Simplify thin-film layering into thin-film BSDF parameters

libraries/pbrlib/genglsl/mx_conductor_bsdf.glsl

@@ -1,6 +1,6 @@
 #include "lib/mx_microfacet_specular.glsl"
 
-void mx_conductor_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 ior_n, vec3 ior_k, vec2 roughness, vec3 N, vec3 X, int distribution, inout BSDF bsdf)
+void mx_conductor_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 ior_n, vec3 ior_k, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, inout BSDF bsdf)
 {
     bsdf.throughput = vec3(0.0);
 
@@ -24,8 +24,8 @@ void mx_conductor_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float
     vec3 Ht = vec3(dot(H, X), dot(H, Y), dot(H, N));
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
-        fd = mx_init_fresnel_conductor_airy(ior_n, ior_k, bsdf.thickness, bsdf.ior);
+    if (thinfilm_thickness > 0.0)
+        fd = mx_init_fresnel_conductor_airy(ior_n, ior_k, thinfilm_thickness, thinfilm_ior);
     else
         fd = mx_init_fresnel_conductor(ior_n, ior_k);
 
@@ -39,7 +39,7 @@ void mx_conductor_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float
     bsdf.response = D * F * G * comp * occlusion * weight / (4.0 * NdotV);
 }
 
-void mx_conductor_bsdf_indirect(vec3 V, float weight, vec3 ior_n, vec3 ior_k, vec2 roughness, vec3 N, vec3 X, int distribution, inout BSDF bsdf)
+void mx_conductor_bsdf_indirect(vec3 V, float weight, vec3 ior_n, vec3 ior_k, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, inout BSDF bsdf)
 {
     bsdf.throughput = vec3(0.0);
 
@@ -53,8 +53,8 @@ void mx_conductor_bsdf_indirect(vec3 V, float weight, vec3 ior_n, vec3 ior_k, ve
     float NdotV = clamp(dot(N, V), M_FLOAT_EPS, 1.0);
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
-        fd = mx_init_fresnel_conductor_airy(ior_n, ior_k, bsdf.thickness, bsdf.ior);
+    if (thinfilm_thickness > 0.0)
+        fd = mx_init_fresnel_conductor_airy(ior_n, ior_k, thinfilm_thickness, thinfilm_ior);
     else
         fd = mx_init_fresnel_conductor(ior_n, ior_k);
 

libraries/pbrlib/genglsl/mx_dielectric_bsdf.glsl

@@ -1,6 +1,6 @@
 #include "lib/mx_microfacet_specular.glsl"
 
-void mx_dielectric_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 tint, float ior, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_dielectric_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 tint, float ior, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -22,9 +22,9 @@ void mx_dielectric_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, floa
     vec3 Ht = vec3(dot(H, X), dot(H, Y), dot(H, N));
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_dielectric_airy(ior, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_dielectric_airy(ior, thinfilm_thickness, thinfilm_ior);
     }
     else
     {
@@ -43,7 +43,7 @@ void mx_dielectric_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, floa
     bsdf.response = D * F * G * comp * tint * occlusion * weight / (4.0 * NdotV);
 }
 
-void mx_dielectric_bsdf_transmission(vec3 V, float weight, vec3 tint, float ior, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_dielectric_bsdf_transmission(vec3 V, float weight, vec3 tint, float ior, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -54,9 +54,9 @@ void mx_dielectric_bsdf_transmission(vec3 V, float weight, vec3 tint, float ior,
     float NdotV = clamp(dot(N, V), M_FLOAT_EPS, 1.0);
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_dielectric_airy(ior, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_dielectric_airy(ior, thinfilm_thickness, thinfilm_ior);
     }
     else
     {
@@ -78,7 +78,7 @@ void mx_dielectric_bsdf_transmission(vec3 V, float weight, vec3 tint, float ior,
     }
 }
 
-void mx_dielectric_bsdf_indirect(vec3 V, float weight, vec3 tint, float ior, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_dielectric_bsdf_indirect(vec3 V, float weight, vec3 tint, float ior, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -90,9 +90,9 @@ void mx_dielectric_bsdf_indirect(vec3 V, float weight, vec3 tint, float ior, vec
     float NdotV = clamp(dot(N, V), M_FLOAT_EPS, 1.0);
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_dielectric_airy(ior, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_dielectric_airy(ior, thinfilm_thickness, thinfilm_ior);
     }
     else
     {

libraries/pbrlib/genglsl/mx_generalized_schlick_bsdf.glsl

@@ -1,6 +1,6 @@
 #include "lib/mx_microfacet_specular.glsl"
 
-void mx_generalized_schlick_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_generalized_schlick_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlusion, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -22,9 +22,9 @@ void mx_generalized_schlick_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlus
     vec3 Ht = vec3(dot(H, X), dot(H, Y), dot(H, N));
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, thinfilm_thickness, thinfilm_ior);
     }
     else
     {
@@ -43,7 +43,7 @@ void mx_generalized_schlick_bsdf_reflection(vec3 L, vec3 V, vec3 P, float occlus
     bsdf.response = D * F * G * comp * occlusion * weight / (4.0 * NdotV);
 }
 
-void mx_generalized_schlick_bsdf_transmission(vec3 V, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_generalized_schlick_bsdf_transmission(vec3 V, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -54,9 +54,9 @@ void mx_generalized_schlick_bsdf_transmission(vec3 V, float weight, vec3 color0,
     float NdotV = clamp(dot(N, V), M_FLOAT_EPS, 1.0);
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, thinfilm_thickness, thinfilm_thickness);
     }
     else
     {
@@ -80,7 +80,7 @@ void mx_generalized_schlick_bsdf_transmission(vec3 V, float weight, vec3 color0,
     }
 }
 
-void mx_generalized_schlick_bsdf_indirect(vec3 V, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
+void mx_generalized_schlick_bsdf_indirect(vec3 V, float weight, vec3 color0, vec3 color90, float exponent, vec2 roughness, float thinfilm_thickness, float thinfilm_ior, vec3 N, vec3 X, int distribution, int scatter_mode, inout BSDF bsdf)
 {
     if (weight < M_FLOAT_EPS)
     {
@@ -91,9 +91,9 @@ void mx_generalized_schlick_bsdf_indirect(vec3 V, float weight, vec3 color0, vec
     float NdotV = clamp(dot(N, V), M_FLOAT_EPS, 1.0);
 
     FresnelData fd;
-    if (bsdf.thickness > 0.0)
+    if (thinfilm_thickness > 0.0)
     { 
-        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, bsdf.thickness, bsdf.ior);
+        fd = mx_init_fresnel_schlick_airy(color0, color90, exponent, thinfilm_thickness, thinfilm_ior);
     }
     else
     {

libraries/pbrlib/genglsl/pbrlib_genglsl_impl.mtlx

@@ -28,9 +28,6 @@
   <!-- <anisotropic_vdf> -->
   <implementation name="IM_anisotropic_vdf_genglsl" nodedef="ND_anisotropic_vdf" file="mx_anisotropic_vdf.glsl" function="mx_anisotropic_vdf" target="genglsl" />
 
-  <!-- <thin_film_bsdf> -->
-  <implementation name="IM_thin_film_bsdf_genglsl" nodedef="ND_thin_film_bsdf" target="genglsl" />
-
   <!-- <layer> -->
   <implementation name="IM_layer_bsdf_genglsl" nodedef="ND_layer_bsdf" target="genglsl" />
   <implementation name="IM_layer_vdf_genglsl" nodedef="ND_layer_vdf" target="genglsl" />

libraries/pbrlib/genmdl/pbrlib_genmdl_impl.mtlx

@@ -11,23 +11,20 @@
   <implementation name="IM_translucent_bsdf_genmdl" nodedef="ND_translucent_bsdf" sourcecode="mx::pbrlib::mx_translucent_bsdf(mxp_weight:{{weight}}, mxp_color:{{color}}, mxp_normal:{{normal}})" target="genmdl" />
 
   <!-- <dielectric_bsdf> -->
-  <implementation name="IM_dielectric_bsdf_genmdl" nodedef="ND_dielectric_bsdf" sourcecode="mx::pbrlib::mx_dielectric_bsdf(mxp_weight:{{weight}}, mxp_tint:{{tint}}, mxp_ior:{{ior}}, mxp_roughness:{{roughness}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}}, mxp_scatter_mode:{{scatter_mode}}, mxp_base:{{base}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}})" target="genmdl" />
+  <implementation name="IM_dielectric_bsdf_genmdl" nodedef="ND_dielectric_bsdf" sourcecode="mx::pbrlib::mx_dielectric_bsdf(mxp_weight:{{weight}}, mxp_tint:{{tint}}, mxp_ior:{{ior}}, mxp_roughness:{{roughness}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}}, mxp_scatter_mode:{{scatter_mode}}, mxp_base:{{base}})" target="genmdl" />
 
   <!-- <conductor_bsdf> -->
-  <implementation name="IM_conductor_bsdf_genmdl" nodedef="ND_conductor_bsdf" sourcecode="mx::pbrlib::mx_conductor_bsdf(mxp_weight:{{weight}}, mxp_ior:{{ior}}, mxp_extinction:{{extinction}}, mxp_roughness:{{roughness}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}})" target="genmdl" />
+  <implementation name="IM_conductor_bsdf_genmdl" nodedef="ND_conductor_bsdf" sourcecode="mx::pbrlib::mx_conductor_bsdf(mxp_weight:{{weight}}, mxp_ior:{{ior}}, mxp_extinction:{{extinction}}, mxp_roughness:{{roughness}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}})" target="genmdl" />
 
   <!-- <generalized_schlick_bsdf> -->
-  <implementation name="IM_generalized_schlick_bsdf_genmdl" nodedef="ND_generalized_schlick_bsdf" sourcecode="mx::pbrlib::mx_generalized_schlick_bsdf(mxp_weight:{{weight}}, mxp_color0:{{color0}}, mxp_color90:{{color90}}, mxp_exponent:{{exponent}},mxp_roughness:{{roughness}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}}, mxp_scatter_mode:{{scatter_mode}}, mxp_base:{{base}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}})" target="genmdl" />
+  <implementation name="IM_generalized_schlick_bsdf_genmdl" nodedef="ND_generalized_schlick_bsdf" sourcecode="mx::pbrlib::mx_generalized_schlick_bsdf(mxp_weight:{{weight}}, mxp_color0:{{color0}}, mxp_color90:{{color90}}, mxp_exponent:{{exponent}},mxp_roughness:{{roughness}}, mxp_thinfilm_thickness:{{thinfilm_thickness}}, mxp_thinfilm_ior:{{thinfilm_ior}}, mxp_normal:{{normal}}, mxp_tangent:{{tangent}}, mxp_distribution:{{distribution}}, mxp_scatter_mode:{{scatter_mode}}, mxp_base:{{base}})" target="genmdl" />
 
   <!-- <subsurface_bsdf> -->
   <implementation name="IM_subsurface_bsdf_genmdl" nodedef="ND_subsurface_bsdf" sourcecode="mx::pbrlib::mx_subsurface_bsdf(mxp_weight:{{weight}}, mxp_color:{{color}}, mxp_radius:{{radius}}, mxp_anisotropy:{{anisotropy}}, mxp_normal:{{normal}})" target="genmdl" />
 
   <!-- <sheen_bsdf> -->
   <implementation name="IM_sheen_bsdf_genmdl" nodedef="ND_sheen_bsdf" sourcecode="mx::pbrlib::mx_sheen_bsdf(mxp_weight:{{weight}}, mxp_color:{{color}}, mxp_roughness:{{roughness}}, mxp_normal:{{normal}}, mxp_base:{{base}})" target="genmdl" />
 
-  <!-- <thin_film_bsdf> -->
-  <implementation name="IM_thin_film_bsdf_genmdl" nodedef="ND_thin_film_bsdf" sourcecode="mx::pbrlib::mx_thin_film_bsdf(mxp_thickness:{{thickness}}, mxp_ior:{{ior}}, mxp_base:{{base}})" target="genmdl" />
-
   <!-- <uniform_edf> -->
   <implementation name="IM_uniform_edf_genmdl" nodedef="ND_uniform_edf" sourcecode="mx::pbrlib::mx_uniform_edf(mxp_color:{{color}})" target="genmdl" />
 

libraries/pbrlib/genmsl/pbrlib_genmsl_impl.mtlx

@@ -28,9 +28,6 @@
   <!-- <anisotropic_vdf> -->
   <implementation name="IM_anisotropic_vdf_genmsl" nodedef="ND_anisotropic_vdf" file="../genglsl/mx_anisotropic_vdf.glsl" function="mx_anisotropic_vdf" target="genmsl" />
 
-  <!-- <thin_film_bsdf> -->
-  <implementation name="IM_thin_film_bsdf_genmsl" nodedef="ND_thin_film_bsdf" target="genmsl" />
-
   <!-- <layer> -->
   <implementation name="IM_layer_bsdf_genmsl" nodedef="ND_layer_bsdf" target="genmsl" />
   <implementation name="IM_layer_vdf_genmsl" nodedef="ND_layer_vdf" target="genmsl" />

libraries/pbrlib/genosl/legacy/mx_conductor_bsdf.osl

@@ -1,6 +1,6 @@
 #include "../lib/mx_microfacet_specular.osl"
 
-void mx_conductor_bsdf(float weight, color ior_n, color ior_k, vector2 roughness, normal N, vector U, string distribution, output BSDF bsdf)
+void mx_conductor_bsdf(float weight, color ior_n, color ior_k, vector2 roughness, float thinfilm_thickness, float thinfilm_ior, normal N, vector U, string distribution, output BSDF bsdf)
 {
     bsdf.throughput = color(0.0);
 

libraries/pbrlib/genosl/legacy/mx_dielectric_bsdf.osl

@@ -1,6 +1,6 @@
 #include "../lib/mx_microfacet_specular.osl"
 
-void mx_dielectric_bsdf(float weight, color tint, float ior, vector2 roughness, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
+void mx_dielectric_bsdf(float weight, color tint, float ior, vector2 roughness, float thinfilm_thickness, float thinfilm_ior, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
 {
     if (scatter_mode == "T")
     {

libraries/pbrlib/genosl/legacy/mx_generalized_schlick_bsdf.osl

@@ -1,6 +1,6 @@
 #include "../lib/mx_microfacet_specular.osl"
 
-void mx_generalized_schlick_bsdf(float weight, color color0, color color90, float exponent, vector2 roughness, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
+void mx_generalized_schlick_bsdf(float weight, color color0, color color90, float exponent, vector2 roughness, float thinfilm_thickness, float thinfilm_ior, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
 {
     float avgF0 = dot(color0, color(1.0 / 3.0));
     float ior = mx_f0_to_ior(avgF0);

libraries/pbrlib/genosl/mx_dielectric_bsdf.osl

@@ -1,15 +1,15 @@
-void mx_dielectric_bsdf(float weight, color tint, float ior, vector2 roughness, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
+void mx_dielectric_bsdf(float weight, color tint, float ior, vector2 roughness, float thinfilm_thickness, float thinfilm_ior, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
 {
     if (scatter_mode == "R")
     {
-        bsdf = weight * dielectric_bsdf(N, U, tint, color(0.0), roughness.x, roughness.y, ior, distribution);
+        bsdf = weight * dielectric_bsdf(N, U, tint, color(0.0), roughness.x, roughness.y, ior, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
     else if (scatter_mode == "T")
     {
-        bsdf = weight * dielectric_bsdf(N, U, color(0.0), tint, roughness.x, roughness.y, ior, distribution);
+        bsdf = weight * dielectric_bsdf(N, U, color(0.0), tint, roughness.x, roughness.y, ior, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
     else
     {
-        bsdf = weight * dielectric_bsdf(N, U, tint, tint, roughness.x, roughness.y, ior, distribution);
+        bsdf = weight * dielectric_bsdf(N, U, tint, tint, roughness.x, roughness.y, ior, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
 }

libraries/pbrlib/genosl/mx_generalized_schlick_bsdf.osl

@@ -1,15 +1,15 @@
-void mx_generalized_schlick_bsdf(float weight, color color0, color color90, float exponent, vector2 roughness, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
+void mx_generalized_schlick_bsdf(float weight, color color0, color color90, float exponent, vector2 roughness, float thinfilm_thickness, float thinfilm_ior, normal N, vector U, string distribution, string scatter_mode, output BSDF bsdf)
 {
     if (scatter_mode == "R")
     {
-        bsdf = weight * generalized_schlick_bsdf(N, U, color(1.0), color(0.0), roughness.x, roughness.y, color0, color90, exponent, distribution);
+        bsdf = weight * generalized_schlick_bsdf(N, U, color(1.0), color(0.0), roughness.x, roughness.y, color0, color90, exponent, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
     else if (scatter_mode == "T")
     {
-        bsdf = weight * generalized_schlick_bsdf(N, U, color(0.0), color(1.0), roughness.x, roughness.y, color0, color90, exponent, distribution);
+        bsdf = weight * generalized_schlick_bsdf(N, U, color(0.0), color(1.0), roughness.x, roughness.y, color0, color90, exponent, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
     else
     {
-        bsdf = weight * generalized_schlick_bsdf(N, U, color(1.0), color(1.0), roughness.x, roughness.y, color0, color90, exponent, distribution);
+        bsdf = weight * generalized_schlick_bsdf(N, U, color(1.0), color(1.0), roughness.x, roughness.y, color0, color90, exponent, distribution, "thinfilm_thickness", thinfilm_thickness, "thinfilm_ior", thinfilm_ior);
     }
 }

libraries/pbrlib/genosl/pbrlib_genosl_impl.legacy

@@ -28,9 +28,6 @@
   <!-- <anisotropic_vdf> -->
   <implementation name="IM_anisotropic_vdf_genosl" nodedef="ND_anisotropic_vdf" file="legacy/mx_anisotropic_vdf.osl" function="mx_anisotropic_vdf" target="genosl" />
 
-  <!-- <thin_film_bsdf> -->
-  <implementation name="IM_thin_film_bsdf_genosl" nodedef="ND_thin_film_bsdf" target="genosl" />
-
   <!-- <uniform_edf> -->
   <implementation name="IM_uniform_edf_genosl" nodedef="ND_uniform_edf" sourcecode="{{color}} * emission()" target="genosl" />
 

libraries/pbrlib/genosl/pbrlib_genosl_impl.mtlx

@@ -14,7 +14,7 @@
   <implementation name="IM_dielectric_bsdf_genosl" nodedef="ND_dielectric_bsdf" file="mx_dielectric_bsdf.osl" function="mx_dielectric_bsdf" target="genosl" />
 
   <!-- <conductor_bsdf> -->
-  <implementation name="IM_conductor_bsdf_genosl" nodedef="ND_conductor_bsdf" sourcecode="{{weight}} * conductor_bsdf({{normal}}, {{tangent}}, {{roughness}}.x, {{roughness}}.y, {{ior}}, {{extinction}}, {{distribution}})" target="genosl" />
+  <implementation name="IM_conductor_bsdf_genosl" nodedef="ND_conductor_bsdf" sourcecode="{{weight}} * conductor_bsdf({{normal}}, {{tangent}}, {{roughness}}.x, {{roughness}}.y, {{ior}}, {{extinction}}, {{distribution}}, &quot;thinfilm_thickness&quot;, {{thinfilm_thickness}}, &quot;thinfilm_ior&quot;, {{thinfilm_ior}})" target="genosl" />
 
   <!-- <generalized_schlick_bsdf> -->
   <implementation name="IM_generalized_schlick_bsdf_genosl" nodedef="ND_generalized_schlick_bsdf" file="mx_generalized_schlick_bsdf.osl" function="mx_generalized_schlick_bsdf" target="genosl" />
@@ -28,9 +28,6 @@
   <!-- <anisotropic_vdf> -->
   <implementation name="IM_anisotropic_vdf_genosl" nodedef="ND_anisotropic_vdf" file="mx_anisotropic_vdf.osl" function="mx_anisotropic_vdf" target="genosl" />
 
-  <!-- <thin_film_bsdf> -->
-  <implementation name="IM_thin_film_bsdf_genosl" nodedef="ND_thin_film_bsdf" target="genosl" />
-
   <!-- <uniform_edf> -->
   <implementation name="IM_uniform_edf_genosl" nodedef="ND_uniform_edf" sourcecode="uniform_edf({{color}})" target="genosl" />