmds.softSelect(ssf=1)
def changeFalloffMode(self):
""""""
selIndex = cmds.optionMenuGrp(self.falloffModeOption, q=1, sl=1) - 1
cmds.softSelect(ssf=selIndex)
def __init__(self,obj,targets = [],move = True, orient = False, aim = False, pos = [],
snapToSurface = False, midSurfacePos = False,
posOffset = False,
aimVector = [0,0,1],upVector = [0,1,0], worldUpType = 'scene',
snapComponents = False,softSelection = False, softSelectDistance = 20,
mode = None,**kws):
"""
Asserts objects existance and that it has a transform. Then initializes.
Keyword arguments:
obj(string/instance)
targets(list) -- target objects
snapToSurface -- if target is a snappable surface will try to do that
posOffset
snapComponents(bool) -- will try to use components if True
aimVector(vector) -- aim vector for object
upVector(vector) -- up vector for object (used as lathe axis for midpoint surface snap too)
midSurfacePos(bool) -- mid point snap with a surface
worldUpType(string) -- arg for various modes (aim, orient, etc)
softSelection(bool) -- soft select mode for component objects only
softSelectDistance(float) -- arg for mc.softSelect
ToDo:
1) midSurfacePos
"""
#>>> Check our obj
log.debug("obj: %s"%obj)
log.debug("targets: %s"%targets)
if issubclass(type(obj),cgmMeta.cgmNode):
self.i_obj = obj
else:
i_node = cgmMeta.cgmNode(obj)
if i_node.isComponent():
self.i_obj = i_node
else :
self.i_obj = cgmMeta.cgmObject(obj)
assert self.i_obj.isTransform() or self.i_obj.isComponent(),"Not a snappable object. Not a transform: '%s"%self.i_obj.getShortName()
#>>> Pass through args
self.b_snaptoSurface = snapToSurface
self.b_midSurfacePos = midSurfacePos
self.b_snapComponents = snapComponents
self.b_softSelection = softSelection
self.b_midSurfacePos = midSurfacePos
self.b_aim = aim
self._softSelectionDistance = softSelectDistance,
self._posOffset = posOffset
self._aimVector = aimVector
self._upVector = upVector
self._worldUpType = worldUpType
#>>> Check our targets
if targets and not type(targets)==list:targets=[targets]
self.l_targets = []
self.d_targetTypes = {}
self.d_targetPositions = {}
for t in targets:
self.registerTarget(t)
if not self.l_targets:
log.error("No existing targets found")
return
if self.b_softSelection:
#Should we save soft select info before changing?
mc.softSelect(softSelectDistance = softSelectDistance)
mc.softSelect(softSelectFalloff = 0)
log.debug("targetTypes: %s"%self.d_targetTypes)
if move:
log.debug("Moving")
self.doMove(**kws)
if orient:
log.debug("orienting")
self.doOrient(**kws)
if aim:
log.debug("orienting")
self.doAim(**kws)
log.debug(info)
info['processedHits'].get(111)
mShapeCast.limbControlMaker(m1, ['segmentControlsNew', 'hips'])
mShapeCast.limbControlMaker(m1, ['fkSegmentControls', 'ikSegmentControls'])
mShapeCast.limbControlMaker(m1, ['segmentControls', 'hips', 'cog'])
mShapeCast.limbControlMaker(m1, ['segmentControls', 'hips', 'cog'])
mShapeCast.limbControlMaker(m1, ['segmentControlsNEW'])
mesh = 'Morphy_Body_GEO1'
i_obj = cgmMeta.cgmObject('pelvis_templateOrientHelper')
mShapeCast.returnBaseControlSize(i_obj, mesh, axis=['x', 'y', 'z-'])
mShapeCast.returnBaseControlSize(i_obj, mesh, axis=['x'])
mc.softSelect(softSelectEnabled=True)
mc.softSelect(q=True, softSelectDistance=True)
mc.softSelect(q=True, softSelectUVDistance=True)
mc.softSelect(q=True, softSelectFalloff=2)
mc.softSelect(softSelectFalloff=0)
mc.softSelect(softSelectDistance=20)
mc.softSelect(softSelectUVDistance=30)
#252ms
m1.isSkeletonized()
mShapeCast.go(obj)
m1.setState('skeleton')
tFactory.returnModuleBaseSize(m2)
m2.rigNull.skinJoints
m2.moduleParent.rigNull.skinJoints
m2.templateNull.controlObjects
