add some royale parameters

crt/shaders/crt-royale/src/crt-royale-bloom-horizontal-reconstitute.slang

@@ -116,15 +116,15 @@ void main()
         brightpass_tex_uv).rgb;
     const vec3 dimpass = intensity_dim - brightpass;
     const vec3 phosphor_bloom = (dimpass + blurred_brightpass) *
-        mask_amplify * undim_factor * levels_contrast;
+        mask_amplify * undim_factor * params.levels_contrast;
 		
 	//  Sample the halation texture, and let some light bleed into refractive
     //  diffusion.  Conceptually this occurs before the phosphor bloom, but
     //  adding it in earlier passes causes black crush in the diffusion colors.
-    const vec3 diffusion_color = levels_contrast * tex2D_linearize(
+    const vec3 diffusion_color = params.levels_contrast * tex2D_linearize(
         HALATION_BLUR, halation_tex_uv).rgb;
     const vec3 final_bloom = mix(phosphor_bloom,
-        diffusion_color, diffusion_weight);
+        diffusion_color, params.diffusion_weight);
 		
 	//  Encode and output the bloomed image:
    FragColor = encode_output(vec4(final_bloom, 1.0));

crt/shaders/crt-royale/src/crt-royale-brightpass.slang

@@ -92,12 +92,12 @@ void main()
     const float undim_factor = 1.0/auto_dim_factor;
     const float mask_amplify = get_mask_amplify();
     const vec3 intensity = intensity_dim * undim_factor * mask_amplify *
-        levels_contrast;
+        params.levels_contrast;
 		
 	//  Sample BLOOM_APPROX to estimate what a straight blur of masked scanlines
     //  would look like, so we can estimate how much energy we'll receive from
     //  blooming neighbors:
-    const vec3 phosphor_blur_approx = levels_contrast * tex2D_linearize(
+    const vec3 phosphor_blur_approx = params.levels_contrast * tex2D_linearize(
         BLOOM_APPROX, blur3x3_tex_uv).rgb;
 		
 	//  Compute the blur weight for the center texel and the maximum energy we
@@ -111,15 +111,15 @@ void main()
     //  because it actually gets better results (on top of being very simple),
     //  but adjust all intensities for the user's desired underestimate factor:
     const vec3 area_contrib_underestimate =
-        bloom_underestimate_levels * max_area_contribution_approx;
+        params.bloom_underestimate_levels * max_area_contribution_approx;
     const vec3 intensity_underestimate =
-        bloom_underestimate_levels * intensity;
+        params.bloom_underestimate_levels * intensity;
 		
 	//  Calculate the blur_ratio, the ratio of intensity we want to blur:
     #ifdef BRIGHTPASS_AREA_BASED
         //  This area-based version changes blur_ratio more smoothly and blurs
         //  more, clipping less but offering less phosphor differentiation:
-        const vec3 phosphor_blur_underestimate = bloom_underestimate_levels *
+        const vec3 phosphor_blur_underestimate = params.bloom_underestimate_levels *
             phosphor_blur_approx;
         const vec3 soft_intensity = max(intensity_underestimate,
             phosphor_blur_underestimate * mask_amplify);
@@ -136,7 +136,7 @@ void main()
     //  Calculate the brightpass based on the auto-dimmed, unamplified, masked
     //  scanlines, encode if necessary, and return!
     const vec3 brightpass = intensity_dim *
-        mix(blur_ratio, vec3(1.0), bloom_excess);
+        mix(blur_ratio, vec3(1.0), params.bloom_excess);
 		
    FragColor = encode_output(vec4(brightpass, 1.0));
 }

crt/shaders/crt-royale/src/crt-royale-geometry-aa-last-pass.slang

@@ -140,7 +140,7 @@ void main()
 	//  Get an optimal eye position based on geom_view_dist, viewport_aspect,
     //  and CRT radius/rotation:
     #ifdef RUNTIME_GEOMETRY_MODE
-        const float geom_mode = geom_mode_runtime;
+        geom_mode = params.geom_mode_runtime;
     #else
         const float geom_mode = geom_mode_static;
     #endif
@@ -178,7 +178,7 @@ void main()
         const mat3x3 global_to_local = geom_global_to_local_static;
     #endif
     #ifdef RUNTIME_GEOMETRY_MODE
-        const float geom_mode = geom_mode_runtime;
+        geom_mode = params.geom_mode_runtime;
     #else
         const float geom_mode = geom_mode_static;
     #endif

crt/shaders/crt-royale/src/crt-royale-mask-resize-vertical.slang

@@ -115,13 +115,13 @@ void main()
             const vec2 src_tex_uv = fract(src_tex_uv_wrap);
             vec3 pixel_color;
             //  If mask_type is static, this branch will be resolved statically.
-            if(mask_type < 0.5)
+            if(params.mask_type < 0.5)
             {
                 pixel_color = downsample_vertical_sinc_tiled(
                     mask_grille_texture_large, src_tex_uv, mask_resize_src_lut_size,
                     src_dy, resize_magnification_scale.y, 1.0);
             }
-            else if(mask_type < 1.5)
+            else if(params.mask_type < 1.5)
             {
                 pixel_color = downsample_vertical_sinc_tiled(
                     mask_slot_texture_large, src_tex_uv, mask_resize_src_lut_size,
@@ -169,13 +169,13 @@ void main()
             const vec2 src_tex_uv = fract(src_tex_uv_wrap);
             vec3 pixel_color;
             //  If mask_type is static, this branch will be resolved statically.
-            if(mask_type < 0.5)
+            if(params.mask_type < 0.5)
             {
                 pixel_color = downsample_vertical_sinc_tiled(
                     mask_grille_texture_small, src_tex_uv, mask_resize_src_lut_size,
                     src_dy, resize_magnification_scale.y, 1.0);
             }
-            else if(mask_type < 1.5)
+            else if(params.mask_type < 1.5)
             {
                 pixel_color = downsample_vertical_sinc_tiled(
                     mask_slot_texture_small, src_tex_uv, mask_resize_src_lut_size,

crt/shaders/crt-royale/src/crt-royale-scanlines-horizontal-apply-mask.slang

@@ -163,12 +163,12 @@ void main()
 	if(sample_orig_luts)
     {
         //  If mask_type is static, this branch will be resolved statically.
-        if(mask_type < 0.5)
+        if(params.mask_type < 0.5)
         {
             phosphor_mask_sample = tex2D_linearize(
                 mask_grille_texture_large, mask_tex_uv).rgb;
         }
-        else if(mask_type < 1.5)
+        else if(params.mask_type < 1.5)
         {
             phosphor_mask_sample = tex2D_linearize(
                 mask_slot_texture_large, mask_tex_uv).rgb;
@@ -242,7 +242,7 @@ void main()
         //  full brightness, not minimal blurring.  To fix it, base blend_ratio
         //  on a max area intensity only so it varies more smoothly:
         const vec3 phosphor_blur_underestimate =
-            phosphor_blur_approx * bloom_underestimate_levels;
+            phosphor_blur_approx * params.bloom_underestimate_levels;
         const vec3 area_max_underestimate =
             phosphor_blur_underestimate * mask_amplify;
         #ifdef PHOSPHOR_BLOOM_FAKE_WITH_SIMPLE_BLEND
@@ -258,9 +258,9 @@ void main()
             //  the phosphor emission, but I haven't found a way to make the
             //  brightness correct across the whole color range, especially with
             //  different bloom_underestimate_levels values.)
-            const float desired_triad_size = mix(mask_triad_size_desired,
+            const float desired_triad_size = mix(params.mask_triad_size_desired,
-                registers.OutputSize.x/mask_num_triads_desired,
+                registers.OutputSize.x/params.mask_num_triads_desired,
-                mask_specify_num_triads);
+                params.mask_specify_num_triads);
             const float bloom_sigma = get_min_sigma_to_blur_triad(
                 desired_triad_size, bloom_diff_thresh);
             const float center_weight = get_center_weight(bloom_sigma);
@@ -268,7 +268,7 @@ void main()
                 max(vec3(0.0), phosphor_blur_approx -
                 center_weight * phosphor_emission);
             const vec3 area_contrib_underestimate =
-                bloom_underestimate_levels * max_area_contribution_approx;
+                params.bloom_underestimate_levels * max_area_contribution_approx;
             const vec3 blend_ratio_temp =
                 ((vec3(1.0) - area_contrib_underestimate) /
                 area_max_underestimate - vec3(1.0)) / (center_weight - 1.0);
@@ -277,13 +277,13 @@ void main()
         //  min/max/clamp are BIZARRELY broken with lerp (optimization bug?),
         //  and this redundant sequence avoids bugs, at least on nVidia cards:
         const vec3 blend_ratio_clamped = max(clamp(blend_ratio_temp, 0.0, 1.0), 0.0);
-        const vec3 blend_ratio = mix(blend_ratio_clamped, vec3(1.0), bloom_excess);
+        const vec3 blend_ratio = mix(blend_ratio_clamped, vec3(1.0), params.bloom_excess);
         //  Blend the blurred and unblurred images:
         const vec3 phosphor_emission_unclipped =
             mix(phosphor_emission, phosphor_blur_approx, blend_ratio);
         //  Simulate refractive diffusion by reusing the halation sample.
         const vec3 pixel_color = mix(phosphor_emission_unclipped,
-            halation_color, diffusion_weight);
+            halation_color, params.diffusion_weight);
     #else
         const vec3 pixel_color = phosphor_emission_dim;
     #endif

crt/shaders/crt-royale/src/geometry-functions.h

@@ -60,7 +60,7 @@ vec2 intersect_sphere(const vec3 view_vec, const vec3 eye_pos_vec)
     //  Quadratic formula coefficients (b_over_2 is guaranteed negative):
     const float a = dot(view_vec, view_vec);
     const float b_over_2 = dot(view_vec, eye_pos_vec);  //  * 2.0 factored out
-    const float c = dot(eye_pos_vec, eye_pos_vec) - geom_radius*geom_radius;
+    const float c = dot(eye_pos_vec, eye_pos_vec) - params.geom_radius*params.geom_radius;
     return quadratic_solve(a, b_over_2, c);
 }
 
@@ -77,7 +77,7 @@ vec2 intersect_cylinder(const vec3 view_vec, const vec3 eye_pos_vec)
     //              Real-Time Collision Detection, p. 195-196, and this version
     //              uses LaGrange's identity to reduce operations.
     //  Arbitrary "cylinder top" reference point for an infinite cylinder:
-    const vec3 cylinder_top_vec = vec3(0.0, geom_radius, 0.0);
+    const vec3 cylinder_top_vec = vec3(0.0, params.geom_radius, 0.0);
     const vec3 cylinder_axis_vec = vec3(0.0, 1.0, 0.0);//vec3(0.0, 2.0*geom_radius, 0.0);
     const vec3 top_to_eye_vec = eye_pos_vec - cylinder_top_vec;
     const vec3 axis_x_view = cross(cylinder_axis_vec, view_vec);
@@ -86,7 +86,7 @@ vec2 intersect_cylinder(const vec3 view_vec, const vec3 eye_pos_vec)
     const float a = dot(axis_x_view, axis_x_view);
     const float b_over_2 = dot(axis_x_top_to_eye, axis_x_view);
     const float c = dot(axis_x_top_to_eye, axis_x_top_to_eye) -
-        geom_radius*geom_radius;//*dot(cylinder_axis_vec, cylinder_axis_vec);
+        params.geom_radius*params.geom_radius;//*dot(cylinder_axis_vec, cylinder_axis_vec);
     return quadratic_solve(a, b_over_2, c);
 }
 
@@ -100,7 +100,7 @@ vec2 cylinder_xyz_to_uv(const vec3 intersection_pos_local,
     //  Start with a numerically robust arc length calculation.
     const float angle_from_image_center = atan(intersection_pos_local.z,
 		intersection_pos_local.x);
-    const float signed_arc_len = angle_from_image_center * geom_radius;
+    const float signed_arc_len = angle_from_image_center * params.geom_radius;
     //  Get a uv-mapping where [-0.5, 0.5] maps to a "square" area, then divide
     //  by the aspect ratio to stretch the mapping appropriately:
     const vec2 square_uv = vec2(signed_arc_len, -intersection_pos_local.y);
@@ -117,9 +117,9 @@ vec3 cylinder_uv_to_xyz(const vec2 video_uv, const vec2 geom_aspect)
     //  then calculate an xyz position for the cylindrical mapping above.
     const vec2 square_uv = video_uv * geom_aspect;
     const float arc_len = square_uv.x;
-    const float angle_from_image_center = arc_len / geom_radius;
+    const float angle_from_image_center = arc_len / params.geom_radius;
-    const float x_pos = sin(angle_from_image_center) * geom_radius;
+    const float x_pos = sin(angle_from_image_center) * params.geom_radius;
-    const float z_pos = cos(angle_from_image_center) * geom_radius;
+    const float z_pos = cos(angle_from_image_center) * params.geom_radius;
     //  Or: z = sqrt(geom_radius**2 - x**2)
     //  Or: z = geom_radius/sqrt(1.0 + tan(angle)**2), x = z * tan(angle)
     const vec3 intersection_pos_local = vec3(x_pos, -square_uv.y, z_pos);
@@ -143,12 +143,12 @@ vec2 sphere_xyz_to_uv(const vec3 intersection_pos_local,
     //  sphere intersection point and the image center using a method posted by
     //  Roger Stafford on comp.soft-sys.matlab:
     //  https://groups.google.com/d/msg/comp.soft-sys.matlab/zNbUui3bjcA/c0HV_bHSx9cJ
-    const vec3 image_center_pos_local = vec3(0.0, 0.0, geom_radius);
+    const vec3 image_center_pos_local = vec3(0.0, 0.0, params.geom_radius);
     const float cp_len =
         length(cross(intersection_pos_local, image_center_pos_local));
     const float dp = dot(intersection_pos_local, image_center_pos_local);
     const float angle_from_image_center = atan(dp, cp_len);
-    const float arc_len = angle_from_image_center * geom_radius;
+    const float arc_len = angle_from_image_center * params.geom_radius;
     //  Get a uv-mapping where [-0.5, 0.5] maps to a "square" area, then divide
     //  by the aspect ratio to stretch the mapping appropriately:
     const vec2 square_uv_unit = normalize(vec2(intersection_pos_local.x,
@@ -172,12 +172,12 @@ vec3 sphere_uv_to_xyz(const vec2 video_uv, const vec2 geom_aspect)
     //float arc_len = length(square_uv);
     const vec2 square_uv_unit = normalize(square_uv);
     const float arc_len = square_uv.y/square_uv_unit.y;
-    const float angle_from_image_center = arc_len / geom_radius;
+    const float angle_from_image_center = arc_len / params.geom_radius;
     const float xy_dist_from_sphere_center =
-        sin(angle_from_image_center) * geom_radius;
+        sin(angle_from_image_center) * params.geom_radius;
     //vec2 xy_pos = xy_dist_from_sphere_center * (square_uv/FIX_ZERO(arc_len));
     const vec2 xy_pos = xy_dist_from_sphere_center * square_uv_unit;
-    const float z_pos = cos(angle_from_image_center) * geom_radius;
+    const float z_pos = cos(angle_from_image_center) * params.geom_radius;
     const vec3 intersection_pos_local = vec3(xy_pos.x, -xy_pos.y, z_pos);
     return intersection_pos_local;
 }
@@ -192,7 +192,7 @@ vec2 sphere_alt_xyz_to_uv(const vec3 intersection_pos_local,
     //  See cylinder_xyz_to_uv() for implementation details (very similar).
     const vec2 angle_from_image_center = atan((intersection_pos_local.zz),
         vec2(intersection_pos_local.x, -intersection_pos_local.y));
-    const vec2 signed_arc_len = angle_from_image_center * geom_radius;
+    const vec2 signed_arc_len = angle_from_image_center * params.geom_radius;
     const vec2 video_uv = signed_arc_len / geom_aspect;
     return video_uv;
 }
@@ -205,9 +205,9 @@ vec3 sphere_alt_uv_to_xyz(const vec2 video_uv, const vec2 geom_aspect)
     //  See cylinder_uv_to_xyz() for implementation details (very similar).
     const vec2 square_uv = video_uv * geom_aspect;
     const vec2 arc_len = square_uv;
-    const vec2 angle_from_image_center = arc_len / geom_radius;
+    const vec2 angle_from_image_center = arc_len / params.geom_radius;
-    const vec2 xy_pos = sin(angle_from_image_center) * geom_radius;
+    const vec2 xy_pos = sin(angle_from_image_center) * params.geom_radius;
-    const float z_pos = sqrt(geom_radius*geom_radius - dot(xy_pos, xy_pos));
+    const float z_pos = sqrt(params.geom_radius*params.geom_radius - dot(xy_pos, xy_pos));
     return vec3(xy_pos.x, -xy_pos.y, z_pos);
 }
 
@@ -309,7 +309,7 @@ vec3 get_ideal_global_eye_pos_for_points(vec3 eye_pos,
         //  offset_ul and offset_dr represent the farthest we can move the
         //  eye_pos up-left and down-right.  Save the min of all offset_dr's
         //  and the max of all offset_ul's (since it's negative).
-        float abs_radius = abs(geom_radius);  //  In case anyone gets ideas. ;)
+        float abs_radius = abs(params.geom_radius);  //  In case anyone gets ideas. ;)
         vec2 offset_dr_min = vec2(10.0 * abs_radius, 10.0 * abs_radius);
         vec2 offset_ul_max = vec2(-10.0 * abs_radius, -10.0 * abs_radius);
         for(int i = 0; i < num_points; i++)
@@ -317,9 +317,9 @@ vec3 get_ideal_global_eye_pos_for_points(vec3 eye_pos,
             const vec2 flipy = vec2(1.0, -1.0);
             vec3 eyespace_xyz = eyespace_coords[i];
             vec2 offset_dr = eyespace_xyz.xy - vec2(-0.5) *
-                (geom_aspect * -eyespace_xyz.z) / (geom_view_dist * flipy);
+                (geom_aspect * -eyespace_xyz.z) / (params.geom_view_dist * flipy);
             vec2 offset_ul = eyespace_xyz.xy - vec2(0.5) *
-                (geom_aspect * -eyespace_xyz.z) / (geom_view_dist * flipy);
+                (geom_aspect * -eyespace_xyz.z) / (params.geom_view_dist * flipy);
             offset_dr_min = min(offset_dr_min, offset_dr);
             offset_ul_max = max(offset_ul_max, offset_ul);
         }
@@ -347,13 +347,13 @@ vec3 get_ideal_global_eye_pos_for_points(vec3 eye_pos,
         //      We'll vectorize the actual computation.  Take the maximum of
         //      these four for a single offset, and continue taking the max
         //      for every point (use max because offset.z is negative).
-        float offset_z_max = -10.0 * geom_radius * geom_view_dist;
+        float offset_z_max = -10.0 * params.geom_radius * params.geom_view_dist;
         for(int i = 0; i < num_points; i++)
         {
             vec3 eyespace_xyz_flipy = eyespace_coords[i] *
                 vec3(1.0, -1.0, 1.0);
             vec4 offset_zzzz = eyespace_xyz_flipy.zzzz +
-                (eyespace_xyz_flipy.xyxy * geom_view_dist) /
+                (eyespace_xyz_flipy.xyxy * params.geom_view_dist) /
                 (vec4(-0.5, -0.5, 0.5, 0.5) * vec4(geom_aspect, geom_aspect));
             //  Ignore offsets that push positive x/y values to opposite
             //  boundaries, and vice versa, and don't let the camera move
@@ -379,14 +379,14 @@ vec3 get_ideal_global_eye_pos(const mat3x3 local_to_global,
 {
     //  Start with an initial eye_pos that includes the entire primitive
     //  (sphere or cylinder) in its field-of-view:
-    const vec3 high_view = vec3(0.0, geom_aspect.y, -geom_view_dist);
+    const vec3 high_view = vec3(0.0, geom_aspect.y, -params.geom_view_dist);
     const vec3 low_view = high_view * vec3(1.0, -1.0, 1.0);
     const float len_sq = dot(high_view, high_view);
     const float fov = abs(acos(dot(high_view, low_view)/len_sq));
     //  Trigonometry/similar triangles say distance = geom_radius/sin(fov/2):
-    const float eye_z_spherical = geom_radius/sin(fov*0.5);
+    const float eye_z_spherical = params.geom_radius/sin(fov*0.5);
     vec3 eye_pos = vec3(0.0, 0.0, eye_z_spherical);
-	if (geom_mode < 2.5) eye_pos = vec3(0.0, 0.0, max(geom_view_dist, eye_z_spherical));
+	if (geom_mode < 2.5) eye_pos = vec3(0.0, 0.0, max(params.geom_view_dist, eye_z_spherical));
 
     //  Get global xyz coords of extreme sample points on the simulated CRT
     //  screen.  Start with the center, edge centers, and corners of the
@@ -602,7 +602,7 @@ vec2 get_curved_video_uv_coords_and_tangent_matrix(
     //      units of the viewport's physical diagonal size.
     const vec2 view_uv = (flat_video_uv - vec2(0.5)) * geom_aspect;
     const vec3 view_vec_global =
-        vec3(view_uv.x, -view_uv.y, -geom_view_dist);
+        vec3(view_uv.x, -view_uv.y, -params.geom_view_dist);
     //  Transform the view vector into the CRT's local coordinate frame, convert
     //  to video_uv coords, and get the local 3D intersection position:
     const vec3 view_vec_local = (view_vec_global * global_to_local);
@@ -674,11 +674,11 @@ float get_border_dim_factor(const vec2 video_uv, const vec2 geom_aspect)
     const vec2 edge_dists = min(video_uv, vec2(1.0) - video_uv) *
         geom_aspect;
     const vec2 border_penetration =
-        max(vec2(border_size) - edge_dists, vec2(0.0));
+        max(vec2(params.border_size) - edge_dists, vec2(0.0));
-    const float penetration_ratio = length(border_penetration)/border_size;
+    const float penetration_ratio = length(border_penetration)/params.border_size;
     const float border_escape_ratio = max(1.0 - penetration_ratio, 0.0);
     const float border_dim_factor =
-        pow(border_escape_ratio, border_darkness) * max(1.0, border_compress);
+        pow(border_escape_ratio, params.border_darkness) * max(1.0, params.border_compress);
     return min(border_dim_factor, 1.0);
 }
 

crt/shaders/crt-royale/src/params.inc

@@ -1,8 +1,11 @@
+#ifndef PARAMS_INC
+#define PARAMS_INC
+
 layout(std140, set = 0, binding = 0) uniform UBO
 {
 	mat4 MVP;
-	float crt_gamma;
+//	float crt_gamma;
-    float lcd_gamma;
+//	float lcd_gamma;
 	float levels_contrast;
 	float halation_weight;
 	float diffusion_weight;
@@ -16,7 +19,7 @@ layout(std140, set = 0, binding = 0) uniform UBO
 	float beam_shape_power;
 	float beam_horiz_filter;
 	float beam_horiz_sigma;
-    float beam_horiz_linear_rgb_weight;
+//	float beam_horiz_linear_rgb_weight;
 	float convergence_offset_x_r;
 	float convergence_offset_x_g;
 	float convergence_offset_x_b;
@@ -28,8 +31,8 @@ layout(std140, set = 0, binding = 0) uniform UBO
 	float mask_specify_num_triads;
 	float mask_triad_size_desired;
 	float mask_num_triads_desired;
-    float aa_subpixel_r_offset_x_runtime;
+//	float aa_subpixel_r_offset_x_runtime;
-    float aa_subpixel_r_offset_y_runtime;
+//	float aa_subpixel_r_offset_y_runtime;
 	float aa_cubic_c;
 	float aa_gauss_sigma;
 	float geom_mode_runtime;
@@ -48,8 +51,8 @@ layout(std140, set = 0, binding = 0) uniform UBO
 } params;
 
 //  Set shader params for all passes here:
-#pragma parameter crt_gamma "crt_gamma" 2.5 1.0 5.0 0.025
+//#pragma parameter crt_gamma "crt_gamma" 2.5 1.0 5.0 0.025
-#pragma parameter lcd_gamma "lcd_gamma" 2.2 1.0 5.0 0.025
+//#pragma parameter lcd_gamma "lcd_gamma" 2.2 1.0 5.0 0.025
 #pragma parameter levels_contrast "levels_contrast" 1.0 0.0 4.0 0.015625
 #pragma parameter halation_weight "halation_weight" 0.0 0.0 1.0 0.005
 #pragma parameter diffusion_weight "diffusion_weight" 0.075 0.0 1.0 0.005
@@ -63,7 +66,7 @@ layout(std140, set = 0, binding = 0) uniform UBO
 #pragma parameter beam_shape_power "beam_shape_power" 0.25 0.01 16.0 0.01
 #pragma parameter beam_horiz_filter "beam_horiz_filter" 0.0 0.0 2.0 1.0
 #pragma parameter beam_horiz_sigma "beam_horiz_sigma" 0.35 0.0 0.67 0.005
-#pragma parameter beam_horiz_linear_rgb_weight "beam_horiz_linear_rgb_weight" 1.0 0.0 1.0 0.01
+//#pragma parameter beam_horiz_linear_rgb_weight "beam_horiz_linear_rgb_weight" 1.0 0.0 1.0 0.01
 #pragma parameter convergence_offset_x_r "convergence_offset_x_r" 0.0 -4.0 4.0 0.05
 #pragma parameter convergence_offset_x_g "convergence_offset_x_g" 0.0 -4.0 4.0 0.05
 #pragma parameter convergence_offset_x_b "convergence_offset_x_b" 0.0 -4.0 4.0 0.05
@@ -75,8 +78,8 @@ layout(std140, set = 0, binding = 0) uniform UBO
 #pragma parameter mask_specify_num_triads "mask_specify_num_triads" 0.0 0.0 1.0 1.0
 #pragma parameter mask_triad_size_desired "mask_triad_size_desired" 3.0 1.0 18.0 0.125
 #pragma parameter mask_num_triads_desired "mask_num_triads_desired" 480.0 342.0 1920.0 1.0
-#pragma parameter aa_subpixel_r_offset_x_runtime "aa_subpixel_r_offset_x" -0.333333333 -0.333333333 0.333333333 0.333333333
+//#pragma parameter aa_subpixel_r_offset_x_runtime "aa_subpixel_r_offset_x" -0.333333333 -0.333333333 0.333333333 0.333333333
-#pragma parameter aa_subpixel_r_offset_y_runtime "aa_subpixel_r_offset_y" 0.0 -0.333333333 0.333333333 0.333333333
+//#pragma parameter aa_subpixel_r_offset_y_runtime "aa_subpixel_r_offset_y" 0.0 -0.333333333 0.333333333 0.333333333
 #pragma parameter aa_cubic_c "antialias_cubic_sharpness" 0.5 0.0 4.0 0.015625
 #pragma parameter aa_gauss_sigma "antialias_gauss_sigma" 0.5 0.0625 1.0 0.015625
 #pragma parameter geom_mode_runtime "geom_mode" 0.0 0.0 3.0 1.0
@@ -92,3 +95,5 @@ layout(std140, set = 0, binding = 0) uniform UBO
 #pragma parameter border_darkness "border_darkness" 2.0 0.0 16.0 0.0625
 #pragma parameter border_compress "border_compress" 2.5 1.0 64.0 0.0625
 #pragma parameter interlace_1080i "interlace_1080i" 0.0 0.0 1.0 1.0
+
+#endif

crt/shaders/crt-royale/src/phosphor-mask-resizing.h

@@ -237,9 +237,9 @@ vec2 get_resized_mask_tile_size(const vec2 estimated_viewport_size,
     //  If mask_specify_num_triads is 1.0/true and estimated_viewport_size.x is
     //  wrong, the user preference will be misinterpreted:
     const float desired_tile_size_x = mask_triads_per_tile * mix(
-        mask_triad_size_desired,
+        params.mask_triad_size_desired,
-        estimated_viewport_size.x / mask_num_triads_desired,
+        estimated_viewport_size.x / params.mask_num_triads_desired,
-        mask_specify_num_triads);
+        params.mask_specify_num_triads);
     if(get_mask_sample_mode() > 0.5)
     {
         //  We don't need constraints unless we're sampling MASK_RESIZE.

crt/shaders/crt-royale/src/tex2Dantialias.h

@@ -189,8 +189,8 @@
     //  2.) C = 0.5 (default) is Catmull-Rom; higher C's apply sharpening.
     //  3.) C = 1.0/3.0 is the Mitchell-Netravali filter.
     //  4.) C = 0.0 is a soft spline filter.
-    const float aa_cubic_c = 0.5;
+//    const float aa_cubic_c = 0.5;
-    const float aa_gauss_sigma = 0.5 / aa_pixel_diameter;
+//    const float aa_gauss_sigma = 0.5 / aa_pixel_diameter;
     //  Users may override the subpixel offset accessor function with their own.
     //  A function is used for compatibility with scalar runtime shader params.
     vec2 get_aa_subpixel_r_offset()
@@ -235,14 +235,14 @@ void assign_aa_cubic_constants()
     #ifdef RUNTIME_ANTIALIAS_WEIGHTS
         if(aa_filter > 5.5 && aa_filter < 7.5)
         {
-            aa_cubic_b = 1.0 - 2.0*aa_cubic_c;
+            aa_cubic_b = 1.0 - 2.0*params.aa_cubic_c;
-            cubic_branch1_x3_coeff = 12.0 - 9.0*aa_cubic_b - 6.0*aa_cubic_c;
+            cubic_branch1_x3_coeff = 12.0 - 9.0*aa_cubic_b - 6.0*params.aa_cubic_c;
-            cubic_branch1_x2_coeff = -18.0 + 12.0*aa_cubic_b + 6.0*aa_cubic_c;
+            cubic_branch1_x2_coeff = -18.0 + 12.0*aa_cubic_b + 6.0*params.aa_cubic_c;
             cubic_branch1_x0_coeff = 6.0 - 2.0 * aa_cubic_b;
-            cubic_branch2_x3_coeff = -aa_cubic_b - 6.0 * aa_cubic_c;
+            cubic_branch2_x3_coeff = -aa_cubic_b - 6.0 * params.aa_cubic_c;
-            cubic_branch2_x2_coeff = 6.0*aa_cubic_b + 30.0*aa_cubic_c;
+            cubic_branch2_x2_coeff = 6.0*aa_cubic_b + 30.0*params.aa_cubic_c;
-            cubic_branch2_x1_coeff = -12.0*aa_cubic_b - 48.0*aa_cubic_c;
+            cubic_branch2_x1_coeff = -12.0*aa_cubic_b - 48.0*params.aa_cubic_c;
-            cubic_branch2_x0_coeff = 8.0*aa_cubic_b + 24.0*aa_cubic_c;
+            cubic_branch2_x0_coeff = 8.0*aa_cubic_b + 24.0*params.aa_cubic_c;
         }
     #endif
 }
@@ -306,7 +306,7 @@ float eval_tent_filter(const float dist)
 
 float eval_gaussian_filter(const float dist)
 {
-    return exp(-(dist*dist) / (2.0*aa_gauss_sigma*aa_gauss_sigma));
+    return exp(-(dist*dist) / (2.0*params.aa_gauss_sigma*params.aa_gauss_sigma));
 }
 
 float eval_cubic_filter(const float dist)
@@ -315,14 +315,14 @@ float eval_cubic_filter(const float dist)
     #ifndef RUNTIME_ANTIALIAS_WEIGHTS
         //  When runtime weights are used, these values are instead written to
         //  global uniforms at the beginning of each tex2Daa* call.
-        const float aa_cubic_b = 1.0 - 2.0*aa_cubic_c;
+        const float aa_cubic_b = 1.0 - 2.0*params.aa_cubic_c;
-        const float cubic_branch1_x3_coeff = 12.0 - 9.0*aa_cubic_b - 6.0*aa_cubic_c;
+        const float cubic_branch1_x3_coeff = 12.0 - 9.0*aa_cubic_b - 6.0*params.aa_cubic_c;
-        const float cubic_branch1_x2_coeff = -18.0 + 12.0*aa_cubic_b + 6.0*aa_cubic_c;
+        const float cubic_branch1_x2_coeff = -18.0 + 12.0*aa_cubic_b + 6.0*params.aa_cubic_c;
         const float cubic_branch1_x0_coeff = 6.0 - 2.0 * aa_cubic_b;
-        const float cubic_branch2_x3_coeff = -aa_cubic_b - 6.0 * aa_cubic_c;
+        const float cubic_branch2_x3_coeff = -aa_cubic_b - 6.0 * params.aa_cubic_c;
-        const float cubic_branch2_x2_coeff = 6.0*aa_cubic_b + 30.0*aa_cubic_c;
+        const float cubic_branch2_x2_coeff = 6.0*aa_cubic_b + 30.0*params.aa_cubic_c;
-        const float cubic_branch2_x1_coeff = -12.0*aa_cubic_b - 48.0*aa_cubic_c;
+        const float cubic_branch2_x1_coeff = -12.0*aa_cubic_b - 48.0*params.aa_cubic_c;
-        const float cubic_branch2_x0_coeff = 8.0*aa_cubic_b + 24.0*aa_cubic_c;
+        const float cubic_branch2_x0_coeff = 8.0*aa_cubic_b + 24.0*params.aa_cubic_c;
     #endif
     const float abs_dist = abs(dist);
     //  Compute the cubic based on the Horner's method formula in: