def on_bufferButton_clicked(self):
undoInfo(openChunk=True)
for j in self.get_affected_joints():
buf = group(empty=True, world=True, name='BUF_' + j.nodeName())
p = j.getParent(1)
if p: parent(buf, p)
dupe = duplicate(j, renameChildren=True, returnRootsOnly=True)[0]
snap(dupe, buf, space='object')
delete(dupe)
parent(j, buf)
undoInfo(closeChunk=True)
def on_bufferButton_clicked(self): undoInfo(openChunk=True) for j in self.get_affected_joints(): buf = group(empty=True, world=True, name='BUF_' + j.nodeName()) p = j.getParent(1) if p: parent(buf, p) dupe = duplicate(j, renameChildren=True, returnRootsOnly=True)[0] snap(dupe, buf, space='object') delete(dupe) parent(j, buf) undoInfo(closeChunk=True)
def insert_bind_joints(self, cls, amount):
inserted_joints = []
for bj in self.bind_joints[cls]:
nj = bj.getChildren()[0] # next joint
d = nj.attr('t').get() / (amount + 1)
parent(nj, world=True)
ij = bj
for i in range(amount):
ns = ij.name_sequence + 1
ij = ls(insertJoint(ij))[0]
ij.attr('t').set(d)
ij.__class__ = cls
ij.name_sequence = ns
self.name_helper.rename(ij, jt=bj.jtype, s=bj.side,
ss=bj.side_sequence, n=bj.__name__, ns=ns)
inserted_joints.append(ij)
parent(nj, ij)
self.set_bone_radii(bj)
self.bind_joints[cls].extend(inserted_joints)
def __init__(self, **kwargs):
"""
Merge all shape nodes under a single transform and trash any
left-over (empty) transforms.
"""
shapes = [n for n in self if not isinstance(n, nt.Joint)]
empty_transforms = [s.getParent() for s in shapes if not \
[sib for sib in s.getSiblings() if sib not in self]]
self._transform = nt.Transform()
parent(self, self._transform, relative=True, shape=True)
#if empty_transforms:
# print('empty transforms:', empty_transforms)
# delete(empty_transforms)
select(self)
DeleteHistory()
snap_to = kwargs.pop('st', kwargs.pop('snap_to', None))
if snap_to:
snap(self._transform, snap_to)
def __init__(self, **kwargs):
"""
Merge all shape nodes under a single transform and trash any
left-over (empty) transforms.
"""
shapes = [n for n in self if not isinstance(n, nt.Joint)]
empty_transforms = [s.getParent() for s in shapes if not \
[sib for sib in s.getSiblings() if sib not in self]]
self._transform = nt.Transform()
parent(self, self._transform, relative=True, shape=True)
#if empty_transforms:
# print('empty transforms:', empty_transforms)
# delete(empty_transforms)
select(self)
DeleteHistory()
snap_to = kwargs.pop('st', kwargs.pop('snap_to', None))
if snap_to:
snap(self._transform, snap_to)
def insert_bind_joints(self, cls, amount):
inserted_joints = []
for bj in self.bind_joints[cls]:
nj = bj.getChildren()[0] # next joint
d = nj.attr('t').get() / (amount + 1)
parent(nj, world=True)
ij = bj
for i in range(amount):
ns = ij.name_sequence + 1
ij = ls(insertJoint(ij))[0]
ij.attr('t').set(d)
ij.__class__ = cls
ij.name_sequence = ns
self.name_helper.rename(ij,
jt=bj.jtype,
s=bj.side,
ss=bj.side_sequence,
n=bj.__name__,
ns=ns)
inserted_joints.append(ij)
parent(nj, ij)
self.set_bone_radii(bj)
self.bind_joints[cls].extend(inserted_joints)
def createGizmo(self):
##All this needs to do is create a control square comprised of one transform and a bunch of shape objects parented to it.
#First check to see if a gizmo exists that maybe got messed up or something. Delete that and recreate it
if general.objExists("WaffleSliceGizmo"):
general.delete("WaffleSliceGizmo")
general.group(n = "WaffleSliceGizmo", em = True)
_deleteArray = []
_shapesArray = []
_c = []
_c.append(modeling.nurbsSquare(n = "gizmoSquare1", nr = [0,0,1] ,c = [0, 0, 0], sl1 = 50, sl2 = 100))
_c.append(modeling.nurbsSquare(n = "gizmoSquare2", nr = [0,1,0] ,c = [0, 0, 0], sl1 = 100, sl2 = 50))
[general.parent(child, "WaffleSliceGizmo", r = True) for child in _c]
for child in general.listRelatives("WaffleSliceGizmo", ad = True):
if general.objectType(child)=="nurbsCurve":
general.parent(child, "WaffleSliceGizmo", r = True, s = True)
else:
[general.delete(child) for child in general.listRelatives("WaffleSliceGizmo", type = "transform")]
#WaffleSliceGizmo is the group that is created. Iterate through it, find a useable transform, get all the shapes, and assign
#All the shapes to a transform
general.delete("WaffleSliceGizmo", ch = True)
general.select("WaffleSliceGizmo")
def __init__(self, *args, **kwargs):
p = self.getParent()
parent(self, world=True)
self.orientJoint('none')
parent(self, p)
super(Collar, self).__init__({1: [Shoulder]}, *args, **kwargs)
def performSlice(self):
#Make sure theres a gizmo, otherwise theres no point in doing anything
if general.objExists("WaffleSliceGizmo"):
#Get the step size and step count from the appropriate sliders
step_size = windows.floatSliderGrp("stepSizeSlider", q = True, v = True)
step_count = int(windows.floatSliderGrp("stepCountSlider", q = True, v = True))
#Get the axes filter from the radio buttons
axes = windows.radioButtonGrp("axesRadioButtonGrp", q = True, sl = True)
#Iterate through the selected objects and create an array of sliceable ones
sliceArray = []
for child in general.ls(sl = True):
if (child!="WaffleSliceGizmo"):
#Make sure the selection is either a transform or mesh
if (general.objectType(child)=="transform" or general.objectType(child)=="mesh"):
sliceArray.append(child)
else:
#If anything was added to the array, then move forwards with the waffle slice
if len(sliceArray)>0:
#Create the slicing proxies that will push the proper transforms and rotates into the slice arguments
general.group(n = "slice_proxy_x", em = True)
general.xform("slice_proxy_x", t=[general.getAttr("WaffleSliceGizmo.translateX"),
general.getAttr("WaffleSliceGizmo.translateY"),
general.getAttr("WaffleSliceGizmo.translateZ"),]
, ro = [general.getAttr("WaffleSliceGizmo.rotateX"),
general.getAttr("WaffleSliceGizmo.rotateY"),
general.getAttr("WaffleSliceGizmo.rotateZ"),]
,ws = True)
general.group(n = "slice_proxy_y", em = True)
general.xform("slice_proxy_y", t=[general.getAttr("WaffleSliceGizmo.translateX"),
general.getAttr("WaffleSliceGizmo.translateY"),
general.getAttr("WaffleSliceGizmo.translateZ"),]
, ro = [general.getAttr("WaffleSliceGizmo.rotateX"),
general.getAttr("WaffleSliceGizmo.rotateY"),
general.getAttr("WaffleSliceGizmo.rotateZ"),]
,ws = True)
general.rotate("slice_proxy_y", (90, 0, 0), r = True, os = True)
general.parent("slice_proxy_x", "WaffleSliceGizmo")
general.parent("slice_proxy_y", "WaffleSliceGizmo")
#Iterate through the list of objects
for child in sliceArray:
#Move the slicers by half of the total distance they're going to need to slice through
general.move("slice_proxy_x", [0,0,(-1*((step_size*step_count)/2))] , r = True, ls = True)#, z = True)
general.move("slice_proxy_y", [0, (-1*((step_size*step_count)/2)),0], r = True, ls = True)#, y = True)
#Get the options for x, y, or both
#Do the slices, and for each iteration, bump each proxy forwards by their allotted amount
for i in range(step_count):
if (axes == 1 or axes == 3):
general.move("slice_proxy_x", [0, 0, step_size] , r = True, ls = True)#, z = True)
pos = general.xform("slice_proxy_x", ws = True, q = True, t = True)
rot = general.xform("slice_proxy_x", ws = True, q = True, ro = True)
modeling.polyCut(child, ro = rot , pc = pos)
general.delete(child, ch = True)
if (axes == 2 or axes == 3):
general.move("slice_proxy_y", [0, step_size, 0], r = True, ls = True)#, y = True)
pos = general.xform("slice_proxy_y", ws = True, q = True, t = True)
rot = general.xform("slice_proxy_y", ws = True, q = True, ro = True)
modeling.polyCut(child, ro = rot , pc = pos)
general.delete(child, ch = True)
else:
#Reset the position of the proxies after each object so they dont fly off into the distance
general.xform("slice_proxy_x", t=[general.getAttr("WaffleSliceGizmo.translateX"),
general.getAttr("WaffleSliceGizmo.translateY"),
general.getAttr("WaffleSliceGizmo.translateZ"),]
, ws = True)
general.xform("slice_proxy_y", t=[general.getAttr("WaffleSliceGizmo.translateX"),
general.getAttr("WaffleSliceGizmo.translateY"),
general.getAttr("WaffleSliceGizmo.translateZ"),]
, ws = True)
else:
#Clean up the slice proxies
general.delete("slice_proxy_x")
general.delete("slice_proxy_y")
else:
print("No slice gizmo")
def __init__(self, *args, **kwargs):
p = self.getParent()
parent(self, world=True)
self.orientJoint('none')
parent(self, p)
super(Collar, self).__init__({1:[Shoulder]}, *args, **kwargs)