def create_fk_ik_sn(controls, **kwargs):
fk, ik = get_fk_ik_joints(controls)
# Add the FkIkMode attribute to both controls and identify
# which control is the fk control and which is the ik control.
for c in controls:
addAttr(c, longName='FkIkMode', niceName='FKIK Mode',
attributeType='enum', enumName='FK:IK', keyable=True,
defaultValue=1)
sn = scriptNode(scriptType=2, sourceType='python',
beforeScript=';'.join(['import pymel.core.nodetypes as nt',
'import %s as x' % __name__,
"x.create_fk_ik_sj(%s)" % controls]),
afterScript=';'.join(['import pymel.core.nodetypes as nt',
"[c.attr('FkIkMode').delete() for c in %s]" % controls]),
**kwargs)
# Make the appropriate connections to toggle both visibility and
# orient constraints.
rev = shadingNode('reverse', asUtility=True)
ik['ctrl'].attr('FkIkMode').connect(ik['ctrl'].attr('visibility'))
fk['ctrl'].attr('FkIkMode').connect(rev.attr('inputX'))
rev.attr('outputX').connect(fk['ctrl'].attr('visibility'))
ik['ctrl'].attr('FkIkMode').connect(ik['sj'].attr('visibility'))
fk['ctrl'].attr('FkIkMode').connect(rev.attr('inputY'))
rev.attr('outputY').connect(fk['sj'].attr('visibility'))
for jtype in ('shoulder', 'elbow', 'hand'):
kwargs = jtype == 'elbow' and dict(skip=('x', 'z')) or {}
oc = orientConstraint(ik[jtype], fk[jtype], **kwargs)
ik['ctrl'].attr('FkIkMode').connect( \
oc.attr(ik[jtype].nodeName() + 'W0'))
create_fk_ik_sj(controls)
def on_orientJointsButton_clicked(self):
undoInfo(openChunk=True)
sel = selected()
kwargs = {}
if self.zeroScaleOrientCB.isChecked():
kwargs.update({'zeroScaleOrient': True})
if self.aimAxisNoneRadio.isChecked():
val = 'none'
else:
for i, radio in enumerate(
(self.aimAxisXRadio, self.aimAxisYRadio, self.aimAxisZRadio)):
if radio.isChecked():
xyz = 'xyz'
if self.upAxisNoneRadio.isChecked():
val = xyz[i:] + xyz[:i]
else:
val = str(radio.text()).lower()
for up_radio in (self.upAxisXRadio, self.upAxisYRadio,
self.upAxisZRadio):
if up_radio.isChecked():
val += str(up_radio.text()).lower()
break
for c in xyz:
if c not in val:
val += c
break
sao = self.worldUpYRadio.isChecked() and 'y' \
or self.worldUpZRadio.isChecked() and 'z' \
or upAxis(query=True, axis=True)
sao += self.worldUpReverseCB.isChecked() \
and 'down' or 'up'
kwargs.update({'secondaryAxisOrient': sao})
break
reverse_aim = self.aimAxisReverseCB.isChecked() \
and Vector([val[1] == c for c in 'xyz']) * 180 or None
reverse_up = self.upAxisReverseCB.isChecked() \
and Vector([val[0] == c for c in 'xyz']) * 180 or None
for j in self.get_affected_joints():
if j.numChildren():
j.orientJoint(val, **kwargs)
else:
p = j.getParent()
if p:
delete(orientConstraint(p, j))
else:
self.freeze(j, jointOrient=True)
if self.zeroScaleOrientCB.isChecked():
j.zeroScaleOrient()
if reverse_aim:
self.tweak_joint_orientation(1, rotateAxis=reverse_aim)
if reverse_up:
self.tweak_joint_orientation(1, rotateAxis=reverse_up)
select(sel)
undoInfo(closeChunk=True)
def on_orientJointsButton_clicked(self):
undoInfo(openChunk=True)
sel = selected()
kwargs = {}
if self.zeroScaleOrientCB.isChecked():
kwargs.update({'zeroScaleOrient': True})
if self.aimAxisNoneRadio.isChecked():
val = 'none'
else:
for i, radio in enumerate((self.aimAxisXRadio,
self.aimAxisYRadio, self.aimAxisZRadio)):
if radio.isChecked():
xyz = 'xyz'
if self.upAxisNoneRadio.isChecked():
val = xyz[i:] + xyz[:i]
else:
val = str(radio.text()).lower()
for up_radio in (self.upAxisXRadio,
self.upAxisYRadio, self.upAxisZRadio):
if up_radio.isChecked():
val += str(up_radio.text()).lower()
break
for c in xyz:
if c not in val:
val += c
break
sao = self.worldUpYRadio.isChecked() and 'y' \
or self.worldUpZRadio.isChecked() and 'z' \
or upAxis(query=True, axis=True)
sao += self.worldUpReverseCB.isChecked() \
and 'down' or 'up'
kwargs.update({'secondaryAxisOrient': sao})
break
reverse_aim = self.aimAxisReverseCB.isChecked() \
and Vector([val[1] == c for c in 'xyz']) * 180 or None
reverse_up = self.upAxisReverseCB.isChecked() \
and Vector([val[0] == c for c in 'xyz']) * 180 or None
for j in self.get_affected_joints():
if j.numChildren():
j.orientJoint(val, **kwargs)
else:
p = j.getParent()
if p:
delete(orientConstraint(p, j))
else:
self.freeze(j, jointOrient=True)
if self.zeroScaleOrientCB.isChecked():
j.zeroScaleOrient()
if reverse_aim:
self.tweak_joint_orientation(1, rotateAxis=reverse_aim)
if reverse_up:
self.tweak_joint_orientation(1, rotateAxis=reverse_up)
select(sel)
undoInfo(closeChunk=True)
def create_fk_ik_sn(controls, **kwargs):
fk, ik = get_fk_ik_joints(controls)
# Add the FkIkMode attribute to both controls and identify
# which control is the fk control and which is the ik control.
for c in controls:
addAttr(c,
longName='FkIkMode',
niceName='FKIK Mode',
attributeType='enum',
enumName='FK:IK',
keyable=True,
defaultValue=1)
sn = scriptNode(scriptType=2,
sourceType='python',
beforeScript=';'.join([
'import pymel.core.nodetypes as nt',
'import %s as x' % __name__,
"x.create_fk_ik_sj(%s)" % controls
]),
afterScript=';'.join([
'import pymel.core.nodetypes as nt',
"[c.attr('FkIkMode').delete() for c in %s]" % controls
]),
**kwargs)
# Make the appropriate connections to toggle both visibility and
# orient constraints.
rev = shadingNode('reverse', asUtility=True)
ik['ctrl'].attr('FkIkMode').connect(ik['ctrl'].attr('visibility'))
fk['ctrl'].attr('FkIkMode').connect(rev.attr('inputX'))
rev.attr('outputX').connect(fk['ctrl'].attr('visibility'))
ik['ctrl'].attr('FkIkMode').connect(ik['sj'].attr('visibility'))
fk['ctrl'].attr('FkIkMode').connect(rev.attr('inputY'))
rev.attr('outputY').connect(fk['sj'].attr('visibility'))
for jtype in ('shoulder', 'elbow', 'hand'):
kwargs = jtype == 'elbow' and dict(skip=('x', 'z')) or {}
oc = orientConstraint(ik[jtype], fk[jtype], **kwargs)
ik['ctrl'].attr('FkIkMode').connect( \
oc.attr(ik[jtype].nodeName() + 'W0'))
create_fk_ik_sj(controls)
def __init__(self, driver=shapes.Plus, driven=None, **kwargs):
# Driver
if not isinstance(driver, shapes.Shape) and issubclass(driver, shapes.Shape):
driver = driver()
assert isinstance(driver, shapes.Shape), \
("Parameter 'driver' must be an instance or subclass of %s." %
shapes.Shape.__name__)
self._driver = driver
self._transform = driver.get_transform()
self._shapes = self._transform.getShapes()
# Driven
if not driven:
driven = ls(selection=True, transforms=True)
assert len(driven) == 1, "Parameter 'driven' requires exactly one transform."
driven = driven[0]
self._driven = driven
# Face Axis
face_x = kwargs.pop('fx', kwargs.pop('faceX', False))
face_y = kwargs.pop('fy', kwargs.pop('faceY', False))
face_z = kwargs.pop('fz', kwargs.pop('faceZ', False))
face_sum = sum([face_x, face_y, face_z])
if not face_sum:
face_x = True
face_sum = 1
else:
assert face_sum == 1, "Rig control can only face one axis."
rotate(self._transform, [face_z and 90 or 0, 0, face_x and -90 or 0])
select(self._transform)
FreezeTransformations()
# Constraints
do_parent_constraint = kwargs.pop('pc', kwargs.pop('parentConstraint', False))
do_point_constraint = kwargs.pop('xc', kwargs.pop('pointConstraint', False))
do_orient_constraint = kwargs.pop('oc', kwargs.pop('orientConstraint', False))
do_scale_constraint = kwargs.pop('sc', kwargs.pop('scaleConstraint', False))
if do_parent_constraint or do_point_constraint or do_orient_constraint or \
do_scale_constraint:
self._buffer = Transform()
snap(self._buffer, self._driven, scale=True)
select(self._buffer)
parent(self._transform, self._buffer)
if do_parent_constraint:
parentConstraint(self._transform, self._driven)
else:
if do_point_constraint:
pointConstraint(self._transform, self._driven)
if do_orient_constraint:
orientConstraint(self._transform, self._driven)
if do_scale_constraint:
scaleConstraint(self._transform, self._driven)
elif isinstance(self._driven, Joint):
# Parent the drivers directly underneath the driven joint.
parent(self._driver, self._driven, relative=True, shape=True)
delete(self._transform)
self._transform = self._driven
elif isinstance(self._driven, IkHandle):
self._buffer = self._transform
self._transform = self._driven
snap(self._ebuffer, self._transform)
parent(self._transform, self._buffer)
parent(self._driver, self._transform, relative=True, shape=True)
else:
# Parent the drivers underneath a new buffered transform.
self._buffer = self._driven
parent(self._transform, self._buffer)
parent(self._buffer.getShapes(), self._transform, relative=True, shape=True)
# Pop the shape nodes out and back in to reorder the driven shape(s) to
# the top. This way, the Outliner icons for this transform will reflect the
# appropriate first-child shape node.
parent(self._driver, self._buffer, relative=True, shape=True)
parent(self._driver, self._transform, relative=True, shape=True)
if self._buffer:
select(self._transform)
ResetTransformations()
for trs in 'trs':
for xyz in 'xyz':
self._buffer.attr(trs + xyz).lock()
if isinstance(self._driven, IkHandle):
self.__class__ = IkRigControl
self.__init__()
def __init__(self, driver=shapes.Plus, driven=None, **kwargs):
# Driver
if not isinstance(driver, shapes.Shape) and issubclass(
driver, shapes.Shape):
driver = driver()
assert isinstance(driver, shapes.Shape), \
("Parameter 'driver' must be an instance or subclass of %s." %
shapes.Shape.__name__)
self._driver = driver
self._transform = driver.get_transform()
self._shapes = self._transform.getShapes()
# Driven
if not driven:
driven = ls(selection=True, transforms=True)
assert len(
driven
) == 1, "Parameter 'driven' requires exactly one transform."
driven = driven[0]
self._driven = driven
# Face Axis
face_x = kwargs.pop('fx', kwargs.pop('faceX', False))
face_y = kwargs.pop('fy', kwargs.pop('faceY', False))
face_z = kwargs.pop('fz', kwargs.pop('faceZ', False))
face_sum = sum([face_x, face_y, face_z])
if not face_sum:
face_x = True
face_sum = 1
else:
assert face_sum == 1, "Rig control can only face one axis."
rotate(self._transform, [face_z and 90 or 0, 0, face_x and -90 or 0])
select(self._transform)
FreezeTransformations()
# Constraints
do_parent_constraint = kwargs.pop(
'pc', kwargs.pop('parentConstraint', False))
do_point_constraint = kwargs.pop('xc',
kwargs.pop('pointConstraint', False))
do_orient_constraint = kwargs.pop(
'oc', kwargs.pop('orientConstraint', False))
do_scale_constraint = kwargs.pop('sc',
kwargs.pop('scaleConstraint', False))
if do_parent_constraint or do_point_constraint or do_orient_constraint or \
do_scale_constraint:
self._buffer = Transform()
snap(self._buffer, self._driven, scale=True)
select(self._buffer)
parent(self._transform, self._buffer)
if do_parent_constraint:
parentConstraint(self._transform, self._driven)
else:
if do_point_constraint:
pointConstraint(self._transform, self._driven)
if do_orient_constraint:
orientConstraint(self._transform, self._driven)
if do_scale_constraint:
scaleConstraint(self._transform, self._driven)
elif isinstance(self._driven, Joint):
# Parent the drivers directly underneath the driven joint.
parent(self._driver, self._driven, relative=True, shape=True)
delete(self._transform)
self._transform = self._driven
elif isinstance(self._driven, IkHandle):
self._buffer = self._transform
self._transform = self._driven
snap(self._ebuffer, self._transform)
parent(self._transform, self._buffer)
parent(self._driver, self._transform, relative=True, shape=True)
else:
# Parent the drivers underneath a new buffered transform.
self._buffer = self._driven
parent(self._transform, self._buffer)
parent(self._buffer.getShapes(),
self._transform,
relative=True,
shape=True)
# Pop the shape nodes out and back in to reorder the driven shape(s) to
# the top. This way, the Outliner icons for this transform will reflect the
# appropriate first-child shape node.
parent(self._driver, self._buffer, relative=True, shape=True)
parent(self._driver, self._transform, relative=True, shape=True)
if self._buffer:
select(self._transform)
ResetTransformations()
for trs in 'trs':
for xyz in 'xyz':
self._buffer.attr(trs + xyz).lock()
if isinstance(self._driven, IkHandle):
self.__class__ = IkRigControl
self.__init__()