class dl_reflection(deluxe.ReflectionRefractionComponent):
typeid = 0x00300005
description = "Calculates reflections "
deluxe.ReflectionRefractionComponent.indexOfRefraction.default = 0
occIntensityMult = deluxe.Float(
storage='uniform',
default=1,
softmin=0,
softmax=2,
help="Intensity multiplier for raytraced reflection occlusion.")
occSamplesMult = deluxe.Float(
shortname='os',
storage='uniform',
default=1,
softmin=0,
softmax=2,
help="Samples multiplier for raytraced reflection occlusion.")
occConeAngleMult = deluxe.Float(
storage='uniform',
default=1,
softmin=0,
softmax=2,
help="Cone angle multiplier for raytraced reflection occlusion.")
reflectionOcclusion = deluxe.Group(
[occIntensityMult, occSamplesMult, occConeAngleMult])
rsl = \
"""
class dl_shadowCollector(deluxe.DiffuseBase, deluxe.ShadingComponent):
typeid = 0x00300012
description = """Shading component for collecting shadows from lights.
Direct shadows (affecting diff, spec and rim) go in aov_direct_shadow,
whereas indirect shadows (affecting indirect lighting) go in aov_indirect_shadow.
The beauty pass is not meant to be used, it's just for visualization."""
beautyModes = [
'r=Direct, g=Indirect, b=Hemisphere Falloff',
'Direct + Indirect (white)', 'Direct (white)', 'Indirect (white)',
'For slapcomp: rgb = shadowColor * shadowOpacity, (alpha = Direct + Indirect)*shadowOpacity'
]
beautyMode = deluxe.Enum(default=beautyModes[0],
choices=beautyModes,
storage='varying',
help="What to show in the beauty. ")
diffuseFalloff = deluxe.Float(
shortname='dfo',
default=1,
help="Make shadows fade as normal points away from light.")
useLightColor = deluxe.Enum(
shortname='ulc',
default="Direct & Indirect",
storage='varying',
choices=["Direct & Indirect", "Direct", "Indirect", "None"])
shadowColor = deluxe.Color(shortname='shc',
default=0,
help="""
Color of shadow, ONLY USED WHEN showInBty == 'rgb = shadowColor * shadowOpacity, alpha = (Direct + Indirect)*shadowOpacity'
""")
shadowOpacity = deluxe.Float(shortname='sho',
default=1,
help="Opacity/intensity of shadows.")
hemispheres = deluxe.Float(
default=.9,
max=2,
help=
"""How much of the hemisphere around the normal to search for direct shadows.
To include self-shadowing, use 2 (search whole sphere).
To not include self-shadowing, use < 1 (search less than hemisphere)."""
)
hemisphereFalloff = deluxe.Float(
default=0.05,
max=1,
help="How far from the searched hemisphere to fade direct shadows.")
advanced = deluxe.Group(
[shadowColor, shadowOpacity, hemispheres, hemisphereFalloff])
rsl = \
"""
class dl_screen(deluxe.Texture2D):
typeid = 0x00366668
description = " Makes a surface that looks like a metal screen."
density = deluxe.Float(default=0.25, max=1)
frequency = deluxe.Float(default=20, softmax=100)
rslpost = ""
rsl = """
class dl_diffuse(deluxe.DiffuseBase, deluxe.ShadingComponent):
typeid = 0x00300001
description = "Returns the result of the diffuse shading operator."
includes = ["env_utils.h"]
roughness = deluxe.Float(default=0, min=0, max=1, help="Values greater than 0 cause the illuminated area to be more uniformly lit and darker, and create a sharper falloff between illuminated and non-illuminated areas.")
wrap = deluxe.Float(default=0, min=-1, max=1, help='Allows diffuse illumination to "wrap around" to surfaces where the normal is pointing away from the light.')
diffuseIntensity = deluxe.Color(help="Multiply direct diffuse - direct lighting multiplied by this AND the \"color\" parameter.")
indirectIntensity = deluxe.Color(help="Multiply indirect diffuse - indirect lighting multiplied by this AND the \"color\" parameter.")
#Direct = deluxe.Group([roughness, wrap], collapse=False)
#Indirect = deluxe.Group([indirectIntensity], collapse=False)
translucenceIntensity = deluxe.Color(help="Multiply translucence - translucence lighting multiplied by this AND the \"color\" parameter.", default=0)
modes = ['Normal', 'Thin']
mode = deluxe.Enum(default=modes[0], choices=modes, help="")
focus = deluxe.Float(min=0, max=1, default=0.5, help="Translucence focus")
normalAttributes = deluxe.Group([focus], collapse=False)
subsurfaceWeight = deluxe.Float(shortname='ssw' )
subsurfaceIntensity = deluxe.Color(shortname='ssi')
subsurfaceScale = deluxe.Float(shortname='sssc', default=0.1)
subsurfaceSmooth = deluxe.Float(shortname='sssm', default=0, storage='uniform', label="Smooth")
subsurfaceIndexOfRefraction = deluxe.Float(shortname='ssior', default=1.5, label='Index Of Refraction')
subsurfacePtcFile = deluxe.String(default='', label='Point Cloud File',
help="""(Point-Based) The point cloud file in which baked radiance is stored.""")
subsurfaceModes = ['Scattering / Absortion', 'Albedo / Mean Free Path']
subsurfaceMode = deluxe.Enum(default=subsurfaceModes[0], choices=subsurfaceModes, help="")
subsurfaceScattering = deluxe.Color(shortname='ssc', default=[0.5, 0.5, 0.5], label='Scattering' )
subsurfaceAbsorption = deluxe.Color(shortname='sssa', default=[0.05, 0.05, 0.05], label='Absorption' )
subsurfaceAlbedo = deluxe.Color(shortname='ssa', default=[0.3,0.3, 0.3], label='Albedo' )
subsurfaceDiffuseMeanFreePath = deluxe.Color(shortname='dmfp', default=[3, 3, 3], label='Mean Free Path' )
#subsurfaceScatteringAttributes = deluxe.Group([subsurfaceWeight, subsurfaceIntensity, subsurfaceScale, subsurfaceSmooth, subsurfaceIndexOfRefraction, subsurfaceScattering, subsurfaceAbsorption, subsurfaceAlbedo, subsurfaceDiffuseMeanFreePath, subsurfacePtcFile], collapse=False)
subsurfaceScatteringAttributes = deluxe.Group([subsurfaceWeight, subsurfaceIntensity, subsurfaceScale, subsurfaceSmooth, subsurfaceIndexOfRefraction, subsurfaceMode, subsurfaceScattering, subsurfaceAbsorption, subsurfaceAlbedo, subsurfaceDiffuseMeanFreePath, subsurfacePtcFile], collapse=False)
creep = deluxe.Float(shortname='cre', help="Degree to which light creeps to the front")
backIllumination = deluxe.Boolean(default=True,
storage='uniform',
help="Calculate illumination for the back side of the object. This is the typical use and is accomplished by reversing the surface normal.")
thinAttributes = deluxe.Group([creep, backIllumination], collapse=False)
translucenceAttributes = deluxe.Group([translucenceIntensity, mode, normalAttributes, thinAttributes], collapse=False)
bakeDistUnderSurf = deluxe.Boolean(shortname='bdus', default=False)
bakeDistUnderSurfFile = deluxe.String(shortname='bdusf', default="/tmp/dist.#.bake")
bakeDistUnderSurfScale = deluxe.Float(shortname='bduss', default=1)
bakingAttributes = deluxe.Group([bakeDistUnderSurf, bakeDistUnderSurfFile, bakeDistUnderSurfScale])
rsl = \
"""
class dl_iridescence(deluxe.Utility):
typeid = 0x00370010
includes = ["noise_utils.h", "env_utils.h", "component_utils.h"]
description = "iridescence function"
facingColour = deluxe.Color(shortname="fc",
default=[0, 0, 1],
help="""
The color where the surface is facing the camera. As the normal turns away from the camera,
the hue changes, but the value and saturation remain the same.""")
hueShift = deluxe.Float(shortname="sh",
storage='uniform',
default=2,
help="""
How much the hue shifts as the normal goes from facing the camera to perpendicular, eg. if
hueShift = 2, the hue will do two complete rainbows from the center to edge of a sphere."""
)
noise = deluxe.Float(shortname="nsy",
storage='uniform',
default=1,
help="""
How much swirly (domain-distorted) noise is added to hue shift. """)
noiseFrequency = deluxe.Float(shortname="nf",
storage='uniform',
default=1,
help="""
Frequency of the hue shift noise.""")
noiseOctaves = deluxe.Float(shortname="no",
storage='uniform',
default=3,
help="""
How many octaves of noise to do.""")
noiseWarp = deluxe.Float(shortname="nw",
storage='uniform',
default=.5,
help="""
How how swirly (domain-distorted) the noise should be.""")
noiseSpeed = deluxe.Float(shortname="ns",
storage='uniform',
default=.1,
help="""
Speed at which the noise morphs and moves downward relative to the frame number.
""")
ior = deluxe.Float(shortname="ior",
storage='uniform',
default=1.3,
help="""
THIS ONLY AFFACTS outAlpha, NOT outColor. To create semi-transparent surfaces
eg. bubbles, plug outAlpha into dl_ultra's opacity parameter. ior sets the
index of refraction, which determines how much the opacity is reduced where the
normal faces the camera (higher value = more opaque).
""")
outColor = deluxe.Color(shortname="oc", output=True)
outAlpha = deluxe.Float(shortname="oa", output=True)
rsl = \
"""
class dl_incandescence(deluxe.ShadingComponent):
typeid = 0x0030000a
description = "Simple incandescence to simulate internal illumination."
bakeIncomingColor = deluxe.Enum(
help="""
To bake a color or float to a 2d texture using uv
coordinates, plug the output from a hypershade node
into the Color parameter, set this to 'As color' or
'As float' and specify a path in the Bake File parameter.
To ensure that the baked color does not contribute to the
beauty pass, set Intensity and/or Contribution to 0.
""", default='Off',
choices=['Off', 'As color', 'As float (luminance)']
)
bakeFile = deluxe.String (help="""
File to bake 2d texture to. The .bake suffix is
recommended, then do tdlmake filename.bake filename.tdl.
""", default="bakedColor.bake")
method = deluxe.Enum(default='Uniform',
choices=['Uniform', 'Facing', 'Edge', 'Light'],
storage='uniform',
help="Method of incandescence approximation")
shape = deluxe.Float(default=1, storage='uniform',
help='Shape of falloff (for "Edge" and "Facing" methods). Values above 1 falloff sooner. Values below 1 fall off later.')
rsl = \
"""
class dl_cellNoise(deluxe.Texture3D):
typeid = 0x0030013b
description = "\"Worley noise\" from \"A Cellular Texture Basis Function\", SIGGRAPH '96"
frequency = deluxe.Float(default=4, softmin=.1, softmax=10, storage='uniform', help="Controls the size of the cells. Higher frequencies make smaller cells.")
noisetype = deluxe.Enum(default='Voronoi Euclidian',choices=['Voronoi Euclidian','Voronoi Manhattan','Simple Cellnoise'] ,storage='uniform', help="The means to measure distances to neighboring cells. Manhattan distance gives more rectangular shapes and Euclidian distance gives more spherical shapes.")
jitter = deluxe.Float(default=0.75, softmin=0, softmax=1, help="Controls the distortion of the cells.")
clamp = deluxe.Boolean(default=True, storage='uniform', help="Causes resulting distances to be clamped to the range 0->1")
c1 = deluxe.Float(default=0.8, softmin=-2, softmax=2, help="Multiplier for the distances to the first feature.")
c2 = deluxe.Float(default=-0.2, softmin=-2, softmax=2, help="Multiplier for the distance to the second feature.")
voronoi = deluxe.Group([jitter, clamp, c1, c2], collapse=False)
avgcolor = deluxe.Color(shortname='ac', default=1, storage='uniform', help="")
colorvariation = deluxe.Float(shortname='cv', default=.5, storage='uniform', help="")
simple = deluxe.Group([avgcolor, colorvariation], collapse=False)
rslpost = ""
rsl = \
"""
class dl_fresnel(deluxe.ShadingComponent):
typeid = 0x00300004
description = "Weights an interior and an exterior shadingcomponent based upon a fresnel calculation "
indexOfRefraction = deluxe.Float(
default=1.5,
softmax=3,
storage='uniform',
help=
"(Relative) index of refraction of material to use for weighting the two components. The index of refraction from air to glass is 1.5. Air to water is 1.33."
)
amount = deluxe.Float(default=1,
storage='uniform',
help="Amount of fresnel weighting")
interior = deluxe.ShadingComponent.generateComponents('int')
exterior = deluxe.ShadingComponent.generateComponents('ext')
rsl = \
"""
class dl_projectionCollector(deluxe.Utility):
typeid = 0x00370003
classification = 'utility/color'
description = "Wrapper around 3Delight \"texture\" function"
baseColor = deluxe.Color(
default=0, help="Color before projected textures are applied.")
baseAlpha = deluxe.Float(
default=0, help="Alpha before projected textures are applied.")
projLightSubset = deluxe.String(default="",
help="""
Receive projections only from projectionLights with matching projLightSubset values.
They are evaluated in alphabetical order.
""")
outColor = deluxe.Color(shortname="oc", output=True)
outAlpha = deluxe.Float(shortname="al", output=True)
rsl = """
class dl_sinus(deluxe.Texture2D):
typeid = 0x00350001
description = "2d sine texture"
symmetric = deluxe.Boolean(help="allow negative values,disabling power")
normalized = deluxe.Boolean(help="remap symmetric to 0-1")
power = deluxe.Float(default=1,
softmax=10,
help="scaling factor non-symmetric curves")
rslpost = ""
rsl = \
"""
class dl_brick(deluxe.Texture2D):
typeid = 0x00366666
description = "Makes a wall of bricks. Need more be said?"
brickColor = deluxe.Color(default=(0.6, 0.1, 0.1), help="Brick Color")
mortarColor = deluxe.Color(default=(0.6, 0.6, 0.6), help="Mortar Color")
jagged = deluxe.Float(default=0.006,
softmin=0,
max=1,
help="How much do bricks deviate from squares?")
brickVary = deluxe.Float(
default=0.3,
min=0,
max=1,
help="How much does the brick color vary from brick to brick?")
brickWidth = deluxe.Float(default=.25,
min=0,
max=1,
help="Width of a brick")
brickHeight = deluxe.Float(default=.08,
min=0,
max=1,
help="Height of a brick")
mortarThickness = deluxe.Float(default=.01,
min=0,
max=1,
help="Thickness of the mortar")
rowVary = deluxe.Float(default=.25,
min=0,
max=1,
help="How much does each row shift")
rslpost = ""
rsl = """
class dl_specular(deluxe.ShadingComponent, deluxe.EnvironmentMapBase):
typeid = 0x00300002
description = "The specular component simulates the reflection of light sources. Samples all incoming lights along the specular direction of the surface."
includes = ["env_utils.h"]
model = deluxe.Enum(default='3Delight',
choices=['3Delight', 'Standard', 'Phong', 'Cook-Torrance', 'Glossy', 'Anisotropic', 'Kajiya'],
storage='uniform',
help="""Specular model to use. 3Delight, Standard and Phong all model traditional specularity.
Cook-Torrance is for metallic surfaces, Glossy is for highly glossy surfaces, and
Kajiya assumes the surface is a hair-like thin tube.""")
roughness = deluxe.Float(min=0, softmax=0.2, default=0.05,
help="Size or roughness of highlight")
sharpness = deluxe.Float(min=0, softmax=1, default=0.2,
help="(Glossy) Sharpness of highlight. 1 is infinitely sharp, 0 is very dull.")
indexOfRefraction = deluxe.Float(default=0, min=0, softmax=50,
help="Index of refraction of the material")
uRoughness = deluxe.Float(min=0, softmax=1, default=0.2, help="(Anisotropic) Size of highlight in the U direction ")
vRoughness = deluxe.Float(min=0, softmax=1, default=0.9, help="(Anisotropic) Size of highlight in the V direction ")
useEnvironment = deluxe.Boolean(default=False,
help="Whether to respond to traditional CG lights only or also include lighting from the environment. ")
rsl = \
"""
class dl_curvature(deluxe.Utility):
typeid = 0x0030000c
description = "Simple incandescence to simulate internal illumination. "
CurvatureType = deluxe.Enum(default='mean', description="""
I'm honestly not sure how these calculations are done,
but 'mean' seems work best.""",
choices=['gaussian', 'mean', 'ku', 'kv', 'min', 'max'])
remapInMin = deluxe.Float(default=-1, shortname='inmin',
description='(unclamped) minimum input value to remap curvature')
remapInMax = deluxe.Float(default=1, shortname='inmax',
description='(unclamped) maximum input value to remap curvature')
remapOutMin = deluxe.Float(default=0, shortname='outmin',
description='(unclamped) minimum output value to remap curvature')
remapOutMax = deluxe.Float(default=1, shortname='outmax',
description='(unclamped) maximum output value to remap curvature')
outColor = deluxe.Color(output=True)
outAlpha = deluxe.Float(output=True)
rsl = \
"""
class dl_hextile(deluxe.Texture2D):
typeid = 0x00366667
description = "Makes a pattern of hexagonal tiles"
tileColor = deluxe.Color(default=(0.55, 0.0, 0.0), help="")
mortarColor = deluxe.Color(default=(0.5, 0.5, 0.5), help="")
tileRadius = deluxe.Float(default=0.2, min=0, max=1, help="")
mortarWidth = deluxe.Float(default=0.02, min=0, max=1, help="")
tileVary = deluxe.Float(default=0.15, min=0, max=1, help="")
tileScuffing = deluxe.Float(default=0.5, min=0, max=1, help="")
stains = deluxe.Float(default=0.4, min=0, max=1, help="")
stainFrequency = deluxe.Float(default=2, min=0, softmax=100, help="")
tileScuffFrequency = deluxe.Float(default=4, min=0, softmax=100, help="")
tileScuffColor = deluxe.Color(default=(.05, .05, .05), help="")
rslpost = ""
rsl = """
class dl_bakeLightShape(deluxe.Light):
typeid = 0x00310004
description = "Light that bakes geometry to point clouds."
includes = ['utils.h']
#
# deluxe.Light.intensity.hidden = True
# deluxe.Light.lightColor.hidden = True
ptcFile = deluxe.File(
default='default.ptc',
label='Point Cloud File',
help="""The point cloud file in which to bake geometry.""")
ptcFileNoSelfOcclude = deluxe.File(
default='default.ptc',
label='Point Cloud (No Self) File',
hidden=True,
help="""The point cloud file in which to bake objects
THAT DON'T OCCLUDE THEMSELVES OR EACH OTHER
( Attribute "user" "float selfOcclude" [ 0 ] ), eg groundplane."""
)
coordSys = deluxe.CoordinateSystem(
default='world',
label='Coordinate System',
help=
"""The coordinate system in which points will be stored in the ptc file. Default is "world"."""
)
radiusScale = deluxe.Float(shortname='rsc',
default=1,
softmax=3,
help="Scale radius of baked points.")
bakeRadiosity = deluxe.Boolean(
default=False,
help="""Bake radiosity at each point. Turn this on if you are doing
point-based indirect lighting (color bleeding)."""
)
bakeRadiosityVariable = deluxe.String(
default="Ci",
help=
"""If bakeRadiosity is on, this is the variable that is baked from surface shaders.
To avoid baking camera-dependent channels such as specular and reflection,
you can bake just diffuse illumination by entering 'aov_diffuse'.
The aov_diffuse AOV must be enabled for this to work."""
)
bakeRaytracing = deluxe.Boolean(
shortname='brt',
default=False,
help="""Bake raytrace points (bug-prone).""")
opacityThreshold = deluxe.Float(
shortname='oth',
default=-1,
help="Points with opacity lower than this value will not be baked.")
useBoundingBoxes = deluxe.Boolean(shortname='usebbx',
default=False,
help="Use bounding boxes")
boundBox1enable = deluxe.Boolean(shortname='bbxe1',
default=False,
help="Use bounding box 1")
boundBox1min = deluxe.Point(shortname='bbxmn1',
help="xyz minimum for bounding box 1.")
boundBox1max = deluxe.Point(shortname='bbxmx1',
help="xyz maximum for bounding box 1.")
boundBox1buffer = deluxe.Float(
shortname='bbxbf1',
softmax=10,
help="How much extra space to add to each side of bounding box 1.")
boundBox2enable = deluxe.Boolean(shortname='bbxe2',
default=False,
help="Use bounding box 2")
boundBox2min = deluxe.Point(shortname='bbxmn2',
help="xyz minimum for bounding box 2.")
boundBox2max = deluxe.Point(shortname='bbxmx2',
help="xyz maximum for bounding box 2.")
boundBox2buffer = deluxe.Float(
shortname='bbxbf2',
softmax=10,
help="How much extra space to add to each side of bounding box 2.")
boundBox3enable = deluxe.Boolean(shortname='bbxe3',
default=False,
help="Use bounding box 3")
boundBox3min = deluxe.Point(shortname='bbxmn3',
help="xyz minimum for bounding box 3.")
boundBox3max = deluxe.Point(shortname='bbxmx3',
help="xyz maximum for bounding box 3.")
boundBox3buffer = deluxe.Float(
shortname='bbxbf3',
softmax=10,
help="How much extra space to add to each side of bounding box 3.")
boundBox4enable = deluxe.Boolean(shortname='bbxe4',
default=False,
help="Use bounding box 4")
boundBox4min = deluxe.Point(shortname='bbxmn4',
help="xyz minimum for bounding box 4.")
boundBox4max = deluxe.Point(shortname='bbxmx4',
help="xyz maximum for bounding box 4.")
boundBox4buffer = deluxe.Float(
shortname='bbxbf4',
softmax=10,
help="How much extra space to add to each side of bounding box 4.")
boundBox5enable = deluxe.Boolean(shortname='bbxe5',
default=False,
help="Use bounding box 5")
boundBox5min = deluxe.Point(shortname='bbxmn5',
help="xyz minimum for bounding box 5.")
boundBox5max = deluxe.Point(shortname='bbxmx5',
help="xyz maximum for bounding box 5.")
boundBox5buffer = deluxe.Float(
shortname='bbxbf5',
softmax=10,
help="How much extra space to add to each side of bounding box 5.")
boundingBoxes = deluxe.Group([
useBoundingBoxes, boundBox1enable, boundBox1min, boundBox1max,
boundBox1buffer, boundBox2enable, boundBox2min, boundBox2max,
boundBox2buffer, boundBox3enable, boundBox3min, boundBox3max,
boundBox3buffer, boundBox4enable, boundBox4min, boundBox4max,
boundBox4buffer, boundBox5enable, boundBox5min, boundBox5max,
boundBox5buffer
])
do_bake = deluxe.Boolean(default=True,
message=True,
messagetype='lightsource')
# category
__category = deluxe.String(default='bakelight',
message=True,
messagetype='lightsource')
_3delight_light_category = deluxe.String(default='bakelight',
notemplate=True,
norsl=True)
rsl = \
"""
class dl_volumeNoise(deluxe.Texture3D):
typeid = 0x00300339
includes = ["volumeNoise_utils.h"]
# u float
frequencyIncrement = deluxe.Float(shortname="fd",
default=.5,
storage="uniform")
threshold = deluxe.Float(shortname="th", default=0, storage="uniform")
amplitude = deluxe.Float(shortname="am", default=1, storage="uniform")
ratio = deluxe.Float(shortname="ra", default=.707, storage="uniform")
frequencyRatio = deluxe.Float(shortname="fr", default=2, storage="uniform")
depthMax = deluxe.Float(shortname="dm", default=3, storage="uniform")
inflection = deluxe.Boolean(shortname="in",
default=False,
storage="uniform")
time = deluxe.Float(shortname="ti", default=0, storage="uniform")
frequency = deluxe.Float(shortname="fq", default=8)
# u point
scale = deluxe.Point(shortname="sc", default=1, storage="uniform")
origin = deluxe.Point(shortname="or", default=0, storage="uniform")
# float
implode = deluxe.Float(shortname="im", default=0)
# point
implodeCenter = deluxe.Point(shortname="ic", default=0)
# u float
noiseType = deluxe.Enum(shortname="nt",
default="Billow",
choices=[
"Perlin Noise", "Billow", "Volume Wave",
"Wispy", "SpaceTime"
],
storage="uniform")
# float
density = deluxe.Float(shortname="de", default=1)
spottyness = deluxe.Float(shortname="sp", default=.1)
sizeRand = deluxe.Float(shortname="sr", default=0)
randomness = deluxe.Float(shortname="rn", default=1)
falloff = deluxe.Enum(shortname="fa",
default="Fast",
choices=["Linear", "Smooth", "Fast", "Bubble"])
# float
numWaves = deluxe.Float(shortname="nw", default=5)
rsl = \
"""
class dl_triplanar(deluxe.Utility):
typeid = 0x00300335
description = "Triplanar texture projector."
coordsys = deluxe.CoordinateSystem(shortname="cs",
default="world",
help="""
Enter a standard shading space (eg 'world', 'object') or a coordinate system shape.
""")
scale = deluxe.Float(shortname="sc",
default=1,
help="Global scale for x, y, and z projections.")
blendWidth = deluxe.Float(
shortname="bl",
default=.5,
help=
"How much to blend between x, y, and z projections (0 makes hard line between them)."
)
warpMode = deluxe.Enum(shortname='wm',
default='Off',
choices=['Off', 'Noise', 'Input'])
warpNoiseAmount = deluxe.Float(shortname='wna', default=1)
warpNoiseFreq = deluxe.Float(shortname='wnf', default=1)
warpNoiseOffset = deluxe.Vector(shortname='wno', default=0)
warpInput = deluxe.Vector(shortname='wi', default=0)
warp = deluxe.Group(
[warpMode, warpNoiseAmount, warpNoiseFreq, warpNoiseOffset, warpInput])
Xtex = deluxe.Image(shortname="xtx",
default="",
help="Texture for projection on x-axis.")
Xrot = deluxe.Float(shortname="xro",
default=0,
softmin=-180,
softmax=180,
help="Rotation about x-axis of x-axis projection.")
XrepeatS = deluxe.Float(shortname="xrs",
default=1,
help="Repetitions of s-coordinate.",
softmin=-2,
softmax=2)
XrepeatTSameAsS = deluxe.Boolean(
shortname="xrst",
default=True,
help=
"Also use XrepeatS value for repetitions of t-coordinate (ignore XrepeatT parameter)."
)
XrepeatT = deluxe.Float(
shortname="xrt",
default=1,
help="Repetitions of t-coordinate (ignored if XrepeatTSameAsS is on).",
softmin=-2,
softmax=2)
Xprojection = deluxe.Group(
[Xtex, Xrot, XrepeatS, XrepeatTSameAsS, XrepeatT], collapse=False)
Ytex = deluxe.Image(
shortname="ytx",
default="",
help=
"Texture for projection on y-axis. If blank or invalid, Xtex is used."
)
Yrot = deluxe.Float(shortname="yro",
default=0,
softmin=-180,
softmax=180,
help="Rotation about y-axis of y-axis projection.")
YrepeatS = deluxe.Float(shortname="yrs",
default=1,
help="Repetitions of s-coordinate.",
softmin=-2,
softmax=2)
YrepeatTSameAsS = deluxe.Boolean(
shortname="yrst",
default=True,
help=
"Also use YrepeatS value for repetitions of t-coordinate (ignore YrepeatT parameter)."
)
YrepeatT = deluxe.Float(
shortname="yrt",
default=1,
help="Repetitions of t-coordinate (ignored if YrepeatTSameAsS is on).",
softmin=-2,
softmax=2)
Yprojection = deluxe.Group(
[Ytex, Yrot, YrepeatS, YrepeatTSameAsS, YrepeatT], collapse=False)
Ztex = deluxe.Image(
shortname="ztx",
default="",
help=
"Texture for projection on z-axis. If blank or invalid, Xtex is used."
)
Zrot = deluxe.Float(shortname="zro",
default=0,
softmin=-180,
softmax=180,
help="Rotation about z-axis of z-axis projection.")
ZrepeatS = deluxe.Float(shortname="zrs",
default=1,
help="Repetitions of s-coordinate.",
softmin=-2,
softmax=2)
ZrepeatTSameAsS = deluxe.Boolean(
shortname="zrst",
default=True,
help=
"Also use ZrepeatS value for repetitions of t-coordinate (ignore ZrepeatT parameter)."
)
ZrepeatT = deluxe.Float(
shortname="zrt",
default=1,
help="Repetitions of t-coordinate (ignored if ZrepeatTSameAsS is on).",
softmin=-2,
softmax=2)
Zprojection = deluxe.Group(
[Ztex, Zrot, ZrepeatS, ZrepeatTSameAsS, ZrepeatT], collapse=False)
Pref = deluxe.Point(message=True,
messagetype='Pref_param',
storage='varying')
outColor = deluxe.Color(output=True)
rslpost = ""
rsl = \
"""
class dl_attributeFloat(deluxe.AttributeNode):
typeid = 0x39cb4863
description = "Generic float attribute."
inputValue = deluxe.Float(default=1.0)
outputValue = deluxe.Float(output=True)
class dl_displacement(deluxe.Displacement):
typeid = 0x00320000
includes = ["displacement_utils.h"]
globalScale = deluxe.Float(min=0, max=1, default=1, storage='uniform')
globalOffset = deluxe.Float(softmin=-1,
softmax=1,
default=0,
storage='uniform')
useShadingNormals = deluxe.Boolean(
default=False,
help="""When a displacement map is used, this shader calls
calculatenormal(). This causes polygonal data to
appear faceted. This parameter causes the original
shading normal offset to be added to the calculated
normal, generally re-smoothing polygonal data."""
)
useNormalMap = deluxe.Boolean(
default=False,
storage='uniform',
help=
"If on, the normal is set by an input to the normalMap parameter, typically a texture."
)
normalMap = deluxe.Color(
default=0,
storage='varying',
help="""If the useNormalMap parameter is on, this sets the normal.
Typically you would input a colour texture of a worldspace normal map.
""")
# per input parameters
name = deluxe.String(default="input",
help="Name of this displacement layer.",
norsl=True)
enable = deluxe.Boolean(default=True,
help="Enable/disable this layer of displacement.")
alpha = deluxe.Float(shortname="alpha",
default=1,
min=0,
max=1,
help="Alpha for this layer of displacement.")
scale = deluxe.Float(default=1,
softmin=-1,
softmax=1,
help="Scale this layer of displacement.")
offset = deluxe.Float(default=0,
softmin=-1,
softmax=1,
help="Offset this layer of displacement.")
bumpOrDisplace = deluxe.Float(
default=1,
min=0,
max=1,
help="Only modifies the normal if 0, displaces at 1, blends between.")
recalculateNormal = deluxe.Float(
default=1,
min=0,
max=1,
help="Recalculates the normal if 1, does not if 0, blends between.")
amount = deluxe.Float(min=0,
max=1,
help="Plug utility nodes in here to displace.")
lip = deluxe.Float(shortname="lip", min=0, max=1, help="it's a lip.")
lipRimSharp = deluxe.Float(shortname="liprs",
min=0,
max=1,
help="it's a lip.")
inputs = deluxe.Compound([
name, enable, alpha, scale, offset, bumpOrDisplace, recalculateNormal,
amount, lip, lipRimSharp
],
array=True)
selectedInput = deluxe.Integer(hidden=True)
# notes:
# need
# - some kind of list representation for displacement layers
# - way to add and remove layers
# - way to move layers up and down
# - per-input parameters must be connected to array attributes when a layer is selected
template = \
r"""
eval("source \"dl_dgLib.mel\";");
proc rebuildList(string $inputs)
{
textScrollList -edit -deselectAll inputsList;
textScrollList -edit -removeAll -deselectAll inputsList;
int $ix[] = dl_dgPlugArrayGetIndices($inputs);
int $i;
for ($i in $ix)
{
textScrollList -edit -append `getAttr ($inputs +"[" + $i + "].name")` inputsList;
}
}
proc addNewInput(string $inputs)
{
int $new_index = dl_dgPlugArrayAddNew($inputs);
string $plugName = $inputs + "[" + $new_index + "]";
setAttr -type "string" ($plugName + ".name") ("input" + ($new_index +1) );
if ($new_index>0)
{
int $i= getSelectedIndex($inputs);
rebuildList($inputs);
setSelectedIndex($inputs,$i);
}
}
proc int getSelectedScrollIndex(string $inputs)
{
int $selectedScrollIndexArray[] = `textScrollList -query -selectIndexedItem inputsList`;
return $selectedScrollIndexArray[0];
}
proc setSelectedScrollIndex(string $inputs,int $index)
{
textScrollList -edit -selectIndexedItem $index inputsList;
selectInput ($inputs);
}
proc int getSelectedIndex(string $inputs)
{
int $indexList[] = dl_dgPlugArrayGetIndices($inputs);
int $selectedScrollIndex = getSelectedScrollIndex($inputs);
if (!$selectedScrollIndex)
{
return -1;
}
$selectedScrollIndex--;
return $indexList[$selectedScrollIndex];
}
proc setSelectedIndex(string $inputs,int $index )
{
int $scrollIndex = 1;
int $indexList[] = dl_dgPlugArrayGetIndices($inputs);
int $i;
for ($i in $indexList)
{
if ($index == $i)
{
break;
}
else
{
$scrollIndex++;
}
}
setSelectedScrollIndex($inputs,$scrollIndex);
}
proc deleteSelectedInput(string $inputs)
{
if (size(dl_dgPlugArrayGetIndices($inputs)) > 1)
{
int $i= getSelectedIndex($inputs);
textScrollList -edit -deselectAll inputsList;
if ($i>=0)
{
removeMultiInstance -b true ($inputs+"["+$i+"]");
rebuildList($inputs);
}
}
}
proc moveUp(string $inputs)
{
int $i= getSelectedIndex($inputs);
if ($i>=0)
{
int $ix =dl_dgPlugArraySwapWithPrev($inputs,$i);
rebuildList($inputs);
setSelectedIndex($inputs,$ix);
}
}
proc moveDown(string $inputs)
{
int $i= getSelectedIndex($inputs);
if ($i>=0)
{
int $ix = dl_dgPlugArraySwapWithNext($inputs,$i);
rebuildList($inputs);
setSelectedIndex($inputs,$ix);
}
}
proc selectInput (string $inputs)
{
int $i= getSelectedIndex($inputs);
if ($i<0)
{
return;
}
AEreplaceString nameGrp ($inputs+"["+$i+"].name") "";
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].alpha")
alphaGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].scale")
scaleGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].offset")
offsetGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].bumpOrDisplace")
bumpOrdisplaceGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].recalculateNormal")
recalculateNormalGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].amount")
amountGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].lip")
lipGrp;
attrFieldSliderGrp -e
-at ($inputs+"["+$i+"].lipRimSharp")
lipRimSharpGrp;
}
global proc AEdl_displacement_inputs_New(string $inputs)
{
if (!size(dl_dgPlugArrayGetIndices($inputs)))
{
addNewInput($inputs);
}
columnLayout -adj true -cal "center";
rowLayout -nc 2 -adj 1 -cw 2 80;
textScrollList -sc ("selectInput \""+ $inputs + "\"")
-height 150
inputsList;
rebuildList($inputs);
textScrollList -e
-selectIndexedItem 1
inputsList;
columnLayout -cal "center" ;
button -label " up "
-command ("moveUp \""+ $inputs + "\"")
upBtn;
button -label "down"
-command ("moveDown \""+ $inputs + "\"")
downBtn;
setParent..;
setParent..;
button -label "Add new input"
-command ("addNewInput \""+ $inputs + "\"")
addBtn;
button -label "Delete selected input"
-command ("deleteSelectedInput \""+ $inputs + "\"")
delBtn;
textFieldGrp -label "Name"
-cc ("rebuildList " + $inputs)
nameGrp;
connectControl -index 2 nameGrp ($inputs+"[0].name");
attrFieldSliderGrp -label "Alpha"
-attribute ($inputs+"[0].alpha")
-hideMapButton false
alphaGrp;
attrFieldSliderGrp -label "Scale"
-attribute ($inputs+"[0].scale")
-hideMapButton false
scaleGrp;
attrFieldSliderGrp -label "Offset"
-attribute ($inputs+"[0].offset")
-hideMapButton false
offsetGrp;
attrFieldSliderGrp -label "Bump or Displace"
-attribute ($inputs+"[0].bumpOrDisplace")
-hideMapButton false
bumpOrdisplaceGrp;
attrFieldSliderGrp -label "Recalculate Normal"
-attribute ($inputs+"[0].recalculateNormal")
-hideMapButton false
recalculateNormalGrp;
attrFieldSliderGrp -label "Amount"
-attribute ($inputs+"[0].amount")
-hideMapButton false
amountGrp;
attrFieldSliderGrp -label "Lip"
-attribute ($inputs+"[0].lip")
-hideMapButton false
lipGrp;
attrFieldSliderGrp -label "LipRimSharp"
-attribute ($inputs+"[0].lipRimSharp")
-hideMapButton false
lipRimSharpGrp;
setParent..;
}
global proc AEdl_displacement_inputs_Replace(string $inputs)
{
int $selectedIndex = getSelectedIndex($inputs);
int $indexList[] = dl_dgPlugArrayGetIndices($inputs);
if (!size($indexList))
{
addNewInput($inputs);
}
rebuildList($inputs);
textScrollList -e
-sc ("selectInput \""+ $inputs + "\"")
inputsList;
button -e
-command ("moveUp \""+ $inputs + "\"")
upBtn;
button -e
-command ("moveDown \""+ $inputs + "\"")
downBtn;
button -e
-command ("addNewInput \""+ $inputs + "\"")
addBtn;
button -e
-command ("deleteSelectedInput \""+ $inputs + "\"")
delBtn;
textFieldGrp -e
-cc ("rebuildList " + $inputs)
nameGrp;
int $i;
if ($selectedIndex>=0)
{
$i = $selectedIndex;
}
else
{
$i = $indexList[0];
}
setSelectedIndex($inputs,$i);
connectControl -index 2 nameGrp ($inputs+"["+$i+"].name");
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].alpha")
alphaGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].scale")
scaleGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].offset")
offsetGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].bumpOrDisplace")
bumpOrdisplaceGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].recalculateNormal")
recalculateNormalGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].amount")
amountGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].lip")
lipGrp;
attrFieldSliderGrp -e
-attribute ($inputs+"["+$i+"].lipRimSharp")
lipRimSharpGrp;
}
global proc AEdl_displacementTemplate(string $node)
{
AEswatchDisplay $node;
editorTemplate -beginScrollLayout;
editorTemplate -beginLayout "Displacement Attributes" -collapse 0;
editorTemplate -addControl "globalScale";
editorTemplate -addControl "globalOffset";
editorTemplate -addControl "useShadingNormals";
editorTemplate -addControl "useNormalMap";
editorTemplate -addControl "normalMap";
editorTemplate -beginLayout "Inputs" -collapse 0;
editorTemplate -callCustom
"AEdl_displacement_inputs_New"
"AEdl_displacement_inputs_Replace"
"inputs";
editorTemplate -endLayout;
editorTemplate -endLayout;
// include/call base class/node attributes
AEdependNodeTemplate $node;
editorTemplate -addExtraControls;
editorTemplate -endScrollLayout;
}
"""
rsl = \
r"""
class dl_projectionLightShape(deluxe.Light):
typeid = 0x00310005
includes = ["shadow_utils.h", "utils.h"]
color = deluxe.Color(shortname='clr', prepare=True, storage='varying', help="""
Colour to project. Plug this into a maya File node's outColor to project a texture.
""")
transparency = deluxe.Color(default=0, shortname='trn', storage='varying', help="""
Transparency (1-alpha) of projected colour. Plug this into a maya File
node's outTransparency to use the texture's (inverted) alpha channel.
""")
compositeMode = deluxe.Enum(shortname='cpmd', default='Over', choices=['Over', 'Add'], help="""
Compositing mode over previous projections.
projectionLights are evaluated in alphabetical order.
""")
#repeatMode = deluxe.Enum(default='Blank', choices=['Blank', 'Repeat', 'Hold'], help="")
projLightSubset = deluxe.String(default="", help="""
Only dl_projectionCollector nodes with matching projLightSubset
values will receive projections from this light.
""")
# mapped shadows
shadowBlur = deluxe.Float(label='Blur',
shortname='bl', default=0.01, min=0, softmax=0.2, storage='uniform',
help="""Amount to blur the shadow. A value of 1.0 would
request that the entire texture be blurred in the result.""")
shadowFilterType = deluxe.Enum(label='Filter Type',
default='Gaussian',
choices=['Box','Triangle','Gaussian']);
shadowBias = deluxe.Float(label='Bias',
shortname='bi', default=0.225, min=0, softmax=5, storage='uniform',
help="Used to prevent self-shadowing. If set to 0, the global bias is used.")
shadowSamples = deluxe.Integer(label='Samples',
default=16, min=0, softmax=16)
useSoftShadowDecay = deluxe.Boolean(default=False,
help="Turns on soft shadows that decay with distance.")
shadowMinimumRadius = deluxe.Float(label='Minimum Radius',
shortname='mnr', default=0.001, min=0, softmax=0.2, storage='uniform')
shadowMaximumRadius = deluxe.Float(label='Maximum Radius',
shortname='mxr', default=0.1, min=0, softmax=0.2, storage='uniform')
selfShadowReduce = deluxe.Float(default=2, min=0, softmax=5, storage='uniform')
shadowDecay = deluxe.Float(label='Decay',
default=0, min=0, softmax=5, storage='uniform')
shadowDecayCutOn = deluxe.Float(label='Decay Cut-On',
shortname='sdcon', default=10, min=0, max=1000, storage='uniform')
shadowDecayCutOff = deluxe.Float(label='Decay Cut-Off',
shortname='sdcoff', default=10, min=0, max=1000, storage='uniform')
softShadowDecay = deluxe.Group([useSoftShadowDecay,
shadowMinimumRadius, shadowMaximumRadius,
selfShadowReduce, shadowDecay,
shadowDecayCutOn, shadowDecayCutOff])
mappedShadows = deluxe.Group([shadowBlur, shadowFilterType,
shadowBias, shadowSamples,
softShadowDecay])
# output messages
__compositeMode = deluxe.Float(default=0, storage='varying', output=True, message=True, messagetype='lightsource')
__alpha = deluxe.Float(default=1, storage='varying', output=True, message=True, messagetype='lightsource')
__projLightSubset = deluxe.String(default="", output=True, message=True, messagetype='lightsource')
# category
__category = deluxe.String(default='texture', message=True, messagetype='lightsource')
_3delight_light_category = deluxe.String(shortname='cat', default='texture', notemplate=True, norsl=True)
rslprepare = \
"""
extern float ss;
extern float tt;
extern point Ps;
point Pl = transform("shader", Ps);
ss = (Pl[0] + 1)/2;
tt = (Pl[1] + 1)/2;
"""
rsl = \
"""
extern color Cl;
extern vector L;
extern point Ps;
extern normal Ns;
extern vector I;
extern float __compositeMode;
extern float __alpha;
extern string __projLightSubset;
point Pl = transform("shader", Ps);
float ss = Pl[0];
float tt = Pl[1];
__compositeMode = i_compositeMode;
float unshadowedAlpha = luminance(1-i_transparency);
__projLightSubset = i_projLightSubset;
illuminate(Ps)
{
extern uniform string shadowmapname;
color unoccluded = color getShadowMapContribution(Ps,
shadowmapname,
i_shadowBlur,
i_shadowFilterType,
i_shadowBias,
i_shadowSamples,
i_useSoftShadowDecay,
i_shadowMinimumRadius,
i_shadowMaximumRadius,
i_selfShadowReduce,
i_shadowDecay,
i_shadowDecayCutOn,
i_shadowDecayCutOff);
__alpha = unshadowedAlpha * luminance(unoccluded);
Cl = i_color * unoccluded;
}
"""
def draw(self, view, path, style, status):
thisNode = self.thisMObject()
fnThisNode = OpenMaya.MFnDependencyNode(thisNode)
view.beginGL()
glFT.glPushAttrib(OpenMayaRender.MGL_ALL_ATTRIB_BITS)
# Color of main light cone ui.
def dormantColor(clrNum):
if status == OpenMayaUI.M3dView.kDormant:
view.setDrawColor(clrNum, OpenMayaUI.M3dView.kActiveColors)
dormantColor(11)
# Colours:
# 0 = black, 1 = mid grey, 2 = light grey, 3 = burgundy, 4 = dark blue,
# 5 = mid blue, 6 = dark green, 7 = dark purple, 8 = pink, 9 = burgundy again,
# 11 = burgundy again, 12 = red, 13 = green, 14 = blue, 15 = white, 16 = yellow
glFT.glPushMatrix()
#glFT.glScalef(iconSize, iconSize, iconSize)
glFT.glBegin(OpenMayaRender.MGL_LINE_LOOP)
glFT.glVertex3f(-1, 1, 0)
glFT.glVertex3f(1, 1, 0)
glFT.glVertex3f(1, - 1, 0)
glFT.glVertex3f(-1, - 1, 0)
glFT.glEnd()
glFT.glBegin(OpenMayaRender.MGL_LINES)
glFT.glVertex3f(-1, 1, 0)
glFT.glVertex3f(1, - 1, 0)
glFT.glVertex3f(1, 1, 0)
glFT.glVertex3f(-1, - 1, 0)
glFT.glVertex3f(0, 0, 0)
glFT.glVertex3f(0, 0, - 0.7)
glFT.glVertex3f(0, 0, - 0.7)
glFT.glVertex3f(0, 0.04, - 0.4)
glFT.glVertex3f(0, 0, 0. - 0.7)
glFT.glVertex3f(0, - 0.04, - 0.4)
glFT.glVertex3f(0, 0.04, - 0.4)
glFT.glVertex3f(0, - 0.04, - 0.4)
glFT.glVertex3f(0, 0, - 0.7)
glFT.glVertex3f(0.04, 0, - 0.4)
glFT.glVertex3f(0, 0, 0. - 0.7)
glFT.glVertex3f(-0.04, 0, - 0.4)
glFT.glVertex3f(0.04, 0, - 0.4)
glFT.glVertex3f(-0.04, 0, - 0.4)
glFT.glEnd()
glFT.glPopMatrix()
glFT.glPopAttrib()
view.endGL()
class dl_fur(deluxe.DiffuseBase, deluxe.ShadingComponent):
typeid = 0x00300014
description = "Fur shader."
includes = ["ray_utils.h", "env_utils.h"]
basecolorTint = deluxe.Color(default=1,
help="""
Tint the color near the hair base (root). Multiplies the incoming primvar 'basecolor'. """
)
tipcolorTint = deluxe.Color(default=1,
help="""
Tint the color near the hair tip. Multiplies the incoming primvar 'tipcolor'. """
)
tipBias = deluxe.Float(
default=0,
min=-1,
max=1,
help=
"""<0 uses more basecolor, >0 use more tipcolor. Use values between -1 and 1."""
)
specRoughness = deluxe.Float(
default=.1,
min=0,
max=1,
help="Same roughness used for spec1 and spec2.")
spec1tint = deluxe.Color(default=.02,
help="Tint first, simple spec hilight.")
spec1shiftToRoot = deluxe.Float(
default=1, help="How much to shift first spec hilight towards root")
spec2tint = deluxe.Color(default=1,
help="""
Tint second spec hilight, reflected from inside hair and so multiplied by hair surface color."""
)
spec2shiftToTip = deluxe.Float(
default=1, help="How much to shift first spec hilight towards root")
diffTint = deluxe.Color(default=.5, help="Multiplies diffuse.")
diffFalloff = deluxe.Float(default=.5,
help="""
If 1, regular normal-dependent falloff is used.
If 0, normal has no effect, eg. even back-facing surfaces are fully illuminated"""
)
indirectIntensity = deluxe.Color(help="Multiplies indirect diffuse.")
#Reflection
# indexOfRefraction = deluxe.Float(default=0, softmax=3, storage='uniform',
# help="(Relative) index of refraction of material. The index of refraction from air to glass is 1.5. Air to water is 1.33. ")
# falloff = deluxe.Enum(default='None',
# choices=['None', 'Linear', 'Quadratic'],
# help="How reflections from objects fall off with distance.")
# falloffDistance = deluxe.Float(default=1, storage='uniform',
# help="""The distance at which the reflected energy is actually
# equal to intensity*reflcolor. In other words, the intensity
# is actually given by: I = (falloffdist / distance) ^ falloff""")
# maxIntensity = deluxe.Float(default=1, storage='uniform',
# help="""To prevent the reflection intensity from becoming unboundedly
# large when the distance < falloffdist, it is
# smoothly clamped to this maximum value.""");
#
# occIntensityMult = deluxe.Float(storage='uniform', default=1, softmin=0, softmax=2,
# help="Intensity multiplier for raytraced reflection occlusion.")
# occSamplesMult = deluxe.Float(shortname='os', storage='uniform', default=1, softmin=0, softmax=2,
# help="Samples multiplier for raytraced reflection occlusion.")
# occConeAngleMult = deluxe.Float(storage='uniform', default=1, softmin=0, softmax=2,
# help="Cone angle multiplier for raytraced reflection occlusion.")
#
# reflectionOcclusion = deluxe.Group([occIntensityMult, occSamplesMult, occConeAngleMult], collapse=False)
#
# ptcEnable = deluxe.Enum(default='Off',
# choices=['Off', 'In front of raytracing', 'Behind raytracing'],
# help="Where to insert pointcloud reflections, if at all.")
# ptcFile = deluxe.File(default='', label='Point Cloud File', help="""The point cloud of objects to reflect.""")
#
# ptcIntensity = deluxe.Float(default=1, help="""Intensity of pointcloud reflections.""")
#
# ptcBlur = deluxe.Float(default=0, help="""
# How much to blur the pointcloud reflections (clamped to >= .01 to avoid artifacts).""")
#
# pointcloudReflection = deluxe.Group([ptcEnable, ptcFile, ptcIntensity, ptcBlur], collapse=False)
#
# reflection = deluxe.Group([indexOfRefraction, falloff, falloffDistance, maxIntensity, reflectionOcclusion, pointcloudReflection])
# Primvars.
surfacenormal = deluxe.Normal(shortname="sn", default=-12345, message=True)
basecolor = deluxe.Color(shortname="bc", default=1, message=True)
tipcolor = deluxe.Color(shortname="tc", default=1, message=True)
rsl = \
"""
class dl_ocean(deluxe.ShadingNode):
typeid = 0x3acd90d0
description = "Houdini's ocean "
#
globalScale = deluxe.Float(default=1,
min=0.000001,
help='THE global scale')
gridResolution = deluxe.Integer(
default=8,
help=
'This is the resolution of the grid that the ocean will be simulated on. You can think of it in the same way as you would a texture image that you would tile the ocean surface with. The resolution of the image would be 2 to the power of res so e.g. res=10 would make a 1024x1024 image. Be warned, going to res=11 means you are going to use quite a bit of memory since the code uses more arrays of this size to store intermediate computations.'
)
oceanSize = deluxe.Float(
default=100,
help=
'The grid mentiond above is computed for and applied to the input geometry in tiles of this size.'
)
windSpeed = deluxe.Float(default=30, help='Affects the shape of the waves')
waveHeigth = deluxe.Float(
default=3,
help=
'This is used to set the so called "A" fiddle factor in the Tessendorf paper. The waves are scaled so that they will be roughly less than this height (strictly so for the t=0 timestep).'
)
shortestWave = deluxe.Float(
default=0.02, help='Waves below this lenght will be filterd out.')
windDirection = deluxe.Float(
default=0, help='Affects the direction the waves travel in.')
dampReflections = deluxe.Float(
default=0.5,
help=
'In a "fully developed" ocean you will have waves travelling in both the forward and backwards directions. This parameter damps out the negative direcion waves'
)
windAlign = deluxe.Float(
default=2,
help=
'Controls how closely the waves travel in the direction of the wind.')
oceanDepth = deluxe.Float(
default=200,
help=
'Affects the spectrum of waves generated. Visually in doesnt seem to have that great an influence'
)
chopAmount = deluxe.Float(
default=1,
help=
'The amount of chop displacenemnt that is applied to the input points.'
)
doNormal = deluxe.Boolean(default=False)
doEigen = deluxe.Boolean(default=False)
time = deluxe.Float(
default=0,
help=
'The time that the surface will be evaluated at. You will usually just plug the expression timr in here.'
)
seed = deluxe.Integer(shortname='sd',
default=0,
help='Seeds the random number generator.')
Pref = deluxe.Point(message=True,
messagetype='Pref_param',
storage='varying')
outColor = deluxe.Color(default=0, output=True)
outAlpha = deluxe.Float(default=0, output=True)
outNormal = deluxe.Color(default=0, output=True)
outJMinus = deluxe.Float(default=0, output=True)
outJPlus = deluxe.Float(default=0, output=True)
outEMinus = deluxe.Color(default=0, output=True)
outEPlus = deluxe.Color(default=0, output=True)
rsl = """
class dl_blocker(deluxe.Utility):
typeid = 0x00300201
includes = ["shadow_utils.h"]
color = deluxe.Color(default=1,
storage="varying",
help="Color to tint the fake shadow.",
prepare=True)
intensity = deluxe.Float(default=1,
storage="varying",
help="Intensity of the fake shadow.",
prepare=True)
coordsys = deluxe.CoordinateSystem(default="",
shortname="cs",
label="coordinateSystem")
width = deluxe.Float(storage="uniform",
default=1,
help="Width of the blocker's superellipse.")
height = deluxe.Float(storage="uniform",
default=1,
help="Height of the blocker's superellipse.")
wedge = deluxe.Float(storage="uniform",
shortname="wg",
default=0.1,
help="Defines horizontal edge fuzziness.")
hedge = deluxe.Float(storage="uniform",
shortname="hg",
default=0.1,
help="Defines vertical edge fuzziness.")
roundness = deluxe.Float(
default=1,
storage="uniform",
help="""Controls how rounded the corners of the superellipse are.
If this value is 0, the cross-section will be a perfect rectangle.
If the value is 1, the cross-section will be a perfect circle."""
)
cutOn = deluxe.Float(shortname="con",
storage="uniform",
default=0.01,
help="Cut-on setting from light.",
notemplate=True,
connectable=True)
lightType = deluxe.Enum(default='Spot',
choices=['Spot', 'Point', 'Distant'],
help="Light type setting from light.",
notemplate=True,
connectable=True)
blockerColor = deluxe.Color(output=True, notemplate=True, hidden=True)
blockerValue = deluxe.Float(output=True, notemplate=True, hidden=True)
blocker = deluxe.Compound([blockerColor, blockerValue], notemplate=True)
rslprepare = \
"""
extern point Ps;
extern point P;
extern vector L;
extern float ss;
extern float tt;
if (i_coordsys != "")
{
point Pl = transform ("shader", Ps);
point shadoworigin;
if (i_lightType == 2) { // Parallel rays
shadoworigin = point "shader" (xcomp(Pl), ycomp(Pl), i_cutOn);
} else {
shadoworigin = point "shader" (0,0,0);
}
vector sAx = normalize(vtransform(i_coordsys, "current", vector (1, 0, 0)));
vector tAx = normalize(vtransform(i_coordsys, "current", vector (0, 1, 0)));
point cOrg = transform(i_coordsys, "current", point (0, 0, 0));
vector soToP = Ps - shadoworigin;
vector Nplane = sAx^tAx;
float t = ((-Nplane).(shadoworigin-cOrg)) / (Nplane.(Ps - shadoworigin));
point Pint = shadoworigin + t*(shadoworigin-Ps);
vector cOrgToPint = Pint - cOrg;
point PintCs = transform(i_coordsys, Pint);
float sBk = (1+PintCs[0])/2;
float tBk = 1-(1+PintCs[1])/2;
ss = sBk;
tt = tBk;
}
"""
rsl = \
"""
class dl_blendByAxis(deluxe.Utility):
typeid = 0x00300338
description = "Blend by axis."
coordsys = deluxe.CoordinateSystem(shortname='cs', default='world')
axis = deluxe.Enum(default='Y', choices=['X', 'Y', 'Z'])
globalWarpMode = deluxe.Enum(shortname='gm', default='Off', choices=['Off', 'Noise','Input'])
globalWarpNoiseAmount = deluxe.Float(shortname='gwna', default=1)
globalWarpNoiseFreq = deluxe.Float(shortname='gwnf', default=1)
globalWarpNoiseOffset = deluxe.Vector(shortname='gwno', default=0)
globalWarpInput = deluxe.Vector(shortname='gwi', default=0)
globalWarp = deluxe.Group([globalWarpMode, globalWarpNoiseAmount, globalWarpNoiseFreq, globalWarpNoiseOffset, globalWarpInput])
label = deluxe.String(shortname='lbl')
colour = deluxe.Color(shortname='clr')
value = deluxe.Float(default=0)
blend = deluxe.Enum(default='smooth', choices=['smooth', 'linear', 'step'])
warpToUse = deluxe.Enum(shortname='wtu', default='Global', choices=['Global','Local'])
warpMode = deluxe.Enum(shortname='wm', default='Off', choices=['Off', 'Noise','Input'])
warpNoiseAmount = deluxe.Float(shortname='wna', default=1)
warpNoiseFreq = deluxe.Float(shortname='wnf', default=1)
warpNoiseOffset = deluxe.Vector(shortname='wno', default=0)
warpInput = deluxe.Vector(shortname='wi', default=0)
entries = deluxe.Compound([label, colour, value, blend,
warpToUse, warpMode, warpNoiseAmount, warpNoiseFreq, warpNoiseOffset, warpInput], array=True)
outColor = deluxe.Color(output=True)
element0outColor = deluxe.Color(output=True)
element1outColor = deluxe.Color(output=True)
element2outColor = deluxe.Color(output=True)
element3outColor = deluxe.Color(output=True)
element4outColor = deluxe.Color(output=True)
element5outColor = deluxe.Color(output=True)
element6outColor = deluxe.Color(output=True)
element7outColor = deluxe.Color(output=True)
element0outAlpha = deluxe.Float(output=True)
element1outAlpha = deluxe.Float(output=True)
element2outAlpha = deluxe.Float(output=True)
element3outAlpha = deluxe.Float(output=True)
element4outAlpha = deluxe.Float(output=True)
element5outAlpha = deluxe.Float(output=True)
element6outAlpha = deluxe.Float(output=True)
element7outAlpha = deluxe.Float(output=True)
# TODO: Uncomment and fix this so that when it's first
# instantiated, the node has 3 elements in the axes[] array, each
# in world space, each with orientation = positive and negative, with
# axisVector = (1,0,0), (0,1,0), and (0,0,1), respectively.
#
#def postConstructor(self):
# axesPlug = MPlug(self.thisMObject(), self.axes.obj)
# for i in range(0, 3):
# axes0Plug = axesPlug.elementByLogicalIndex(i)
# axesColorPlug = axes0Plug.child(self.axisColor.obj)
# axesColorPlug.setMObject(MFnStringData().create('whatever'))
#
# super(dl_blendByAxis, self).postConstructor()
rsl = \
"""
#define assingElement(type, i, val) \
if (i == 0) o_element0out##type = val; \
else if (i == 1) o_element1out##type = val; \
else if (i == 2) o_element2out##type = val; \
else if (i == 3) o_element3out##type = val; \
else if (i == 4) o_element4out##type = val; \
else if (i == 5) o_element5out##type = val; \
else if (i == 6) o_element6out##type = val; \
else if (i == 7) o_element7out##type = val;
float linInterp (float start, end, val) {
return clamp((val-start)/(end-start), 0, 1);
}
float interp (float start, end, val, mode) {
float result;
if (mode < .5) {
result = smoothstep(start, end, val);
} else if (mode < 1.5) {
result = linInterp(start, end, val);
} else {
result = filterstep(end, val);
}
return result;
}
float nElements = arraylength(i_colour);
color result = 0;
if (nElements > 0) {
float nextI=0; float prevI=0;
float nextVal=0; float prevVal=0;
color nextClr=0; color prevClr=0;
float nextBnd=0;
float i;
string coordsys = i_coordsys == "" ? "world" : i_coordsys;
extern point P;
point Pcs = transform(coordsys, P);
float coord = Pcs[i_axis];
point Pnoise = Pcs;
Pnoise[i_axis] = 0;
float warpedValues[nElements];
for (i = 0; i < nElements; i += 1) {
float warpMode = i_globalWarpMode;
float warpNoiseAmount = i_globalWarpNoiseAmount;
float warpNoiseFreq = i_globalWarpNoiseFreq;
vector warpNoiseOffset = i_globalWarpNoiseOffset;
vector warpInput = i_globalWarpInput;
if (i_warpToUse[i] == 1) {
warpMode = i_warpMode[i];
warpNoiseAmount = i_warpNoiseAmount[i];
warpNoiseFreq = i_warpNoiseFreq[i];
warpNoiseOffset = i_warpNoiseOffset[i];
warpInput = i_warpInput[i];
}
float warp = warpMode == 0 ? 0 : warpMode == 2 ? warpInput[i_axis] :
warpNoiseAmount * (1-2*(float noise((Pnoise + warpNoiseOffset)
* warpNoiseFreq)));
warpedValues[i] = i_value[i] + warp;
}
float foundPrev = 0;
float foundNext = 0;
for (i = 0; i < nElements; i += 1) {
if (warpedValues[i] > coord) {
if (foundNext < .5 || warpedValues[i] < nextVal) {
foundNext = 1;
nextVal = warpedValues[i];
nextClr = i_colour[i];
nextBnd = i_blend[i];
nextI = i;
}
} else {
if (foundPrev < .5 || warpedValues[i] > prevVal) {
foundPrev = 1;
prevVal = warpedValues[i];
prevClr = i_colour[i];
prevI = i;
}
}
}
if (foundPrev < .5) {
result = nextClr;
assingElement(Color, nextI, result);
assingElement(Alpha, nextI, 1);
} else if (foundNext < .5) {
result = prevClr;
assingElement(Color, prevI, result);
assingElement(Alpha, prevI, 1);
} else {
float mixer = interp(prevVal, nextVal, coord, nextBnd);
result = mix(prevClr, nextClr, mixer);
assingElement(Color, nextI, nextClr * mixer);
assingElement(Color, prevI, prevClr * (1-mixer));
assingElement(Alpha, nextI, mixer);
assingElement(Alpha, prevI, 1-mixer);
}
}
o_outColor = result;
"""
rslpost = ""
class dl_indirectLightShape(deluxe.EnvLight):
typeid = 0x00310003
description = "Light that does ambient occlusion and indirect diffuse lighting."
includes = [
"remap_utils.h", "component_utils.h", "physicalsky_utils.h",
"env_utils.h"
]
# deluxe.EnvLight.envMap.default = 'default_indirect.tdl'
#
envConvolveMode = deluxe.Enum(
default='Use envBlur parm',
label='Convolve Mode',
choices=['Use envBlur parm', 'Auto (ignore envBlur parm)'],
help="""Use envBlur parm = use environment() function with envBlur parm,
Auto (ignore envBlur parm) = use indirectdiffuse() function which
automitically blurs map.""")
envBlur = deluxe.Float(
min=0,
softmax=1,
default=0,
storage='uniform',
label='Blur',
help=
"""Blur for envMap, only used when envConvolveMode = 'Use envBlur parm'."""
)
envIntensity = deluxe.Float(default=1, label='Intensity')
envColor = deluxe.Color(default=1, label='Color')
environmentMap = deluxe.Group(
[
deluxe.EnvLight.envMethod, envIntensity, envColor,
deluxe.EnvLight.envMap, deluxe.EnvLight.envSpace, envConvolveMode,
envBlur, deluxe.EnvLight.physicalSky,
deluxe.EnvLight.envColorCorrection
],
shortname='emg',
collapse=False,
)
occMethod = deluxe.Enum(
default='Point Cloud',
choices=['None', 'Ray Tracing', 'Point Cloud'],
label='Occlusion Method',
help=""""Ray Tracing" uses the standard occlusion() call.
"Point Cloud" uses previously baked point clouds.
""")
ambientOcclusion = deluxe.Group(
[
occMethod, deluxe.EnvLight.occPointCloud,
deluxe.EnvLight.occRayTracing, deluxe.EnvLight.occAdvanced,
deluxe.EnvLight.occRemapping
],
collapse=False,
)
indirectMethod = deluxe.Enum(
default='None',
choices=['None', 'Ray Tracing', 'Point Cloud'],
label='Color Bleeding Method',
shortname='indm',
help=""""Ray Tracing" uses the standard indirectdiffuse() call.
"Point Cloud" uses previously baked point clouds.
""")
indirectIntensity = deluxe.Float(default=1, label='Intensity')
indirectMaxDistance = deluxe.Float(
shortname='idmd',
softmin=0,
default=1e38,
storage='uniform',
label='Max Distance',
help=
"(Ray Tracing, Point Cloud) Only consider intersections closer than this distance."
)
indirectSamples = deluxe.Integer(
shortname='ids',
min=0,
max=256,
default=64,
label='Samples',
help="""(Ray Tracing) The number of rays to trace.""")
indirectAdaptiveSampling = deluxe.Boolean(
shortname='idas',
default=False,
label='Adaptive Sampling',
help="(Ray Tracing) Enables or disables adaptive sampling.")
indirectRayBias = deluxe.Float(
default=0.1,
min=0,
softmax=2,
label='Ray Bias',
help=
"""(Ray Tracing, Point Cloud) Specifies a bias for ray's starting point to avoid potentially erroneous
intersections with the emitting surface."""
)
indirectFalloffMode = deluxe.Enum(
shortname="psifm",
default='Linear',
choices=['Exponential', 'Linear'],
label='Falloff Mode',
help=
"""(Ray Tracing, Point Cloud) Specifies the falloff curve to use.""")
indirectFalloff = deluxe.Float(
default=1,
min=0,
softmax=5,
label='Falloff',
help=
"""(Ray Tracing, Point Cloud) This shapes the falloff curve. In the exponential case the curve is exp( -falloff * hitdist )
and in the linear case it is pow(1-hitdist/maxdist, falloff)."""
)
indirectPtcFile = deluxe.File(
default='',
label='Point Cloud File',
help=
"""(Point Cloud) The point cloud file in which baked points with radiosity are stored."""
)
occPtcFileIsDirectory = deluxe.Boolean(default=False)
indirectMaxSolidAngle = deluxe.Float(
softmin=0.01,
softmax=0.5,
default=0.1,
storage='uniform',
label='Max Solid Angle',
help="""(Point Cloud) This is a quality vs speed control knob.""")
indirectClamp = deluxe.Boolean(
default=True,
label='Clamp',
help=
"""(Point Cloud) Setting this parameter to 1 will force 3DELIGHT to account for
occlusion in dense environments. The results obtained with this
parameter on should look similar to what a Ray Tracing rendering
would give. Enabling this parameter will slow down the Point Cloud
algorithm by a factor of 2.""")
indirectSampleBase = deluxe.Float(
default=1,
label='Sample Base',
help=
"""(Point Cloud) Scales the amount of jittering of the start position of rays. The default
is to jitter over the area of one micropolygon."""
)
indirectHitSides = deluxe.Enum(
default='Both',
choices=['Front', 'Back', 'Both'],
label='Hit Sides',
help=
"""(Point Cloud) Specifies which side(s) of the point cloud's samples will produce occlusion."""
)
indirectPointCloud = deluxe.Group([
indirectPtcFile, occPtcFileIsDirectory, indirectMaxSolidAngle,
indirectClamp, indirectSampleBase, indirectHitSides
],
label="Point Cloud")
indirectRayTracing = deluxe.Group(
[indirectSamples, indirectAdaptiveSampling, indirectRayBias],
label="Ray Tracing",
)
indirectAdvanced = deluxe.Group(
[indirectMaxDistance, indirectFalloffMode, indirectFalloff],
label='Advanced')
colorBleeding = deluxe.Group(
[
indirectMethod, indirectIntensity, indirectPointCloud,
indirectRayTracing, indirectAdvanced
],
collapse=False,
)
__computeOcclusion = deluxe.Float(default=1,
message=True,
messagetype='lightsource')
__occluded = deluxe.Color(default=0,
output=True,
message=True,
storage='varying',
messagetype='lightsource')
__occlusionColor = deluxe.Color(default=0,
output=True,
message=True,
messagetype='lightsource')
__indirect_color = deluxe.Color(default=0,
output=True,
message=True,
storage='varying',
messagetype='lightsource')
__bentnormal = deluxe.Color(default=0,
output=True,
message=True,
storage='varying',
messagetype='lightsource')
# category
__category = deluxe.String(default='indirect',
message=True,
messagetype='lightsource')
_3delight_light_category = deluxe.String(default='indirect',
notemplate=True,
norsl=True)
rsl = \
"""
class dl_switch(deluxe.Utility):
typeid = 0x00370002
description = "Switcher"
dl_switch_selectInput_override_0 = deluxe.Float(shortname="sio0",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_1 = deluxe.Float(shortname="sio1",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_2 = deluxe.Float(shortname="sio2",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_3 = deluxe.Float(shortname="sio3",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_4 = deluxe.Float(shortname="sio4",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_5 = deluxe.Float(shortname="sio5",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_6 = deluxe.Float(shortname="sio6",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_7 = deluxe.Float(shortname="sio7",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_8 = deluxe.Float(shortname="sio8",
default=-1,
message=True,
help="")
dl_switch_selectInput_override_9 = deluxe.Float(shortname="sio9",
default=-1,
message=True,
help="")
colorSet1 = deluxe.Color(shortname="cs1",
storage='varying',
default=-1,
message=True,
help="")
selectInput = deluxe.Enum(
default='0',
choices=['0', '1', '2', '3', '4', '5', '6', '7', '8', '9'],
storage='uniform',
help="""
The default input color and float that are assigned to outColor and outAlpha.
This will be overridden by the rib attr specified in ribAttrOverride;
the primvar specified in primvarOverride will override them both.
""")
primvarOverride = deluxe.Enum(default='None',
choices=[
'dl_switch_selectInput_override_0',
'dl_switch_selectInput_override_1',
'dl_switch_selectInput_override_2',
'dl_switch_selectInput_override_3',
'dl_switch_selectInput_override_4',
'dl_switch_selectInput_override_5',
'dl_switch_selectInput_override_6',
'dl_switch_selectInput_override_7',
'dl_switch_selectInput_override_8',
'dl_switch_selectInput_override_9',
'colorSet1[0]', 'None'
],
storage='uniform',
help="""
Specify the name of the primvar that will override the selectInput parameter."
""")
colorSet1nChoices = deluxe.Integer(
shortname="cs1m",
help=
"How many inputs to randomly choose from when primvarOverride = 'colorSet1[0]'"
)
ribAttrOverride = deluxe.String(help="""
The rib attribute that will override the selectInput parameter. For example,
if you have a user rib attr called "switch_override", enter "user:switch_override".
""")
inputFloat0 = deluxe.Float(
shortname="if0",
help="This will be assigned to outAlpha if input 0 is selected.")
inputFloat1 = deluxe.Float(
shortname="if1",
help="This will be assigned to outAlpha if input 1 is selected.")
inputFloat2 = deluxe.Float(
shortname="if2",
help="This will be assigned to outAlpha if input 2 is selected.")
inputFloat3 = deluxe.Float(
shortname="if3",
help="This will be assigned to outAlpha if input 3 is selected.")
inputFloat4 = deluxe.Float(
shortname="if4",
help="This will be assigned to outAlpha if input 4 is selected.")
inputFloat5 = deluxe.Float(
shortname="if5",
help="This will be assigned to outAlpha if input 5 is selected.")
inputFloat6 = deluxe.Float(
shortname="if6",
help="This will be assigned to outAlpha if input 6 is selected.")
inputFloat7 = deluxe.Float(
shortname="if7",
help="This will be assigned to outAlpha if input 7 is selected.")
inputFloat8 = deluxe.Float(
shortname="if8",
help="This will be assigned to outAlpha if input 8 is selected.")
inputFloat9 = deluxe.Float(
shortname="if9",
help="This will be assigned to outAlpha if input 9 is selected.")
inputColor0 = deluxe.Color(
shortname="ic0",
help="This will be assigned to outColor if input 0 is selected.")
inputColor1 = deluxe.Color(
shortname="ic1",
help="This will be assigned to outColor if input 1 is selected.")
inputColor2 = deluxe.Color(
shortname="ic2",
help="This will be assigned to outColor if input 2 is selected.")
inputColor3 = deluxe.Color(
shortname="ic3",
help="This will be assigned to outColor if input 3 is selected.")
inputColor4 = deluxe.Color(
shortname="ic4",
help="This will be assigned to outColor if input 4 is selected.")
inputColor5 = deluxe.Color(
shortname="ic5",
help="This will be assigned to outColor if input 5 is selected.")
inputColor6 = deluxe.Color(
shortname="ic6",
help="This will be assigned to outColor if input 6 is selected.")
inputColor7 = deluxe.Color(
shortname="ic7",
help="This will be assigned to outColor if input 7 is selected.")
inputColor8 = deluxe.Color(
shortname="ic8",
help="This will be assigned to outColor if input 8 is selected.")
inputColor9 = deluxe.Color(
shortname="ic9",
help="This will be assigned to outColor if input 9 is selected.")
outColor = deluxe.Color(shortname="oc", output=True)
outAlpha = deluxe.Float(shortname="oa", output=True)
rslpost = ""
rsl = """
class dl_textureMap(deluxe.Texture2D):
typeid = 0x00370001
description = "Wrapper around 3Delight \"texture\" function"
textureName = deluxe.Image(storage='uniform',
help="""Texture file in tdl format. Use 'N' or 'NNNN' for the
frame number if using indexed sprites.""")
indexedSprites = deluxe.Boolean(help="Treat the filename as a sequence indexed with spritePP.")
blur = deluxe.Float(default=0, min=0, softmax=0.2, storage='uniform',
help="""Specifies an additional length to be added to texture
lookup region in both s and t, expressed in units of texture
coordinates (range = [0..1]). A value of 1.0 would request that
the entire texture be blurred in the result.""")
filterType = deluxe.Enum(default='Gaussian',
choices=['Box', 'Triangle', 'Gaussian'],
storage='uniform',
help="Specifies the reconstruction filter to use when accessing the texture map.");
samples = deluxe.Integer(default=4, storage='uniform',
help="(Box filter only) Number of samples.")
gamma = deluxe.Float3(default=1, min=0.0001, max=3,
help="Gamma correction to apply to the texture.")
gammaCorrection = deluxe.Group([gamma])
spriteNumPP = deluxe.Integer(default=0, storage='uniform', message=True)
coordsys = deluxe.CoordinateSystem(help="""
Coordinate system (or camera) in which to look up texture.
Use a delightCoordinateSystem shape name (eg. delightCoordinateSystemShape1)
or mayaCamera:cameraName (eg. "mayaCamera:persp", NOT "mayaCamera:perspShape").
""")
alphaInsideUVMult = deluxe.Float(shortname="aism", default=1, help="""
Multiply the alpha by this value where the surface is inside the UV coordinates
(ie. u and v are > 0 and < 1).
""")
alphaInsideUVOffset = deluxe.Float(shortname="aiso", default=0, help="""
Add this value to the alpha where the surface is inside the UV coordinates
(ie. u and v are > 0 and < 1).
""")
specifyAlphaOutsideUV = deluxe.Boolean(default=False, help="""
If on, alpha will be set to alphaOutsideUV value where the surface is
outside the UV coordinates (ie. u or v is > 1 or < 0).""")
alphaOutsideUV = deluxe.Float(shortname="aos", default=0,
help="""If specifyAlphaOutsideUV is on, this is the alpha where the
surface is outside the UV coordinates (ie. u or v is > 1 or < 0).""")
alphaCorrection = deluxe.Group([alphaInsideUVMult, alphaInsideUVOffset, specifyAlphaOutsideUV, alphaOutsideUV])
warpMode = deluxe.Enum(shortname='wm', default='Off', choices=['Off', 'Noise','Input'])
warpNoiseAmount = deluxe.Float2(shortname='wna', default=1)
warpNoiseFreq = deluxe.Float2(shortname='wnf', default=1)
warpNoiseOffset = deluxe.Float2(shortname='wno', default=0)
warpInput = deluxe.Float2(shortname='wi', default=0)
warp = deluxe.Group([ warpMode, warpNoiseAmount, warpNoiseFreq, warpNoiseOffset, warpInput])
rsl = """
class dl_blendByNormal(deluxe.Utility):
typeid = 0x00300337
description = "Blend by normal."
globalCoordsys = deluxe.CoordinateSystem(
shortname='gcs',
label='Global Coordsys',
default='world',
description=
"Coordsys to use if an axis' Coordsys To Use is set to Global Coordsys (default)."
)
globalWarpMode = deluxe.Enum(shortname='gm',
default='Off',
choices=['Off', 'Noise', 'Input'])
globalWarpNoiseAmount = deluxe.Float(shortname='gwna', default=1)
globalWarpNoiseFreq = deluxe.Float(shortname='gwnf', default=1)
globalWarpNoiseOffset = deluxe.Vector(shortname='gwno', default=0)
globalWarpInput = deluxe.Vector(shortname='gwi', default=0)
globalWarp = deluxe.Group([
globalWarpMode, globalWarpNoiseAmount, globalWarpNoiseFreq,
globalWarpNoiseOffset, globalWarpInput
])
blendWidth = deluxe.Float(default=1)
label = deluxe.String(shortname='lbl',
description="""
label of this axis. """)
colour = deluxe.Color(shortname='clr',
description="""
See help for "direction" parm. """)
coordsysToUse = deluxe.Enum(
shortname='cstu',
default='Global Coordsys',
choices=['Global Coordsys', 'Coordsys For This Axis'],
description="""
Which coordinate system to use, Global Coordsys parm or Coordsys For This Axis
""")
coordsysForThisAxis = deluxe.String(
shortname='cs',
default='world',
description=""" Coordinate system of the "direction" parm. """)
direction = deluxe.Vector(shortname='dir',
default=(0, 1, 0),
description="""
Where the normal is closest to this direction (or its reverse,
see help for "orientation" parm), the corresponding "colour"
parameter will have the greatest influence.
""")
orientation = deluxe.Enum(
default='positive and negative',
choices=['positive', 'positive and negative', 'negative'],
description="""
Choose whether this axis affects the surface where N is
aligned with the axis direction ("positive"), opposite
to it ("negative"), or both ("positive and negative").
""")
hemispheres = deluxe.Float(
default=1,
min=0,
max=2,
description=
"How many hemispheres this axis affects, 1=half the sphere, 2=the whole sphere"
)
weight = deluxe.Float(shortname='wt',
default=1,
description="The relative influence of this axis.")
warpToUse = deluxe.Enum(shortname='wtu',
default='Global',
choices=['Global', 'Local'])
warpMode = deluxe.Enum(shortname='wm',
default='Off',
choices=['Off', 'Noise', 'Input'])
warpNoiseAmount = deluxe.Float(shortname='wna', default=1)
warpNoiseFreq = deluxe.Float(shortname='wnf', default=1)
warpNoiseOffset = deluxe.Vector(shortname='wno', default=0)
warpInput = deluxe.Vector(shortname='wi', default=0)
axes = deluxe.Compound([
label, colour, coordsysToUse, coordsysForThisAxis, direction,
orientation, hemispheres, weight, warpToUse, warpMode, warpNoiseAmount,
warpNoiseFreq, warpNoiseOffset, warpInput
],
shortname='xs',
array=True)
outColor = deluxe.Color(output=True)
element0outColor = deluxe.Color(output=True)
element1outColor = deluxe.Color(output=True)
element2outColor = deluxe.Color(output=True)
element3outColor = deluxe.Color(output=True)
element4outColor = deluxe.Color(output=True)
element5outColor = deluxe.Color(output=True)
element6outColor = deluxe.Color(output=True)
element7outColor = deluxe.Color(output=True)
element0outAlpha = deluxe.Float(output=True)
element1outAlpha = deluxe.Float(output=True)
element2outAlpha = deluxe.Float(output=True)
element3outAlpha = deluxe.Float(output=True)
element4outAlpha = deluxe.Float(output=True)
element5outAlpha = deluxe.Float(output=True)
element6outAlpha = deluxe.Float(output=True)
element7outAlpha = deluxe.Float(output=True)
# TODO: Uncomment and fix this so that when it's first
# instantiated, the node has 3 elements in the axes[] array, each
# in world space, each with orientation = positive and negative, with
# axisVector = (1,0,0), (0,1,0), and (0,0,1), respectively.
#
#def postConstructor(self):
# axesPlug = MPlug(self.thisMObject(), self.axes.obj)
# for i in range(0, 3):
# axes0Plug = axesPlug.elementByLogicalIndex(i)
# axesColorPlug = axes0Plug.child(self.axisColor.obj)
# axesColorPlug.setMObject(MFnStringData().create('whatever'))
#
# super(dl_blendByNormal, self).postConstructor()
rsl = \
"""
#define assingElement(type, i, val) \
if (i == 0) o_element0out##type = val; \
else if (i == 1) o_element1out##type = val; \
else if (i == 2) o_element2out##type = val; \
else if (i == 3) o_element3out##type = val; \
else if (i == 4) o_element4out##type = val; \
else if (i == 5) o_element5out##type = val; \
else if (i == 6) o_element6out##type = val; \
else if (i == 7) o_element7out##type = val;
void warpV(
float warpMode;
float warpNoiseAmount;
float warpNoiseFreq;
vector warpNoiseOffset;
vector warpInput;
point Pp;
output vector v)
{
if (warpMode == 1) {
v += (1-2*(vector noise((Pp + warpNoiseOffset)*warpNoiseFreq)))*warpNoiseAmount;
} else if (warpMode == 2) {
v += warpInput;
}
v = normalize(v);
}
float weights[30];
float nAxes = arraylength(i_colour);
extern normal N;
uniform float i;
float wtTotal = 0;
for (i = 0; i < nAxes; i += 1) {
string coordsys = i_coordsysToUse[i] == 0 ? i_globalCoordsys : i_coordsysForThisAxis[i];
coordsys = coordsys == "" ? "world" : coordsys;
normal Nn = normalize(ntransform(coordsys, N));
extern point P;
point Pp = transform(coordsys, P);
vector dir = i_direction[i];
float warpMode = i_globalWarpMode;
float warpNoiseAmount = i_globalWarpNoiseAmount;
float warpNoiseFreq = i_globalWarpNoiseFreq;
vector warpNoiseOffset = i_globalWarpNoiseOffset;
vector warpInput = i_globalWarpInput;
if (i_warpToUse[i] == 1) {
warpMode = i_warpMode[i];
warpNoiseAmount = i_warpNoiseAmount[i];
warpNoiseOffset = i_warpNoiseOffset[i];
warpNoiseFreq = i_warpNoiseFreq[i];
warpInput = i_warpInput[i];
}
warpV(warpMode, warpNoiseAmount, warpNoiseFreq, warpNoiseOffset,
warpInput, Pp, dir);
float dot = Nn.normalize(dir);
float posWt = smoothstep(1-i_hemispheres[i], 1, dot);
float negWt = smoothstep(1-i_hemispheres[i], 1, -dot);
float weight = i_orientation[i] == 0 ? posWt :
i_orientation[i] == 1 ? posWt + negWt : negWt;
weights[i] = i_weight[i]*pow(weight, 1/max(.01, i_blendWidth));
wtTotal += weights[i];
}
color clrTotal = 0;
if (wtTotal > 0) {
for (i = 0; i < nAxes; i += 1) {
clrTotal += i_colour[i] * weights[i]/wtTotal;
assingElement(Color, i, i_colour[i]*weights[i]/wtTotal);
assingElement(Alpha, i, weights[i]/wtTotal);
}
}
o_outColor = clrTotal;
"""
rslpost = ""
class dl_layer(deluxe.ShadingCodeComponent):
typeid = 0x00310010
classification = "rendernode/3delight/material:shader/surface"
description = "Generic layered shader."
#
includes = ["blend_utils.h", "displacement_utils.h"]
# Used for easy code generation replacement
_codetokens = {}
# Utility functions parameters (in dl_layer.h)
blendLightsetsFgInputs = [deluxe.Color(longname='fg_opacity')]
blendLightsetsBgInputs = [deluxe.Color(longname='bg_opacity')]
blendLightsetsOutputs = []
# Input and output component compound attributes children
layerComponentChildren = []
# Shading component channels, build compound attributes children and utility functions parameters
channels = deluxe.ComponentData.channels
for channel in channels:
inmsg = 'component_%s' % channel.longname
if channel.array:
exec 'blendLightsetsFgInputs.append(deluxe.%s(longname="fg_%s", utility=True))' % (
channel.apitype, channel.longname)
exec 'blendLightsetsBgInputs.append(deluxe.%s(longname="bg_%s", utility=True))' % (
channel.apitype, channel.longname)
exec 'blendLightsetsOutputs.append(deluxe.%s(longname="%s", output=True, utility=True))' % (
channel.apitype, channel.longname)
exec '%s = deluxe.%s(shortname="l%s", norsl=True)' % (
inmsg, channel.type, channel.shortname)
exec 'layerComponentChildren.append(%s)' % inmsg
# UTILITY FUNCTIONS
utilfuncs = []
for type in ['Float', 'Color']:
blendBase = 'blend%ss' % type
blendFunc = '%sFunc' % blendBase
blendCode = '\tcolor resultColor, resultOpacity;\n'
if type == 'Float':
blendCode += '\tfloat premult = mix(1, luminance(i_fga), i_premult);\n'
blendCode += '\tblend(i_mode, color(i_fg) * premult, i_fga, color(i_bg), i_bga, resultColor, resultOpacity);\n'
blendCode += '\treturn comp(resultColor, 0);'
else:
blendCode += '\tcolor premult = mix(color 1, i_fga, i_premult);\n'
blendCode += '\tblend(i_mode, i_fg * premult, i_fga, i_bg, i_bga, resultColor, resultOpacity);\n'
blendCode += '\treturn resultColor;'
exec "%s = deluxe.Function(name='%s', type='%s', inputs=[deluxe.Float(longname='mode', storage='uniform'), deluxe.Float(longname='premult'), deluxe.%s(longname='fg'), deluxe.Color(longname='fga'), deluxe.%s(longname='bg'), deluxe.Color(longname='bga')])" % (
blendFunc, blendBase, type.lower(), type, type)
exec "%s.rsl = blendCode" % blendFunc
exec "utilfuncs.append(%s)" % blendFunc
accumBase = 'accumulate%ss' % type
accumFunc = '%sFunc' % accumBase
accumCode = """\
uniform float size = arraylength(i_inputs);
uniform float i;
%s total = 0;
for(i = 0; i < size; i+= 1)
{
total += i_inputs[i];
}
return total;
""" % type.lower()
exec "%s = deluxe.Function(name='%s', type='%s', inputs=[deluxe.%s(longname='inputs', array=True)])" % (
accumFunc, accumBase, type.lower(), type)
exec "%s.rsl = accumCode" % accumFunc
exec "utilfuncs.append(%s)" % accumFunc
copyBase = 'copy%ss' % type
copyFunc = '%sFunc' % copyBase
copyCode = """\
uniform float isize = arraylength(i_inputs);
uniform float osize = arraylength(o_outputs);
uniform float i;
for(i = 0; i < isize && i < osize ; i += 1)
{
o_outputs[i] = i_inputs[i];
}
"""
exec "%s = deluxe.Function(name='%s', inputs=[deluxe.%s(longname='inputs', array=True)], outputs=[deluxe.%s(longname='outputs', array=True, output=True)])" % (
copyFunc, copyBase, type, type)
exec "%s.rsl = copyCode" % copyFunc
exec "utilfuncs.append(%s)" % copyFunc
#
blendLightsetsInputs = [
deluxe.Float(longname='mode', storage='uniform'),
deluxe.Float(longname='premult')
]
blendLightsetsInputs.extend(blendLightsetsFgInputs)
blendLightsetsInputs.extend(blendLightsetsBgInputs)
blendLightsetsFunc = deluxe.Function(name='blendLightsets',
inputs=blendLightsetsInputs,
outputs=blendLightsetsOutputs)
for channel in filter(lambda msg: msg.array, channels):
blendLightsetsFunc.rsl += '\to_%s = blend%ss(i_mode, i_premult, i_fg_%s, i_fg_opacity, i_bg_%s, i_bg_opacity);\n' % (
channel.longname, channel.apitype, channel.longname,
channel.longname)
utilfuncs.append(blendLightsetsFunc)
puzzleAuxInputs = []
puzzleDefaults = [[1, 0, 0], [0, 1, 0], [0, 0, 1]]
for i in range(0, len(puzzleDefaults)):
id = i + 1
baseName = 'puzzle%d' % id
exec '%s = deluxe.Color(shortname="pz%d", default=%s)' % (
baseName, id, str(puzzleDefaults[i]))
exec 'puzzleAuxInputs.append(%s)' % baseName
calculateAuxiliariesInputs = [
deluxe.Color(longname='opacity'),
deluxe.Float(longname='premult'),
deluxe.Color(longname='layerOpacities', array=True),
deluxe.String(longname='layerNames', array=True)
]
calculateAuxiliariesInputs.extend(puzzleAuxInputs)
calculateAuxiliariesFunc = deluxe.Function(
name='calculateAuxiliaries', inputs=calculateAuxiliariesInputs)
calculateAuxiliariesFunc.rsl = """
extern point P;
extern normal N;
extern vector I;
extern float u, v;
extern float s, t;
vector In = normalize(I);
normal Nn = normalize(N);
color premult = mix(color 1, i_opacity, i_premult);
"""
auxAOVs = filter(lambda channel: channel.auxiliary,
deluxe.components.channels)
for aov in auxAOVs:
calculateAuxiliariesFunc.rsl += '\n\textern %s %s;\n' % (aov.rsltype,
aov.longname)
calculateAuxiliariesFunc.rsl += '\t%s = %s;\n' % (aov.longname,
aov.code)
utilfuncs.append(calculateAuxiliariesFunc)
# ATTRIBUTES
#
displayOpacity = deluxe.Color(shortname='do', norsl=True)
displayColor = deluxe.Color(shortname='dc', norsl=True)
# A global opacity multiplier
globalOpacity = deluxe.Color(shortname='go', default=1.0, affect=False)
# Global displacement scale
displacementGlobalScale = deluxe.Float(shortname='dsc',
default=1.0,
affect=False)
# Global displacement offset
displacementGlobalOffset = deluxe.Float(shortname='dof',
default=0.0,
affect=False)
#
displacementCompensateScale = deluxe.Boolean(shortname='dcs',
default=False,
affect=False)
#
# displacementUseNormalMap = deluxe.Boolean(default=False, storage='uniform',
# help="If on, the normal is set by an input to the normalMap parameter, typically a texture.")
#
# displacementNormalMap = deluxe.Color(default=0, storage='varying',
# help="""If the useNormalMap parameter is on, this sets the normal.
# Typically you would input a colour texture of a worldspace normal map.
# """)
# Arbitrary max lightset count
lightSetsCount = deluxe.Integer(shortname='lsc',
norsl=True,
default=1,
min=1,
max=16,
affect=False)
# Layers blend order
order = deluxe.IntArray(shortname='ord', affect=False, norsl=True)
actualOrder = deluxe.IntArray(shortname='aord',
output=True,
internal=True,
norsl=True)
# Layer compound attribute children
# Layer name, mostly used as a label but could be used to name per layer AOVs if we decide to output them
layer_name = deluxe.String(shortname='lnm', utility=True, affect=False)
#
blendModes = [
'Over', 'Under', 'In', 'Out', 'Atop', 'Xor', 'Cover', 'Add',
'Subtract', 'Multiply', 'Difference', 'Lighten', 'Darken', 'Saturate',
'Desaturate', 'Illuminate', 'None'
]
# From blend function in blend_utils.h, Over=0, ...Illuminate=15
layer_mode = deluxe.Enum(shortname='lmde',
choices=blendModes,
default=blendModes[0],
utility=True,
affect=False)
# Blend opacity
layer_opacity = deluxe.Color(shortname='lo',
default=1.0,
utility=True,
affect=False)
#
layer_premult = deluxe.Float(shortname='lpm',
default=1.0,
utility=True,
affect=False,
hidden=True)
#
layer_blendOpacity = deluxe.Boolean(shortname='lbo',
default=True,
utility=True,
affect=False)
# When turned off, no code is generated for this layer, don't use this to dynamically turn layer on and off, use layer_opacity
layer_enable = deluxe.Boolean(shortname='len',
default=True,
norsl=True,
affect=False)
# Layer input components
layer_components = deluxe.ComponentData(shortname='lcmp',
children=layerComponentChildren,
array=True,
norsl=True,
affect=False)
#
layer_displacement_name = deluxe.String(shortname='ldn',
norsl=True,
affect=False)
layer_displacement_enable = deluxe.Boolean(shortname='lde',
default=True,
norsl=True,
affect=False)
layer_displacement_amount = deluxe.Float(shortname='lda',
default=0.0,
norsl=True,
utility=True,
affect=False)
layer_displacement_scale = deluxe.Float(shortname='ldsc',
default=1.0,
softmin=-1,
softmax=1,
norsl=True,
utility=True,
affect=False)
layer_displacement_alpha = deluxe.Float(shortname='ldal',
default=1.0,
min=0,
max=1,
norsl=True,
utility=True,
affect=False)
layer_displacement_offset = deluxe.Float(shortname='ldo',
default=0.0,
softmin=-1,
softmax=1,
norsl=True,
utility=True,
affect=False)
layer_displacement_type = deluxe.Enum(shortname='ldty',
choices=['Bump', 'Displace'],
default='Displace',
utility=True,
affect=False)
layer_displacement_recalcNorm = deluxe.Boolean(shortname='ldrn',
default=True,
norsl=True,
utility=True,
affect=False)
layer_displacement_useShadNorm = deluxe.Boolean(shortname='ldun',
default=False,
norsl=True,
utility=True,
affect=False)
layer_displacement_useNormMap = deluxe.Boolean(shortname='ldum',
default=False,
norsl=True,
utility=True,
affect=False)
layer_displacement_normMap = deluxe.Color(shortname='ldnm',
default=False,
norsl=True,
utility=True,
affect=False)
layer_displacement_lip = deluxe.Float(shortname='ldl',
min=0,
max=1,
default=0.0,
norsl=True,
utility=True,
affect=False)
layer_displacement_lipRim = deluxe.Float(shortname='ldls',
min=0,
max=1,
norsl=True,
utility=True,
affect=False)
layer_displacement_children = [
layer_displacement_name,
layer_displacement_enable,
layer_displacement_amount,
layer_displacement_scale,
layer_displacement_alpha,
layer_displacement_offset,
layer_displacement_type,
layer_displacement_recalcNorm,
layer_displacement_useShadNorm,
layer_displacement_useNormMap,
layer_displacement_normMap,
layer_displacement_lip,
layer_displacement_lipRim,
]
#
layer_displacements = deluxe.Compound(layer_displacement_children,
shortname='lds',
array=True,
utility=True,
affect=False)
layer_displacement_mode = deluxe.Enum(shortname='ldmo',
choices=['Add', 'Over'],
default='Add',
utility=True,
affect=False)
layer_displacement_layerScale = deluxe.Float(shortname='ldlc',
default=1.0,
utility=True,
affect=False)
layer_displacement_layerOffset = deluxe.Float(shortname='ldlo',
default=0.0,
utility=True,
affect=False)
layer_displacements_order = deluxe.IntArray(shortname='ldor',
affect=False,
norsl=True)
layer_displacements_actualOrder = deluxe.IntArray(shortname='ldao',
output=True,
internal=True,
affect=False,
norsl=True)
# Layers
layers = deluxe.Compound([
layer_name, layer_enable, layer_mode, layer_opacity, layer_premult,
layer_blendOpacity, layer_components, layer_displacement_mode,
layer_displacement_layerScale, layer_displacement_layerOffset,
layer_displacements, layer_displacements_order,
layer_displacements_actualOrder
],
array=True,
utility=True,
affect=False)
#
primaryModes = [msg.longname
for msg in channels] + [aov.longname for aov in auxAOVs]
# The primary display output, should always be color unless for debugging or when someone know what he's doing...
primaryMode = deluxe.Enum(shortname='pmo',
choices=primaryModes,
default='beauty',
affect=False,
norsl=True)
# The primary display lightset index is used for debugging, it should stay to -1 (disabled) otherwise
primaryLightSetIndex = deluxe.Integer(shortname='pls',
default=-1,
min=-1,
max=16,
affect=False,
norsl=True)
#
premultAux = deluxe.Boolean(shortname='pma', default=True)
# Values of custom float AOVs
customFloat = deluxe.Float(array=True, utility=True, affect=False)
# Names of custom float AOVs
customFloatName = deluxe.String(array=True, utility=True, affect=False)
# Values of custom color AOVs
customColor = deluxe.Color(default=0,
array=True,
utility=True,
affect=False)
# Names of custom color AOVs
customColorName = deluxe.String(array=True, utility=True, affect=False)
#
collapseComponents = deluxe.Boolean(shortname='clc',
hidden=True,
default=False,
affect=False)
collapseDisplacements = deluxe.Boolean(shortname='cld',
hidden=True,
default=False,
affect=False)
#
displacement = deluxe.Float(output=True, shortname='od')
# Used to initialise stupid attrFieldSliderGrp to get map button!
phonyFloat = deluxe.Float(hidden=True, utility=True, affect=False)
@classmethod
def setCodeToken(cls, key, value):
cls._codetokens[key] = value
@classmethod
def getCode(cls, code):
result = code
for key in cls._codetokens.keys():
result = result.replace(key, cls._codetokens[key])
return result
@classmethod
def getLine(cls, code):
return '%s;\n' % cls.getCode(code)
@classmethod
def cleanupParamName(cls, name):
cleanname = ''
for c in name:
if c in map(chr,
range(48, 58) + range(65, 91) + range(97, 123) + [95]):
cleanname += c
return cleanname
@classmethod
def getLayerId(cls, layer):
return 'layers%d' % layer.logicalIndex()
@classmethod
def getLayerName(cls, layer):
layerName = cls.cleanupParamName(
layer.child(cls.layer_name.obj).asString())
if len(layerName):
return layerName
return cls.getLayerId(layer)
@classmethod
def getLayerAttr(cls, layer):
return 'layers[%d]' % layer.logicalIndex()
@classmethod
def setLayer(cls, layer):
cls.setCodeToken('LAYERID', cls.getLayerId(layer))
cls.setCodeToken('LAYERNAME', cls.getLayerName(layer))
cls.setCodeToken('LAYERATTR', cls.getLayerAttr(layer))
@classmethod
def setChannel(cls, channel, lightsetindex=None):
cls.setCodeToken(
'CHANNELDECLARE', channel.rsltype +
['', '[]'][channel.array != None and channel.array])
cls.setCodeToken('CHANNELAOVTYPE', channel.rsltype)
cls.setCodeToken('CHANNELNAME', channel.longname)
cls.setCodeToken('CHANNELLIGHTSET',
channel.getLightsetSuffix(lightsetindex))
@classmethod
def setVarPrefix(cls, varprefix):
cls.setCodeToken('VARPREFIX', varprefix)
def isSurfaceShader(self):
# HUMM VERY VERY HACKY
# Using this MEL global variable (from $DELIGHT/maya/scripts/DL_translateMayaToSl.mel) to know if this node is the actual shader or just an utility
try:
result = []
MGlobal.executeCommand('$dl_layer_bogus = $g_final_color_plug;',
result)
plugnode = result[0].split('.')[0]
return plugnode == MFnDependencyNode(self.thisMObject()).name()
except:
pass
return True
def isDisplacementShader(self):
# HUMM VERY VERY HACKY
# Using this MEL global variable (from $DELIGHT/maya/scripts/DL_translateMayaToSl.mel) to know if this node is the actual shader or just an utility
result = []
MGlobal.executeCommand(
'string $dl_layer_bogus_array[]; $dl_layer_bogus_array = $g_src_plugs;',
result)
node, attr = result[0].split('.')
return attr == 'displacement' and node == MFnDependencyNode(
self.thisMObject()).name()
def getPlugArray(self,
plug,
order=[],
connectedOnly=False,
checkChildren=False):
# get existing
idxs = MIntArray()
plug.getExistingArrayAttributeIndices(idxs)
# try to use order to sort existing idxs
sortedIdxs = []
for idx in order:
if idx in idxs:
sortedIdxs.append(idx)
for idx in idxs:
if idx not in sortedIdxs:
sortedIdxs.append(idx)
plugs = []
for idx in sortedIdxs:
idxplug = plug.elementByLogicalIndex(idx)
if connectedOnly:
incommingPlugs = MPlugArray()
if checkChildren:
hasConnectedChild = False
for i in range(0, idxplug.numChildren()):
childplug = idxplug.child(i)
if childplug.connectedTo(incommingPlugs, 1, 0):
hasConnectedChild = True
break
if not hasConnectedChild:
continue
else:
if not idxplug.connectedTo(incommingPlugs, 1, 0):
continue
plugs.append(idxplug)
return plugs
def getLayers(self, enabled=True):
thisObj = self.thisMObject()
order = MFnIntArrayData(MPlug(thisObj,
self.order.obj).asMObject()).array()
allLayers = self.getPlugArray(MPlug(thisObj, self.layers.obj), order)
layers = []
for layer in allLayers:
if layer.child(self.layer_enable.obj).asBool() or not enabled:
layers.append(layer)
return layers
def getDisplacements(self, layerPlug, enabled=True):
order = MFnIntArrayData(
layerPlug.child(
self.layer_displacements_order.obj).asMObject()).array()
allDisplacements = self.getPlugArray(
layerPlug.child(self.layer_displacements.obj), order)
displacements = []
for displacement in allDisplacements:
if displacement.child(self.layer_displacement_enable.obj).asBool(
) or not enabled:
displacements.append(displacement)
return displacements
#
def getCustoms(self, type, allCustomParams, code=False, shaderOutput=True):
customStr = ''
attrName = 'custom%s' % type.capitalize()
if not code:
customStr += '%s[] %s[]\n' % (type, attrName)
idx = 0
namePlug = MPlug(self.thisMObject(),
getattr(self.__class__, '%sName' % attrName).obj)
for plug in self.getPlugArray(namePlug):
paramName = self.cleanupParamName(plug.asString())
if len(paramName) and paramName not in allCustomParams:
if code:
mult = 'opacity'
if type == 'float':
mult = 'luminance(%s)' % mult
customStr += '%s = %s[%d] * %s;\n' % (paramName, attrName,
idx, mult)
elif shaderOutput:
customStr += 'shader_output varying %s %s\n' % (type,
paramName)
allCustomParams.append(paramName)
idx += 1
return customStr
# Override from ShadingCodeComponent
def getShadingCode(self):
#
shadingCode = ''
# Include this class file for utility functions
shadingCode += '#include "%s.h"\n' % self.__class__.__name__
thisObj = self.thisMObject()
#
if self.isDisplacementShader():
shadingCode += """
extern point P;
extern normal N;
extern normal Ng;
extern point __Porig;
extern normal __Norig;
// save P and N for use when raytracing without displacements
__Porig = P;
__Norig = N;
normal Nn = normalize(N);
normal deltaN = Nn - normalize(Ng);
point Pnew = P + Nn * displacementGlobalOffset;
normal Nnew = Nn;
float scaleComp = 1.0;
if(displacementCompensateScale){
vector v0 = vtransform("object", vector(1, 0, 0));
vector v1 = vtransform("object", vector(0, 1, 0));
vector v2 = vtransform("object", vector(0, 0, 1));
float compensate = (length(v0) + length(v1) + length(v2)) / 3;
if(compensate)
scaleComp = scaleComp / compensate;
}
float amount = 0;
"""
layers = self.getLayers()
for layer in reversed(layers):
substractOverLayers = ''
for toplayer in layers[layer.logicalIndex() + 1:]:
if toplayer.child(
self.layer_displacement_mode.obj).asShort() == 1:
self.setLayer(toplayer)
substractOverLayers += self.getCode(' - LAYERID_alpha')
self.setLayer(layer)
shadingCode += self.getLine(
'float LAYERID_alpha = clamp(luminance(LAYERID_layer_opacity)%s, 0, 1)'
% (substractOverLayers))
for layer in layers:
self.setLayer(layer)
for displacement in self.getDisplacements(layer):
varbase = 'LAYERID_layer_displacements%i_layer_displacement' % displacement.logicalIndex(
)
shadingCode += self.getLine(
'amount = getLip(%s_lip, %s_lipRim, %s_amount)' %
(varbase, varbase, varbase))
shadingCode += self.getLine(
'amount = (amount * scaleComp * %s_scale * LAYERID_layer_displacement_layerScale * displacementGlobalScale + ((%s_offset + LAYERID_layer_displacement_layerOffset) * scaleComp)) * LAYERID_alpha * clamp(%s_alpha, 0, 1)'
% (varbase, varbase, varbase))
if displacement.child(
self.layer_displacement_useNormMap.obj).asShort():
shadingCode += self.getLine(
'Nnew += ntransform("object", "current", normal(%s_normMap))'
% (varbase))
shadingCode += self.getLine(
'getDisplacement(amount, %s_type, %s_recalcNorm, %s_useShadNorm, Pnew, normalize(Nnew), deltaN, Pnew, Nnew)'
% (varbase, varbase, varbase))
shadingCode += """
P = Pnew;
N = Nnew;
"""
else:
#
shadingCode += self.getLine('color resultColor, resultOpacity')
# Add one cause lightset arrays are actually one based since index 0 is reserved for default lightset i.e. no lightset
lightSetsCount = MPlug(thisObj, self.lightSetsCount.obj).asInt()
if lightSetsCount < 1:
lightSetsCount = 1
# If this node is used as an actual shader we need the AOVs
isSurfaceShader = self.isSurfaceShader()
if isSurfaceShader:
self.setVarPrefix('')
else:
# If not we declare local vars
self.setVarPrefix('local_')
shadingCode += self.getLine('color VARPREFIXopacity = 0')
for channel in self.channels:
self.setChannel(channel)
if channel.array:
for i in range(0, lightSetsCount):
self.setChannel(channel, i)
shadingCode += self.getLine(
'color VARPREFIXCHANNELNAMECHANNELLIGHTSET = 0'
)
else:
shadingCode += self.getLine(
'color VARPREFIXCHANNELNAME = 0')
# Loop into enabled layers
for layer in self.getLayers():
# Get all connected components to this layer
components = self.getPlugArray(layer.child(
self.layer_components.obj),
connectedOnly=True)
self.setLayer(layer)
# Mult layer opacity
shadingCode += self.getLine(
'color LAYERNAME_opacity = LAYERID_layer_opacity')
if not len(components):
continue
# Blend opacity
if layer.child(self.layer_blendOpacity.obj).asBool():
shadingCode += self.getLine(
'blend(LAYERID_layer_mode, 1, LAYERNAME_opacity, 1, VARPREFIXopacity, resultColor, VARPREFIXopacity)'
)
#
for channel in filter(lambda msg: not msg.array,
self.channels):
self.setChannel(channel)
componentList = [
'LAYERID_layer_components%d_component_CHANNELNAME' %
(comp.logicalIndex()) for comp in components
]
shadingCode += self.getLine(
'VARPREFIXCHANNELNAME = blend%ss(LAYERID_layer_mode, LAYERID_layer_premult, %s, LAYERNAME_opacity, VARPREFIXCHANNELNAME, VARPREFIXopacity)'
% (channel.apitype, string.join(componentList, ' + ')))
# Blend all lightsets separatly
for i in range(0, lightSetsCount):
# Build blendLightsets parameter list
blendFgInputs = [self.getCode('LAYERNAME_opacity')]
for channel in filter(lambda msg: msg.array,
self.channels):
self.setChannel(channel)
# Add up all components
componentList = [
'LAYERID_layer_components%d_component_CHANNELNAME[%d]'
% (comp.logicalIndex(), i) for comp in components
]
blendFgInputs.append(
self.getCode(string.join(componentList, ' + ')))
blendBgInputs = [self.getCode('VARPREFIXopacity')]
blendOutputs = []
for channel in filter(lambda msg: msg.array,
self.channels):
self.setChannel(channel, i)
blendBgInputs.append(
self.getCode(
'VARPREFIXCHANNELNAMECHANNELLIGHTSET'))
blendOutputs.append(
self.getCode(
'VARPREFIXCHANNELNAMECHANNELLIGHTSET'))
#
blendParams = [
self.getCode('LAYERID_layer_mode'),
self.getCode('LAYERID_layer_premult')
] + blendFgInputs + blendBgInputs + blendOutputs
shadingCode += 'blendLightsets(\n\t%s);\n' % string.join(
blendParams, ',\n\t')
#
shadingCode += self.getLine('VARPREFIXopacity *= globalOpacity')
# Add (or substract) all channels to out color per light set
for channel in self.channels:
self.setChannel(channel)
if channel.array:
accum_lightsets = []
for i in range(0, lightSetsCount):
self.setChannel(channel, i)
shadingCode += self.getLine(
'VARPREFIXCHANNELNAMECHANNELLIGHTSET *= globalOpacity'
)
accum_lightsets.append(
self.getCode(
'VARPREFIXCHANNELNAMECHANNELLIGHTSET'))
shadingCode += self.getLine(
'color CHANNELNAME_lightsets[] = {%s}' %
string.join(accum_lightsets, ', '))
if isSurfaceShader:
shadingCode += self.getLine(
'VARPREFIXCHANNELNAME = accumulateColors(CHANNELNAME_lightsets)'
)
else:
shadingCode += self.getLine(
'copyColors(CHANNELNAME_lightsets, outputComponent_output_CHANNELNAME)'
)
else:
shadingCode += self.getLine(
'VARPREFIXCHANNELNAME *= globalOpacity')
if not isSurfaceShader:
shadingCode += self.getLine(
'outputComponent_output_CHANNELNAME = local_CHANNELNAME'
)
if isSurfaceShader:
layernames = []
layeropacs = []
for layer in self.getLayers():
self.setLayer(layer)
layernames.append(self.getCode('LAYERNAME'))
layeropacs.append(self.getCode('LAYERNAME_opacity'))
puzzleParamStr = string.join(
[p.longname for p in self.puzzleAuxInputs], ', ')
shadingCode += self.getLine('color layerOpacities[] = {%s}' %
string.join(layeropacs, ','))
shadingCode += self.getLine('string layerNames[] = {"%s"}' %
string.join(layernames, '", "'))
shadingCode += self.getLine(
'calculateAuxiliaries(opacity, premultAux, layerOpacities, layerNames, %s)'
% puzzleParamStr)
allCustomParams = []
shadingCode += self.getCustoms('float',
allCustomParams,
code=True)
shadingCode += self.getCustoms('color',
allCustomParams,
code=True)
#
primaryModeIdx = MPlug(thisObj, self.primaryMode.obj).asShort()
primaryMode = self.primaryModes[primaryModeIdx]
primaryLightSetIndex = MPlug(
thisObj, self.primaryLightSetIndex.obj).asInt()
if primaryLightSetIndex >= 0 and primaryMode not in [
obj.longname for obj in self.auxAOVs
]:
primaryMode += '_ls%d' % primaryLightSetIndex
shadingCode += self.getLine('outColor = VARPREFIX%s' % primaryMode)
shadingCode += self.getLine(
'outTransparency = 1 - VARPREFIXopacity')
return shadingCode
# Override from ShadingCodeComponent
def getShadingParameters(self):
shadingParameters = ''
thisObj = self.thisMObject()
lightSetsCount = MPlug(thisObj, self.lightSetsCount.obj).asInt()
if lightSetsCount < 1:
lightSetsCount = 1
isSurfaceShader = self.isSurfaceShader()
isDisplacementShader = self.isDisplacementShader()
#
if isDisplacementShader:
for attr in self.getShadingParametersAttributes():
if not attr.output and attr.longname.startswith(
'displacement'):
shadingParameters += '%s %s\n' % (attr.rsltype,
attr.longname)
else:
shadingParameters += super(dl_layer, self).getShadingParameters()
#
for layer in self.getLayers():
self.setLayer(layer)
shadingParameters += self.getCode(
'color LAYERATTR.layer_opacity\n')
if isDisplacementShader:
shadingParameters += self.getCode(
'float LAYERATTR.layer_displacement_layerScale\n')
shadingParameters += self.getCode(
'float LAYERATTR.layer_displacement_layerOffset\n')
else:
shadingParameters += self.getCode(
'uniform float LAYERATTR.layer_mode\n')
if isDisplacementShader:
for displacement in self.getDisplacements(layer):
displacementIndex = displacement.logicalIndex()
for child in self.layer_displacement_children:
if child.utility:
shadingParameters += self.getCode(
'%s LAYERATTR.layer_displacements[%d].%s\n' %
(child.rsltype, displacementIndex,
child.longname))
else:
shadingParameters += self.getCode(
'float LAYERATTR.layer_premult\n')
for component in self.getPlugArray(layer.child(
self.layer_components.obj),
connectedOnly=True):
componentIndex = component.logicalIndex()
shadingParameters += self.getCode(
'void%d LAYERATTR.layer_components[%d]\n' %
(lightSetsCount, componentIndex))
for channel in self.channels:
self.setChannel(channel)
shadingParameters += self.getCode(
'CHANNELDECLARE LAYERATTR.layer_components[%d].component_CHANNELNAME\n'
% componentIndex)
if isSurfaceShader:
shadingParameters += self.getCode(
'shader_output varying color opacity\n')
for channel in self.channels:
self.setChannel(channel)
shadingParameters += self.getCode(
'shader_output varying CHANNELAOVTYPE CHANNELNAME\n')
if channel.array:
for i in range(0, lightSetsCount):
self.setChannel(channel, i)
shadingParameters += self.getCode(
'shader_output varying CHANNELAOVTYPE CHANNELNAMECHANNELLIGHTSET\n'
)
for auxAOV in self.auxAOVs:
shadingParameters += self.getCode(
'shader_output varying %s %s\n' %
(auxAOV.rsltype, auxAOV.longname))
if isDisplacementShader:
shadingParameters += 'shader_output varying point __Porig\n'
shadingParameters += 'shader_output varying normal __Norig\n'
#
if not isDisplacementShader:
allCustomParams = []
shadingParameters += self.getCustoms('float',
allCustomParams,
shaderOutput=isSurfaceShader)
shadingParameters += self.getCustoms('color',
allCustomParams,
shaderOutput=isSurfaceShader)
return shadingParameters
def getInternalValueInContext(self, plug, dataHandle, ctx):
if plug.attribute() == self.__class__.actualOrder.obj:
layers = self.getLayers(enabled=False)
order = MIntArray()
for layer in layers:
order.append(layer.logicalIndex())
dataHandle.setMObject(MFnIntArrayData().create(order))
return True
elif plug.attribute(
) == self.__class__.layer_displacements_actualOrder.obj:
displacements = self.getDisplacements(plug.parent(), enabled=False)
order = MIntArray()
for displacement in displacements:
order.append(displacement.logicalIndex())
dataHandle.setMObject(MFnIntArrayData().create(order))
return True
return super(dl_layer,
self).getInternalValueInContext(plug, dataHandle, ctx)
def compute(self, plug, data):
if plug == self.outColor.obj:
r, g, b = data.inputValue(self.displayColor.obj).asFloat3()
data.outputValue(plug).set3Float(r, g, b)
return data.setClean(plug)
elif plug == self.outTransparency.obj:
r, g, b = data.inputValue(self.displayOpacity.obj).asFloat3()
data.outputValue(plug).set3Float(1.0 - r, 1.0 - g, 1.0 - b)
return data.setClean(plug)
return super(dl_layer, self).compute(plug, data)
def postConstructor(self):
# We always have at least one layer
# TODO: maybe make this less systematic
layerPlug = MPlug(self.thisMObject(), self.layers.obj)
layer0Plug = layerPlug.elementByLogicalIndex(0)
layerNamePlug = layer0Plug.child(self.layer_name.obj)
layerNamePlug.setMObject(MFnStringData().create('layer0'))
super(dl_layer, self).postConstructor()
template = 'source dl_layer'
class dl_externFloat(deluxe.Extern):
typeid = 0x00300030
inputValue = deluxe.Float(default=1.0)
outputValue = deluxe.Float(output=True)
