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cemu_graphic_packs/Workarounds/BreathOfTheWild_!ShadowFix/9c0b7031078fba88_0000007800001269_ps.txt

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[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
#version 420
#extension GL_ARB_texture_gather : enable
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
#ifdef VULKAN
#define ATTR_LAYOUT(__vkSet, __location) layout(set = __vkSet, location = __location)
#define UNIFORM_BUFFER_LAYOUT(__glLocation, __vkSet, __vkLocation) layout(set = __vkSet, binding = __vkLocation, std140)
#define TEXTURE_LAYOUT(__glLocation, __vkSet, __vkLocation) layout(set = __vkSet, binding = __vkLocation)
#define SET_POSITION(_v) gl_Position = _v; gl_Position.z = (gl_Position.z + gl_Position.w) / 2.0
#define GET_FRAGCOORD() vec4(gl_FragCoord.xy*uf_fragCoordScale.xy,gl_FragCoord.zw)
#define gl_VertexID gl_VertexIndex
#define gl_InstanceID gl_InstanceIndex
#else
#define ATTR_LAYOUT(__vkSet, __location) layout(location = __location)
#define UNIFORM_BUFFER_LAYOUT(__glLocation, __vkSet, __vkLocation) layout(binding = __glLocation, std140)
#define TEXTURE_LAYOUT(__glLocation, __vkSet, __vkLocation) layout(binding = __glLocation)
#define SET_POSITION(_v) gl_Position = _v
#define GET_FRAGCOORD() vec4(gl_FragCoord.xy*uf_fragCoordScale,gl_FragCoord.zw)
#endif
[BotW] Fixes for updated Vulkan graphic packs Should fix the native anti-aliasing preset most importantly, but since I ported all of the packs now the script "watermark" is at least a proper sentence, heh. Also, I fixed the porting scripts. Basically, there were a bug in the verification script that wouldn't check if the uf_* variables matched and the conversion script also had a fun bug where it wasn't automatically fixing an incorrect order of the uf_* variables. So that basically made both of them slip through. Both are now fixed however. Don't know if it's needed to check the previously ported graphic packs to see if the error affected those, but it might not hurt.
2020-01-05 04:16:42 +01:00
// This shader was automatically converted to be cross-compatible with Vulkan and OpenGL.
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
// shader b8a18eeb20759bfd
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
UNIFORM_BUFFER_LAYOUT(33, 1, 6) uniform uniformBlockPS1
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
{
vec4 uf_blockPS1[1024];
};
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
UNIFORM_BUFFER_LAYOUT(38, 1, 7) uniform uniformBlockPS6
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
{
vec4 uf_blockPS6[1024];
};
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
UNIFORM_BUFFER_LAYOUT(42, 1, 8) uniform uniformBlockPS10
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
{
vec4 uf_blockPS10[1024];
};
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
TEXTURE_LAYOUT(1, 1, 0) uniform sampler2D textureUnitPS1;
TEXTURE_LAYOUT(2, 1, 1) uniform sampler2D textureUnitPS2;
TEXTURE_LAYOUT(5, 1, 2) uniform sampler2D textureUnitPS5;
TEXTURE_LAYOUT(7, 1, 3) uniform sampler2DArray textureUnitPS7;
TEXTURE_LAYOUT(12, 1, 4) uniform sampler2D textureUnitPS12;
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
layout(location = 0) in vec4 passParameterSem0;
layout(location = 1) in vec4 passParameterSem5;
layout(location = 2) in vec4 passParameterSem6;
layout(location = 5) out vec4 passPixelColor5;
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
#ifdef VULKAN
layout(set = 1, binding = 5) uniform ufBlock
{
uniform vec4 uf_fragCoordScale;
};
#else
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
uniform vec2 uf_fragCoordScale;
Update BotW packs for Vulkan (#411) But now done properly! Basically, a bunch of improvements were made to the script. The previous attempt at this conversion was quickly followed by a rollback since I realized that the script was overlooking certain things that made most of the packs hit or miss whether they would work. A few things missing were: - It only tested the values from 1 preset. Now, each shader gets compiled per each preset, like what Cemu would do. It also merges the changes done for each preset into one. This should solve cases where one shader would define things separately or repeatedly from preset to preset. - All* of the shaders are tested to see if they use the converter used the right values for the locations for Vulkan. Both of these *should* mean that they should both compile and be linkable in Vulkan, which means that I don't have to test each individual shader to see if they work. I will release the two scripts (one used for converting, one used for checking the right values for the locations) tomorrow so that other people might be able to help, if they want. It's fairly straightforward now at least. * Organize workaround graphic packs Pretty hard to organize these correctly, but according to our discord discussion, this was the best layout from a bunch I proposed, together with some suggestions. * Add V4 converter script and instructions on how to use it Now everyone BotW is done and all of the bugs have been kinked out using it (hopefully...), here's the release of the converter script in all of it's very badly coded glory. I hope I didn't leave too much debug glory in there... Also, I hope that I didn't make too many grammatical mistakes in the instructions, but hopefully it's easy enough to follow.
2019-12-28 05:55:52 +01:00
#endif
[BotW] add that AMD Shadow workaround I have no clue who created the pack. Can someone please let me know who?
2017-10-24 02:25:20 +02:00
int clampFI32(int v)
{
if( v == 0x7FFFFFFF )
return floatBitsToInt(1.0);
else if( v == 0xFFFFFFFF )
return floatBitsToInt(0.0);
return floatBitsToInt(clamp(intBitsToFloat(v), 0.0, 1.0));
}
float mul_nonIEEE(float a, float b){ if( a == 0.0 || b == 0.0 ) return 0.0; return a*b; }
float textureShadow_1(sampler2DArray s, vec4 coord) {
vec4 v;
vec2 texSize = vec2(textureSize(s,0).xy);
vec2 texSizeR = vec2(1.0) / texSize;
vec2 texCoordFract = mod(coord.xy,texSizeR);
vec2 texCoordBase = coord.xy - texCoordFract + texSizeR/2.0;
texCoordFract /= texSizeR;
v.x = texture(s, vec3(texCoordBase+vec2(0.0,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.y = texture(s, vec3(texCoordBase+vec2(texSizeR.x,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.z = texture(s, vec3(texCoordBase+vec2(0.0,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
v.w = texture(s, vec3(texCoordBase+vec2(texSizeR.x,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
float r = mix(mix(v.x, v.y, texCoordFract.x) , mix(v.z, v.w, texCoordFract.x) , texCoordFract.y);
return r;
}
float textureShadow_2(sampler2DArray s, vec4 coord) {
vec4 v;
vec2 texSize = vec2(textureSize(s,0).xy);
vec2 texSizeR = vec2(1.0) / texSize;
vec2 texCoordFract = mod(coord.xy,texSizeR);
vec2 texCoordBase = coord.xy - texCoordFract + texSizeR/2.0;
texCoordFract /= texSizeR;
v.x = texture(s, vec3(texCoordBase+vec2(0.0,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.y = texture(s, vec3(texCoordBase+vec2(texSizeR.x,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.z = texture(s, vec3(texCoordBase+vec2(0.0,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
v.w = texture(s, vec3(texCoordBase+vec2(texSizeR.x,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
float r = mix(mix(v.x, v.y, texCoordFract.x) , mix(v.z, v.w, texCoordFract.x) , texCoordFract.y);
return r;
}
float textureShadow_3(sampler2DArray s, vec4 coord) {
vec4 v;
vec2 texSize = vec2(textureSize(s,0).xy);
vec2 texSizeR = vec2(1.0) / texSize;
vec2 texCoordFract = mod(coord.xy,texSizeR);
vec2 texCoordBase = coord.xy - texCoordFract + texSizeR/2.0;
texCoordFract /= texSizeR;
v.x = texture(s, vec3(texCoordBase+vec2(0.0,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.y = texture(s, vec3(texCoordBase+vec2(texSizeR.x,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.z = texture(s, vec3(texCoordBase+vec2(0.0,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
v.w = texture(s, vec3(texCoordBase+vec2(texSizeR.x,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
float r = mix(mix(v.x, v.y, texCoordFract.x) , mix(v.z, v.w, texCoordFract.x) , texCoordFract.y);
return r;
}
float textureShadow_4(sampler2DArray s, vec4 coord) {
vec4 v;
vec2 texSize = vec2(textureSize(s,0).xy);
vec2 texSizeR = vec2(1.0) / texSize;
vec2 texCoordFract = mod(coord.xy,texSizeR);
vec2 texCoordBase = coord.xy - texCoordFract + texSizeR/2.0;
texCoordFract /= texSizeR;
v.x = texture(s, vec3(texCoordBase+vec2(0.0,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.y = texture(s, vec3(texCoordBase+vec2(texSizeR.x,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.z = texture(s, vec3(texCoordBase+vec2(0.0,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
v.w = texture(s, vec3(texCoordBase+vec2(texSizeR.x,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
float r = mix(mix(v.x, v.y, texCoordFract.x) , mix(v.z, v.w, texCoordFract.x) , texCoordFract.y);
return r;
}
float textureShadow_5(sampler2DArray s, vec4 coord) {
vec4 v;
vec2 texSize = vec2(textureSize(s,0).xy);
vec2 texSizeR = vec2(1.0) / texSize;
vec2 texCoordFract = mod(coord.xy,texSizeR);
vec2 texCoordBase = coord.xy - texCoordFract + texSizeR/2.0;
texCoordFract /= texSizeR;
v.x = texture(s, vec3(texCoordBase+vec2(0.0,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.y = texture(s, vec3(texCoordBase+vec2(texSizeR.x,0.0), coord.z)).x >= coord.w?1.0:0.0;
v.z = texture(s, vec3(texCoordBase+vec2(0.0,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
v.w = texture(s, vec3(texCoordBase+vec2(texSizeR.x,texSizeR.y), coord.z)).x >= coord.w?1.0:0.0;
float r = mix(mix(v.x, v.y, texCoordFract.x) , mix(v.z, v.w, texCoordFract.x) , texCoordFract.y);
return r;
}
void main()
{
ivec4 R0i = ivec4(0);
ivec4 R1i = ivec4(0);
ivec4 R2i = ivec4(0);
ivec4 R3i = ivec4(0);
ivec4 R4i = ivec4(0);
ivec4 R5i = ivec4(0);
ivec4 R6i = ivec4(0);
ivec4 R7i = ivec4(0);
ivec4 R8i = ivec4(0);
ivec4 R9i = ivec4(0);
ivec4 R10i = ivec4(0);
ivec4 R11i = ivec4(0);
ivec4 R12i = ivec4(0);
ivec4 R122i = ivec4(0);
ivec4 R123i = ivec4(0);
ivec4 R124i = ivec4(0);
ivec4 R125i = ivec4(0);
ivec4 R126i = ivec4(0);
ivec4 R127i = ivec4(0);
int backupReg0i, backupReg1i, backupReg2i, backupReg3i, backupReg4i;
ivec4 PV0i = ivec4(0), PV1i = ivec4(0);
int PS0i = 0, PS1i = 0;
ivec4 tempi = ivec4(0);
float tempResultf;
int tempResulti;
ivec4 ARi = ivec4(0);
bool predResult = true;
bool activeMaskStack[3];
bool activeMaskStackC[4];
activeMaskStack[0] = false;
activeMaskStack[1] = false;
activeMaskStackC[0] = false;
activeMaskStackC[1] = false;
activeMaskStackC[2] = false;
activeMaskStack[0] = true;
activeMaskStackC[0] = true;
activeMaskStackC[1] = true;
vec3 cubeMapSTM;
int cubeMapFaceId;
R0i = floatBitsToInt(passParameterSem0);
R1i = floatBitsToInt(passParameterSem5);
R2i = floatBitsToInt(passParameterSem6);
if( activeMaskStackC[1] == true ) {
R3i.w = floatBitsToInt(texture(textureUnitPS5, intBitsToFloat(R0i.xy)).x);
R4i.x = floatBitsToInt(texture(textureUnitPS5, intBitsToFloat(R0i.xy)).x);
R4i.z = floatBitsToInt(texture(textureUnitPS5, intBitsToFloat(R0i.zw)).x);
R4i.w = floatBitsToInt(texture(textureUnitPS5, intBitsToFloat(R0i.xy)).x);
R5i.xyzw = floatBitsToInt(texture(textureUnitPS2, intBitsToFloat(R2i.zw)).xyzw);
R2i.z = floatBitsToInt(texture(textureUnitPS1, intBitsToFloat(R2i.zw)).w);
}
if( activeMaskStackC[1] == true ) {
// 0
R127i.x = floatBitsToInt((mul_nonIEEE(uf_blockPS1[16].x,intBitsToFloat(R4i.x)) + uf_blockPS1[14].x));
R123i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R3i.w),uf_blockPS1[16].x) + uf_blockPS1[14].x));
PV0i.y = R123i.y;
R123i.z = floatBitsToInt((mul_nonIEEE(uf_blockPS1[16].x,intBitsToFloat(R4i.w)) + uf_blockPS1[14].x));
PV0i.z = R123i.z;
R127i.w = floatBitsToInt((mul_nonIEEE(uf_blockPS1[16].x,intBitsToFloat(R4i.z)) + uf_blockPS1[14].x));
PV0i.w = R127i.w;
R124i.x = floatBitsToInt((intBitsToFloat(R5i.x) * 2.0 + -(1.0)));
PS0i = R124i.x;
// 1
backupReg0i = R1i.x;
backupReg1i = R1i.y;
R1i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R0i.z), -(intBitsToFloat(PV0i.y))));
PV1i.x = R1i.x;
R1i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R0i.w), -(intBitsToFloat(PV0i.y))));
R0i.z = floatBitsToInt(-(intBitsToFloat(PV0i.z)));
PV1i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(backupReg0i), -(intBitsToFloat(PV0i.w))));
R127i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(backupReg1i), -(intBitsToFloat(PV0i.w))));
PS1i = R127i.z;
// 2
PV0i.x = floatBitsToInt(-(intBitsToFloat(R127i.w)));
PV0i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R1i.z), -(intBitsToFloat(R127i.x))));
PV0i.z = floatBitsToInt(-(intBitsToFloat(R127i.x)));
PV0i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R1i.w), -(intBitsToFloat(R127i.x))));
R126i.x = floatBitsToInt(-(intBitsToFloat(PV1i.x)) + intBitsToFloat(PV1i.w));
PS0i = R126i.x;
// 3
R127i.x = floatBitsToInt(-(intBitsToFloat(R1i.y)) + intBitsToFloat(PV0i.w));
PV1i.x = R127i.x;
R126i.y = floatBitsToInt(-(intBitsToFloat(R1i.y)) + intBitsToFloat(R127i.z));
PV1i.y = R126i.y;
R127i.zwy = floatBitsToInt(vec3(-(intBitsToFloat(R1i.x)),-(intBitsToFloat(R0i.z)),-(intBitsToFloat(R0i.z))) + vec3(intBitsToFloat(PV0i.y),intBitsToFloat(PV0i.x),intBitsToFloat(PV0i.z)));
PV1i.z = R127i.z;
PV1i.w = R127i.w;
PS1i = R127i.y;
// 4
PV0i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.w), intBitsToFloat(PV1i.z)));
R125i.y = floatBitsToInt((intBitsToFloat(R5i.y) * 2.0 + -(1.0)));
R125i.z = floatBitsToInt((intBitsToFloat(R5i.z) * 2.0 + -(1.0)));
PV0i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.y), intBitsToFloat(PS1i)));
R125i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R126i.x), intBitsToFloat(PV1i.x)));
PS0i = R125i.x;
// 5
backupReg0i = R127i.y;
R2i.x = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R127i.x)),intBitsToFloat(R127i.w)) + intBitsToFloat(PV0i.w)));
R127i.y = floatBitsToInt(intBitsToFloat(R5i.w) * intBitsToFloat(0x437f0000));
R126i.z = floatBitsToInt(intBitsToFloat(R2i.z) * intBitsToFloat(0x437f0000));
PV1i.w = floatBitsToInt(uf_blockPS6[53].z * intBitsToFloat(0x3d4ccccd));
R2i.y = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(backupReg0i)),intBitsToFloat(R126i.x)) + intBitsToFloat(PV0i.x)));
PS1i = R2i.y;
// 6
R12i.x = floatBitsToInt((-(intBitsToFloat(R0i.z)) * intBitsToFloat(0x3d4ccccd) + -(intBitsToFloat(PV1i.w))));
R12i.x = clampFI32(R12i.x);
PV0i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R125i.z), intBitsToFloat(R125i.z)));
R1i.z = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R127i.z)),intBitsToFloat(R126i.y)) + intBitsToFloat(R125i.x)));
R0i.w = 0x3f800000;
R2i.z = floatBitsToInt(mul_nonIEEE(-(intBitsToFloat(R0i.z)), uf_blockPS1[17].y));
PS0i = R2i.z;
// 7
tempi.x = floatBitsToInt(dot(vec4(intBitsToFloat(R124i.x),intBitsToFloat(R125i.y),intBitsToFloat(PV0i.y),-0.0),vec4(intBitsToFloat(R124i.x),intBitsToFloat(R125i.y),1.0,0.0)));
PV1i.x = tempi.x;
PV1i.y = tempi.x;
PV1i.z = tempi.x;
PV1i.w = tempi.x;
R127i.w = tempi.x;
PS1i = int(intBitsToFloat(R127i.y));
// 8
tempi.x = floatBitsToInt(dot(vec4(-(intBitsToFloat(R2i.x)),-(intBitsToFloat(R2i.y)),-(intBitsToFloat(R1i.z)),-0.0),vec4(-(intBitsToFloat(R2i.x)),-(intBitsToFloat(R2i.y)),-(intBitsToFloat(R1i.z)),0.0)));
PV0i.x = tempi.x;
PV0i.y = tempi.x;
PV0i.z = tempi.x;
PV0i.w = tempi.x;
R127i.y = tempi.x;
PS0i = PS1i & int(1);
// 9
R5i.z = ((PS0i == 0)?(0):(0x3f800000));
PS1i = int(intBitsToFloat(R126i.z));
// 10
R125i.x = PS1i & 0x00000002;
tempResultf = 1.0 / sqrt(intBitsToFloat(R127i.w));
PS0i = floatBitsToInt(tempResultf);
// 11
R9i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R124i.x), intBitsToFloat(PS0i)));
R10i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R125i.y), intBitsToFloat(PS0i)));
R10i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R125i.z), intBitsToFloat(PS0i)));
tempResultf = 1.0 / sqrt(intBitsToFloat(R127i.y));
R1i.w = floatBitsToInt(tempResultf);
PS1i = R1i.w;
// 12
R4i.w = floatBitsToInt(float(R125i.x));
R4i.w = floatBitsToInt(intBitsToFloat(R4i.w) / 2.0);
PS0i = R4i.w;
}
if( activeMaskStackC[1] == true ) {
activeMaskStack[1] = activeMaskStack[0];
activeMaskStackC[2] = activeMaskStackC[1];
// 0
R5i.x = floatBitsToInt(mul_nonIEEE(uf_blockPS6[4].x, uf_blockPS10[2].w));
R9i.y = floatBitsToInt(mul_nonIEEE(uf_blockPS6[4].y, uf_blockPS10[2].w));
// 1
R4i.z = floatBitsToInt(mul_nonIEEE(uf_blockPS6[4].z, uf_blockPS10[2].w));
R9i.w = 0;
// 2
predResult = (1.0 > intBitsToFloat(R12i.x));
activeMaskStack[1] = predResult;
activeMaskStackC[2] = predResult == true && activeMaskStackC[1] == true;
}
else {
activeMaskStack[1] = false;
activeMaskStackC[2] = false;
}
if( activeMaskStackC[2] == true ) {
// 0
PV0i.x = floatBitsToInt(intBitsToFloat(R9i.x) * 1.5);
PV0i.y = floatBitsToInt(intBitsToFloat(R10i.y) * 1.5);
R127i.z = ((-(intBitsToFloat(R0i.z)) > uf_blockPS1[58].y)?int(0xFFFFFFFF):int(0x0));
PV0i.w = ((-(intBitsToFloat(R0i.z)) > uf_blockPS1[58].x)?int(0xFFFFFFFF):int(0x0));
PS0i = floatBitsToInt(intBitsToFloat(R10i.z) * 1.5);
// 1
backupReg0i = R2i.x;
backupReg1i = R2i.z;
R2i.x = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(backupReg0i)),intBitsToFloat(R1i.w)) + intBitsToFloat(PV0i.x)));
PV1i.y = PV0i.w & int(1);
R2i.z = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R2i.y)),intBitsToFloat(R1i.w)) + intBitsToFloat(PV0i.y)));
R2i.w = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R1i.z)),intBitsToFloat(R1i.w)) + intBitsToFloat(PS0i)));
R122i.x = floatBitsToInt((intBitsToFloat(backupReg1i) * 0.25 + 1.0));
PS1i = R122i.x;
// 2
R4i.x = PV1i.y - R127i.z;
PV0i.x = R4i.x;
R5i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R9i.x),intBitsToFloat(R4i.w)) + intBitsToFloat(R1i.x)));
R3i.z = floatBitsToInt(intBitsToFloat(0x3da22222) * intBitsToFloat(PS1i));
R3i.w = floatBitsToInt(intBitsToFloat(0x3da22222) * intBitsToFloat(PS1i));
R4i.y = floatBitsToInt(intBitsToFloat(0x3da22222) * intBitsToFloat(PS1i));
PS0i = R4i.y;
// 3
backupReg0i = R4i.w;
backupReg1i = R0i.z;
R3i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R10i.y),intBitsToFloat(R4i.w)) + intBitsToFloat(R1i.y)));
R3i.y = floatBitsToInt(uf_blockPS6[53].y);
R3i.y = floatBitsToInt(intBitsToFloat(R3i.y) / 2.0);
PV1i.z = PV0i.x << 0x00000002;
R4i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R10i.z),intBitsToFloat(backupReg0i)) + intBitsToFloat(backupReg1i)));
R127i.y = floatBitsToInt(float(PV0i.x));
PS1i = R127i.y;
// 4
R1i.x = PV1i.z + 0x0000002b;
R1i.y = PV1i.z + 0x0000002a;
R1i.z = PV1i.z + 0x0000002d;
R1i.w = PV1i.z + 0x0000002c;
R5i.w = floatBitsToInt(uf_blockPS6[53].x);
R5i.w = floatBitsToInt(intBitsToFloat(R5i.w) / 2.0);
PS0i = R5i.w;
// 5
tempi.x = floatBitsToInt(dot(vec4(intBitsToFloat(R2i.x),intBitsToFloat(R2i.z),intBitsToFloat(R2i.w),-0.0),vec4(intBitsToFloat(R2i.x),intBitsToFloat(R2i.z),intBitsToFloat(R2i.w),0.0)));
PV1i.x = tempi.x;
PV1i.y = tempi.x;
PV1i.z = tempi.x;
PV1i.w = tempi.x;
R2i.y = tempi.x;
R9i.z = floatBitsToInt(roundEven(intBitsToFloat(R127i.y)));
PS1i = R9i.z;
}
if( activeMaskStackC[2] == true ) {
R6i.xyzw = floatBitsToInt(uf_blockPS1[R1i.z].xyzw);
R7i.xyzw = floatBitsToInt(uf_blockPS1[R1i.w].xyzw);
R8i.xyzw = floatBitsToInt(uf_blockPS1[R1i.y].xyzw);
R1i.xyzw = floatBitsToInt(uf_blockPS1[R1i.x].xyzw);
}
if( activeMaskStackC[2] == true ) {
// 0
tempi.x = floatBitsToInt(dot(vec4(intBitsToFloat(R9i.x),intBitsToFloat(R10i.y),intBitsToFloat(R10i.z),intBitsToFloat(R10i.z)),vec4(-(intBitsToFloat(R5i.x)),-(intBitsToFloat(R9i.y)),-(intBitsToFloat(R4i.z)),-(intBitsToFloat(R9i.w)))));
tempi.x = clampFI32(tempi.x);
PV0i.x = tempi.x;
PV0i.y = tempi.x;
PV0i.z = tempi.x;
PV0i.w = tempi.x;
R126i.z = tempi.x;
tempResultf = 1.0 / sqrt(intBitsToFloat(R2i.y));
PS0i = floatBitsToInt(tempResultf);
// 1
R127i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R2i.x), intBitsToFloat(PS0i)));
PV1i.x = R127i.x;
R127i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R2i.z), intBitsToFloat(PS0i)));
PV1i.y = R127i.y;
R127i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R2i.w), intBitsToFloat(PS0i)));
PV1i.z = R127i.z;
R127i.w = floatBitsToInt(-(intBitsToFloat(R3i.y)));
R2i.z = R9i.z;
PS1i = R2i.z;
// 2
tempi.x = floatBitsToInt(dot(vec4(intBitsToFloat(R5i.x),intBitsToFloat(R9i.y),intBitsToFloat(R4i.z),-0.0),vec4(intBitsToFloat(PV1i.x),intBitsToFloat(PV1i.y),intBitsToFloat(PV1i.z),0.0)));
PV0i.x = tempi.x;
PV0i.y = tempi.x;
PV0i.z = tempi.x;
PV0i.w = tempi.x;
R125i.y = floatBitsToInt(-(intBitsToFloat(R5i.w)));
PS0i = R125i.y;
// 3
R123i.x = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R4i.z)),intBitsToFloat(PV0i.x)) + intBitsToFloat(R127i.z)));
PV1i.x = R123i.x;
R123i.y = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R9i.y)),intBitsToFloat(PV0i.x)) + intBitsToFloat(R127i.y)));
PV1i.y = R123i.y;
R123i.z = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(PV0i.x)),intBitsToFloat(PV0i.x)) + 1.0));
PV1i.z = R123i.z;
R123i.w = floatBitsToInt((mul_nonIEEE(-(intBitsToFloat(R5i.x)),intBitsToFloat(PV0i.x)) + intBitsToFloat(R127i.x)));
PV1i.w = R123i.w;
R126i.x = R3i.y;
PS1i = R126i.x;
// 4
backupReg0i = R126i.z;
R127i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.w), intBitsToFloat(R3i.z)));
R127i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.x), intBitsToFloat(R4i.y)));
R126i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.y), intBitsToFloat(R3i.w)));
PV0i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.z), intBitsToFloat(backupReg0i)));
R10i.z = R9i.z;
PS0i = R10i.z;
// 5
PV1i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.z), intBitsToFloat(PV0i.w)));
R11i.z = R9i.z;
// 6
R5i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R127i.x),intBitsToFloat(PV1i.x)) + intBitsToFloat(R5i.y)));
PV0i.x = R5i.x;
R5i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R126i.z),intBitsToFloat(PV1i.x)) + intBitsToFloat(R3i.x)));
R0i.z = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R127i.y),intBitsToFloat(PV1i.x)) + intBitsToFloat(R4i.w)));
// 7
PV1i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.x), intBitsToFloat(R7i.x)));
PV1i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.x), intBitsToFloat(R6i.x)));
R126i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.x), intBitsToFloat(R8i.x)));
// 8
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R6i.y)) + intBitsToFloat(PV1i.y)));
PV0i.x = R123i.x;
R127i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R7i.y)) + intBitsToFloat(PV1i.x)));
PV0i.z = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.x), intBitsToFloat(R1i.x)));
// 9
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R8i.y)) + intBitsToFloat(R126i.z)));
PV1i.x = R123i.x;
R126i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R1i.y)) + intBitsToFloat(PV0i.z)));
R123i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R6i.z)) + intBitsToFloat(PV0i.x)));
PV1i.w = R123i.w;
// 10
backupReg0i = R0i.z;
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R8i.z)) + intBitsToFloat(PV1i.x)));
PV0i.x = R123i.x;
PV0i.z = floatBitsToInt(intBitsToFloat(R6i.w) + intBitsToFloat(PV1i.w));
R123i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(backupReg0i),intBitsToFloat(R7i.z)) + intBitsToFloat(R127i.y)));
PV0i.w = R123i.w;
// 11
backupReg0i = R0i.z;
PV1i.x = floatBitsToInt(intBitsToFloat(R8i.w) + intBitsToFloat(PV0i.x));
PV1i.z = floatBitsToInt(intBitsToFloat(R7i.w) + intBitsToFloat(PV0i.w));
R123i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(backupReg0i),intBitsToFloat(R1i.z)) + intBitsToFloat(R126i.y)));
PV1i.w = R123i.w;
R126i.y = floatBitsToInt(1.0 / intBitsToFloat(PV0i.z));
PS1i = R126i.y;
// 12
PV0i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.z), intBitsToFloat(PS1i)));
R127i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV1i.x), intBitsToFloat(PS1i)));
PV0i.y = R127i.y;
PV0i.z = floatBitsToInt(intBitsToFloat(R1i.w) + intBitsToFloat(PV1i.w));
// 13
R127i.x = floatBitsToInt(intBitsToFloat(PV0i.x) + intBitsToFloat(0xbb03126f));
R127i.x = clampFI32(R127i.x);
PV1i.x = R127i.x;
R126i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.z), intBitsToFloat(R126i.y)));
PV1i.w = R126i.w;
R9i.x = floatBitsToInt((uf_blockPS6[53].x * 0.5 + intBitsToFloat(PV0i.y)));
PS1i = R9i.x;
// 14
R2i.x = floatBitsToInt(intBitsToFloat(R127i.y) + intBitsToFloat(R5i.w));
R9i.y = floatBitsToInt((uf_blockPS6[53].y * 0.5 + intBitsToFloat(PV1i.w)));
R9i.w = PV1i.x;
R2i.y = floatBitsToInt(intBitsToFloat(PV1i.w) + intBitsToFloat(R127i.w));
PS0i = R2i.y;
// 15
R10i.x = floatBitsToInt(intBitsToFloat(R127i.y) + intBitsToFloat(R125i.y));
R10i.y = floatBitsToInt(intBitsToFloat(R126i.w) + intBitsToFloat(R126i.x));
R2i.w = R127i.x;
R10i.w = R127i.x;
PS1i = R10i.w;
// 16
R11i.x = floatBitsToInt((-(uf_blockPS6[53].x) * 0.5 + intBitsToFloat(R127i.y)));
R11i.y = floatBitsToInt((-(uf_blockPS6[53].y) * 0.5 + intBitsToFloat(R126i.w)));
R11i.w = R127i.x;
}
if( activeMaskStackC[2] == true ) {
R9i.y = floatBitsToInt(textureShadow_1(textureUnitPS7, vec4(intBitsToFloat(R9i.x),intBitsToFloat(R9i.y),intBitsToFloat(R9i.z),intBitsToFloat(R9i.w))));
R2i.x = floatBitsToInt(textureShadow_2(textureUnitPS7, vec4(intBitsToFloat(R2i.x),intBitsToFloat(R2i.y),intBitsToFloat(R2i.z),intBitsToFloat(R2i.w))));
R10i.w = floatBitsToInt(textureShadow_3(textureUnitPS7, vec4(intBitsToFloat(R10i.x),intBitsToFloat(R10i.y),intBitsToFloat(R10i.z),intBitsToFloat(R10i.w))));
R11i.z = floatBitsToInt(textureShadow_4(textureUnitPS7, vec4(intBitsToFloat(R11i.x),intBitsToFloat(R11i.y),intBitsToFloat(R11i.z),intBitsToFloat(R11i.w))));
}
if( activeMaskStackC[2] == true ) {
activeMaskStack[2] = activeMaskStack[1];
activeMaskStackC[3] = activeMaskStackC[2];
// 0
PV0i.z = floatBitsToInt(intBitsToFloat(R9i.y) + intBitsToFloat(R2i.x));
PV0i.z = floatBitsToInt(intBitsToFloat(PV0i.z) / 2.0);
// 1
R123i.y = floatBitsToInt((intBitsToFloat(R10i.w) * 0.5 + intBitsToFloat(PV0i.z)));
PV1i.y = R123i.y;
// 2
R0i.w = floatBitsToInt((intBitsToFloat(R11i.z) * 0.5 + intBitsToFloat(PV1i.y))/2.0);
PV0i.w = R0i.w;
// 3
PV1i.x = ((1.0 > intBitsToFloat(PV0i.w))?int(0xFFFFFFFF):int(0x0));
// 4
R1i.z = ((R4i.x > 0)?(PV1i.x):(0));
// 5
predResult = (R1i.z != 0);
activeMaskStack[2] = predResult;
activeMaskStackC[3] = predResult == true && activeMaskStackC[2] == true;
}
else {
activeMaskStack[2] = false;
activeMaskStackC[3] = false;
}
if( activeMaskStackC[3] == true ) {
// 0
PV0i.x = int(-1) + R4i.x;
// 1
PV1i.w = PV0i.x << 0x00000002;
PS1i = floatBitsToInt(float(PV0i.x));
// 2
R1i.x = PV1i.w + 0x0000002c;
R1i.y = PV1i.w + 0x0000002a;
R1i.z = PV1i.w + 0x0000002b;
R1i.w = PV1i.w + 0x0000002d;
R5i.z = floatBitsToInt(roundEven(intBitsToFloat(PS1i)));
PS0i = R5i.z;
}
if( activeMaskStackC[3] == true ) {
R2i.xyzw = floatBitsToInt(uf_blockPS1[R1i.w].xyzw);
R3i.xyzw = floatBitsToInt(uf_blockPS1[R1i.x].xyzw);
R4i.xyzw = floatBitsToInt(uf_blockPS1[R1i.y].xyzw);
R1i.xyzw = floatBitsToInt(uf_blockPS1[R1i.z].xyzw);
}
if( activeMaskStackC[3] == true ) {
// 0
PV0i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.x), intBitsToFloat(R3i.x)));
PV0i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.x), intBitsToFloat(R2i.x)));
// 1
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R3i.y)) + intBitsToFloat(PV0i.x)));
PV1i.x = R123i.x;
PV1i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.x), intBitsToFloat(R4i.x)));
R123i.z = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R2i.y)) + intBitsToFloat(PV0i.y)));
PV1i.z = R123i.z;
PV1i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R5i.x), intBitsToFloat(R1i.x)));
// 2
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R2i.z)) + intBitsToFloat(PV1i.z)));
PV0i.x = R123i.x;
R123i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R1i.y)) + intBitsToFloat(PV1i.w)));
PV0i.y = R123i.y;
R123i.z = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R5i.y),intBitsToFloat(R4i.y)) + intBitsToFloat(PV1i.y)));
PV0i.z = R123i.z;
R123i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R3i.z)) + intBitsToFloat(PV1i.x)));
PV0i.w = R123i.w;
// 3
R123i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R4i.z)) + intBitsToFloat(PV0i.z)));
PV1i.x = R123i.x;
R123i.y = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.z),intBitsToFloat(R1i.z)) + intBitsToFloat(PV0i.y)));
PV1i.y = R123i.y;
R127i.z = floatBitsToInt(intBitsToFloat(R3i.w) + intBitsToFloat(PV0i.w));
PV1i.w = floatBitsToInt(intBitsToFloat(R2i.w) + intBitsToFloat(PV0i.x));
// 4
PV0i.x = floatBitsToInt(intBitsToFloat(R1i.w) + intBitsToFloat(PV1i.y));
PV0i.w = floatBitsToInt(intBitsToFloat(R4i.w) + intBitsToFloat(PV1i.x));
PS0i = floatBitsToInt(1.0 / intBitsToFloat(PV1i.w));
// 5
R5i.x = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.w), intBitsToFloat(PS0i)));
PV1i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(R127i.z), intBitsToFloat(PS0i)));
R5i.y = floatBitsToInt(mul_nonIEEE(intBitsToFloat(PV0i.x), intBitsToFloat(PS0i)));
PS1i = R5i.y;
// 6
R5i.w = floatBitsToInt(intBitsToFloat(PV1i.y) + intBitsToFloat(0xbb03126f));
R5i.w = clampFI32(R5i.w);
}
if( activeMaskStackC[3] == true ) {
R5i.y = floatBitsToInt(textureShadow_5(textureUnitPS7, vec4(intBitsToFloat(R5i.x),intBitsToFloat(R5i.y),intBitsToFloat(R5i.z),intBitsToFloat(R5i.w))));
}
if( activeMaskStackC[3] == true ) {
// 0
backupReg0i = R0i.w;
R0i.w = floatBitsToInt(mul_nonIEEE(intBitsToFloat(backupReg0i), intBitsToFloat(R5i.y)));
}
activeMaskStackC[2] = activeMaskStack[1] == true && activeMaskStackC[1] == true;
if( activeMaskStackC[2] == true ) {
// 0
PV0i.x = floatBitsToInt(-(intBitsToFloat(R0i.w)) + 1.0);
// 1
backupReg0i = R0i.w;
R0i.w = floatBitsToInt((mul_nonIEEE(intBitsToFloat(PV0i.x),intBitsToFloat(R12i.x)) + intBitsToFloat(backupReg0i)));
}
activeMaskStackC[1] = activeMaskStack[0] == true && activeMaskStackC[0] == true;
if( activeMaskStackC[1] == true ) {
R0i.y = floatBitsToInt(texture(textureUnitPS12, intBitsToFloat(R0i.xy)).y);
}
if( activeMaskStackC[1] == true ) {
// 0
R0i.x = floatBitsToInt((mul_nonIEEE(intBitsToFloat(R0i.w),uf_blockPS10[3].z) + uf_blockPS10[1].y));
R0i.x = clampFI32(R0i.x);
R0i.z = 0x3f800000;
}
// export
passPixelColor5 = vec4(intBitsToFloat(R0i.x), intBitsToFloat(R0i.y), intBitsToFloat(R0i.z), intBitsToFloat(R0i.z));
}
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