def diamondCurve3D(name):
curveX = mel.eval(
'''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 0 0.000151268 -1.035395 -p 0 0 0
-p 0 -0.988362 0 -p 0 0 0 -p 0 -0.000151268 1.035697 -p 0 0 0 -p 0 0.809437 0 -k 0 -k 0
-k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curveX, ch=1, ps=2, rpo=1, bb=0, bki=1, p=0.1)
curveZ = mel.eval(
'''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 1.071098 0.000156484 0
-p 0 0 0 -p 0 -0.988362 0 -p 0 0 0 -p -1.071411 -0.000156484 0 -p 0 0 0 -p 0 0.809437 0
-k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curveZ, ch=1, ps=2, rpo=1, bb=0, bki=1, p=0.1)
curveZShape = cmds.listRelatives(curveZ, s=True)
cmds.parent(curveZShape, curveX, r=True, s=True)
cmds.rename(curveX, name)
cmds.delete(curveZ)
curveShapes = cmds.listRelatives(name, s=True)
return curveShapes
def create(self, crv_name, name='curve_shape', scale=1, orientation_override=None):
"""
To Write..
"""
# Create and rename curve
try:
crv = cmds.curve(d=self.CURVES[crv_name]['degree'], p=self.CURVES[crv_name]['points'])
crv = cmds.rename(crv, name)
except KeyError:
crv = None
cmds.warning("Curve '%s' does not exist..")
if self.CURVES[crv_name]['closed']:
cmds.closeCurve(crv, rpo=True, ps=0)
# Determine whether to use the orientation_override or the factory's orientation
if orientation_override is None:
orient = self.orientation
else:
orient = orientation_override
# Orient control
if orient == 'x':
cmds.xform(crv, ws=True, ro=(0, 0, 90))
elif orient == 'y':
pass
elif orient == 'z':
cmds.xform(crv, ws=True, ro=(90, 0, 0))
else:
cmds.warning("Invalid orientation: '%s'" % orient)
cmds.xform(crv, ws=True, scale=(scale, scale, scale))
cmds.makeIdentity(crv, apply=True)
return crv
def TDSquare(self, name):
self.SquareCurve = cmds.curve(d=1,
n=name,
p=[(1, 0, -1), (-1, 0, -1), (-1, 0, 1),
(1, 0, 1), (1, 0, -1)])
cmds.closeCurve(self.SquareCurve, ps=1, rpo=1, bb=0.5, bki=0, p=0.1)
return self.SquareCurve
def diamondCurve3D(name):
curveX = mel.eval('''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 0 0.000151268 -1.035395 -p 0 0 0
-p 0 -0.988362 0 -p 0 0 0 -p 0 -0.000151268 1.035697 -p 0 0 0 -p 0 0.809437 0 -k 0 -k 0
-k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curveX,ch = 1,ps = 2,rpo = 1, bb = 0,bki = 1, p = 0.1)
curveZ = mel.eval('''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 1.071098 0.000156484 0
-p 0 0 0 -p 0 -0.988362 0 -p 0 0 0 -p -1.071411 -0.000156484 0 -p 0 0 0 -p 0 0.809437 0
-k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curveZ,ch = 1,ps = 2,rpo = 1, bb = 0,bki = 1, p = 0.1)
curveZShape = cmds.listRelatives(curveZ,s = True)
cmds.parent(curveZShape,curveX,r = True, s = True)
cmds.rename(curveX,name)
cmds.delete(curveZ)
curveShapes = cmds.listRelatives(name,s = True)
return curveShapes
def diamondCurve(name):
curve = mel.eval('''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 1.071098 0.000156484 0
-p 0 0 0 -p 0 -0.988362 0 -p 0 0 0 -p -1.071411 -0.000156484 0 -p 0 0 0 -p 0 0.809437 0
-k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curve,ch = 1,ps = 2,rpo = 1, bb = 0,bki = 1, p = 0.1)
cmds.rename(curve,name)
curveShapes = cmds.listRelatives(name, s = True)
return curveShapes
def diamondCurve(name):
curve = mel.eval(
'''curve -d 3 -p 0 0.809437 0 -p 0 0 0 -p 1.071098 0.000156484 0
-p 0 0 0 -p 0 -0.988362 0 -p 0 0 0 -p -1.071411 -0.000156484 0 -p 0 0 0 -p 0 0.809437 0
-k 0 -k 0 -k 0 -k 1 -k 2 -k 3 -k 4 -k 5 -k 6 -k 6 -k 6 ;''')
cmds.closeCurve(curve, ch=1, ps=2, rpo=1, bb=0, bki=1, p=0.1)
cmds.rename(curve, name)
curveShapes = cmds.listRelatives(name, s=True)
return curveShapes
def ControlTypes (self, shape):
if shape == "Diamond":
self.ctrls = cmds.curve(d=1, p=[(-1, 0, -1), (-0.5, 0, 0), (-1, 0, 1), (0, 0, 0.5), (1, 0, 1),
(0.5, 0, 0), (1, 0, -1), (0, 0, -0.5)], k=[0, 1, 2, 3, 4, 5, 6, 7])
self.ctrls = cmds.closeCurve(ch=True, ps=True, rpo=True, bb=1, bki=False, p=0.1)
elif shape == "Square":
self.ctrls = cmds.curve(d=1, p=[(-1, 0, -1), (-1, 0, 1), (1, 0, 1), (1, 0, -1)],
k=[0, 1, 2, 3])
self.ctrls = cmds.closeCurve(ch=True, ps=True, rpo=True, bb=1, bki=False, p=0.1)
elif shape == "Circle":
self.ctrls = cmds.circle(c=(0, 0, 0), nr=(0, 1, 0), sw=360, r=1, d=3, ut=0, tol=0.0001, s=8, ch=1)
return self.ctrls[0]
def makeCurveFromPoints(p, close=True): curve = mc.curve(p=p, d=3) if close: curve = mc.closeCurve(curve, ps=0, rpo=1, bb=0.5, bki=0, p=0.1) curve = mc.rebuildCurve(curve, rpo=1, rt=0, end=1, kr=0, kcp=1, kep=1, kt=0, s=4, d=3, tol=0.000129167) mc.xform(curve, centerPivots=True) return curve
def testNurbsCurveGrpReadWrite(self):
# test w/r of simple Nurbs Curve
self.__files.append(util.expandFileName('testStaticNurbsCurves.abc'))
testNurbsCurveRW(self, False, self.__files[-1], 'haka')
self.__files.append(util.expandFileName('testStaticNurbsCurveGrp.abc'))
testNurbsCurveRW(self, True, self.__files[-1], 'haka')
# test if some curves have different degree or close states information
MayaCmds.file(new=True, force=True)
name = MayaCmds.textCurves(font='Courier', text='Maya')
MayaCmds.closeCurve( name[0], replaceOriginal=True )
MayaCmds.addAttr(name[0], longName='riCurves', at='bool', dv=True)
self.__files.append(util.expandFileName('testStaticNurbsCurveGrp2.abc'))
MayaCmds.AbcExport(j='-root %s -f %s' % (name[0], self.__files[-1]))
MayaCmds.AbcImport(self.__files[-1], mode='open')
if 'riCurves' in MayaCmds.listAttr(name[0]):
self.fail(name[0]+".riCurves shouldn't exist")
def SK_b30(color = 100):
if(color == 100):
color = rig.colorIndexSliderGrp('colorIndexName',q = True,v = True) - 1
curveName = rig.curve(d = 1,p = [(0,0,4.083750102),(1.074648236,0,4.083750102),(1.074648236,0,-1.916249898),(2.539920287,0,-1.916249898),(0,0,-5.605397886),(-2.539920287,0,-1.916249898),(-1.074648236,0,-1.916249898),(-1.074648236,0,4.083750102)],k = [0,1,2,3,4,5,6,7])
rig.addAttr(curveName,ln = 'ctrl',at = 'float',min = 0,max = 1, dv = 1)
curveNameS = rig.closeCurve(curveName)[0]
rig.delete(curveName)
curveNameShape = rig.listRelatives(curveNameS,s = True)[0]
rig.setAttr(curveNameShape+'.overrideEnabled',1)
rig.setAttr(curveNameShape+'.overrideColor',color)
return curveNameS
def drawTriangle(self, t, vertex):
v1 = vertex[t[0]]
v2 = vertex[t[1]]
v3 = vertex[t[2]]
if len(v1) == 2: v1.append(0)
if len(v2) == 2: v2.append(0)
if len(v3) == 2: v3.append(0)
crv = cmds.curve(p=[v1, v2, v3], d=1)
crv = cmds.closeCurve(crv, rpo=1)
cmds.refresh(cv=1)
return crv
def drawTriangle(self, t, vertex): v1 = vertex[t[0]] v2 = vertex[t[1]] v3 = vertex[t[2]] if len(v1)==2: v1.append(0) if len(v2)==2: v2.append(0) if len(v3)==2: v3.append(0) crv = cmds.curve(p=[v1,v2,v3], d=1) crv = cmds.closeCurve(crv, rpo=1) cmds.refresh(cv=1) return crv
def testNurbsCurveGrpReadWrite(self):
# test w/r of simple Nurbs Curve
self.__files.append(util.expandFileName('testStaticNurbsCurves.abc'))
testNurbsCurveRW(self, False, self.__files[-1], 'haka')
self.__files.append(util.expandFileName('testStaticNurbsCurveGrp.abc'))
testNurbsCurveRW(self, True, self.__files[-1], 'haka')
# test if some curves have different degree or close states information
MayaCmds.file(new=True, force=True)
name = MayaCmds.textCurves(font='Courier', text='Maya')
MayaCmds.closeCurve(name[0], replaceOriginal=True)
MayaCmds.addAttr(name[0], longName='riCurves', at='bool', dv=True)
self.__files.append(
util.expandFileName('testStaticNurbsCurveGrp2.abc'))
MayaCmds.AbcExport(j='-root %s -f %s' % (name[0], self.__files[-1]))
MayaCmds.AbcImport(self.__files[-1], mode='open')
if 'riCurves' in MayaCmds.listAttr(name[0]):
self.fail(name[0] + ".riCurves shouldn't exist")
def CreateCtrlShape(self, shape):
''' Changes the look of the generated nurbesCurve based on input '''
ctrl = None
if shape == "circle":
ctrl = cmds.circle(c=[0, 0, 0],
nr=[0, 1, 0],
sw=360,
r=1,
d=3,
ut=0,
tol=0.01,
s=8,
ch=1)[0]
elif shape == "flower":
points = [[-0.3, 0, 0.3], [0, 0, -1.2],
[0.3, 0, 0.3], [-1.2, 0, 0], [0.3, 0, -0.3], [0, 0, 1.2],
[-0.3, 0, -0.3], [1.2, 0, 0]]
knots = [-2, -1, 0, 1, 2, 3, 4, 5, 6, 7]
ctrl = cmds.curve(d=3, p=points, k=knots)
cmds.closeCurve(ctrl, ch=1, ps=0, rpo=1, bb=0.5, bki=1, p=0)
elif shape == "square":
points = [[1, 0, -1], [-1, 0, -1], [-1, 0, 1], [1, 0, 1]]
knots = [0, 1, 2, 3]
ctrl = cmds.curve(d=1, p=points, k=knots)
cmds.closeCurve(ctrl, ch=1, ps=1, rpo=1, bb=0.5, bki=0, p=0.1)
elif shape == "diamond":
points = [[0.2, 0, -0.2], [0, 0, -1.2], [-0.2, 0, -0.2],
[-1.2, 0, 0], [-0.2, 0, 0.2], [0, 0, 1.2], [0.2, 0, 0.2],
[1.2, 0, 0]]
knots = [-2, -1, 0, 1, 2, 3, 4, 5, 6, 7]
ctrl = cmds.curve(d=3, p=points, k=knots)
cmds.closeCurve(ctrl, ch=1, ps=0, rpo=1, bb=0.5, bki=1, p=0)
else:
cmds.warning("Invalid shape")
if ctrl is not None:
cmds.move(0, 0, 0, ctrl)
return ctrl
def add_curve_shape(shape_choice,
transform_node=None,
color=None,
off_color=False,
shape_offset=False):
"""
Creates a shape node that is input into a transform node. This will turn a
transform node into a control shape, allowing for more flexibility in
building rigging systems that want interchangeable control shape types.
Shapes may also be assigned a color, to add more distinct appearance.
Args:
shape_choice (str): Assigns the shape type for the control. Availble
shapes are in the dictionaries listed in the function file.
transform_node (str): Assigns the transform node that will receive the
shape node (converting it into a control). If no input is given,
will default to the selection.
color (str) or (list[float, float, float]): Assigns a color value to set
for the new curve shape. If string, it must be compatible with the
keys in rgb_dictionary. If list, it must have 3 float values that
correspond with the desired color values in range 0 to 1.
off_color (bool): If color parameter is a string, all the values in the
corresponding value list will be cut in half to provide a similar,
but different color result. If color parameter is not a string,
then parameter is benign.
shape_offset (list[float, float, float]): Assign rotation values for the
shape to offset its visual direction. Will have no effect on the
transform values, only visual feedback of the shape.
"""
# curve library calling
if not transform_node:
transform_node = cmds.ls(selection=True)[0]
if not transform_node:
cmds.warning('No input given for the transform_node! Please select an '
'object or input a parameter.')
return
curve_transform = curve_library[shape_choice]()
curve_shape = cmds.listRelatives(curve_transform, shapes=True)
if curve_library_bool[shape_choice]:
cmds.closeCurve(curve_shape, ch=0, replaceOriginal=1)
cmds.parent(curve_shape, transform_node, shape=True, r=True)
cmds.delete(curve_transform)
# Curve color operations
if color:
if color in rgb_dictionary:
# If an off-color variation is desired, change values to half
if off_color:
curve_color = [float(c) / 1.5 for c in rgb_dictionary[color]]
# Color is a string name used as a key
else:
curve_color = rgb_actuals[color]
set_control_color(rgb_input=curve_color)
elif type(color) is list:
# Color is a list of 3 float values
set_control_color(rgb_input=color)
else:
# Neither condition met, no action may be performed
cmds.warning('Input for "color" parameter is not an acceptable '
'value. Please input one of the appropriate strings '
'mentioned in the "help" function, or input a color '
'value list like so: [float, float, float].')
return
if shape_offset:
cmds.xform(transform_node + '.cv[0:]', rotation=shape_offset)
shape_name = cmds.rename(curve_shape, transform_node + 'Shape')
return shape_name
def testAnimNurbsPlaneWrite(self, wfg=False):
ret = MayaCmds.nurbsPlane(p=(0, 0, 0), ax=(0, 1, 0), w=1, lr=1, d=3, u=5, v=5, ch=0)
name = ret[0]
MayaCmds.lattice(name, dv=(4, 5, 4), oc=True)
MayaCmds.select("ffd1Lattice.pt[1:2][0:4][1:2]", r=True)
MayaCmds.currentTime(1, update=True)
MayaCmds.setKeyframe()
MayaCmds.currentTime(24, update=True)
MayaCmds.setKeyframe()
MayaCmds.currentTime(12, update=True)
MayaCmds.move(0, 0.18, 0, r=True)
MayaCmds.scale(2.5, 1.0, 2.5, r=True)
MayaCmds.setKeyframe()
MayaCmds.curveOnSurface(
name,
uv=((0.597523, 0), (0.600359, 0.271782), (0.538598, 0.564218), (0.496932, 0.779936), (0.672153, 1)),
k=(0, 0, 0, 0.263463, 0.530094, 0.530094, 0.530094),
)
curvename = MayaCmds.curveOnSurface(
name,
uv=(
(0.170718, 0.565967),
(0.0685088, 0.393034),
(0.141997, 0.206296),
(0.95, 0.230359),
(0.36264, 0.441381),
(0.251243, 0.569889),
),
k=(0, 0, 0, 0.200545, 0.404853, 0.598957, 0.598957, 0.598957),
)
MayaCmds.closeCurve(curvename, ch=1, ps=1, rpo=1, bb=0.5, bki=0, p=0.1, cos=1)
MayaCmds.trim(name, lu=0.23, lv=0.39)
degreeU = MayaCmds.getAttr(name + ".degreeU")
degreeV = MayaCmds.getAttr(name + ".degreeV")
spansU = MayaCmds.getAttr(name + ".spansU")
spansV = MayaCmds.getAttr(name + ".spansV")
formU = MayaCmds.getAttr(name + ".formU")
formV = MayaCmds.getAttr(name + ".formV")
minU = MayaCmds.getAttr(name + ".minValueU")
maxU = MayaCmds.getAttr(name + ".maxValueU")
minV = MayaCmds.getAttr(name + ".minValueV")
maxV = MayaCmds.getAttr(name + ".maxValueV")
MayaCmds.createNode("surfaceInfo")
MayaCmds.connectAttr(name + ".worldSpace", "surfaceInfo1.inputSurface", force=True)
MayaCmds.currentTime(1, update=True)
controlPoints = MayaCmds.getAttr("surfaceInfo1.controlPoints[*]")
knotsU = MayaCmds.getAttr("surfaceInfo1.knotsU[*]")
knotsV = MayaCmds.getAttr("surfaceInfo1.knotsV[*]")
MayaCmds.currentTime(12, update=True)
controlPoints2 = MayaCmds.getAttr("surfaceInfo1.controlPoints[*]")
knotsU2 = MayaCmds.getAttr("surfaceInfo1.knotsU[*]")
knotsV2 = MayaCmds.getAttr("surfaceInfo1.knotsV[*]")
if wfg:
self.__files.append(util.expandFileName("testAnimNurbsPlane.abc"))
MayaCmds.AbcExport(
j="-fr 1 24 -frs -0.25 -frs 0.0 -frs 0.25 -wfg -root %s -file %s" % (name, self.__files[-1])
)
# reading test
MayaCmds.AbcImport(self.__files[-1], mode="open")
else:
self.__files.append(util.expandFileName("testAnimNurbsPlane.abc"))
self.__files.append(util.expandFileName("testAnimNurbsPlane01_14.abc"))
self.__files.append(util.expandFileName("testAnimNurbsPlane15_24.abc"))
MayaCmds.AbcExport(j="-fr 1 14 -root %s -file %s" % (name, self.__files[-2]))
MayaCmds.AbcExport(j="-fr 15 24 -root %s -file %s" % (name, self.__files[-1]))
# use AbcStitcher to combine two files into one
subprocess.call(self.__abcStitcher + self.__files[-3:])
# reading test
MayaCmds.AbcImport(self.__files[-3], mode="open")
self.failUnlessEqual(degreeU, MayaCmds.getAttr(name + ".degreeU"))
self.failUnlessEqual(degreeV, MayaCmds.getAttr(name + ".degreeV"))
self.failUnlessEqual(spansU, MayaCmds.getAttr(name + ".spansU"))
self.failUnlessEqual(spansV, MayaCmds.getAttr(name + ".spansV"))
self.failUnlessEqual(formU, MayaCmds.getAttr(name + ".formU"))
self.failUnlessEqual(formV, MayaCmds.getAttr(name + ".formV"))
self.failUnlessEqual(minU, MayaCmds.getAttr(name + ".minValueU"))
self.failUnlessEqual(maxU, MayaCmds.getAttr(name + ".maxValueU"))
self.failUnlessEqual(minV, MayaCmds.getAttr(name + ".minValueV"))
self.failUnlessEqual(maxV, MayaCmds.getAttr(name + ".maxValueV"))
MayaCmds.createNode("surfaceInfo")
MayaCmds.connectAttr(name + ".worldSpace", "surfaceInfo1.inputSurface", force=True)
MayaCmds.currentTime(1, update=True)
errmsg = "At frame #1, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = MayaCmds.getAttr("surfaceInfo1.controlPoints[%d]" % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, "x"))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, "y"))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, "z"))
errmsg = "At frame #1, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr("surfaceInfo1.knotsU[%d]" % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #1, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr("surfaceInfo1.knotsV[%d]" % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
MayaCmds.currentTime(12, update=True)
errmsg = "At frame #12, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints2)):
cp1 = controlPoints2[i]
cp2 = MayaCmds.getAttr("surfaceInfo1.controlPoints[%d]" % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, "x"))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, "y"))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, "z"))
errmsg = "At frame #12, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU2)):
ku1 = knotsU2[i]
ku2 = MayaCmds.getAttr("surfaceInfo1.knotsU[%d]" % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #12, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV2)):
kv1 = knotsV2[i]
kv2 = MayaCmds.getAttr("surfaceInfo1.knotsV[%d]" % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
MayaCmds.currentTime(24, update=True)
errmsg = "At frame #24, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = MayaCmds.getAttr("surfaceInfo1.controlPoints[%d]" % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, "x"))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, "y"))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, "z"))
errmsg = "At frame #24, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr("surfaceInfo1.knotsU[%d]" % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #24, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr("surfaceInfo1.knotsV[%d]" % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
def testAnimNurbsPlaneWrite(self, wfg=False):
ret = MayaCmds.nurbsPlane(p=(0, 0, 0), ax=(0, 1, 0), w=1, lr=1, d=3,
u=5, v=5, ch=0)
name = ret[0]
MayaCmds.lattice(name, dv=(4, 5, 4), oc=True)
MayaCmds.select('ffd1Lattice.pt[1:2][0:4][1:2]', r=True)
MayaCmds.currentTime(1, update=True)
MayaCmds.setKeyframe()
MayaCmds.currentTime(24, update=True)
MayaCmds.setKeyframe()
MayaCmds.currentTime(12, update=True)
MayaCmds.move(0, 0.18, 0, r=True)
MayaCmds.scale(2.5, 1.0, 2.5, r=True)
MayaCmds.setKeyframe()
MayaCmds.curveOnSurface(name,
uv=((0.597523, 0), (0.600359, 0.271782), (0.538598, 0.564218),
(0.496932, 0.779936), (0.672153, 1)),
k=(0, 0, 0, 0.263463, 0.530094, 0.530094, 0.530094))
curvename = MayaCmds.curveOnSurface(name,
uv=((0.170718, 0.565967), (0.0685088, 0.393034), (0.141997, 0.206296),
(0.95, 0.230359), (0.36264, 0.441381), (0.251243, 0.569889)),
k=(0, 0, 0, 0.200545, 0.404853, 0.598957, 0.598957, 0.598957))
MayaCmds.closeCurve(curvename, ch=1, ps=1, rpo=1, bb=0.5, bki=0, p=0.1,
cos=1)
MayaCmds.trim(name, lu=0.23, lv=0.39)
degreeU = MayaCmds.getAttr(name + '.degreeU')
degreeV = MayaCmds.getAttr(name + '.degreeV')
spansU = MayaCmds.getAttr(name + '.spansU')
spansV = MayaCmds.getAttr(name + '.spansV')
formU = MayaCmds.getAttr(name + '.formU')
formV = MayaCmds.getAttr(name + '.formV')
minU = MayaCmds.getAttr(name + '.minValueU')
maxU = MayaCmds.getAttr(name + '.maxValueU')
minV = MayaCmds.getAttr(name + '.minValueV')
maxV = MayaCmds.getAttr(name + '.maxValueV')
MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name + '.worldSpace', 'surfaceInfo1.inputSurface',
force=True)
MayaCmds.currentTime(1, update=True)
controlPoints = MayaCmds.getAttr('surfaceInfo1.controlPoints[*]')
knotsU = MayaCmds.getAttr('surfaceInfo1.knotsU[*]')
knotsV = MayaCmds.getAttr('surfaceInfo1.knotsV[*]')
MayaCmds.currentTime(12, update=True)
controlPoints2 = MayaCmds.getAttr('surfaceInfo1.controlPoints[*]')
knotsU2 = MayaCmds.getAttr('surfaceInfo1.knotsU[*]')
knotsV2 = MayaCmds.getAttr('surfaceInfo1.knotsV[*]')
if wfg:
self.__files.append(util.expandFileName('testAnimNurbsPlane.abc'))
MayaCmds.AbcExport(j='-fr 1 24 -frs -0.25 -frs 0.0 -frs 0.25 -wfg -root %s -file %s' % (name, self.__files[-1]))
# reading test
MayaCmds.AbcImport(self.__files[-1], mode='open')
else:
self.__files.append(util.expandFileName('testAnimNurbsPlane.abc'))
self.__files.append(util.expandFileName('testAnimNurbsPlane01_14.abc'))
self.__files.append(util.expandFileName('testAnimNurbsPlane15_24.abc'))
MayaCmds.AbcExport(j='-fr 1 14 -root %s -file %s' % (name, self.__files[-2]))
MayaCmds.AbcExport(j='-fr 15 24 -root %s -file %s' % (name, self.__files[-1]))
# use AbcStitcher to combine two files into one
subprocess.call(self.__abcStitcher + self.__files[-3:])
# reading test
MayaCmds.AbcImport(self.__files[-3], mode='open')
self.failUnlessEqual(degreeU, MayaCmds.getAttr(name + '.degreeU'))
self.failUnlessEqual(degreeV, MayaCmds.getAttr(name + '.degreeV'))
self.failUnlessEqual(spansU, MayaCmds.getAttr(name + '.spansU'))
self.failUnlessEqual(spansV, MayaCmds.getAttr(name + '.spansV'))
self.failUnlessEqual(formU, MayaCmds.getAttr(name + '.formU'))
self.failUnlessEqual(formV, MayaCmds.getAttr(name + '.formV'))
self.failUnlessEqual(minU, MayaCmds.getAttr(name + '.minValueU'))
self.failUnlessEqual(maxU, MayaCmds.getAttr(name + '.maxValueU'))
self.failUnlessEqual(minV, MayaCmds.getAttr(name + '.minValueV'))
self.failUnlessEqual(maxV, MayaCmds.getAttr(name + '.maxValueV'))
MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name + '.worldSpace', 'surfaceInfo1.inputSurface',
force=True)
MayaCmds.currentTime(1, update=True)
errmsg = "At frame #1, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = MayaCmds.getAttr('surfaceInfo1.controlPoints[%d]' % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, 'x'))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, 'y'))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, 'z'))
errmsg = "At frame #1, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr('surfaceInfo1.knotsU[%d]' % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #1, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr('surfaceInfo1.knotsV[%d]' % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
MayaCmds.currentTime(12, update=True)
errmsg = "At frame #12, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints2)):
cp1 = controlPoints2[i]
cp2 = MayaCmds.getAttr('surfaceInfo1.controlPoints[%d]' % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, 'x'))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, 'y'))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, 'z'))
errmsg = "At frame #12, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU2)):
ku1 = knotsU2[i]
ku2 = MayaCmds.getAttr('surfaceInfo1.knotsU[%d]' % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #12, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV2)):
kv1 = knotsV2[i]
kv2 = MayaCmds.getAttr('surfaceInfo1.knotsV[%d]' % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
MayaCmds.currentTime(24, update=True)
errmsg = "At frame #24, Nurbs Plane's control point #%d.%s not equal"
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = MayaCmds.getAttr('surfaceInfo1.controlPoints[%d]' % (i))
self.failUnlessAlmostEqual(cp1[0], cp2[0][0], 3, errmsg % (i, 'x'))
self.failUnlessAlmostEqual(cp1[1], cp2[0][1], 3, errmsg % (i, 'y'))
self.failUnlessAlmostEqual(cp1[2], cp2[0][2], 3, errmsg % (i, 'z'))
errmsg = "At frame #24, Nurbs Plane's control knotsU #%d not equal"
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr('surfaceInfo1.knotsU[%d]' % (i))
self.failUnlessAlmostEqual(ku1, ku2, 3, errmsg % (i))
errmsg = "At frame #24, Nurbs Plane's control knotsV #%d not equal"
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr('surfaceInfo1.knotsV[%d]' % (i))
self.failUnlessAlmostEqual(kv1, kv2, 3, errmsg % (i))
def testStaticNurbsWithOneCloseCurveTrim(self, surfacetype, abcFileName,
trimtype):
if (surfacetype == 0):
ret = MayaCmds.nurbsPlane(p=(0, 0, 0),
ax=(0, 1, 0),
w=1,
lr=1,
d=3,
u=5,
v=5,
ch=0)
elif (surfacetype == 1):
ret = MayaCmds.sphere(p=(0, 0, 0),
ax=(0, 1, 0),
ssw=0,
esw=360,
r=1,
d=3,
ut=0,
tol=0.01,
s=8,
nsp=4,
ch=0)
elif (surfacetype == 2):
ret = MayaCmds.torus(p=(0, 0, 0),
ax=(0, 1, 0),
ssw=0,
esw=360,
msw=360,
r=1,
hr=0.5,
ch=0)
name = ret[0]
MayaCmds.curveOnSurface(name,
uv=((0.170718, 0.565967), (0.0685088, 0.393034),
(0.141997, 0.206296), (0.95, 0.230359),
(0.36264, 0.441381), (0.251243, 0.569889)),
k=(0, 0, 0, 0.200545, 0.404853, 0.598957, 0.598957,
0.598957))
MayaCmds.closeCurve(name + '->curve1',
ch=1,
ps=1,
rpo=1,
bb=0.5,
bki=0,
p=0.1,
cos=1)
if trimtype == 0:
MayaCmds.trim(name, lu=0.68, lv=0.39)
elif 1:
MayaCmds.trim(name, lu=0.267062, lv=0.39475)
degreeU = MayaCmds.getAttr(name + '.degreeU')
degreeV = MayaCmds.getAttr(name + '.degreeV')
spansU = MayaCmds.getAttr(name + '.spansU')
spansV = MayaCmds.getAttr(name + '.spansV')
formU = MayaCmds.getAttr(name + '.formU')
formV = MayaCmds.getAttr(name + '.formV')
minU = MayaCmds.getAttr(name + '.minValueU')
maxU = MayaCmds.getAttr(name + '.maxValueU')
minV = MayaCmds.getAttr(name + '.minValueV')
maxV = MayaCmds.getAttr(name + '.maxValueV')
surfaceInfoNode = MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name + '.worldSpace',
surfaceInfoNode + '.inputSurface',
force=True)
controlPoints = MayaCmds.getAttr(surfaceInfoNode + '.controlPoints[*]')
knotsU = MayaCmds.getAttr(surfaceInfoNode + '.knotsU[*]')
knotsV = MayaCmds.getAttr(surfaceInfoNode + '.knotsV[*]')
MayaCmds.AbcExport(j='-root %s -f %s' % (name, abcFileName))
MayaCmds.AbcImport(abcFileName, mode='open')
self.failUnlessEqual(degreeU, MayaCmds.getAttr(name + '.degreeU'))
self.failUnlessEqual(degreeV, MayaCmds.getAttr(name + '.degreeV'))
self.failUnlessEqual(spansU, MayaCmds.getAttr(name + '.spansU'))
self.failUnlessEqual(spansV, MayaCmds.getAttr(name + '.spansV'))
self.failUnlessEqual(minU, MayaCmds.getAttr(name + '.minValueU'))
self.failUnlessEqual(maxU, MayaCmds.getAttr(name + '.maxValueU'))
self.failUnlessEqual(minV, MayaCmds.getAttr(name + '.minValueV'))
self.failUnlessEqual(maxV, MayaCmds.getAttr(name + '.maxValueV'))
surfaceInfoNode = MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name + '.worldSpace',
surfaceInfoNode + '.inputSurface',
force=True)
controlPoints2 = MayaCmds.getAttr(surfaceInfoNode + '.controlPoints[*]')
self.failUnlessEqual(len(controlPoints), len(controlPoints2))
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = controlPoints2[i]
self.failUnlessAlmostEqual(cp1[0], cp2[0], 3, 'cp[%d].x not equal' % i)
self.failUnlessAlmostEqual(cp1[1], cp2[1], 3, 'cp[%d].y not equal' % i)
self.failUnlessAlmostEqual(cp1[2], cp2[2], 3, 'cp[%d].z not equal' % i)
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr('surfaceInfo1.knotsU[%d]' % i)
self.failUnlessAlmostEqual(ku1, ku2, 3,
'control knotsU # %d not equal' % i)
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr('surfaceInfo1.knotsV[%d]' % i)
self.failUnlessAlmostEqual(kv1, kv2, 3,
'control knotsV # %d not equal' % i)
def createControl(name="default",type="circle", axis="x", color="darkBlue", *args):
"""
creates control namemed by first arg, at origin.
shape is determined by second arg: "cube", "octagon", "sphere", "diamond", "barbell",
third arg can be 'x',, 'y', , 'z' and is the axis along which the control lies.
The colors are: 'lightBlue', 'darkGreen', 'lightPurple', 'yellow', 'darkPurple', 'pink', 'blue', 'purple', 'lightGreen', 'black', 'orange', 'white', 'darkYellow', 'brown', 'lightYellow', 'darkBlue', 'royalBlue', 'darkBrown', 'lightRed', 'medBlue', 'lightBrown', 'darkRed', 'yellowGreen', 'medGreen', 'green', 'red'
Arguments: name, type, axis, color
"""
colors = {}
colors["red"]=13
colors["blue"]=6
colors["green"]=14
colors["darkRed"]=4
colors["lightRed"]=31
colors["darkBlue"]=5
colors["medBlue"]=15
colors["lightBlue"]=18
colors["royalBlue"]=29
colors["darkGreen"]=7
colors["medGreen"]=27
colors["lightGreen"]=19
colors["yellowGreen"]=26
colors["yellow"]=17
colors["darkYellow"]=21
colors["lightYellow"]=22
colors["purple"]=30
colors["lightPurple"]=9
colors["darkPurple"]=8
colors["black"]=1
colors["white"]=16
colors["brown"]=10
colors["darkBrown"]=11
colors["lightBrown"]=24
colors["pink"]=20
colors["orange"] =12
#deal with axis, x is default
if axis == "x":
rot = (0, 0, 0)
elif axis == "y":
rot = (0, 0, 90)
elif axis =="z":
rot = (0, 90, 0)
else:
cmds.warning('createControl: you entered an incorrect axis. Must be x, y or z')
#-------------------------do this from dictionary, that way it's easier to control the flow to error or return
if type == "circle":
cmds.circle(n=name, nr= (1,0,0))
elif type == "cube":
cmds.curve(n=name, d=1, p=[[-0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, -1.0031016006564133]])
elif type == "octagon":
cmds.curve(n=name, d=1, p=[[-7.4559598726027055e-17, 0.70710670948028576, 0.70710670948028564], [5.5511098291698525e-17, 0.99999988079071067, 0.0], [-7.4559598726027055e-17, 0.70710670948028576, -0.70710670948028564], [-3.8857805861880489e-16, 1.7256332301709633e-31, -0.99999988079071045], [-7.0259651851158272e-16, -0.70710670948028576, -0.70710670948028564], [-8.326672684688675e-16, -1.0000000000000002, 0.0], [-7.0259654498136232e-16, -0.70710676908493053, 0.70710676908493042], [-3.8857805861880489e-16, 1.7256332301709633e-31, 0.99999994039535522], [-7.4559598726027055e-17, 0.70710670948028576, 0.70710670948028564]])
elif type == "barbell":
cmds.curve(n=name, d=3, p=[[0.57752510285324732, 5.5507632834890673e-17, -0.90650843775588597], [-2.9672778948456972e-16, 6.4094693518606145e-17, -1.661011590594498], [-0.57752510285324554, 5.550763283489071e-17, -0.90650843775588663], [-0.29814028408909887, 1.0540006765710255e-17, -0.67397322551417882], [-0.14033645814277884, -1.3393164286098273e-33, -2.7549060854235934e-16], [-0.29814028408909921, -1.0540006765710255e-17, 0.67397322551417838], [-0.57752510285324621, -5.5507632834890697e-17, 0.90650843775588641], [-6.6071759651022318e-16, -6.4094693518606133e-17, 1.6610115905944978], [0.57752510285324488, -5.550763283489074e-17, 0.90650843775588708], [0.29814028408909876, -1.0540006765710279e-17, 0.67397322551417937], [0.14033645814277884, -2.8148100723370156e-32, 8.7651446050535732e-16], [0.29814028408909921, 1.0540006765710236e-17, -0.6739732255141776]])
cmds.closeCurve(name, ch=False, ps=False, rpo=True, bki=True)
elif type == "sphere":
cmds.curve(n=name, d=1, p=[[0.0, 1.0, 0.0], [-0.382683, 0.92388000000000003, 0.0], [-0.70710700000000004, 0.70710700000000004, 0.0], [-0.92388000000000003, 0.382683, 0.0], [-1.0, 0.0, 0.0], [-0.92388000000000003, -0.382683, 0.0], [-0.70710700000000004, -0.70710700000000004, 0.0], [-0.382683, -0.92388000000000003, 0.0], [0.0, -1.0, 0.0], [0.382683, -0.92388000000000003, 0.0], [0.70710700000000004, -0.70710700000000004, 0.0], [0.92388000000000003, -0.382683, 0.0], [1.0, 0.0, 0.0], [0.92388000000000003, 0.382683, 0.0], [0.70710700000000004, 0.70710700000000004, 0.0], [0.382683, 0.92388000000000003, 0.0], [0.0, 1.0, 0.0], [0.0, 0.92388000000000003, 0.382683], [0.0, 0.70710700000000004, 0.70710700000000004], [0.0, 0.382683, 0.92388000000000003], [0.0, 0.0, 1.0], [0.0, -0.382683, 0.92388000000000003], [0.0, -0.70710700000000004, 0.70710700000000004], [0.0, -0.92388000000000003, 0.382683], [0.0, -1.0, 0.0], [0.0, -0.92388000000000003, -0.382683], [0.0, -0.70710700000000004, -0.70710700000000004], [0.0, -0.382683, -0.92388000000000003], [0.0, 0.0, -1.0], [0.0, 0.382683, -0.92388000000000003], [0.0, 0.70710700000000004, -0.70710700000000004], [0.0, 0.92388000000000003, -0.382683], [0.0, 1.0, 0.0], [-0.382683, 0.92388000000000003, 0.0], [-0.70710700000000004, 0.70710700000000004, 0.0], [-0.92388000000000003, 0.382683, 0.0], [-1.0, 0.0, 0.0], [-0.92388000000000003, 0.0, 0.382683], [-0.70710700000000004, 0.0, 0.70710700000000004], [-0.382683, 0.0, 0.92388000000000003], [0.0, 0.0, 1.0], [0.382683, 0.0, 0.92388000000000003], [0.70710700000000004, 0.0, 0.70710700000000004], [0.92388000000000003, 0.0, 0.382683], [1.0, 0.0, 0.0], [0.92388000000000003, 0.0, -0.382683], [0.70710700000000004, 0.0, -0.70710700000000004], [0.382683, 0.0, -0.92388000000000003], [0.0, 0.0, -1.0], [-0.382683, 0.0, -0.92388000000000003], [-0.70710700000000004, 0.0, -0.70710700000000004], [-0.92388000000000003, 0.0, -0.382683], [-1.0, 0.0, 0.0]])
elif type=="diamond":
cmds.curve(n=name, d=1, p=[[3.1401849173675503e-16, 0.70710678118654768, 1.1102230246251565e-16], [4.9303806576313238e-32, 1.1102230246251568e-16, -0.70710678118654757], [-3.1401849173675503e-16, -0.70710678118654768, -1.1102230246251565e-16], [-4.9303806576313238e-32, -1.1102230246251568e-16, 0.70710678118654757], [3.1401849173675503e-16, 0.70710678118654768, 1.1102230246251565e-16]])
else:
cmds.warning("createControl doesn't know shape - '%s'"%type)
#rotate to axis
cmds.select(name+".cv[*]")
cmds.rotate(rot[0], rot[1], rot[2], r=True)
cmds.select(cl=True)
shapes = cmds.listRelatives(name, shapes=True)
for shape in shapes:
cmds.setAttr("%s.overrideEnabled"%shape, 1)
cmds.setAttr("%s.overrideColor"%shape, colors[color])
#return the name of the curve
return(name)
def triangulate(self, outType="curves", timer=0):
"Makes all calculation. You can specify the output type (curves or faces) and if you want to set a timer to see consumed time in the operation"
#check if you want to display time consumed for the operation:
if timer: currTime = datetime.datetime.now()
#create an empty triangle list
triangles = []
#and en empty list to store vertexes in order
vertex = []
##we need to start with a supertriangle which encompasses all the points
##this is done by getting the minimum and maximum bounds of all points
##and by adding a triangle to the triangles list which is a tad bigger than this bounds
#copy the vertices list
vs = self.vertices
vertex.extend(vs)
#make a series of operations to find minimum and maximum x and y values
xmin = vs[0][0]
ymin = vs[0][1]
xmax = xmin
ymax = ymin
for i in range(self.numPoints):
if vs[i][0] < xmin: xmin = vs[i][0]
if vs[i][0] > xmax: xmax = vs[i][0]
if vs[i][1] < ymin: ymin = vs[i][1]
if vs[i][1] > ymax: ymax = vs[i][1]
#get min and max distances
dx = xmax-xmin
dy = ymax-ymin
if dx > dy:
dmax = dx
else:
dmax = dy
#get mid points of these distances
xmid = (xmax+xmin)/2
ymid = (ymax+ymin)/2
#calculate the coordinates of the vertices of the supertriangle
#and add them to the end of the vertex list
#and add this triangle to the triangles list (it is the first)
v1x = xmid - 2*dmax
v1y = ymid - dmax
vertex.append([v1x, v1y])
v2x = xmid
v2y = ymid + 2*dmax
vertex.append([v2x, v2y])
v3x = xmid + 2*dmax
v3y = ymid - dmax
vertex.append([v3x, v3y])
triangles.append([self.numPoints,self.numPoints+1,self.numPoints+2])
##having already one triangle in the triangles list, we can start adding points
##and re-triangulate everytime we need
#progress window > initialize before the loop
cmds.progressWindow(title='Creating Delaunay regions...', #here you input your message for the progress window/can be anything
minValue=0,
maxValue=self.numPoints, # this is imporant: when will the progress be 100%?
status='Points left: %d' % self.numPoints, # here is some status message /anything you want
isInterruptable=True )
#Include each point one at a time into the existing triangulations
for i in range(len(vertex)):
#if i is more than the original number of points, stop loop
#cos then it is a vertex of the supertriangle, and we don't need to calculate them
if i >= self.numPoints: break
#get current point i coordinates
p = vertex[i]
#Set up the edge buffer.
#If the point (x,y) lies inside the circumcircle formed by each triangle,
#then the three edges of that triangle are added to the edge buffer.
edges = []
#create a copy of the triangles list to loop through
tcopy = []
tcopy.extend(triangles)
#loop through the triangles to check the points
for t in tcopy:
#if the triangle is composed by the vertex in question (i), skip
if i in t: continue
#convert the triangle vertices to a list of coordinates
tri=[ [vertex[k][0], vertex[k][1]] for k in t ]
#check if the point i is in the circle formed by this triangle
ic = self.inCircle(point=[p[0], p[1]], triangle=tri)
if ic:
#in case ic == true:
#store the edges in the edges list
edges.append([t[0], t[1]])
edges.append([t[1], t[2]])
edges.append([t[2], t[0]])
#remove triangle from triangle list
triangles.remove(t)
#delete all duplicate edges from the edge buffer
#this leaves the edges of the enclosing polygon only
edges = removeDuplicates(edges)
#add to the triangle list all triangles formed between the point
#and the edges of the enclosing polygon (from the edge buffer
for j in range(len(edges)):
v1 = edges[j][0]
v2 = edges[j][1]
v3 = i
triangles.append([v1,v2,v3])
#update progress window
if cmds.progressWindow( query=True, isCancelled=True ) : break
cmds.progressWindow( edit=True, step=1, status=('Points left: %d' % (self.numPoints-i)) )
#end loop for vertices
###FINAL STEP
#now draw the triangles defined in the triangels list
for t in triangles:
#check if this triangle does not belong to the supertriangle,
#if it does, jump
if t[0] > self.numPoints-1 or t[1] > self.numPoints-1 or t[2] > self.numPoints-1: continue
#get coordinates of the triangle t
v1 = vertex[t[0]]
v2 = vertex[t[1]]
v3 = vertex[t[2]]
#see if all coordinates contain the Z value, if not, add z=0
if len(v1)==2: v1.append(0)
if len(v2)==2: v2.append(0)
if len(v3)==2: v3.append(0)
#draw the curve
crv = cmds.curve(p=[v1,v2,v3], d=1)
crv = cmds.closeCurve(crv, rpo=1)
#if outType is specified as "faces", draw the face
if outType == "faces": cmds.planarSrf(crv)
#to see in real time, uncomment the line below (increase operation time by circa 5 times)
#cmds.refresh(cv=1)
#end progress window
cmds.progressWindow(endProgress=1)
#feedback
print "Delaunay triangulations created successfully!"
print ">> %d points" % self.numPoints
print ">> %d triangles" % len(triangles)
#check if you want to see time consumed
if timer:
delta_t = datetime.datetime.now() - currTime
print ">> Time consumed: %s" % str(delta_t)
def createControl(name="default",type="circle", axis="x", color="darkBlue", *args):
"""
creates control namemed by first arg, at origin.
shape is determined by second arg: "cube", "octagon", "sphere", "diamond", "barbell",
third arg can be 'x',, 'y', , 'z' and is the axis along which the control lies.
The colors are: 'lightBlue', 'darkGreen', 'lightPurple', 'yellow', 'darkPurple', 'pink', 'blue', 'purple', 'lightGreen', 'black', 'orange', 'white', 'darkYellow', 'brown', 'lightYellow', 'darkBlue', 'royalBlue', 'darkBrown', 'lightRed', 'medBlue', 'lightBrown', 'darkRed', 'yellowGreen', 'medGreen', 'green', 'red'
Arguments: name, type, axis, color
"""
colors = {}
colors["red"]=13
colors["blue"]=6
colors["green"]=14
colors["darkRed"]=4
colors["lightRed"]=31
colors["darkBlue"]=5
colors["medBlue"]=15
colors["lightBlue"]=18
colors["royalBlue"]=29
colors["darkGreen"]=7
colors["medGreen"]=27
colors["lightGreen"]=19
colors["yellowGreen"]=26
colors["yellow"]=17
colors["darkYellow"]=21
colors["lightYellow"]=22
colors["purple"]=30
colors["lightPurple"]=9
colors["darkPurple"]=8
colors["black"]=1
colors["white"]=16
colors["brown"]=10
colors["darkBrown"]=11
colors["lightBrown"]=24
colors["pink"]=20
colors["orange"] =12
#deal with axis, x is default
if axis == "x":
rot = (0, 0, 0)
elif axis == "y":
rot = (0, 0, 90)
elif axis =="z":
rot = (0, 90, 0)
else:
cmds.warning('createControl: you entered an incorrect axis. Must be x, y or z')
#-------------------------do this from dictionary, that way it's easier to control the flow to error or return
if type == "circle":
ctrl = cmds.circle(n=name, nr= (1,0,0))
elif type == "cube":
ctrl = cmds.curve(n=name, d=1, p=[[-0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, 1.0031016006564133], [0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, 1.0031016006564133, -1.0031016006564133], [-0.34095753069042323, -1.0031016006564133, -1.0031016006564133], [0.34095753069042323, -1.0031016006564133, -1.0031016006564133]])
elif type == "octagon":
ctrl = cmds.curve(n=name, d=1, p=[[-7.4559598726027055e-17, 0.70710670948028576, 0.70710670948028564], [5.5511098291698525e-17, 0.99999988079071067, 0.0], [-7.4559598726027055e-17, 0.70710670948028576, -0.70710670948028564], [-3.8857805861880489e-16, 1.7256332301709633e-31, -0.99999988079071045], [-7.0259651851158272e-16, -0.70710670948028576, -0.70710670948028564], [-8.326672684688675e-16, -1.0000000000000002, 0.0], [-7.0259654498136232e-16, -0.70710676908493053, 0.70710676908493042], [-3.8857805861880489e-16, 1.7256332301709633e-31, 0.99999994039535522], [-7.4559598726027055e-17, 0.70710670948028576, 0.70710670948028564]])
elif type == "barbell":
ctrl = cmds.curve(n=name, d=3, p=[[0.57752510285324732, 5.5507632834890673e-17, -0.90650843775588597], [-2.9672778948456972e-16, 6.4094693518606145e-17, -1.661011590594498], [-0.57752510285324554, 5.550763283489071e-17, -0.90650843775588663], [-0.29814028408909887, 1.0540006765710255e-17, -0.67397322551417882], [-0.14033645814277884, -1.3393164286098273e-33, -2.7549060854235934e-16], [-0.29814028408909921, -1.0540006765710255e-17, 0.67397322551417838], [-0.57752510285324621, -5.5507632834890697e-17, 0.90650843775588641], [-6.6071759651022318e-16, -6.4094693518606133e-17, 1.6610115905944978], [0.57752510285324488, -5.550763283489074e-17, 0.90650843775588708], [0.29814028408909876, -1.0540006765710279e-17, 0.67397322551417937], [0.14033645814277884, -2.8148100723370156e-32, 8.7651446050535732e-16], [0.29814028408909921, 1.0540006765710236e-17, -0.6739732255141776]])
cmds.closeCurve(name, ch=False, ps=False, rpo=True, bki=True)
elif type == "sphere":
ctrl = cmds.curve(n=name, d=1, p=[[0.0, 1.0, 0.0], [-0.382683, 0.92388000000000003, 0.0], [-0.70710700000000004, 0.70710700000000004, 0.0], [-0.92388000000000003, 0.382683, 0.0], [-1.0, 0.0, 0.0], [-0.92388000000000003, -0.382683, 0.0], [-0.70710700000000004, -0.70710700000000004, 0.0], [-0.382683, -0.92388000000000003, 0.0], [0.0, -1.0, 0.0], [0.382683, -0.92388000000000003, 0.0], [0.70710700000000004, -0.70710700000000004, 0.0], [0.92388000000000003, -0.382683, 0.0], [1.0, 0.0, 0.0], [0.92388000000000003, 0.382683, 0.0], [0.70710700000000004, 0.70710700000000004, 0.0], [0.382683, 0.92388000000000003, 0.0], [0.0, 1.0, 0.0], [0.0, 0.92388000000000003, 0.382683], [0.0, 0.70710700000000004, 0.70710700000000004], [0.0, 0.382683, 0.92388000000000003], [0.0, 0.0, 1.0], [0.0, -0.382683, 0.92388000000000003], [0.0, -0.70710700000000004, 0.70710700000000004], [0.0, -0.92388000000000003, 0.382683], [0.0, -1.0, 0.0], [0.0, -0.92388000000000003, -0.382683], [0.0, -0.70710700000000004, -0.70710700000000004], [0.0, -0.382683, -0.92388000000000003], [0.0, 0.0, -1.0], [0.0, 0.382683, -0.92388000000000003], [0.0, 0.70710700000000004, -0.70710700000000004], [0.0, 0.92388000000000003, -0.382683], [0.0, 1.0, 0.0], [-0.382683, 0.92388000000000003, 0.0], [-0.70710700000000004, 0.70710700000000004, 0.0], [-0.92388000000000003, 0.382683, 0.0], [-1.0, 0.0, 0.0], [-0.92388000000000003, 0.0, 0.382683], [-0.70710700000000004, 0.0, 0.70710700000000004], [-0.382683, 0.0, 0.92388000000000003], [0.0, 0.0, 1.0], [0.382683, 0.0, 0.92388000000000003], [0.70710700000000004, 0.0, 0.70710700000000004], [0.92388000000000003, 0.0, 0.382683], [1.0, 0.0, 0.0], [0.92388000000000003, 0.0, -0.382683], [0.70710700000000004, 0.0, -0.70710700000000004], [0.382683, 0.0, -0.92388000000000003], [0.0, 0.0, -1.0], [-0.382683, 0.0, -0.92388000000000003], [-0.70710700000000004, 0.0, -0.70710700000000004], [-0.92388000000000003, 0.0, -0.382683], [-1.0, 0.0, 0.0]])
elif type=="diamond":
ctrl = cmds.curve(n=name, d=1, p=[[3.1401849173675503e-16, 0.70710678118654768, 1.1102230246251565e-16], [4.9303806576313238e-32, 1.1102230246251568e-16, -0.70710678118654757], [-3.1401849173675503e-16, -0.70710678118654768, -1.1102230246251565e-16], [-4.9303806576313238e-32, -1.1102230246251568e-16, 0.70710678118654757], [3.1401849173675503e-16, 0.70710678118654768, 1.1102230246251565e-16]])
else:
cmds.warning("createControl doesn't know shape - '%s'"%type)
#rotate to axis
cmds.select("{0}.cv[*]".format(ctrl))
cmds.rotate(rot[0], rot[1], rot[2], r=True)
cmds.select(cl=True)
shapes = cmds.listRelatives(ctrl, shapes=True)
for shape in shapes:
cmds.setAttr("%s.overrideEnabled"%shape, 1)
cmds.setAttr("%s.overrideColor"%shape, colors[color])
cmds.rename(shape, "{0}Shape".format(ctrl))
print "ctrl shape is: {0}".format(shape)
#return the name of the curve
return(ctrl)
(-0.575, 0.0, -0.102), (-0.568, 0.0, -0.102), (-0.521, 0.0, -0.102),
(-0.514, 0.0, -0.102), (-0.473, 0.0, -0.31), (-0.31, 0.0, -0.473),
(-0.102, 0.0, -0.514), (-0.102, 0.0, -0.521), (-0.102, 0.0, -0.568),
(-0.102, 0.0, -0.575), (-0.116, 0.0, -0.575), (-0.209, 0.0, -0.575),
(-0.223, 0.0, -0.575), (-0.198, 0.0, -0.618), (-0.024, 0.0, -0.917),
(0.0, 0.0, -0.96), (0.024, 0.0, -0.917), (0.198, 0.0, -0.618),
(0.223, 0.0, -0.575), (0.209, 0.0, -0.575), (0.116, 0.0, -0.575),
(0.102, 0.0, -0.575), (0.102, 0.0, -0.568), (0.102, 0.0, -0.521),
(0.102, 0.0, -0.514), (0.31, 0.0, -0.473), (0.473, 0.0, -0.31),
(0.514, 0.0, -0.102), (0.521, 0.0, -0.102), (0.568, 0.0, -0.102),
(0.575, 0.0, -0.102), (0.575, 0.0, -0.116), (0.575, 0.0, -0.209),
(0.575, 0.0, -0.223), (0.618, 0.0, -0.198)
]
master_crv = cmds.curve(name='master_crv', p=master_points)
cmds.closeCurve(ps=0, ch=0, rpo=1)
paintCurve('master_crv', c)
cmds.parent(master_crv, main_group)
master = BodyPart('master', c, 'master_crv')
# ROOT/HIP
# ----------------
root_crv = cmds.circle(name='root_center_crv', radius=0.18)
cmds.move(0, 1.102, 0)
cmds.rotate(90, 0, 0)
paintCurve('root_center_crv', c)
root_geo = cmds.polyCube(name='root_center_geo', sy=2, sx=2)
def triangulate(self, outType="curves", timer=0):
"Makes all calculation. You can specify the output type (curves or faces) and if you want to set a timer to see consumed time in the operation"
#check if you want to display time consumed for the operation:
if timer: currTime = datetime.datetime.now()
#create an empty triangle list
triangles = []
#and en empty list to store vertexes in order
vertex = []
##we need to start with a supertriangle which encompasses all the points
##this is done by getting the minimum and maximum bounds of all points
##and by adding a triangle to the triangles list which is a tad bigger than this bounds
#copy the vertices list
vs = self.vertices
vertex.extend(vs)
#make a series of operations to find minimum and maximum x and y values
xmin = vs[0][0]
ymin = vs[0][1]
xmax = xmin
ymax = ymin
for i in range(self.numPoints):
if vs[i][0] < xmin: xmin = vs[i][0]
if vs[i][0] > xmax: xmax = vs[i][0]
if vs[i][1] < ymin: ymin = vs[i][1]
if vs[i][1] > ymax: ymax = vs[i][1]
#get min and max distances
dx = xmax - xmin
dy = ymax - ymin
if dx > dy:
dmax = dx
else:
dmax = dy
#get mid points of these distances
xmid = (xmax + xmin) / 2
ymid = (ymax + ymin) / 2
#calculate the coordinates of the vertices of the supertriangle
#and add them to the end of the vertex list
#and add this triangle to the triangles list (it is the first)
v1x = xmid - 2 * dmax
v1y = ymid - dmax
vertex.append([v1x, v1y])
v2x = xmid
v2y = ymid + 2 * dmax
vertex.append([v2x, v2y])
v3x = xmid + 2 * dmax
v3y = ymid - dmax
vertex.append([v3x, v3y])
triangles.append(
[self.numPoints, self.numPoints + 1, self.numPoints + 2])
##having already one triangle in the triangles list, we can start adding points
##and re-triangulate everytime we need
#progress window > initialize before the loop
cmds.progressWindow(
title=
'Creating Delaunay regions...', #here you input your message for the progress window/can be anything
minValue=0,
maxValue=self.
numPoints, # this is imporant: when will the progress be 100%?
status='Points left: %d' %
self.numPoints, # here is some status message /anything you want
isInterruptable=True)
#Include each point one at a time into the existing triangulations
for i in range(len(vertex)):
#if i is more than the original number of points, stop loop
#cos then it is a vertex of the supertriangle, and we don't need to calculate them
if i >= self.numPoints: break
#get current point i coordinates
p = vertex[i]
#Set up the edge buffer.
#If the point (x,y) lies inside the circumcircle formed by each triangle,
#then the three edges of that triangle are added to the edge buffer.
edges = []
#create a copy of the triangles list to loop through
tcopy = []
tcopy.extend(triangles)
#loop through the triangles to check the points
for t in tcopy:
#if the triangle is composed by the vertex in question (i), skip
if i in t: continue
#convert the triangle vertices to a list of coordinates
tri = [[vertex[k][0], vertex[k][1]] for k in t]
#check if the point i is in the circle formed by this triangle
ic = self.inCircle(point=[p[0], p[1]], triangle=tri)
if ic:
#in case ic == true:
#store the edges in the edges list
edges.append([t[0], t[1]])
edges.append([t[1], t[2]])
edges.append([t[2], t[0]])
#remove triangle from triangle list
triangles.remove(t)
#delete all duplicate edges from the edge buffer
#this leaves the edges of the enclosing polygon only
edges = removeDuplicates(edges)
#add to the triangle list all triangles formed between the point
#and the edges of the enclosing polygon (from the edge buffer
for j in range(len(edges)):
v1 = edges[j][0]
v2 = edges[j][1]
v3 = i
triangles.append([v1, v2, v3])
#update progress window
if cmds.progressWindow(query=True, isCancelled=True): break
cmds.progressWindow(edit=True,
step=1,
status=('Points left: %d' %
(self.numPoints - i)))
#end loop for vertices
# FINAL STEP
# now draw the triangles defined in the triangels list
for t in triangles:
print(t)
#check if this triangle does not belong to the supertriangle,
#if it does, jump
if t[0] > self.numPoints - 1 or t[1] > self.numPoints - 1 or t[
2] > self.numPoints - 1:
continue
#get coordinates of the triangle t
v1 = vertex[t[0]]
v2 = vertex[t[1]]
v3 = vertex[t[2]]
#see if all coordinates contain the Z value, if not, add z=0
if len(v1) == 2: v1.append(0)
if len(v2) == 2: v2.append(0)
if len(v3) == 2: v3.append(0)
#draw the curve
crv = cmds.curve(p=[v1, v2, v3], d=1)
crv = cmds.closeCurve(crv, rpo=1)
#if outType is specified as "faces", draw the face
if outType == "faces": cmds.planarSrf(crv)
#to see in real time, uncomment the line below (increase operation time by circa 5 times)
#cmds.refresh(cv=1)
#end progress window
cmds.progressWindow(endProgress=1)
#feedback
print("Delaunay triangulations created successfully!")
print(">> %d points" % self.numPoints)
print(">> %d triangles" % len(triangles))
#check if you want to see time consumed
if timer:
delta_t = datetime.datetime.now() - currTime
print(">> Time consumed: %s" % str(delta_t))
def testStaticNurbsWithOneCloseCurveTrim(self, surfacetype, abcFileName,
trimtype):
if (surfacetype == 0):
ret = MayaCmds.nurbsPlane(p=(0, 0, 0), ax=(0, 1, 0), w=1, lr=1,
d=3, u=5, v=5, ch=0)
elif (surfacetype == 1):
ret = MayaCmds.sphere(p=(0, 0, 0), ax=(0, 1, 0), ssw=0, esw=360, r=1,
d=3, ut=0, tol=0.01, s=8, nsp=4, ch=0)
elif (surfacetype == 2):
ret = MayaCmds.torus(p=(0, 0, 0), ax=(0, 1, 0), ssw=0, esw=360,
msw=360, r=1, hr=0.5, ch=0)
name = ret[0]
MayaCmds.curveOnSurface(name, uv=((0.170718,0.565967),
(0.0685088,0.393034), (0.141997,0.206296), (0.95,0.230359),
(0.36264,0.441381), (0.251243,0.569889)),
k=(0,0,0,0.200545,0.404853,0.598957,0.598957,0.598957))
MayaCmds.closeCurve(name+'->curve1', ch=1, ps=1, rpo=1, bb=0.5, bki=0,
p=0.1, cos=1)
if trimtype == 0 :
MayaCmds.trim(name, lu=0.68, lv=0.39)
elif 1 :
MayaCmds.trim(name, lu=0.267062, lv=0.39475)
degreeU = MayaCmds.getAttr(name+'.degreeU')
degreeV = MayaCmds.getAttr(name+'.degreeV')
spansU = MayaCmds.getAttr(name+'.spansU')
spansV = MayaCmds.getAttr(name+'.spansV')
formU = MayaCmds.getAttr(name+'.formU')
formV = MayaCmds.getAttr(name+'.formV')
minU = MayaCmds.getAttr(name+'.minValueU')
maxU = MayaCmds.getAttr(name+'.maxValueU')
minV = MayaCmds.getAttr(name+'.minValueV')
maxV = MayaCmds.getAttr(name+'.maxValueV')
surfaceInfoNode = MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name+'.worldSpace', surfaceInfoNode+'.inputSurface',
force=True)
controlPoints = MayaCmds.getAttr(surfaceInfoNode+'.controlPoints[*]')
knotsU = MayaCmds.getAttr(surfaceInfoNode+'.knotsU[*]')
knotsV = MayaCmds.getAttr(surfaceInfoNode+'.knotsV[*]')
MayaCmds.AbcExport(j='-root %s -f %s' % (name, abcFileName))
MayaCmds.AbcImport(abcFileName, mode='open')
self.failUnlessEqual(degreeU, MayaCmds.getAttr(name+'.degreeU'))
self.failUnlessEqual(degreeV, MayaCmds.getAttr(name+'.degreeV'))
self.failUnlessEqual(spansU, MayaCmds.getAttr(name+'.spansU'))
self.failUnlessEqual(spansV, MayaCmds.getAttr(name+'.spansV'))
self.failUnlessEqual(minU, MayaCmds.getAttr(name+'.minValueU'))
self.failUnlessEqual(maxU, MayaCmds.getAttr(name+'.maxValueU'))
self.failUnlessEqual(minV, MayaCmds.getAttr(name+'.minValueV'))
self.failUnlessEqual(maxV, MayaCmds.getAttr(name+'.maxValueV'))
surfaceInfoNode = MayaCmds.createNode('surfaceInfo')
MayaCmds.connectAttr(name+'.worldSpace', surfaceInfoNode+'.inputSurface',
force=True)
controlPoints2 = MayaCmds.getAttr( surfaceInfoNode + '.controlPoints[*]')
self.failUnlessEqual(len(controlPoints), len(controlPoints2))
for i in range(0, len(controlPoints)):
cp1 = controlPoints[i]
cp2 = controlPoints2[i]
self.failUnlessAlmostEqual(cp1[0], cp2[0], 3, 'cp[%d].x not equal' % i)
self.failUnlessAlmostEqual(cp1[1], cp2[1], 3, 'cp[%d].y not equal' % i)
self.failUnlessAlmostEqual(cp1[2], cp2[2], 3, 'cp[%d].z not equal' % i)
for i in range(0, len(knotsU)):
ku1 = knotsU[i]
ku2 = MayaCmds.getAttr('surfaceInfo1.knotsU[%d]' % i)
self.failUnlessAlmostEqual(ku1, ku2, 3,
'control knotsU # %d not equal' % i)
for i in range(0, len(knotsV)):
kv1 = knotsV[i]
kv2 = MayaCmds.getAttr('surfaceInfo1.knotsV[%d]' % i)
self.failUnlessAlmostEqual(kv1, kv2, 3,
'control knotsV # %d not equal' % i)
def close(self):
"""Close this curve (slow)."""
cmds.closeCurve(self, replaceOriginal=True)
def closeCurve(*args, **kwargs):
res = cmds.closeCurve(*args, **kwargs)
if not kwargs.get('query', kwargs.get('q', False)):
res = _factories.maybeConvert(res, _general.PyNode)
return res