def reference_plane(flip, **kwargs):
"""
Creates reference planes based on kwargs and boolean "flip"
If height of image is greater than or equal to 700, scaleFactor of 0.25 is applied.
Kwargs -
axis - (1, 2, 3) for (X, Y, Z)
dict - image dictionary
term - search term
width - image width
height - image height
scaleFactor - 1*
Returns reference plane
"""
fallback_dict = {'path': "", "width": 0, "height": 0}
radio = kwargs.setdefault('axis')
image_dict = kwargs.setdefault('dict', fallback_dict)
name = kwargs.setdefault('term')+'_reference'
path = kwargs.setdefault('path', image_dict['path'])
material = create_material(path)
scale_factor = kwargs.setdefault('scaleFactor', 1)
dict_width = float(image_dict['width'])
dict_height = float(image_dict['height'])
width = kwargs.setdefault('width', dict_width)
height = kwargs.setdefault('height', dict_height)
print height
if height >= 700:
scale_factor = 0.25
width *= scale_factor
height *= scale_factor
if radio is 3:
plane = py.polyPlane(n=name, ax=(0, 0, 1), w=width, h=height, sx=1, sy=1)[0]
py.move(0, (0.5*height), 0, plane)
py.xform(plane, piv=(0, -0.5*height, 0))
elif radio is 2:
plane = py.polyPlane(n=name, ax=(0, 1, 0), w=width, h=height, sx=1, sy=1)[0]
else:
plane = py.polyPlane(n=name, ax=(1, 0, 0), w=width, h=height, sx=1, sy=1)[0]
py.move(0, (0.5*height), 0, plane)
py.xform(plane, piv=(0, -0.5*height, 0))
if flip is True:
py.setAttr(plane+'.scaleZ', -1)
apply_material(plane, material, freeze=True)
reference_layer(plane)
return plane
def FTM_createRulerPlane( control, axisPlane, isMainDirX, transformParent, dummyRulerTransform ): obj = pm.polyPlane( axis=axisPlane, ch=True, w=1, h=1, sx=1, sy=1 ) if isMainDirX == True: bDir = 'width' bSubDir = 'subdivisionsWidth' sDir = 'height' sSubDir = 'subdivisionsHeight' else: sDir = 'width' sSubDir = 'subdivisionsWidth' bDir = 'height' bSubDir = 'subdivisionsHeight' pm.connectAttr( control+'.controlSize2', obj[1]+'.'+bDir) pm.connectAttr( control+'.rulerDivisions2', obj[1]+'.'+bSubDir) pm.connectAttr( control+'.rulerSmallSize', obj[1]+'.'+sDir) shapeTransformDriver = dummyRulerTransform if shapeTransformDriver is None: shapeTransformDriver = obj[0] outShp = FTM_createTransformedGeometry(obj[0], 'outMesh', 'inMesh', shapeTransformDriver ) #shps = pm.listRelatives(obj[0],s=True) pm.connectAttr( control+'.rulerDisplay', outShp+'.visibility') pm.setAttr(outShp+'.template', 1) if transformParent is None: pm.parent(obj[0], control) return obj[0] else: pm.parent(outShp,transformParent, add=True, s=True) pm.delete( obj[0] )
def setUp(self):
self.mf = mf.MatchingFaces()
pm.newFile(f=True)
self.res = 10
# Two overlapping planes
self.p1 = pm.polyPlane(n='plane1', sx=self.res, sy=self.res)[0]
self.p2 = pm.polyPlane(n='plane2', sx=self.res, sy=self.res)[0]
self.p3 = pm.polyPlane(n='plane3', sx=self.res, sy=self.res)[0]
self.p1 = pm.PyNode(self.p1)
self.p2 = pm.PyNode(self.p2)
self.p3 = pm.PyNode(self.p3)
# Non-overlapping plane
pm.move(1, 1, 1, self.p3)
def _createRefPlanes(self):
self.refPlaneRootGrp = pm.group(n='refPlaneRoot_grp', empty=True)
self.baseGeoBoundingBox = self.baseGeo.getBoundingBox(space='world')
boundingBoxWidth = self.baseGeoBoundingBox.width()
boundingBoxHeight = self.baseGeoBoundingBox.height()
self.centerPlane = pm.polyPlane(n='centerPlane', w=boundingBoxWidth, h=boundingBoxHeight, sw=1, sh=1, axis=[1, 0, 0], ch=False)[0]
self.leftBorderPlane = self.centerPlane.duplicate(n='leftBorderPlane')[0]
self.rightBorderPlane = self.centerPlane.duplicate(n='rightBorderPlane')[0]
self.refPlaneRootGrp | self.centerPlane
self.centerPlane | self.leftBorderPlane
self.centerPlane | self.rightBorderPlane
self.refPlaneRootGrp.setTranslation(self.targetGeo.getBoundingBox(space='world').center())
self.centerPlane.translate.set(0, 0, 0)
pm.parentConstraint(self.outGeo, self.refPlaneRootGrp, mo=True)
leftBorderPlaneInvXMul = pm.createNode('multiplyDivide', n='leftBorderPlaneInvX_mul')
leftBorderPlaneInvXMul.input2X.set(-1)
self.leftBorderPlane.translateX >> leftBorderPlaneInvXMul.input1X
leftBorderPlaneInvXMul.outputX >> self.rightBorderPlane.translateX
borderMargin = 0.1
self.leftBorderPlane.translateX.set(boundingBoxWidth/2 + borderMargin)
def test_apply_dict(self):
# New scene
pm.newFile(f=True)
# Create plane and ncloth
self.plane = pm.polyPlane()[0]
pm.select(self.plane, r=1)
nClothCreate()
self.ncloth = pm.PyNode('nCloth1')
self.nucleus = pm.PyNode('nucleus1')
d = {'bounce': 3.0, 'evaluationOrder': 1}
ims.apply_dict(self.ncloth, d)
self.assertEqual(self.ncloth.getShape().bounce.get(), 3.0)
self.assertEqual(self.ncloth.getShape().evaluationOrder.get(), 1)
d = {'planeNormal': (0.0, 0.0, 1.0)}
ims.apply_dict(self.nucleus, d)
self.assertEqual(self.nucleus.planeNormal.get(), (0.0, 0.0, 1.0))
def test_apply_dict(self):
# New scene
pm.newFile(f=True)
# Create plane and ncloth
self.plane = pm.polyPlane()[0]
pm.select(self.plane, r=1)
nClothCreate()
self.ncloth = pm.PyNode('nCloth1')
self.nucleus = pm.PyNode('nucleus1')
d = {'bounce': 3.0,
'evaluationOrder': 1}
ims.apply_dict(self.ncloth, d)
self.assertEqual(self.ncloth.getShape().
bounce.get(), 3.0)
self.assertEqual(self.ncloth.getShape().
evaluationOrder.get(), 1)
d = {'planeNormal': (0.0, 0.0, 1.0)}
ims.apply_dict(self.nucleus, d)
self.assertEqual(self.nucleus.planeNormal.get(), (0.0, 0.0, 1.0))
def addShadowPlane(self):
print 'Creating the shadow plane'
shadowPlane = pm.polyPlane(n='shadowPlane',
w=10,
h=10,
sx=1,
sy=1,
ax=(0, 1, 0),
cuv=2,
ch=0)
shadowJoint = pm.joint(n='shadowJoint')
pm.skinCluster(shadowJoint, shadowPlane)
root = pm.ls("Root", type='joint')[0]
pm.parent(shadowJoint, root)
# rig the plane
hips = pm.ls("Hips", type='joint')[0]
leftFoot = pm.ls("LeftFoot", type='joint')[0]
rightFoot = pm.ls("RightFoot", type='joint')[0]
pm.pointConstraint(hips, shadowJoint, mo=0, skip='y')
pm.pointConstraint(leftFoot, shadowJoint, mo=0, skip='y')
pm.pointConstraint(rightFoot, shadowJoint, mo=0, skip='y')
# default T pose Y value for the hips will be stored as reference
# pm.addAttr(hips, ln = 'startY',t = 'double')
hipsY = hips.getTranslation(space='world').y
# pm.setAttr(hips.name() + '.startY',hipsY)
shadowPlaneRV = pm.createNode('remapValue', n='shadowPlane_RV')
shadowPlaneRV.imx.set(hipsY * 2.0)
shadowPlaneRV.outputMin.set(2.0)
shadowPlaneRV.outputMax.set(0)
hips.translateY.connect(shadowPlaneRV.inputValue)
shadowPlaneRV.outValue.connect(shadowJoint.scaleX)
shadowPlaneRV.outValue.connect(shadowJoint.scaleY)
shadowPlaneRV.outValue.connect(shadowJoint.scaleZ)
shadowPlaneCgfx = self.importCgfxShader()
shadowPlaneCgfx.rename('shadowPlane_cgfx')
shadowPlaneSg = pm.listConnections('%s.outColor' % shadowPlaneCgfx)[0]
shadowPlaneSg.rename('shadowPlane_cgfxSG')
shadowPlaneTxt = pm.shadingNode('file',
asTexture=1,
name='shadowPlane_file')
shadowPlaneTxt.fileTextureName.set(
'sourceimages\\groundshadow_diffusecolor.tga')
shadowPlaneTxt.outColor.connect(shadowPlaneCgfx.diffuseMapSampler)
pm.select(shadowPlane)
pm.mel.eval('sets -e -forceElement ' + shadowPlaneSg)
print 'Shadow plane created!!'
def buildJacket(): planeBack = pm.polyPlane( width=jacketBack, height=paperLength, subdivisionsX=paperSubdivisionsX, subdivisionsY=paperSubdivisionsY, axis=(0, 1, 0), createUVs=UVnormalized, ch=1, name="planeBack" ) planeLeft = pm.polyPlane( width=paperWidth, height=paperLength, subdivisionsX=jointNumber, subdivisionsY=paperSubdivisionsY, axis=(1, 0, 0), createUVs=UVnormalized, ch=1, name="planeLeft" ) pm.move(planeLeft, (((jacketBack/2)*-1),paperLength/2,0)) planeRight = pm.polyPlane( width=paperWidth, height=paperLength, subdivisionsX=jointNumber, subdivisionsY=paperSubdivisionsY, axis=(1, 0, 0), createUVs=UVnormalized, ch=1, name="planeRight" ) pm.move(planeRight, (((jacketBack/2)),paperLength/2,0)) jacket = pm.polyUnite(planeBack, planeRight, planeLeft, ch=0, name="jacket_geo") pm.select(cl=1) return jacket
def randPrims(numPrims, maxSize, minX, maxX, minY, maxY, minZ, maxZ, minSize=0.1): prims = [] for m in range(numPrims): # roll a random whole number between 0 to 4: p = random.randrange(0,5) if p == 0: # roll a random number between 0 and max sizes for all parameters radiusSphere = random.uniform(minSize, maxSize) x = random.uniform(minX, maxX) y = random.uniform(minY, maxY) z = random.uniform(minZ, maxZ) # store the object in a variable temporarily so it's easier to append it to the list n = pm.polySphere(r=radiusSphere)[0] pm.move(n, x, y, z) prims.append(n) # create elif statements in case we roll 1, 2, 3 or 4 elif p == 1: volCube = random.uniform(minSize, maxSize) x = random.uniform(minX, maxX) y = random.uniform(minY, maxY) z = random.uniform(minZ, maxZ) n = pm.polyCube(w=volCube, h=volCube, d=volCube)[0] pm.move(n, x, y, z) prims.append(n) elif p == 2: radiusCyl = random.uniform(minSize, maxSize) heightCyl = random.uniform(minSize, maxSize) x = random.uniform(minX, maxX) y = random.uniform(minY, maxY) z = random.uniform(minZ, maxZ) n = pm.polyCylinder(h=heightCyl, r=radiusCyl)[0] pm.move(n, x, y, z) prims.append(n) elif p == 3: radiusCone = random.uniform(minSize, maxSize) heightCone = random.uniform(minSize, maxSize) x = random.uniform(minX, maxX) y = random.uniform(minY, maxY) z = random.uniform(minZ, maxZ) n = pm.polyCone(h=heightCone, r=radiusCone)[0] pm.move(n, x, y, z) prims.append(n) elif p == 4: widthPlane = random.uniform(minSize, maxSize) heightPlane = random.uniform(minSize, maxSize) x = random.uniform(minX, maxX) y = random.uniform(minY, maxY) z = random.uniform(minZ, maxZ) n = pm.polyPlane(h=heightPlane, w=widthPlane)[0] pm.move(n, x, y, z) prims.append(n) return prims
def create_mirror_plane():
# returns transform node
plane = pm.polyPlane(name='MirrorToolPlane',
axis=(1.0, 0.0, 0.0),
subdivisionsHeight=1,
subdivisionsWidth=1,
height=100,
width=100)[0]
return plane
def makePlane(point, name= "temp") :
if len(point) != 4 :
print "4つの座標を入力してください(makePlane)"
pl = pm.polyPlane(n = name, sx=1, sy=1)
pm.move(pl[0].vtx[0],[point[0][0],point[0][1],point[0][2]])
pm.move(pl[0].vtx[1],[point[1][0],point[1][1],point[1][2]])
pm.move(pl[0].vtx[3],[point[2][0],point[2][1],point[2][2]])
pm.move(pl[0].vtx[2],[point[3][0],point[3][1],point[3][2]])
return pl[0]
def create_guide(self, parent):
if self.options.use_nurbs:
xform, _ = pm.nurbsPlane(p=[0, 0, 0],
ax=[0, 0, 1],
w=1,
lr=1,
d=3,
u=1,
v=1,
ch=1)
else:
# -- Create the mesh
xform, _ = pm.polyPlane(
w=1,
h=1,
sx=1,
sy=1,
ax=[0, 1, 0],
cuv=2,
ch=1,
)
# -- Clear all history
pm.delete(xform, constructionHistory=True)
# -- Re-get the surface, as we're not working with a polyPlane any longer
# -- but instead a mesh shape
surface = xform.getShape()
# -- Parent the surface under guide root
xform.setParent(parent)
# -- Tag the surface so we can retrieve it later
self.tag(xform, 'GuideSurface')
# -- Now create the follicle
follicle = self.create_follicle(
description='Guide{}'.format(self.options.description),
side=self.options.side,
parent=parent,
surface=surface,
u=0.5,
v=0.5,
)
follicle.visibility.set(False)
# -- Tag the surface so we can retrieve it later
self.tag(follicle, 'GuideFollicle')
return True
def createPreviewGrid( gridScale=1000):
mesh = pm.polyPlane(sh=10,sw=10)
mesh[0].s.set(gridScale,gridScale,gridScale) #그리드 하나당 1m
mesh[0].getShape().overrideEnabled.set(True)
mesh[0].getShape().overrideDisplayType.set(1) # 템플릿
mesh[0].getShape().instObjGroups.disconnect()
pm.polyDelEdge( [mesh[0].e[11], mesh[0].e[32], mesh[0].e[53], mesh[0].e[74], mesh[0].e[95], mesh[0].e[105], mesh[0].e[107], mesh[0].e[109], mesh[0].e[111], mesh[0].e[113], mesh[0].e[115:117], mesh[0].e[119], mesh[0].e[121], mesh[0].e[123], mesh[0].e[137], mesh[0].e[158], mesh[0].e[179], mesh[0].e[200]], cv=True, ch=1 )
mesh2 = pm.polyPlane(sh=2,sw=2,h=1.005,w=1.005)
#mesh2[0].s.set(gridScale,gridScale,gridScale) #그리드 하나당 1m
mesh2[0].getShape().overrideEnabled.set(True)
mesh2[0].getShape().overrideDisplayType.set(2) # 템플릿
mesh2[0].getShape().instObjGroups.disconnect()
pm.parent( mesh2[0].getShape(), mesh[0], s=True, r=True )
pm.delete( mesh2[0] )
mesh[0].rename('previewGrid_10mx10m')
if pm.objExists('Hips'):
pm.delete( pm.pointConstraint('Hips',mesh[0]) )
mesh[0].ty.set(0)
def test_getCenters(self):
p1 = pm.polyPlane(n='plane1', sx=1, sy=1)[0]
p2 = pm.polyPlane(n='plane2', sx=2, sy=2)[0]
expected1 = [pm.dt.Point(0, 0, 0)]
expected2 = [
pm.dt.Point(0.25, 0.0, 0.25),
pm.dt.Point(0.25, 0.0, -0.25),
pm.dt.Point(-0.25, 0.0, -0.25),
pm.dt.Point(-0.25, 0.0, 0.25)
]
faces1 = [p1.f]
faces2 = p2.f
centers1 = self.mf._getCenters(faces1)
centers2 = self.mf._getCenters(faces2)
self.assertListEqual(expected1, centers1)
# Crappy test, but asserting points almost
# equal each other is a pain in the ass...
exp2 = []
for p in expected2:
exp2.append(p.x)
exp2.append(p.y)
exp2.append(p.z)
cent2 = []
for p in centers2:
cent2.append(p.x)
cent2.append(p.y)
cent2.append(p.z)
exp2.sort()
cent2.sort()
for x, y in zip(exp2, cent2):
self.assertAlmostEqual(x, y)
def setUp(self):
# New scene
pm.newFile(f=True)
# Get ncloth attributes from file
self.ncloth_attrs = []
self.ncloth_attrsFile = os.path.dirname(__file__).\
replace('tests', 'tool')
self.ncloth_attrsFile = self.ncloth_attrsFile + \
os.sep + 'ncloth_attrs.txt'
if not os.path.exists(self.ncloth_attrsFile):
msg = 'File not found: ', self.ncloth_attrsFile
raise Exception(msg)
f = open(self.ncloth_attrsFile, 'r')
self.ncloth_attrs = f.readlines()
f.close()
# Get nucleus attributes from file
self.nucleus_attrs = []
self.nucleus_attrsFile = os.path.dirname(__file__).\
replace('tests', 'tool')
self.nucleus_attrsFile = self.nucleus_attrsFile + \
os.sep + 'nucleus_attrs.txt'
if not os.path.exists(self.nucleus_attrsFile):
msg = 'File not found: ', self.nucleus_attrsFile
raise Exception(msg)
f = open(self.nucleus_attrsFile, 'r')
self.nucleus_attrs = f.readlines()
f.close()
# Create plane and ncloth
self.plane = pm.polyPlane()[0]
pm.select(self.plane, r=1)
nClothCreate()
self.ncloth = pm.PyNode('nCloth1')
self.nucleus = pm.PyNode('nucleus1')
# Create expected name
now = datetime.now()
self.name = self.ncloth.name() + '_' + \
str(now.year) + '-' + str(now.month) + '-' + \
str(now.day) + '_' + \
str(now.hour) + '-' + str(now.minute)
def setUp(self):
# New scene
pm.newFile(f=True)
# Get ncloth attributes from file
self.ncloth_attrs = []
self.ncloth_attrsFile = os.path.dirname(__file__).\
replace('tests', 'tool')
self.ncloth_attrsFile = self.ncloth_attrsFile + \
os.sep + 'ncloth_attrs.txt'
if not os.path.exists(self.ncloth_attrsFile):
msg = 'File not found: ', self.ncloth_attrsFile
raise Exception(msg)
f = open(self.ncloth_attrsFile, 'r')
self.ncloth_attrs = f.readlines()
f.close()
# Get nucleus attributes from file
self.nucleus_attrs = []
self.nucleus_attrsFile = os.path.dirname(__file__).\
replace('tests', 'tool')
self.nucleus_attrsFile = self.nucleus_attrsFile + \
os.sep + 'nucleus_attrs.txt'
if not os.path.exists(self.nucleus_attrsFile):
msg = 'File not found: ', self.nucleus_attrsFile
raise Exception(msg)
f = open(self.nucleus_attrsFile, 'r')
self.nucleus_attrs = f.readlines()
f.close()
# Create plane and ncloth
self.plane = pm.polyPlane()[0]
pm.select(self.plane, r=1)
nClothCreate()
self.ncloth = pm.PyNode('nCloth1')
self.nucleus = pm.PyNode('nucleus1')
# Create expected name
now = datetime.now()
self.name = self.ncloth.name() + '_' + \
str(now.year) + '-' + str(now.month) + '-' + \
str(now.day) + '_' + \
str(now.hour) + '-' + str(now.minute)
def _createRenderProxy( self, args ):
mel.eval('setCurrentRenderer mentalRay')
self.scene_name = mel.eval('file -q -sn -shn')
for hi in args:
if len(hi.split('|')) > 1 :
hi=hi.split('|')[-1]
#If the path doesn't exist for the file, create it.
bipx_path = self._getBipxPath()
if not os.path.exists(bipx_path):
os.makedirs(bipx_path)
#create the low geometry to take the proxy
lo_proxy_name = hi+'_PROXY'
lo = pm.polyPlane(w=1,h=1,sx=1,sy=1,ax=(0,1,0),cuv=2,ch=0,n=lo_proxy_name)[0]
#Create the bipx if necessary
bipx_name = hi+'_BINPROXY'
if pm.objExists(bipx_name): bipx = pm.PyNode(bipx_name)
else: bipx = pm.createNode('mip_binaryproxy', n=bipx_name)
#turn the lo geometry shader on
lo.miExportGeoShader.set(1)
#connect the proxy to the lo's geo shader
bipx.outValue.connect(lo.miGeoShader, f=True)
#connect the hi to the proxy and set the write to 1 and set the file path
hi.message.connect(bipx.geometry, f=True)
bipx.write_geometry.set(1)
bipx_filePath = bipx_path+hi+"_BINPROXY.mib"
bipx.object_filename.set(bipx_filePath)
#set the resolution width/height and store the originals to reset later
res_wh = [pm.getAttr("defaultResolution.width"), pm.getAttr("defaultResolution.height")]
pm.setAttr("defaultResolution.width", 5)
pm.setAttr("defaultResolution.height", 5)
#Perform a render, make the render globals really small square then reset after
print ("Creating a file for object: %s" % (bipx_filePath))
mel.eval("renderWindowRender redoPreviousRender renderView;")
try:
with open(bipx_filePath):
print 'File created Successfully.'
except IOError:
print 'Oh dear.'
pm.setAttr("defaultResolution.width", res_wh[0])
pm.setAttr("defaultResolution.height", res_wh[1])
bipx.write_geometry.set(0)
hi.message.disconnect(bipx.geometry)
def createPaper(pageName):
paper = pm.polyPlane(
width=paperWidth,
height=paperLength,
subdivisionsX=paperSubdivisionsX,
subdivisionsY=paperSubdivisionsY,
axis=(1, 0, 0),
createUVs=UVnormalized,
ch=1,
name=pageName+"_paper_geo"
)
pm.move(paper, 0, paperLength/2, 0)
pm.select(cl=1)
return paper
def create_colorchecker(name):
'''
Creates three spheres (white, 50% grey and chrome ball) and a colorchecker/Macbeth chart
Args:
name(String): Name of the object
Returns:
colorchecker
'''
colorchart = pm.polyPlane(name='%s:colorchart_geo' % NAMESPACE,
width=35.83,
height=25.25,
axis=(0, 0, 1),
constructionHistory=False)[0]
return colorchart
def addShadowPlane(self):
print 'Creating the shadow plane'
shadowPlane = pm.polyPlane( n='shadowPlane', w=10 , h=10, sx=1, sy= 1, ax=( 0, 1, 0),cuv = 2, ch = 0)
shadowJoint = pm.joint(n='shadowJoint')
pm.skinCluster(shadowJoint,shadowPlane)
root = pm.ls("Root",type='joint')[0]
pm.parent(shadowJoint,root)
#rig the plane
hips = pm.ls("Hips",type='joint')[0]
leftFoot = pm.ls("LeftFoot",type='joint')[0]
rightFoot = pm.ls("RightFoot",type='joint')[0]
pm.pointConstraint(hips,shadowJoint,mo=0,skip='y')
pm.pointConstraint(leftFoot,shadowJoint,mo=0,skip='y')
pm.pointConstraint(rightFoot,shadowJoint,mo=0,skip='y')
#default T pose Y value for the hips will be stored as reference
#pm.addAttr(hips, ln = 'startY',t = 'double')
hipsY = hips.getTranslation(space='world').y
#pm.setAttr(hips.name() + '.startY',hipsY)
shadowPlaneRV = pm.createNode('remapValue', n ='shadowPlane_RV')
shadowPlaneRV.imx.set(hipsY * 2.0)
shadowPlaneRV.outputMin.set(2.0)
shadowPlaneRV.outputMax.set(0)
hips.translateY.connect(shadowPlaneRV.inputValue)
shadowPlaneRV.outValue.connect(shadowJoint.scaleX)
shadowPlaneRV.outValue.connect(shadowJoint.scaleY)
shadowPlaneRV.outValue.connect(shadowJoint.scaleZ)
shadowPlaneCgfx = self.importCgfxShader()
shadowPlaneCgfx.rename('shadowPlane_cgfx')
shadowPlaneSg = pm.listConnections('%s.outColor'%shadowPlaneCgfx)[0]
shadowPlaneSg.rename('shadowPlane_cgfxSG')
shadowPlaneTxt = pm.shadingNode('file',asTexture=1,name='shadowPlane_file')
shadowPlaneTxt.fileTextureName.set('sourceimages\\groundshadow_diffusecolor.tga')
shadowPlaneTxt.outColor.connect(shadowPlaneCgfx.diffuseMapSampler)
pm.select(shadowPlane)
pm.mel.eval('sets -e -forceElement ' + shadowPlaneSg)
print 'Shadow plane created!!'
def _testSwap(self, func, swap):
global denormalized_skin
denormalized_skin = func
joints = [
pmc.joint(p=(-3.0, 0.0,-12.0)),
pmc.joint(p=(-3.0, 0.0, -5.0)),
pmc.joint(p=(1.0, 0.0, 5.5)),
pmc.joint(p=(6.0, 0.0, 10.0))]
plane = pmc.polyPlane(w=20.0,h=20.0,sx=25,sy=25)[0]
cl = pmc.skinCluster(joints, plane)[0]
def getweight(ind):
return pmc.skinPercent(cl, plane.vtx[0], q=True, t=joints[ind])
self.assertEqual(getweight(0), 0.0)
self.assertEqual(getweight(1), 0.5)
swap(cl, plane.vtx[0], joints[0], joints[1])
self.assertEqual(getweight(0), 0.5)
self.assertEqual(getweight(1), 0.0)
def polySkeleton(cards=None):
''' Make cylinders to represent a skeleton (for use in zbrush).
'''
if not cards:
cards = core.find.blueprintCards()
jointGroup = group(em=True, n='jointGroup')
# Make cylinders to represent joints
made = {}
for card in cards:
for j in card.joints:
p = j.parent
if p:
bone = makeFakeBone()
pdil.dagObj.moveTo(bone, p)
s = pdil.dagObj.distanceBetween(j, p) * 0.5
bone.sy.set(s)
delete(aimConstraint(j, bone, aim=(0, 1, 0), u=(0, 0, 1)))
makeIdentity(bone, apply=True, s=True)
made[j] = bone
# Setup fake joints parentage since they all exist
for j, bone in made.items():
p = j.parent
if p in made:
bone.setParent( made[p] )
else:
bone.setParent( jointGroup )
# Make polygon cards
cardGroup = group(em=True, n='jointGroup')
for card in cards:
points = [ xform( x, q=True, ws=True, t=True) for x in card.cv ]
poly = polyPlane(sh=True, sw=True)[0]
poly.setParent(cardGroup)
pdil.dagObj.matchTo(poly, card)
for p, v in zip(points, poly.vtx):
xform(v, ws=True, t=p)
def createCamSolidBG( camera=None ):
'''
카메라 백으로 사용할 솔리드한 Plane을 세움,
카메라 이름을 명시하거나, 모델패털을 포커스한 상태에서 실행.
Version : 2015-02-24
>>> camSolidBG()
(nt.Transform(u'persp_camSolidBG_grp'), nt.Transform(u'persp_camSolidBG_mesh'), nt.SurfaceShader(u'persp_camSolidBG_surfaceShader'), nt.ShadingEngine(u'persp_camSolidBG_SG'))
>>> camSolidBG( camera='side' )
(nt.Transform(u'side_camSolidBG_grp'), nt.Transform(u'side_camSolidBG_mesh'), nt.SurfaceShader(u'side_camSolidBG_surfaceShader'), nt.ShadingEngine(u'side_camSolidBG_SG'))
'''
if not camera:
camera = pm.modelPanel( pm.playblast(activeEditor=True).split('|')[-1], q=True, camera=True )
mesh = pm.polyPlane(sh=1, sw=1, ch=False)[0]
grp = pm.group()
pm.parentConstraint(camera, grp)
mesh.t.set(0,0,-500)
mesh.r.set(90,0,0)
mesh.s.set(150,150,150)
shader, SG = pm.createSurfaceShader('surfaceShader')
shader.outColor.set(0.5,0.5,0.5)
pm.select(mesh)
pm.hyperShade(assign=shader)
mesh.castsShadows.set(False)
mesh.receiveShadows.set(False)
mesh.motionBlur.set(False)
mesh.smoothShading.set(False)
mesh.visibleInReflections.set(False)
mesh.visibleInRefractions.set(False)
grp. rename('%s_camSolidBG_grp' % camera)
mesh. rename('%s_camSolidBG_mesh' % camera)
shader.rename('%s_camSolidBG_surfaceShader' % camera)
SG. rename('%s_camSolidBG_SG' % camera)
return grp, mesh, shader, SG
def _testSwap(self, func, swap):
global denormalized_skin
denormalized_skin = func
joints = [
pmc.joint(p=(-3.0, 0.0, -12.0)),
pmc.joint(p=(-3.0, 0.0, -5.0)),
pmc.joint(p=(1.0, 0.0, 5.5)),
pmc.joint(p=(6.0, 0.0, 10.0))
]
plane = pmc.polyPlane(w=20.0, h=20.0, sx=25, sy=25)[0]
cl = pmc.skinCluster(joints, plane)[0]
def getweight(ind):
return pmc.skinPercent(cl, plane.vtx[0], q=True, t=joints[ind])
self.assertEqual(getweight(0), 0.0)
self.assertEqual(getweight(1), 0.5)
swap(cl, plane.vtx[0], joints[0], joints[1])
self.assertEqual(getweight(0), 0.5)
self.assertEqual(getweight(1), 0.0)
def paperbloc_base(w, d, h, name):
name_fill = name + '_fill'
d = d
w = w
h = h
sw = floatToInt(w)
sh = floatToInt(h)
sd = floatToInt(d)
bloc = pmc.polyCube(n=name + '__temp', w=w, d=d, h=h, sx=sw, sz=sd, sy=sh)
fill = pmc.polyPlane(n=name_fill + '__temp', w=w, h=d, sx=sw, sy=sd)
fCount = pmc.polyEvaluate(bloc[0], f=True)
sel = pmc.select(bloc[0].f + '[0:' + str(fCount) + ']')
pmc.move(h / 2, y=True, r=True)
pmc.select(cl=True)
sel = pmc.ls(fill[0], bloc[0])
return sel
def create_plane(normal=[0,1,0]):
normal_x = normal[0]
normal_y = normal[1]
normal_z = normal[2]
transform, polyPlane = pymel.polyPlane(sx=1, sy=1)
shape = transform.getShape()
# There's no parameter to re-orient a plane so we'll move all of it's vertices if needed.
pymel.delete(polyPlane)
offset_tm = None
if normal_x != 0.0:
offset_tm = pymel.datatypes.Matrix([[0,1,0,0], [1,0,0,0], [0,0,-normal_x,0], [0,0,0,1]]) #X
elif normal_y != 0.0:
offset_tm = pymel.datatypes.Matrix([[normal_y,0,0,0], [0,1,0,0], [0,0,1,0], [0,0,0,1]]) #Y
elif normal_z != 0.0:
offset_tm = pymel.datatypes.Matrix([[1,0,0,0], [0,0,1,0], [0,-normal_z,0,0], [0,0,0,1]]) #Z
for v in shape.vtx:
v.setPosition(v.getPosition() * offset_tm)
return transform
def create_cloth_flap(flap, subdivisions_width=1, subdivisions_height=1):
'''
Create flap geometry that will be used for nCloth simulation.
:param flap: Flap object that will later be wrap deformed
:param subdivisions_width: Number of subdivisions along X-axis
:param subdivisions_height: Number of subdivisions in Y-axis
'''
bounds = flap.boundingBox()
plane, plane_shape = pm.polyPlane(
width=bounds.width(),
height=bounds.height(),
sx=subdivisions_width,
sy=subdivisions_height,
axis=[0, 0, 1],
cuv=1,
)
plane.setTranslation(bounds.center())
pm.makeIdentity(plane, apply=True, t=True, r=True, s=True, n=False)
plane.setPivots([0, 0, 0])
return plane
def create_ratio_plane(file_node, name, flag_alpha, mult):
"""
-gets a file node and creates a poly plane with the file node image proportions
-calls the method create_lambert_mtl() to create a lambert shader and connects the file node to it
-assigns the shader to the plane
:param file_node: a PyNode, file node
:param name: a string, the name for the nodes creation
:param flag_alpha: a flag, indicates if to connect the transparency as well
:param mult: a float, if not None - used as a uniform multiplier for the plane proportions in creation
:return: a PyNode, poly plane
"""
size_x = file_node.osx.get()
size_y = file_node.osy.get()
print(size_x, size_y)
if not mult is None:
size_x *= mult
size_y *= mult
poly_plane, ch = pm.polyPlane(sx=1,
sy=1,
w=size_x,
h=size_y,
n=name + "_card")
ch.rename(name + "_polyPlane")
# create shader
shd, shdSG = create_lambert_mtl(name)
file_node.outColor >> shd.attr("color")
# handle alpha
if flag_alpha:
file_node.outTransparency >> shd.transparency
# assign shader to plane
pm.sets(shdSG, forceElement=poly_plane)
return poly_plane
plugin_fn.registerNode(CarpetRoll.TYPE_NAME, CarpetRoll.TYPE_ID,
CarpetRoll.creator, CarpetRoll.initialize,
ommpx.MPxNode.kDeformerNode)
except:
pm.displayError("Failed to register node {0}".format(
CarpetRoll.TYPE_NAME))
def uninitializePlugin(plugin):
plugin_fn = ommpx.MFnPlugin(plugin)
try:
plugin_fn.deregisterNode(CarpetRoll.TYPE_ID)
except:
pm.displayError("Failed to deregister node {0}".format(
CarpetRoll.TYPE_NAME))
if __name__ == "__main__":
pm.newFile(f=1)
plugin_name = "E:/Maya/MayaAPI/Deforner/CarpetRoll.py"
if pm.pluginInfo(plugin_name, q=1, loaded=True):
pm.unloadPlugin(os.path.basename(plugin_name), f=True)
pm.loadPlugin(plugin_name)
pplane_transform, pplane_shape = pm.polyPlane()
pplane_shape.subdivisionsWidth.set(20)
pplane_shape.subdivisionsHeight.set(20)
pm.select(pplane_transform)
pm.deformer(type="CarpetRoll")
def lcRetopoBasicUI(dockable=False, asChildLayout=False, *args, **kwargs):
""" """
global lct_cfg
global prefix
ci = 0 # color index iterator
windowName = 'lcRetopoBasic'
shelfCommand = 'import lct.src.{0}.{0} as {1}\nreload({1})\n{1}.{0}UI()'.format(
windowName, prefix)
commandString = 'import lct.src.{0}.{0} as {1}\nreload({1})\n{1}.{0}UI(asChildLayout=True)'.format(
windowName, prefix)
icon = os.path.join(basePath, 'lcRetopoBasic.png')
winWidth = 205
winHeight = height
if pm.window(windowName, ex=True):
pm.deleteUI(windowName)
if not asChildLayout:
lcUI.UI.lcToolbox_child_popout(prefix + '_columnLayout_main',
windowName, height, commandString,
iconPath, lct_cfg)
mainWindow = lcUI.lcWindow(prefix=prefix,
windowName=windowName,
width=winWidth,
height=winHeight,
icon=icon,
shelfCommand=shelfCommand,
annotation=annotation,
dockable=dockable,
menuBar=True)
mainWindow.create()
pm.columnLayout(prefix + '_columnLayout_main')
# SETUP
pm.button(l='Setup for Retopo',
bgc=colorWheel.getColorRGB(ci),
w=200,
h=25,
annotation='Setup a high res mesh for retopology',
command=lambda *args: rtb_setup_live_mesh(highresListDropdown))
ci += 1
# List
pm.rowColumnLayout(nc=3, cw=([1, 25], [2, 150], [3, 25]))
pm.symbolButton(
h=25,
image=os.path.join(iconPath, 'reloadMeshList.png'),
annotation='Reload the list of high res meshes',
command=lambda *args: rtb_highres_list_populate(highresListDropdown))
highresListDropdown = pm.optionMenu(
prefix + '_optionMenu_highres_list',
w=150,
h=23,
bgc=[0.5, 0.5, 0.5],
annotation='List of high res meshes in the scene')
highresListDropdown.changeCommand(
lambda *args: rtb_choose_active(highresListDropdown))
remove_mesh_button = pm.symbolButton(
h=25,
image=os.path.join(iconPath, 'removeMeshFromList.png'),
annotation=
'Remove current high res mesh from the list and return it to a normal state',
command=lambda *args: rtb_remove(highresListDropdown))
popup_remove_mesh = pm.popupMenu(parent=remove_mesh_button)
pm.menuItem(l='Remove all live meshes',
parent=popup_remove_mesh,
command=lambda *args: rtb_remove_all(highresListDropdown))
pm.setParent(prefix + '_columnLayout_main')
# Scale
pm.rowColumnLayout(nc=4, cw=([1, 50], [2, 100], [3, 25], [4, 25]))
pm.picture(prefix + '_picture_layer_mesh',
image=os.path.join(iconPath, 'meshLayering.png'),
annotation='Drag slider to change mesh layering')
pm.floatSlider(
prefix + '_floatSlider_layer_mesh',
h=25,
step=0.01,
min=0,
max=1,
v=lct_cfg.get('lcRetopoBasicLayering'),
dragCommand=lambda *args: rtb_scale_layer_mesh(highresListDropdown))
button_xray = pm.symbolButton(
prefix + '_symbolButton_xray',
h=25,
image=os.path.join(iconPath, 'toggleXray.png'),
bgc=[0.27, 0.27, 0.27],
annotation='Toggle Mesh X-Ray',
command=lambda *args: rtb_toggle_xray(highresListDropdown, 'active'))
popup_xray = pm.popupMenu(parent=button_xray)
pm.menuItem(l='xRay on/off all',
parent=popup_xray,
command=lambda *args: rtb_toggle_xray(highresListDropdown))
button_hide = pm.symbolButton(
prefix + '_symbolButton_hide',
h=25,
image=os.path.join(iconPath, 'hideMesh.png'),
bgc=[0.27, 0.27, 0.27],
annotation='Hide/Show Current High-Res',
command=lambda *args: rtb_toggle_hide(highresListDropdown, 'active'))
popup_hide = pm.popupMenu(parent=button_hide)
pm.menuItem(
l='Hide/Show all',
parent=popup_hide,
command=lambda *args: rtb_toggle_hide(highresListDropdown, 'all'))
pm.menuItem(
l='Hide/Show others',
parent=popup_hide,
command=lambda *args: rtb_toggle_hide(highresListDropdown, 'others'))
pm.setParent(prefix + '_columnLayout_main')
# Shader
pm.rowColumnLayout(nc=3, cw=([1, 50], [2, 100], [3, 50]))
pm.picture(image=os.path.join(iconPath, 'shaderOpacity.png'),
enable=False,
annotation='Drag slider to change shader transparency')
pm.floatSlider(prefix + '_floatSlider_topo_trans',
h=25,
step=0.1,
min=0,
max=1,
v=lct_cfg.get('lcRetopoBasicShader'),
dragCommand=lambda *args: rtb_update_topo_transparency())
pm.symbolButton(
h=25,
image=os.path.join(iconPath, 'assignShader.png'),
bgc=[0.27, 0.27, 0.27],
annotation=
'Create and/or assign a semi-transparent shader to selected low res mesh',
command=lambda *args: rtb_create_retopo_shader())
pm.setParent(prefix + '_columnLayout_main')
pm.separator(style='in', h=5)
# Relax and Shrinkwrap
pm.rowColumnLayout(nc=2)
pm.button(
l='Relax',
bgc=colorWheel.getColorRGB(ci),
w=100,
h=25,
annotation='Relax selected verts and shrink-wrap them to the live mesh',
command=lambda *args: rtb_vert_ops(highresListDropdown,
operation='relax'))
ci += 1
pm.button(l='Shrink-Wrap',
bgc=colorWheel.getColorRGB(ci),
w=100,
h=25,
annotation='Shrink-wrap selected verts to the live mesh',
command=lambda *args: rtb_vert_ops(highresListDropdown,
operation='shrink'))
ci += 1
pm.setParent(prefix + '_columnLayout_main')
# PROG Bar
pm.progressBar(prefix + '_progress_control',
en=False,
w=202,
isInterruptable=True)
pm.separator(style='in', h=5)
# Tool List
pm.gridLayout(nrc=[1, 5], cwh=[40, 40])
##1
pm.symbolButton(prefix + '_symbolButton_select_mode',
image='selectByComponent.png',
c=lambda *args: rtb_toggle_select_mode(),
annotation='Toggle Object/Component Modes')
##2
create_mesh = pm.symbolButton(
image='polyCylinder.png',
c=lambda *args: pm.polyCylinder(
r=1, h=2, sx=8, sy=1, sz=1, ax=(0, 1, 0), rcp=0, cuv=3, ch=1),
annotation='Create Poly Cylinder')
popup_create_mesh = pm.popupMenu(parent=create_mesh)
pm.menuItem(l='polyPlane',
parent=popup_create_mesh,
command=lambda *args: pm.polyPlane(
w=2, h=2, sx=1, sy=1, ax=(0, 1, 0), cuv=2, ch=1))
pm.menuItem(l='polyCube',
parent=popup_create_mesh,
command=lambda *args: pm.polyCube(
w=2, h=2, d=2, sx=1, sy=1, ax=(0, 1, 0), cuv=2, ch=1))
##3
pm.symbolButton(image='polyUnite.png',
command=lambda *args: lcGeometry.Geometry.merge_and_weld(),
annotation='Combine and Weld')
##4
button_zeroX = pm.symbolButton(image=os.path.join(iconPath, 'zeroX.png'),
command=lambda *args: rtb_zero('x'),
annotation='Zero to world axis')
popup_zeroX = pm.popupMenu(parent=button_zeroX)
pm.menuItem(l='Zero X',
parent=popup_zeroX,
command=lambda *args: rtb_zero('x'))
pm.menuItem(l='Zero Y',
parent=popup_zeroX,
command=lambda *args: rtb_zero('y'))
pm.menuItem(l='Zero Z',
parent=popup_zeroX,
command=lambda *args: rtb_zero('z'))
##5
pm.symbolButton(image='modelToolkit.png',
c=lambda *args: pm.mel.eval('ToggleModelingToolkit'),
annotation='Modeling Toolkit')
#
if not asChildLayout:
mainWindow.show()
pm.window(mainWindow.mainWindow, edit=True, h=winHeight, w=winWidth)
else:
pm.setParent('..')
pm.setParent('..')
# edit menus
optionsMenu, helpMenu = lcUI.UI.lcToolbox_child_menu_edit(
asChildLayout, windowName)
pm.menuItem(parent=optionsMenu, divider=True, dividerLabel=windowName)
pm.menuItem(parent=optionsMenu,
l='Remove all live meshes',
command=lambda *args: rtb_remove_all(highresListDropdown))
# populate drowpdowns
rtb_highres_list_populate(highresListDropdown)
# restore interface selections
highresListDropdown.setSelect(lct_cfg.get('lcRetopoBasicListItem'))
rtb_choose_active(highresListDropdown)
# vertex animation cache in viewport 2.0 must be disabled or the mesh will not update properly
if pm.objExists('hardwareRenderingGlobals'):
pm.PyNode('hardwareRenderingGlobals').vertexAnimationCache.set(0)
rtb_init_select_mode()
if not pm.scriptJob(ex=lct_cfg.get('lcRetopoBasicScriptJob')
) or lct_cfg.get('lcRetopoBasicScriptJob') == 0:
jobNum = pm.scriptJob(
e=["SelectModeChanged", lambda *args: rtb_init_select_mode()],
protected=True)
lct_cfg.set('lcRetopoBasicScriptJob', jobNum)
file_node.outSize.outSizeX >> ocio_node.width
file_node.outSize.outSizeY >> ocio_node.height
pm.select(cl=True)
#connect ocio node to shader
ocio_node.output_color >> shader_node.outColor
pm.select(cl=True)
#set texture file
file_node.fileTextureName.set(texture_dir + '/' + texture_name)
#polyplane_transform_node, polyplane_shape_node
polyplane_transform_node, polyplane_shape_node = pm.polyPlane(
n='ocio_test_polyplane',
sx=10,
sy=10,
axis=(0, 1, 0),
width=12.8,
height=7.8)
pm.select(cl=True)
#connect plane to shader
pm.sets(shading_group_node, forceElement=polyplane_transform_node.name())
pm.select(cl=True)
#render_cam
render_cam_transform, render_cam_shape = pm.camera()
pm.select(cl=True)
pm.rename(render_cam_transform, 'render_cam')
render_cam_transform.translate.set(0, 13, 7)
render_cam_transform.rotate.set(-65, 0, 0)
pm.setKeyframe(render_cam_transform, s=False)
def _deformPlanes(self, autoGrp, baseGrp=None):
"""
Create a plane and copy the deforms from base mesh, then constraint the autoGrp and baseGrp to the plane
:param autoGrp:autoGrp, generally contains a controller as child
:param baseGrp: to control a baseShape like wire deformer baseCure
:return: planes
"""
# create a small plane per point, then combine them
planes = []
for ctr in autoGrp:
plane = pm.polyPlane(h=0.01, w=0.01, sh=1, sw=1, ch=False)[0]
plane.setTranslation(ctr.getTranslation("world"), "world")
planes.append(plane)
# combine planes
if len(planes) > 1:
# len 1 gives an error with polyUnite
planes = pm.polyUnite(planes, ch=False, mergeUVSets=True)[0]
else:
planes = planes[0]
pm.makeIdentity(planes, a=True, r=True, s=True, t=True)
planes.setPivots([0, 0, 0])
planes.rename("%s_planes" % self._baseName) # rename
pm.polyAutoProjection(planes,
ch=False,
lm=0,
pb=0,
ibd=1,
cm=0,
l=2,
sc=1,
o=1,
p=6,
ps=0.2,
ws=0) # uvs
if self._MESH_SHAPE:
# if skin sample, copy skin weights to planes
# find skin node
skinNode = pm.listHistory(self._MESH_SHAPE, type='skinCluster')[0]
# joint list
jointList = skinNode.influenceObjects()
# create skinCluster
copySkinCluster = pm.skinCluster(planes, jointList, mi=3)
# copy skin weigths
pm.copySkinWeights(ss=skinNode,
ds=copySkinCluster,
noMirror=True,
surfaceAssociation='closestPoint',
influenceAssociation=('closestJoint',
'closestJoint'))
# connect each auto grp to each poly face
numFaces = planes.getShape().numFaces()
logger.debug("num Faces: %s" % numFaces)
for i in range(numFaces):
pm.select(planes.f[i], r=True)
pm.select(autoGrp[i], add=True)
pm.pointOnPolyConstraint(maintainOffset=True)
pm.select(cl=True)
if baseGrp:
pm.select(planes.f[i], r=True)
pm.select(baseGrp[i], add=True)
pm.pointOnPolyConstraint(maintainOffset=True)
pm.select(cl=True)
#hammer weights
try:
#TODO: bad aproximation
vertex = pm.modeling.polyListComponentConversion(planes.f[i],
tv=True)
pm.select(vertex, r=True)
logger.debug("vertices %s:" % vertex)
mel.eval("weightHammerVerts;")
pm.select(cl=True)
except:
pm.select(cl=True)
# parent planes to nonXform grp
self._noXformGrp.addChild(planes) # parent to noXform
return planes
pm.loadPlugin( 'twClothSolverBlockoutPlugins.py' )
print('Successfully loaded plugin')
except:
print('Error Reloading Plugin')
#TwClothSolverIOPaperBlockout
#----------------------------------
#----------------------------------
#create inputGeo
#----------------------------------
#inputGeo
inputGeoTrans = pm.polyPlane( sx=10, sy=10, w=10, h=10, ch = False)[0]
inputGeoShape = inputGeoTrans.getShape()
#transformPlane
inputGeoTrans.translateY.set(5)
inputGeoTrans.visibility.set(0)
pm.select(cl = True)
#pm.select(inputGeoTrans, r = True)
#pm.polyTriangulate(ch = False)
#pm.select(cl = True)
#create outputGeo
#----------------------------------
#outputGeo
outputGeoTrans = pm.polyPlane( sx=10, sy=10, w=10, h=10, ch = False)[0]
outputGeoShape = outputGeoTrans.getShape()
pm.select(cl = True)
def importAsset(self, iAObj=None):
component = ftrack.Component(iAObj.componentId)
start, end = self.getStartEndFrames(component, iAObj)
first_image = iAObj.filePath % start
new_nodes = []
# Image plane
if iAObj.options["importType"] == "Image Plane":
# Getting camera
new_camera = False
if iAObj.options["attachCamera"]:
cam = pm.ls(selection=True)[0]
else:
cam = pm.createNode("camera")
new_camera = True
if iAObj.options["renameCamera"]:
asset_name = component.getVersion().getAsset().getName()
pm.rename(cam.getTransform(), asset_name)
if new_camera:
new_nodes.extend([cam.name(), cam.getTransform().name()])
if iAObj.options["resolutionGate"]:
cam.displayResolution.set(1)
cam.farClipPlane.set(iAObj.options["imagePlaneDepth"] * 10)
# Create image plane
visibility = True
option = "Hidden from other cameras"
if iAObj.options["imagePlaneVisibility"] == option:
visibility = False
image_plane_transform, image_plane_shape = pm.imagePlane(
camera=cam, fileName=first_image, showInAllViews=visibility)
image_plane_shape.useFrameExtension.set(1)
image_plane_shape.depth.set(iAObj.options["imagePlaneDepth"])
new_nodes.extend(
[image_plane_transform.name(),
image_plane_shape.name()])
# Create ground plane
if iAObj.options["createGround"]:
ground_transform, ground_shape = pm.polyPlane(
name="ground",
height=iAObj.options["groundSize"],
width=iAObj.options["groundSize"])
ground_shader = pm.shadingNode("lambert", asShader=True)
visiblity = iAObj.options["groundVisibility"] / 100
ground_shader.transparency.set(visiblity, visiblity, visiblity)
pm.select(ground_transform)
pm.hyperShade(assign=ground_shader.name())
new_nodes.extend([
ground_transform.name(),
ground_shape.name(),
ground_shader.name()
])
# File Node
if iAObj.options["importType"] == "File Node":
file_node = pm.shadingNode("file", asTexture=True)
file_node.fileTextureName.set(first_image)
file_node.useFrameExtension.set(1)
exp = pm.shadingNode("expression", asUtility=True)
exp.expression.set(file_node.name() + ".frameExtension=frame")
new_nodes.extend([file_node.name(), exp.name()])
# Connecting file node to color management in 2016+
if pm.objExists("defaultColorMgtGlobals"):
colMgmtGlob = pm.PyNode("defaultColorMgtGlobals")
mapping = {
"cmEnabled": "colorManagementEnabled",
"configFileEnabled": "colorManagementConfigFileEnabled",
"configFilePath": "colorManagementConfigFilePath",
"workingSpaceName": "workingSpace"
}
for key, value in mapping.iteritems():
src_name = colMgmtGlob.name() + "." + key
dst_name = file_node.name() + "." + value
pm.PyNode(src_name) >> pm.PyNode(dst_name)
texture = None
if iAObj.options["fileNodeType"] != "Single Node":
texture = pm.shadingNode("place2dTexture", asUtility=True)
src_name = texture.name() + ".outUV"
dst_name = file_node.name() + ".uvCoord"
pm.PyNode(src_name) >> pm.PyNode(dst_name)
src_name = texture.name() + ".outUvFilterSize"
dst_name = file_node.name() + ".uvFilterSize"
pm.PyNode(src_name) >> pm.PyNode(dst_name)
connections = [
"rotateUV", "offset", "noiseUV", "vertexCameraOne",
"vertexUvThree", "vertexUvTwo", "vertexUvOne", "repeatUV",
"wrapV", "wrapU", "stagger", "mirrorU", "mirrorV",
"rotateFrame", "translateFrame", "coverage"
]
for connection in connections:
src_name = texture.name() + "." + connection
dst_name = file_node.name() + "." + connection
pm.PyNode(src_name) >> pm.PyNode(dst_name)
new_nodes.append(texture.name())
if iAObj.options["fileNodeType"] == "Projection":
projection = pm.shadingNode("projection", asUtility=True)
texture3d = pm.shadingNode("place3dTexture", asUtility=True)
src_name = file_node.name() + ".outColor"
dst_name = projection.name() + ".image"
pm.PyNode(src_name) >> pm.PyNode(dst_name)
src_name = texture3d.name() + ".worldInverseMatrix"
dst_name = projection.name() + ".placementMatrix"
pm.PyNode(src_name) >> pm.PyNode(dst_name)
new_nodes.extend([projection.name(), texture3d.name()])
self.newData = set(new_nodes)
self.oldData = set()
self.linkToFtrackNode(iAObj)
def xpop(args=[], type='LOC', space=1, addSuffix='', parent=''):
'''
Function: takes args and matchesPos + duplicates specified type onto each arg
Args = type=str, space=int, addSuffix=str, parent=str
State: type=one of ['LOC','PLANE','CUBE','JNT','GRP','CAM','SLGT','DLGT','PLGT','ALGT']
if in list of prespecified objects, will populate across. Explained:
locator, plane, cube, joint, group, camera,
spotlight, directional light, point light, area light
space=1-4: check help for _SCRIPTS._LAYOUT.lib_position.matchPos for instruction on this
otherwise leave default
Returns: list of PyNode(type)
Example Usage: xpop(type='JNT', addSuffix='TEMP')
'''
print 'Populating type: %s' % type
suffixes=['LOC','PLANE','CUBE','JNT','GRP','CAM','SLGT','DLGT','PLGT','ALGT']
if type.upper() in suffixes or pm.objExists(type):
if args==[]: args = pm.ls(sl=True)
#Create or store group
if parent=='': grp = 'populate_'+type+'_GRP'
else: grp = parent
if not pm.objExists(grp):
grp = pm.group(em=True, n=grp)
else: grp = pm.PyNode(grp)
result=[]
print type
for arg in args:
if addSuffix=='':
pop = nami.replaceSuffix(type,args=arg.name(),validSuffix=True)
else: pop = arg.name()+addSuffix
if not pm.objExists(pop):
if type=='LOC':
pop = pm.spaceLocator(n=pop)
elif type=='PLANE':
pop = pm.polyPlane(n=pop,sx=1, sy=1)[0]
elif type=='CUBE':
pop = pm.polyCube(n=pop)[0]
elif type=='JNT':
pop = pm.joint( n=pop )
pop.radius.set(10)
elif type=='GRP':
pop = pm.group(em=True,n=pop)
elif type=='CAM':
pop = pm.camera(n=pop)[0]
elif type=='SLGT':
pop = pm.spotLight().listRelatives(p=True)[0].rename(pop)
elif type=='DLGT':
pop = pm.directionalLight().listRelatives(p=True)[0].rename(pop)
elif type=='PLGT':
pop = pm.pointLight().listRelatives(p=True)[0].rename(pop)
elif type=='ALGT':
pop = pm.createNode('areaLight').listRelatives(p=True)[0].rename(pop)
else:
pop = pm.duplicate(type)[0]
posi.matchPos(src=arg, args=[pop], type=1)
pop.addAttr('target',dt='string')
pop.target.set( arg )
pop.setParent( grp )
result.append(pop)
else: pm.error('Unsupported object type, check the help() for supported types')
return result
def joint_align_tool(nMid=0):
plane = pm.polyPlane(w=1, h=1, sx=1, sy=1, ax=[0,0,1], cuv=False, ch=False)
plane[0].translate.set(0.5,0,0)
pm.xform(plane[0], rp=[0,0,0], sp=[0,0,0], ws=True)
aimGrp = pm.group(empty=True)
pm.parent(plane, aimGrp)
allLocs = []
startLoc = pm.spaceLocator()
startLoc.translate.set(0,0,0)
startLoc.scale.set(0.1,0.1,0.1)
allLocs.append(startLoc)
spacing = 1/float(nMid+1)
for i in range(nMid):
x = spacing * (i+1)
midLoc = pm.duplicate(startLoc)[0]
midLoc.tx.set(x)
midLoc.tz.lock()
pm.parent(midLoc, aimGrp)
allLocs.append(midLoc)
endLoc = pm.duplicate(startLoc)[0]
endLoc.translate.set(1,0,0)
allLocs.append(endLoc)
distanceBtw = pm.createNode("distanceBetween")
startLoc.getShape().worldPosition[0] >> distanceBtw.point1
endLoc.getShape().worldPosition[0] >> distanceBtw.point2
upGrp = pm.group(empty=True)
pm.pointConstraint(startLoc, endLoc, upGrp, mo=False)
upLoc = pm.duplicate(startLoc)[0]
upLoc.translate.set(0.5,0.5,0)
pm.parent(upLoc, upGrp)
pm.pointConstraint(startLoc, aimGrp, mo=False)
pm.aimConstraint(endLoc, aimGrp, mo=False, aimVector=[1,0,0], upVector=[0,1,0], worldUpType='object', worldUpObject=upLoc)
aimLocs = []
joints = []
constGrp = pm.group(empty=True)
for i in range(len(allLocs)):
x = spacing * (i)
aimLoc = pm.group(empty=True)
pm.parent(aimLoc, aimGrp)
pm.pointConstraint(allLocs[i], aimLoc, mo=False)
joint = pm.joint()
const = pm.parentConstraint(aimLoc, joint, mo=False)
pm.parent(const, constGrp)
if aimLocs:
pm.aimConstraint(aimLoc, aimLocs[i-1], mo=False, aimVector=[1,0,0], upVector=[0,1,0], worldUpType='object', worldUpObject=upLoc)
pm.parent(joint, joints[i-1])
joints.append(joint)
aimLocs.append(aimLoc)
for node in [aimGrp, upGrp]:
distanceBtw.distance >> node.scaleX
distanceBtw.distance >> node.scaleY
distanceBtw.distance >> node.scaleZ
grp = pm.group(empty=True)
pm.parent(startLoc, endLoc, upGrp, joints[0], aimGrp, constGrp, grp)
def CreateCloth(self,*args):
#TwClothSolverIOPaperBlockout
#----------------------------------
#----------------------------------
#Get Pasing Parameters:
subx = pm.intSliderGrp(self.GlobalVars["SubX"], q = True, value = True)
suby = pm.intSliderGrp(self.GlobalVars["SubY"], q = True, value = True)
grav = pm.floatSliderGrp(self.GlobalVars["GraV"], q = True, value = True)
wind_x = pm.floatSliderGrp(self.GlobalVars["Wind_X"], q = True, value = True)
wind_y = pm.floatSliderGrp(self.GlobalVars["Wind_Y"], q = True, value = True)
wind_z = pm.floatSliderGrp(self.GlobalVars["Wind_Z"], q = True, value = True)
noise = pm.floatSliderGrp(self.GlobalVars["Noise"], q = True, value = True)
#create inputGeo
#----------------------------------
#inputGeo
inputGeoTrans = pm.polyPlane( sx=subx, sy=suby, w=10, h=10, ch = False)[0]
inputGeoShape = inputGeoTrans.getShape()
#transformPlane
inputGeoTrans.translateY.set(5)
inputGeoTrans.visibility.set(0)
pm.select(cl = True)
#pm.select(inputGeoTrans, r = True)
#pm.polyTriangulate(ch = False)
#pm.select(cl = True)
#create outputGeo
#----------------------------------
#outputGeo
outputGeoTrans = pm.polyPlane( sx=subx, sy=suby, w=10, h=10, ch = False)[0]
outputGeoShape = outputGeoTrans.getShape()
pm.select(cl = True)
#set Texture
#if pm.checkBox(GlobalVars["DefaultText"], q = True, value = True) == True:
# pm.sets("lambert2SG", e = True, forceElement = inputGeoTrans)
#create cloth solver node
#----------------------------------
clothSolver = pm.createNode('TwClothSolverIOPaperBlockout')
clothSolver.verbose.set(0)
clothSolver.repetitions.set(10)
self.GlobalVars["clothSolver"] = clothSolver
pm.select(cl = True)
#create positionConstraintLocators
#----------------------------------
positionConstraintLocatorIndex0Trans = pm.spaceLocator(n = 'positionConstraintLocatorIndex0')
positionConstraintLocatorIndex0Shape = positionConstraintLocatorIndex0Trans.getShape()
positionConstraintLocatorIndex0Trans.translate.set(-5,5,5)
pm.select(cl = True)
positionConstraintLocatorIndex110Trans = pm.spaceLocator(n = 'positionConstraintLocatorIndex110')
positionConstraintLocatorIndex110Shape = positionConstraintLocatorIndex110Trans.getShape()
positionConstraintLocatorIndex110Trans.translate.set(-5,5,-5)
pm.select(cl = True)
positionConstraintLocatorIndex120Trans = pm.spaceLocator(n = 'positionConstraintLocatorIndex120')
positionConstraintLocatorIndex120Shape = positionConstraintLocatorIndex120Trans.getShape()
positionConstraintLocatorIndex120Trans.translate.set(5,5,-5)
pm.select(cl = True)
positionConstraintLocatorIndex10Trans = pm.spaceLocator(n = 'positionConstraintLocatorIndex10')
positionConstraintLocatorIndex10Shape = positionConstraintLocatorIndex10Trans.getShape()
positionConstraintLocatorIndex10Trans.translate.set(5,5,5)
pm.select(cl = True)
positionConstraintLocatorIndex60Trans = pm.spaceLocator(n = 'positionConstraintLocatorIndex60')
positionConstraintLocatorIndex60Shape = positionConstraintLocatorIndex60Trans.getShape()
positionConstraintLocatorIndex60Trans.translate.set(0,5,0)
pm.select(cl = True)
#connect locators and set index attrs on clothSolver
#----------------------------------
clothSolver.positionConstraint[0].positionConstraintVertexIndex.set(0)
positionConstraintLocatorIndex0Shape.worldPosition >> clothSolver.positionConstraint[0].positionConstraintCoordinate
pm.select(cl = True)
clothSolver.positionConstraint[1].positionConstraintVertexIndex.set(((subx + 1)*(suby + 1) - 1) - subx)
positionConstraintLocatorIndex110Shape.worldPosition >> clothSolver.positionConstraint[1].positionConstraintCoordinate
pm.select(cl = True)
clothSolver.positionConstraint[2].positionConstraintVertexIndex.set((subx + 1)*(suby + 1) - 1)
positionConstraintLocatorIndex120Shape.worldPosition >> clothSolver.positionConstraint[2].positionConstraintCoordinate
pm.select(cl = True)
clothSolver.positionConstraint[3].positionConstraintVertexIndex.set(subx)
positionConstraintLocatorIndex10Shape.worldPosition >> clothSolver.positionConstraint[3].positionConstraintCoordinate
pm.select(cl = True)
clothSolver.positionConstraint[4].positionConstraintVertexIndex.set(((subx + 1)*(suby + 1) - 1)/2)
positionConstraintLocatorIndex60Shape.worldPosition >> clothSolver.positionConstraint[4].positionConstraintCoordinate
pm.select(cl = True)
#set clothSolver active attr
#----------------------------------
clothSolver.positionConstraint[0].positionConstraintActive.set(pm.checkBox(self.GlobalVars["Locator_LeftTopCorner"], q = True, value = True))
clothSolver.positionConstraint[1].positionConstraintActive.set(pm.checkBox(self.GlobalVars["Locator_RightTopCorner"], q = True, value = True))
clothSolver.positionConstraint[2].positionConstraintActive.set(pm.checkBox(self.GlobalVars["Locator_RightBottomCorner"], q = True, value = True))
clothSolver.positionConstraint[3].positionConstraintActive.set(pm.checkBox(self.GlobalVars["Locator_LeftBottomCorner"], q = True, value = True))
clothSolver.positionConstraint[4].positionConstraintActive.set(pm.checkBox(self.GlobalVars["Locator_Middle"], q = True, value = True))
#connect time
#----------------------------------
timeNode = pm.PyNode('time1')
pm.select(cl = True)
timeNode.outTime >> clothSolver.currentFrame
#connect inputGeo
#----------------------------------
inputGeoShape.outMesh >> clothSolver.inputGeo
#connect inputGeo parentMatrix
#----------------------------------
inputGeoShape.parentMatrix >> clothSolver.transformMatrix
#connect outputGeo
#----------------------------------
clothSolver.outputGeo >> outputGeoShape.inMesh
#set clothSolver gravity
#----------------------------------
gravityPerSec = -1.0 * grav
framesPerSec = 400
clothSolver.gravity.set(0,gravityPerSec/framesPerSec,0)
#set clothSolver WindForce
#----------------------------------
clothSolver.WindForce.set(wind_x/framesPerSec,wind_y/framesPerSec,wind_z/framesPerSec)
#set clothSolber Noise
#----------------------------------
clothSolver.Noise.set(noise/framesPerSec)
#set De
#set time range
#----------------------------------
pm.playbackOptions(ast = 1, aet = 5000, max = 5000, min = 1)
#rename and select clothSolver
#----------------------------------
clothSolverTrans = clothSolver.getParent()
pm.rename(clothSolver, 'twClothSolverShape')
pm.rename(clothSolverTrans, 'twClothSolver')
pm.select(clothSolver, r = True)
def renderBuddy(ren, arg=1):
####: REN
# 1 : mentalRay
# 2 : V-ray
####: ARGS
# 1 : create
# 2 : delete
if arg is 1:
# cleanup check
if pm.objExists('LGT_REF_OBJ') | pm.objExists('diff_18SG') | pm.objExists('diff_18'):
pm.delete('diff_80', 'diff_18', 'refl_100', 'refl_75', 'diff_18SG', 'diff_80SG', 'refl_01SG', 'refl_02SG', 'LGT_REF_OBJ')
# create four spheres & a plane
tmp1 = pm.polySphere(r = 1, n = "fBall_D1", ch = 0)
diff01 = tmp1[0]
tmp1 = pm.polySphere(r = 1, n = "fBall_D2", ch = 0)
diff02 = tmp1[0]
tmp1 = pm.polySphere(r = 1, n = "fBall_R1", ch = 0)
refl01 = tmp1[0]
tmp1 = pm.polySphere(r = 1, n = "fBall_R2", ch = 0)
refl02 = tmp1[0]
tmp1 = pm.polyPlane (n = "fGround", ch = 1)
grid01 = tmp1[0]
objs = [diff01, diff02, refl01, refl02, grid01]
#shds = [shd_diff_80, shd_diff_18, shd_refl_01, shd_refl_02]
#shgs = [shg_diff_80, shg_diff_18, shg_refl_01, shg_refl_02]
# group them
grp = pm.group(diff01, diff02, refl01, refl02, grid01, n = "LGT_REF_OBJ")
grp.translateY.set(10)
# move them around
offset = 4.5
for o in objs:
o.translateX.set(offset)
offset = offset -3
grid01.scaleX.set(50)
grid01.scaleZ.set(50)
grid01.translateX.set(0)
grid01.translateY.set(-10)
# create shaders
# 80% diffuse goes to mesh diff01
shg_diff_80 = pm.sets(n = "diff_80SG", renderable = 1, empty = 1)
shd_diff_80 = pm.shadingNode('lambert', asShader = 1, n = "diff_80")
shd_diff_80.diffuse.set(0.8)
shd_diff_80.color.set(1, 1, 1)
pm.surfaceShaderList(shd_diff_80, add = shg_diff_80)
pm.sets(shg_diff_80, e = 1, forceElement = diff01)
# 18% diffuse goes to mesh diff02
shg_diff_18 = pm.sets(n = "diff_18SG", renderable = 1, empty = 1)
shd_diff_18 = pm.shadingNode('lambert', asShader = 1, n = "diff_18")
shd_diff_18.diffuse.set(0.18)
shd_diff_18.color.set(1, 1, 1)
pm.surfaceShaderList(shd_diff_18, add = shg_diff_18)
pm.sets(shg_diff_18, e = 1, forceElement = diff02)
### REFLECTION SPHERES DEPEND ON DIFFERENT SHADERS FOR MENTALRAY / VRAY ###
if ren is 1:
# (MENTALRAY) 100% glossy mia goes to mesh refl01
shg_refl_01 = pm.sets(n = "refl_01SG", renderable = 1, empty = 1)
shd_refl_01 = pm.shadingNode('mia_material_x_passes', asShader = 1, n = "refl_100")
shd_refl_01.diffuse_weight.set(0)
shd_refl_01.reflectivity.set(1)
pm.disconnectAttr('lambert1.outColor', shg_refl_01.surfaceShader)
pm.connectAttr(shd_refl_01.message, shg_refl_01.miMaterialShader)
pm.sets(shg_refl_01, e = 1, forceElement = refl01)
# (MENTALRAY) 75% glossy mia goes to mesh refl02
shg_refl_02 = pm.sets(n = "refl_02SG", renderable = 1, empty = 1)
shd_refl_02 = pm.shadingNode('mia_material_x_passes', asShader = 1, n = "refl_75")
shd_refl_02.diffuse_weight.set(0)
shd_refl_02.reflectivity.set(1)
shd_refl_02.refl_gloss.set(0.75)
pm.disconnectAttr('lambert1.outColor', shg_refl_02.surfaceShader)
pm.connectAttr(shd_refl_02.message, shg_refl_02.miMaterialShader)
pm.sets(shg_refl_02, e = 1, forceElement = refl02)
if ren is 2:
# (VRAY) 100% glossy vraymtl goes to mesh refl01
shg_refl_01 = pm.sets(n = "refl_01SG", renderable = 1, empty = 1)
shd_refl_01 = pm.shadingNode('VRayMtl', asShader = 1, n = "refl_100")
shd_refl_01.diffuseColorAmount.set(0)
shd_refl_01.reflectionColor.set(1,1,1)
pm.surfaceShaderList(shd_refl_01, add = shg_refl_01)
pm.sets(shg_refl_01, e = 1, forceElement = refl01)
# (VRAY) 75% glossy vraymtl goes to mesh refl02
shg_refl_02 = pm.sets(n = "refl_02SG", renderable = 1, empty = 1)
shd_refl_02 = pm.shadingNode('VRayMtl', asShader = 1, n = "refl_75")
shd_refl_02.diffuseColorAmount.set(0)
shd_refl_02.reflectionColor.set(1,1,1)
pm.surfaceShaderList(shd_refl_02, add = shg_refl_02)
pm.sets(shg_refl_02, e = 1, forceElement = refl02)
if arg is 2:
pm.delete('diff_80', 'diff_18', 'refl_100', 'refl_75', 'diff_18SG', 'diff_80SG', 'refl_01SG', 'refl_02SG', 'LGT_REF_OBJ')
def importAsset(self, iAObj=None):
component = ftrack.Component(iAObj.componentId)
start, end = self.getStartEndFrames(component, iAObj)
new_nodes = []
# Image plane
if iAObj.options["importType"] == "Image Plane":
movie_path = iAObj.filePath % start
# Getting camera
new_camera = False
if iAObj.options["attachCamera"]:
cam = pm.ls(selection=True)[0]
else:
cam = pm.createNode("camera")
new_camera = True
if iAObj.options["renameCamera"]:
asset_name = component.getVersion().getAsset().getName()
pm.rename(cam.getTransform(), asset_name)
if new_camera:
new_nodes.extend([cam.name(), cam.getTransform().name()])
if iAObj.options["resolutionGate"]:
cam.displayResolution.set(1)
cam.farClipPlane.set(iAObj.options["imagePlaneDepth"] * 10)
# Create image plane
visibility = True
option = "Hidden from other cameras"
if iAObj.options["imagePlaneVisibility"] == option:
visibility = False
image_plane_transform, image_plane_shape = pm.imagePlane(
camera=cam, showInAllViews=visibility)
image_plane_shape.depth.set(iAObj.options["imagePlaneDepth"])
# Need to get "type" by string, because its a method as well.
pm.Attribute(image_plane_shape + ".type").set(2)
image_plane_shape.imageName.set(movie_path)
image_plane_shape.useFrameExtension.set(1)
new_nodes.extend(
[image_plane_transform.name(),
image_plane_shape.name()])
# Create ground plane
if iAObj.options["createGround"]:
ground_transform, ground_shape = pm.polyPlane(
name="ground",
height=iAObj.options["groundSize"],
width=iAObj.options["groundSize"])
ground_shader = pm.shadingNode("lambert", asShader=True)
visiblity = iAObj.options["groundVisibility"] / 100
ground_shader.transparency.set(visiblity, visiblity, visiblity)
pm.select(ground_transform)
pm.hyperShade(assign=ground_shader.name())
new_nodes.extend([
ground_transform.name(),
ground_shape.name(),
ground_shader.name()
])
self.newData = set(new_nodes)
self.oldData = set()
self.linkToFtrackNode(iAObj)
def setup_follow_through():
"""
Setup follow through (jiggle planes) to each selected transform object.
Jiggle deformers are returned to allow users to animate the deformer attributes
before baking.
:return: List of jiggle deformers.
:rtype: list(pm.PyNode)
"""
# -- Grab the selected transforms
node_list = pm.selected(type='transform')
# -- Validate node list
if not node_list:
pm.warning('Select at least 1 transform object!')
return None
# -- Grab the current start and end frames
start_frame = pm.playbackOptions(q=True, min=True)
end_frame = pm.playbackOptions(q=True, max=True)
# -- Iterable variables for later
to_delete = []
plane_trans_list = []
# -- For each node
for node in node_list:
# -- Create a 10x10 poly plane
plane_trans = pm.polyPlane(
w=10,
h=10,
sx=1,
sy=1,
)[0]
plane_trans_list.append(plane_trans)
# -- Constrain the plane to the give node (delete later)
to_delete.append(pm.parentConstraint(node, plane_trans, mo=False))
# -- Bake all planes in one go (translate and rotate).
# -- This is to sever any dependency on the selected transforms, and
# -- removing any potential cyclic issues.
pm.bakeResults(
plane_trans_list,
time=[
start_frame,
end_frame,
],
at=['t', 'r'],
sm=True,
)
# -- Delete plane constraints
pm.delete(to_delete)
# -- List of jiggle deformers to select & return
jiggle_list = []
# -- Go to the first frame
pm.currentTime(start_frame)
# -- Setup and connect each node to plane
for node, plane_trans in zip(node_list, plane_trans_list):
# -- Create a jiggle deformer on the plane
pm.select(plane_trans)
pm.mel.CreateJiggleDeformer()
# -- Get the plane's shape
plane_shape = plane_trans.getShape()
# -- Get the Jiggle deformer
jiggle_deformer = plane_shape.inputs(type='jiggle')[0]
jiggle_list.append(jiggle_deformer)
# -- Set the default jiggle settings
for attr, value in JIGGLE_DEFAULTS.iteritems():
jiggle_deformer.attr(attr).set(value)
# -- Create and setup a follicle on the plane's shape
follicle = pm.createNode('follicle')
# -- Get the follicle's transform node (parent)
follicle_trans = follicle.getParent()
plane_shape.outMesh.connect(follicle.inputMesh)
plane_shape.worldMatrix[0].connect(follicle.inputWorldMatrix)
follicle.outRotate.connect(follicle_trans.rotate)
follicle.outTranslate.connect(follicle_trans.translate)
# -- Position the follicle in the center of the plane
follicle.parameterU.set(0.5)
follicle.parameterV.set(0.5)
# -- Lock the follicle_trans translate and rotate attributes
follicle_trans.translate.lock()
follicle_trans.rotate.lock()
# -- Constrain the original node to the follicle_trans
constraint = pm.parentConstraint(follicle_trans, node, mo=True)
# -- Connect the plane_trans to a custom attribute
# -- on the constraint for retrieval (when baking).
# -- Add it to the constraint as we clean it up
# -- anyway (no need to dirty the rig).
constraint.addAttr('ld_jiggle_node', at='message')
plane_trans.message.connect(constraint.ld_jiggle_node)
# -- Delete animation on the nodes (constrained
# -- by the planes by now anyway)
pm.cutKey(node_list, at=['t', 'r'], cl=True)
# -- Select the node list (allows the bake process to run
# -- immediately after).
# -- Would recommend selecting the jiggle_list to allow users
# -- to animate the jiggle deformer instead.
pm.select(node_list)
return jiggle_list
def repeat_over_sphere( width, radius, rand_rot_min_max=[0,5], rotate_axis=[1, 1, 1] ): ''' Args: width (float): width of panels radius (float): radius of disco ball rand_rot_min_max (list of float): min/max rotation random of list of size 2 Returns: (None) Usage: repeat_over_sphere( .13, 1, rand_rot_min_max=[-2,2], rotate_axis=[1,1,.2] ) ''' namer = lib_env.AssetNameFormatter() master = pm.polyPlane(w=width, h=width, sx=1, sy=1)[0] master.translate.set(0,0,radius) master.rotateX.set(90) main_grp = pm.group(n=namer.get(name='disco_ball', type='group'), em=True) #Initial column creation rotation_angle, num_copies = lib_math.get_repetitions_around_circle( width, radius ) rotate_rand = rotation_angle/2 #create seed rows rows, row_grps, panels = [], [], [] for r in range(0, int( math.ceil(num_copies/2.0) )): mirror_alpha = chr( r+97 ).upper() name = 'mirror_row%02d_%02d'%( r, 0 ) grp = pm.group( n=namer.get(name=name+'Offset', type='group'), em=True ) dup = pm.duplicate( master, n=namer.get(name=name, type='mesh'), rr=True )[0] dup.setParent(grp) pm.rotate( grp, [(-1*rotation_angle*r)-90, 0, 0], r=True) panels.append( dup ) rows.append( grp ) for mirror_index, mirror in enumerate(rows): row_grp = pm.group(n=namer.get( name='mirror_row%02dOffset'%( mirror_index ), type='group'), em=True) mirror.setParent( row_grp ) height = mirror.getBoundingBoxMax(space='world')[1] if height<0: height = mirror.getBoundingBoxMin(space='world')[1] cross_section_r = lib_math.get_sphere_cross_section_radius( radius, height ) rotation_angle, num_copies = lib_math.get_repetitions_around_circle( width, cross_section_r ) for i in range(1, num_copies): dup = pm.duplicate(mirror, n=namer.get( name='mirror_row%02d_%02dOffset'%( mirror_index, i ), type='group' ), rr=True)[0] dup.getChildren(type='transform')[0].rename( namer.get( name='mirror_row%02d_%02d'%( mirror_index, i ), type='mesh' ) ) dup.setParent( row_grp ) dup.rotatePivot.set( 0,0,0 ) dup.scalePivot.set( 0,0,0 ) pm.rotate( dup, [0, rotation_angle*i, 0], r=True ) panels.append( dup.getChildren(type='transform')[0] ) row_grp.setParent( main_grp ) row_grps.append( row_grp ) rot = rotate_rand #now rotate all the rows randomly to appear shifted for row_grp in row_grps: row_grp.rotateY.set( rot ) rot += rotate_rand*2 #randomly rotate panels min, max = rand_rot_min_max if not min==max: for panel in panels: rand_rot = [(random.randrange(min, max)) * rotate_axis[0] + panel.rotate.get()[0], (random.randrange(min, max)) * rotate_axis[1] + panel.rotate.get()[1], (random.randrange(min, max)) * rotate_axis[2] + panel.rotate.get()[2]] panel.rotate.set( rand_rot ) #cleanup pm.delete( master )
def generateFollowPlane(self, *args):
startTime = pm.playbackOptions(q=1, min=1)
endTime = pm.playbackOptions(q=1, max=1)
sel_list = pm.ls(sl=1, ni=1, type="transform")
if not sel_list:
pm.confirmDialog(message='请选择物体', button=['确定'])
return
for sel in sel_list:
# snapshot = pm.snapshot(sel,st=startTime,et=endTime)[1]
snapshot = pm.createNode("snapshot")
sel.selectHandle.connect(snapshot.localPosition)
sel.worldMatrix[0].connect(snapshot.inputMatrix)
snapshot.startTime.set(startTime)
snapshot.endTime.set(endTime)
snapshot.increment.set(1)
anim_curve = pm.curve(n=sel + "_follow_curve",
d=3,
p=snapshot.pts.get())
pm.delete(snapshot)
curve_length = pm.arclen(anim_curve, ch=0)
plane, plane_node = pm.polyPlane(n=sel + "_follow_plane",
sx=20,
sy=3,
w=curve_length,
h=20)
plane_grp = pm.group(plane, n=plane + "_grp")
# NOTE 创建运动路径跟随
motion_path = pm.pathAnimation(
plane_grp,
anim_curve,
fractionMode=1,
follow=1,
followAxis="x",
upAxis="y",
worldUpType="vector",
worldUpVector=(0, 1, 0),
inverseUp=0,
inverseFront=0,
bank=0,
startTimeU=startTime,
endTimeU=endTime,
)
motion_path = pm.PyNode(motion_path)
flow_node, ffd_node, lattice_node, ffd_base = pm.flow(plane_grp,
dv=(100, 2,
2))
# NOTE 设置外部影响
ffd_node.outsideLattice.set(1)
ffd_node.local.set(1)
plane_node.width.set(50)
lattice_node.v.set(0)
ffd_base.v.set(0)
# NOTE 设置 Parametric Length 匹配位置
motion_path.fractionMode.set(0)
# NOTE 设置为 normal 朝向确保不会翻转
motion_path.worldUpType.set(4)
animCurve = motion_path.listConnections(type="animCurve")[0]
# NOTE 关键帧设置为线性
animCurve.setTangentTypes(range(animCurve.numKeys()),
inTangentType="linear",
outTangentType="linear")
# NOTE 打组
pm.group(lattice_node,
ffd_base,
plane_grp,
anim_curve,
n=sel + "_follow_grp")
pm.select(plane)
#connect file to ocio node file_node.outColor >> ocio_node.input_color file_node.outSize.outSizeX >> ocio_node.width file_node.outSize.outSizeY >> ocio_node.height pm.select(cl = True) #connect ocio node to shader ocio_node.output_color >> shader_node.outColor pm.select(cl = True) #set texture file file_node.fileTextureName.set(texture_dir +'/' +texture_name) #polyplane_transform_node, polyplane_shape_node polyplane_transform_node, polyplane_shape_node = pm.polyPlane(n = 'ocio_test_polyplane', sx = 10, sy = 10, axis = (0,1,0), width = 12.8, height = 7.8) pm.select(cl = True) #connect plane to shader pm.sets(shading_group_node, forceElement = polyplane_transform_node.name()) pm.select(cl = True) #render_cam render_cam_transform, render_cam_shape = pm.camera() pm.select(cl = True) pm.rename(render_cam_transform, 'render_cam') render_cam_transform.translate.set(0,13,7) render_cam_transform.rotate.set(-65,0,0) pm.setKeyframe(render_cam_transform, s = False) pm.lookThru(render_cam_transform)