massive reduction of unneeded files

8 files changed, 0 insertions, 5363 deletions

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_bin.c b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_bin.c
deleted file mode 100755
index 4bd211442..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_bin.c
+++ /dev/null
@@ -1,79 +0,0 @@
-#include "../../grammar/grammar_crt.h"

-#include "../../grammar/grammar_crt.c"

-#include <stdio.h>

-

-static const char *slang_shader_syn =

-#include "slang_shader_syn.h"

-;

-

-static void gc_to_bin (grammar id, const char *in, const char *out)

-{

-	FILE *f;

-	byte *source, *prod;

-	unsigned int size, i, line = 0;

-

-	f = fopen (in, "r");

-	if (f == NULL)

-		return;

-	fseek (f, 0, SEEK_END);

-	size = ftell (f);

-	fseek (f, 0, SEEK_SET);

-	source = (byte *) grammar_alloc_malloc (size + 1);

-	source[fread (source, 1, size, f)] = '\0';

-	fclose (f);

-

-	if (!grammar_fast_check (id, source, &prod, &size, 65536))

-	{

-		grammar_alloc_free (source);

-		return;

-	}

-

-	f = fopen (out, "w");

-	for (i = 0; i < size; i++)

-	{

-		unsigned int a;

-		if (prod[i] < 10)

-			a = 1;

-		else if (prod[i] < 100)

-			a = 2;

-		else

-			a = 3;

-		if (i < size - 1)

-			a++;

-		if (line + a > 100)

-		{

-			fprintf (f, "\n");

-			line = 0;

-		}

-		line += a;

-		fprintf (f, "%d", prod[i]);

-		if (i < size - 1)

-			fprintf (f, ",");

-	}

-	fclose (f);

-	grammar_alloc_free (prod);

-}

-

-int main ()

-{

-	grammar id;

-

-	id = grammar_load_from_text ((const byte *) slang_shader_syn);

-	if (id == 0)

-		return 1;

-

-	grammar_set_reg8 (id, (const byte *) "parsing_builtin", 1);

-

-	grammar_set_reg8 (id, (const byte *) "shader_type", 1);

-	gc_to_bin (id, "slang_core.gc", "slang_core_gc_bin.h");

-	gc_to_bin (id, "slang_common_builtin.gc", "slang_common_builtin_gc_bin.h");

-	gc_to_bin (id, "slang_fragment_builtin.gc", "slang_fragment_builtin_gc_bin.h");

-

-	grammar_set_reg8 (id, (const byte *) "shader_type", 2);

-	gc_to_bin (id, "slang_vertex_builtin.gc", "slang_vertex_builtin_gc_bin.h");

-

-	grammar_destroy (id);

-

-	return 0;

-}

-

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_string.py b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_string.py
deleted file mode 100644
index a9d399fc1..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/gc_to_string.py
+++ /dev/null
@@ -1,55 +0,0 @@
-#!/usr/bin/env python

-

-# Mesa 3-D graphics library

-# Version:  6.3

-# 

-# Copyright (C) 2005  Brian Paul   All Rights Reserved.

-# 

-# Permission is hereby granted, free of charge, to any person obtaining a

-# copy of this software and associated documentation files (the "Software"),

-# to deal in the Software without restriction, including without limitation

-# the rights to use, copy, modify, merge, publish, distribute, sublicense,

-# and/or sell copies of the Software, and to permit persons to whom the

-# Software is furnished to do so, subject to the following conditions:

-# 

-# The above copyright notice and this permission notice shall be included

-# in all copies or substantial portions of the Software.

-# 

-# THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS

-# OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,

-# FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.  IN NO EVENT SHALL

-# BRIAN PAUL BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN

-# AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN

-# CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.

-

-# author: Michal Krol

-

-# converts slang source file into a C header containing one big string

-# comments and trailing whitespaces are stripped

-# C style comments are not supported, only C++ style ones are

-# empty lines are kept to maintain line numbers correlation

-# escape characters are not handled except for newlines

-

-# example:

-# -- source file

-# // some comment

-# 

-# attribute vec4 myPosition;	// my vertex data

-# -- output file

-# "\n"

-# "\n"

-# "attribute vec4 myPosition;\n"

-

-# usage: gc_to_string.py filename.gc > filename_gc.h

-

-import sys

-

-f = open (sys.argv[1], 'r')

-s = f.readline ()

-while s != '':

-	s = s[0:s.find ('//')].rstrip ()

-	# output empty lines, too, so line numbers can be tracked

-	print '\"' + s + '\\n\"'

-	s = f.readline ()

-f.close ()

-

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_common_builtin.gc b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_common_builtin.gc
deleted file mode 100755
index 0b3ed0e88..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_common_builtin.gc
+++ /dev/null
@@ -1,1410 +0,0 @@
-
-// 
-// TODO:
-// - implement sin, asin, acos, atan, pow, log2, floor, ceil,
-// - implement texture1D, texture2D, texture3D, textureCube,
-// - implement shadow1D, shadow2D,
-// - implement noise1, noise2, noise3, noise4,
-// 
-
-// 
-// From Shader Spec, ver. 1.10, rev. 59
-// 
-// The following built-in constants are provided to vertex and fragment shaders.
-// 
-
-// 
-// Implementation dependent constants. The example values below
-// are the minimum values allowed for these maximums.
-// 
-
-const int gl_MaxLights = 8;                             // GL 1.0
-const int gl_MaxClipPlanes = 6;                         // GL 1.0
-const int gl_MaxTextureUnits = 2;                       // GL 1.3
-const int gl_MaxTextureCoords = 2;                      // ARB_fragment_program
-const int gl_MaxVertexAttribs = 16;                     // ARB_vertex_shader
-const int gl_MaxVertexUniformComponents = 512;          // ARB_vertex_shader
-const int gl_MaxVaryingFloats = 32;                     // ARB_vertex_shader
-const int gl_MaxVertexTextureImageUnits = 0;            // ARB_vertex_shader
-const int gl_MaxCombinedTextureImageUnits = 2;          // ARB_vertex_shader
-const int gl_MaxTextureImageUnits = 2;                  // ARB_fragment_shader
-const int gl_MaxFragmentUniformComponents = 64;         // ARB_fragment_shader
-const int gl_MaxDrawBuffers = 1;                        // proposed ARB_draw_buffers
-
-// 
-// As an aid to accessing OpenGL processing state, the following uniform variables are built into
-// the OpenGL Shading Language. All page numbers and notations are references to the 1.4
-// specification.
-// 
-
-// 
-// Matrix state. p. 31, 32, 37, 39, 40.
-// 
-
-uniform mat4 gl_ModelViewMatrix;
-uniform mat4 gl_ProjectionMatrix;
-uniform mat4 gl_ModelViewProjectionMatrix;
-uniform mat4 gl_TextureMatrix[gl_MaxTextureCoords];
-
-//
-// Derived matrix state that provides inverse and transposed versions
-// of the matrices above. Poorly conditioned matrices may result
-// in unpredictable values in their inverse forms.
-//
-uniform mat3 gl_NormalMatrix; // transpose of the inverse of the
-                              // upper leftmost 3x3 of gl_ModelViewMatrix
-
-uniform mat4 gl_ModelViewMatrixInverse;
-uniform mat4 gl_ProjectionMatrixInverse;
-uniform mat4 gl_ModelViewProjectionMatrixInverse;
-uniform mat4 gl_TextureMatrixInverse[gl_MaxTextureCoords];
-
-uniform mat4 gl_ModelViewMatrixTranspose;
-uniform mat4 gl_ProjectionMatrixTranspose;
-uniform mat4 gl_ModelViewProjectionMatrixTranspose;
-uniform mat4 gl_TextureMatrixTranspose[gl_MaxTextureCoords];
-
-uniform mat4 gl_ModelViewMatrixInverseTranspose;
-uniform mat4 gl_ProjectionMatrixInverseTranspose;
-uniform mat4 gl_ModelViewProjectionMatrixInverseTranspose;
-uniform mat4 gl_TextureMatrixInverseTranspose[gl_MaxTextureCoords];
-
-// 
-// Normal scaling p. 39.
-// 
-
-uniform float gl_NormalScale;
-
-// 
-// Depth range in window coordinates, p. 33
-// 
-
-struct gl_DepthRangeParameters {
-    float near;                                         // n
-    float far;                                          // f
-    float diff;                                         // f - n
-};
-
-uniform gl_DepthRangeParameters gl_DepthRange;
-
-// 
-// Clip planes p. 42.
-// 
-
-uniform vec4 gl_ClipPlane[gl_MaxClipPlanes];
-
-// 
-// Point Size, p. 66, 67.
-// 
-
-struct gl_PointParameters {
-    float size;
-    float sizeMin;
-    float sizeMax;
-    float fadeThresholdSize;
-    float distanceConstantAttenuation;
-    float distanceLinearAttenuation;
-    float distanceQuadraticAttenuation;
-};
-
-uniform gl_PointParameters gl_Point;
-
-// 
-// Material State p. 50, 55.
-// 
-
-struct gl_MaterialParameters {
-    vec4 emission;                                      // Ecm
-    vec4 ambient;                                       // Acm
-    vec4 diffuse;                                       // Dcm
-    vec4 specular;                                      // Scm
-    float shininess;                                    // Srm
-};
-
-uniform gl_MaterialParameters gl_FrontMaterial;
-uniform gl_MaterialParameters gl_BackMaterial;
-
-// 
-// Light State p 50, 53, 55.
-// 
-
-struct gl_LightSourceParameters {
-    vec4 ambient;                                       // Acli
-    vec4 diffuse;                                       // Dcli
-    vec4 specular;                                      // Scli
-    vec4 position;                                      // Ppli
-    vec4 halfVector;                                    // Derived: Hi
-    vec3 spotDirection;                                 // Sdli
-    float spotExponent;                                 // Srli
-    float spotCutoff;                                   // Crli
-                                                        // (range: [0.0,90.0], 180.0)
-    float spotCosCutoff;                                // Derived: cos(Crli)
-                                                        // (range: [1.0,0.0],-1.0)
-    float constantAttenuation;                          // K0
-    float linearAttenuation;                            // K1
-    float quadraticAttenuation;                         // K2
-};
-
-uniform gl_LightSourceParameters gl_LightSource[gl_MaxLights];
-
-struct gl_LightModelParameters {
-    vec4 ambient;                                       // Acs
-};
-
-uniform gl_LightModelParameters gl_LightModel;
-
-// 
-// Derived state from products of light and material.
-// 
-
-struct gl_LightModelProducts {
-    vec4 sceneColor;                                    // Derived. Ecm + Acm * Acs
-};
-
-uniform gl_LightModelProducts gl_FrontLightModelProduct;
-uniform gl_LightModelProducts gl_BackLightModelProduct;
-
-struct gl_LightProducts {
-    vec4 ambient;                                       // Acm * Acli
-    vec4 diffuse;                                       // Dcm * Dcli
-    vec4 specular;                                      // Scm * Scli
-};
-
-uniform gl_LightProducts gl_FrontLightProduct[gl_MaxLights];
-uniform gl_LightProducts gl_BackLightProduct[gl_MaxLights];
-
-// 
-// Texture Environment and Generation, p. 152, p. 40-42.
-// 
-
-uniform vec4 gl_TextureEnvColor[gl_MaxTextureImageUnits];
-uniform vec4 gl_EyePlaneS[gl_MaxTextureCoords];
-uniform vec4 gl_EyePlaneT[gl_MaxTextureCoords];
-uniform vec4 gl_EyePlaneR[gl_MaxTextureCoords];
-uniform vec4 gl_EyePlaneQ[gl_MaxTextureCoords];
-uniform vec4 gl_ObjectPlaneS[gl_MaxTextureCoords];
-uniform vec4 gl_ObjectPlaneT[gl_MaxTextureCoords];
-uniform vec4 gl_ObjectPlaneR[gl_MaxTextureCoords];
-uniform vec4 gl_ObjectPlaneQ[gl_MaxTextureCoords];
-
-// 
-// Fog p. 161
-// 
-
-struct gl_FogParameters {
-    vec4 color;
-    float density;
-    float start;
-    float end;
-    float scale;    // Derived:    1.0 / (end - start)
-};
-
-uniform gl_FogParameters gl_Fog;
-
-// 
-// The OpenGL Shading Language defines an assortment of built-in convenience functions for scalar
-// and vector operations. Many of these built-in functions can be used in more than one type
-// of shader, but some are intended to provide a direct mapping to hardware and so are available
-// only for a specific type of shader.
-// 
-// The built-in functions basically fall into three categories:
-// 
-// * They expose some necessary hardware functionality in a convenient way such as accessing
-//   a texture map. There is no way in the language for these functions to be emulated by a shader.
-// 
-// * They represent a trivial operation (clamp, mix, etc.) that is very simple for the user
-//   to write, but they are very common and may have direct hardware support. It is a very hard
-//   problem for the compiler to map expressions to complex assembler instructions.
-// 
-// * They represent an operation graphics hardware is likely to accelerate at some point. The
-//   trigonometry functions fall into this category.
-// 
-// Many of the functions are similar to the same named ones in common C libraries, but they support
-// vector input as well as the more traditional scalar input.
-// 
-// Applications should be encouraged to use the built-in functions rather than do the equivalent
-// computations in their own shader code since the built-in functions are assumed to be optimal
-// (e.g., perhaps supported directly in hardware).
-// 
-// User code can replace built-in functions with their own if they choose, by simply re-declaring
-// and defining the same name and argument list.
-// 
-
-// 
-// 8.1 Angle and Trigonometry Functions
-// 
-// Function parameters specified as angle are assumed to be in units of radians. In no case will
-// any of these functions result in a divide by zero error. If the divisor of a ratio is 0, then
-// results will be undefined.
-// 
-// These all operate component-wise. The description is per component.
-// 
-
-// 
-// Converts degrees to radians and returns the result, i.e., result = PI*deg/180.
-// 
-
-float radians (float deg) {
-    return 3.141593 * deg / 180.0;
-}
-vec2 radians (vec2 deg) {
-    return vec2 (radians (deg.x), radians (deg.y));
-}
-vec3 radians (vec3 deg) {
-    return vec3 (radians (deg.x), radians (deg.y), radians (deg.z));
-}
-vec4 radians (vec4 deg) {
-    return vec4 (radians (deg.x), radians (deg.y), radians (deg.z), radians (deg.w));
-}
-
-// 
-// Converts radians to degrees and returns the result, i.e., result = 180*rad/PI.
-// 
-
-float degrees (float rad) {
-    return 180.0 * rad / 3.141593;
-}
-vec2 degrees (vec2 rad) {
-    return vec2 (degrees (rad.x), degrees (rad.y));
-}
-vec3 degrees (vec3 rad) {
-    return vec3 (degrees (rad.x), degrees (rad.y), degrees (rad.z));
-}
-vec4 degrees (vec4 rad) {
-    return vec4 (degrees (rad.x), degrees (rad.y), degrees (rad.z), degrees (rad.w));
-}
-
-// 
-// The standard trigonometric sine function.
-// 
-// XXX
-float sin (float angle) {
-    return 0.0;
-}
-vec2 sin (vec2 angle) {
-    return vec2 (sin (angle.x), sin (angle.y));
-}
-vec3 sin (vec3 angle) {
-    return vec3 (sin (angle.x), sin (angle.y), sin (angle.z));
-}
-vec4 sin (vec4 angle) {
-    return vec4 (sin (angle.x), sin (angle.y), sin (angle.z), sin (angle.w));
-}
-
-// 
-// The standard trigonometric cosine function.
-// 
-
-float cos (float angle) {
-    return sin (angle + 1.5708);
-}
-vec2 cos (vec2 angle) {
-    return vec2 (cos (angle.x), cos (angle.y));
-}
-vec3 cos (vec3 angle) {
-    return vec3 (cos (angle.x), cos (angle.y), cos (angle.z));
-}
-vec4 cos (vec4 angle) {
-    return vec4 (cos (angle.x), cos (angle.y), cos (angle.z), cos (angle.w));
-}
-
-// 
-// The standard trigonometric tangent.
-// 
-
-float tan (float angle) {
-    return sin (angle) / cos (angle);
-}
-vec2 tan (vec2 angle) {
-    return vec2 (tan (angle.x), tan (angle.y));
-}
-vec3 tan (vec3 angle) {
-    return vec3 (tan (angle.x), tan (angle.y), tan (angle.z));
-}
-vec4 tan (vec4 angle) {
-    return vec4 (tan (angle.x), tan (angle.y), tan (angle.z), tan (angle.w));
-}
-
-// 
-// Arc sine. Returns an angle whose sine is x. The range of values returned by this function is
-// [–PI/2, PI/2]. Results are undefined if |x| > 1.
-// 
-// XXX
-float asin (float x) {
-    return 0.0;
-}
-vec2 asin (vec2 x) {
-    return vec2 (asin (x.x), asin (x.y));
-}
-vec3 asin (vec3 x) {
-    return vec3 (asin (x.x), asin (x.y), asin (x.z));
-}
-vec4 asin (vec4 x) {
-    return vec4 (asin (x.x), asin (x.y), asin (x.z), asin (x.w));
-}
-
-// 
-// Arc cosine. Returns an angle whose cosine is x. The range of values returned by this function is
-// [0, PI]. Results are undefined if |x| > 1.
-// 
-// XXX
-float acos (float x) {
-    return 0.0;
-}
-vec2 acos (vec2 x) {
-    return vec2 (acos (x.x), acos (x.y));
-}
-vec3 acos (vec3 x) {
-    return vec3 (acos (x.x), acos (x.y), acos (x.z));
-}
-vec4 acos (vec4 x) {
-    return vec4 (acos (x.x), acos (x.y), acos (x.z), acos (x.w));
-}
-
-// 
-// Arc tangent. Returns an angle whose tangent is y/x. The signs of x and y are used to determine
-// what quadrant the angle is in. The range of values returned by this function is [–PI, PI].
-// Results are undefined if x and y are both 0.
-// 
-// XXX
-float atan (float x, float y) {
-    return 0.0;
-}
-vec2 atan (vec2 x, vec2 y) {
-    return vec2 (atan (x.x, y.x), atan (x.y, y.y));
-}
-vec3 atan (vec3 x, vec3 y) {
-    return vec3 (atan (x.x, y.x), atan (x.y, y.y), atan (x.z, y.z));
-}
-vec4 atan (vec4 x, vec4 y) {
-    return vec4 (atan (x.x, y.x), atan (x.y, y.y), atan (x.z, y.z), atan (x.w, y.w));
-}
-
-// 
-// Arc tangent. Returns an angle whose tangent is y_over_x. The range of values returned by this
-// function is [–PI/2, PI/2].
-// 
-// XXX
-float atan (float y_over_x) {
-    return 0.0;
-}
-vec2 atan (vec2 y_over_x) {
-    return vec2 (atan (y_over_x.x), atan (y_over_x.y));
-}
-vec3 atan (vec3 y_over_x) {
-    return vec3 (atan (y_over_x.x), atan (y_over_x.y), atan (y_over_x.z));
-}
-vec4 atan (vec4 y_over_x) {
-    return vec4 (atan (y_over_x.x), atan (y_over_x.y), atan (y_over_x.z), atan (y_over_x.w));
-}
-
-// 
-// 8.2 Exponential Functions
-// 
-// These all operate component-wise. The description is per component.
-// 
-
-// 
-// Returns x raised to the y power, i.e., x^y.
-// Results are undefined if x < 0.
-// Results are undefined if x = 0 and y <= 0.
-// 
-// XXX
-float pow (float x, float y) {
-    return 0.0;
-}
-vec2 pow (vec2 x, vec2 y) {
-    return vec2 (pow (x.x, y.x), pow (x.y, y.y));
-}
-vec3 pow (vec3 x, vec3 y) {
-    return vec3 (pow (x.x, y.x), pow (x.y, y.y), pow (x.z, y.z));
-}
-vec4 pow (vec4 x, vec4 y) {
-    return vec4 (pow (x.x, y.x), pow (x.y, y.y), pow (x.z, y.z), pow (x.w, y.w));
-}
-
-// 
-// Returns the natural exponentiation of x, i.e., e^x.
-// 
-
-float exp (float x) {
-    return pow (2.71828183, x);
-}
-vec2 exp (vec2 x) {
-    return vec2 (exp (x.x), exp (x.y));
-}
-vec3 exp (vec3 x) {
-    return vec3 (exp (x.x), exp (x.y), exp (x.z));
-}
-vec4 exp (vec4 x) {
-    return vec4 (exp (x.x), exp (x.y), exp (x.z), exp (x.w));
-}
-
-// 
-// Returns the natural logarithm of x, i.e., returns the value y which satisfies the equation
-// x = e^y.
-// Results are undefined if x <= 0.
-// 
-
-float log (float x) {
-    return log2 (x) / log2 (2.71828183);
-}
-vec2 log (vec2 x) {
-    return vec2 (log (x.x), log (x.y));
-}
-vec3 log (vec3 x) {
-    return vec3 (log (x.x), log (x.y), log (x.z));
-}
-vec4 log (vec4 x) {
-    return vec4 (log (x.x), log (x.y), log (x.z), log (x.w));
-}
-
-// 
-// Returns 2 raised to the x power, i.e., 2^x
-// 
-
-float exp2 (float x) {
-    return pow (2.0, x);
-}
-vec2 exp2 (vec2 x) {
-    return vec2 (exp2 (x.x), exp2 (x.y));
-}
-vec3 exp2 (vec3 x) {
-    return vec3 (exp2 (x.x), exp2 (x.y), exp2 (x.z));
-}
-vec4 exp2 (vec4 x) {
-    return vec4 (exp2 (x.x), exp2 (x.y), exp2 (x.z), exp2 (x.w));
-}
-
-// 
-// Returns the base 2 logarithm of x, i.e., returns the value y which satisfies the equation
-// x = 2^y.
-// Results are undefined if x <= 0.
-// 
-// XXX
-float log2 (float x) {
-    return 0.0;
-}
-vec2 log2 (vec2 x) {
-    return vec2 (log2 (x.x), log2 (x.y));
-}
-vec3 log2 (vec3 x) {
-    return vec3 (log2 (x.x), log2 (x.y), log2 (x.z));
-}
-vec4 log2 (vec4 x) {
-    return vec4 (log2 (x.x), log2 (x.y), log2 (x.z), log2 (x.w));
-}
-
-// 
-// Returns the positive square root of x.
-// Results are undefined if x < 0.
-// 
-
-float sqrt (float x) {
-    return pow (x, 0.5);
-}
-vec2 sqrt (vec2 x) {
-    return vec2 (sqrt (x.x), sqrt (x.y));
-}
-vec3 sqrt (vec3 x) {
-    return vec3 (sqrt (x.x), sqrt (x.y), sqrt (x.z));
-}
-vec4 sqrt (vec4 x) {
-    return vec4 (sqrt (x.x), sqrt (x.y), sqrt (x.z), sqrt (x.w));
-}
-
-// 
-// Returns the reciprocal of the positive square root of x.
-// Results are undefined if x <= 0.
-// 
-
-float inversesqrt (float x) {
-    return 1.0 / sqrt (x);
-}
-vec2 inversesqrt (vec2 x) {
-    return vec2 (inversesqrt (x.x), inversesqrt (x.y));
-}
-vec3 inversesqrt (vec3 x) {
-    return vec3 (inversesqrt (x.x), inversesqrt (x.y), inversesqrt (x.z));
-}
-vec4 inversesqrt (vec4 x) {
-    return vec4 (inversesqrt (x.x), inversesqrt (x.y), inversesqrt (x.z), inversesqrt (x.w));
-}
-
-// 
-// 8.3 Common Functions
-// 
-// These all operate component-wise. The description is per component.
-// 
-
-// 
-// Returns x if x >= 0, otherwise it returns –x
-// 
-
-float abs (float x) {
-    return x >= 0.0 ? x : -x;
-}
-vec2 abs (vec2 x) {
-    return vec2 (abs (x.x), abs (x.y));
-}
-vec3 abs (vec3 x) {
-    return vec3 (abs (x.x), abs (x.y), abs (x.z));
-}
-vec4 abs (vec4 x) {
-    return vec4 (abs (x.x), abs (x.y), abs (x.z), abs (x.w));
-}
-
-// 
-// Returns 1.0 if x > 0, 0.0 if x = 0, or –1.0 if x < 0
-// 
-
-float sign (float x) {
-    return x > 0.0 ? 1.0 : x < 0.0 ? -1.0 : 0.0;
-}
-vec2 sign (vec2 x) {
-    return vec2 (sign (x.x), sign (x.y));
-}
-vec3 sign (vec3 x) {
-    return vec3 (sign (x.x), sign (x.y), sign (x.z));
-}
-vec4 sign (vec4 x) {
-    return vec4 (sign (x.x), sign (x.y), sign (x.z), sign (x.w));
-}
-
-// 
-// Returns a value equal to the nearest integer that is less than or equal to x
-// 
-// XXX
-float floor (float x) {
-    return 0.0;
-}
-vec2 floor (vec2 x) {
-    return vec2 (floor (x.x), floor (x.y));
-}
-vec3 floor (vec3 x) {
-    return vec3 (floor (x.x), floor (x.y), floor (x.z));
-}
-vec4 floor (vec4 x) {
-    return vec4 (floor (x.x), floor (x.y), floor (x.z), floor (x.w));
-}
-
-// 
-// Returns a value equal to the nearest integer that is greater than or equal to x
-// 
-// XXX
-float ceil (float x) {
-    return 0.0;
-}
-vec2 ceil (vec2 x) {
-    return vec2 (ceil (x.x), ceil (x.y));
-}
-vec3 ceil (vec3 x) {
-    return vec3 (ceil (x.x), ceil (x.y), ceil (x.z));
-}
-vec4 ceil (vec4 x) {
-    return vec4 (ceil (x.x), ceil (x.y), ceil (x.z), ceil (x.w));
-}
-
-// 
-// Returns x – floor (x)
-// 
-
-float fract (float x) {
-    return x - floor (x);
-}
-vec2 fract (vec2 x) {
-    return vec2 (fract (x.x), fract (x.y));
-}
-vec3 fract (vec3 x) {
-    return vec3 (fract (x.x), fract (x.y), fract (x.z));
-}
-vec4 fract (vec4 x) {
-    return vec4 (fract (x.x), fract (x.y), fract (x.z), fract (x.w));
-}
-
-// 
-// Modulus. Returns x – y * floor (x/y)
-// 
-
-float mod (float x, float y) {
-    return x - y * floor (x / y);
-}
-vec2 mod (vec2 x, float y) {
-    return vec2 (mod (x.x, y), mod (x.y, y));
-}
-vec3 mod (vec3 x, float y) {
-    return vec3 (mod (x.x, y), mod (x.y, y), mod (x.z, y));
-}
-vec4 mod (vec4 x, float y) {
-    return vec4 (mod (x.x, y), mod (x.y, y), mod (x.z, y), mod (x.w, y));
-}
-vec2 mod (vec2 x, vec2 y) {
-    return vec2 (mod (x.x, y.x), mod (x.y, y.y));
-}
-vec3 mod (vec3 x, vec3 y) {
-    return vec3 (mod (x.x, y.x), mod (x.y, y.y), mod (x.z, y.z));
-}
-vec4 mod (vec4 x, vec4 y) {
-    return vec4 (mod (x.x, y.x), mod (x.y, y.y), mod (x.z, y.z), mod (x.w, y.w));
-}
-
-// 
-// Returns y if y < x, otherwise it returns x
-// 
-
-float min (float x, float y) {
-    return y < x ? y : x;
-}
-vec2 min (vec2 x, float y) {
-    return vec2 (min (x.x, y), min (x.y, y));
-}
-vec3 min (vec3 x, float y) {
-    return vec3 (min (x.x, y), min (x.y, y), min (x.z, y));
-}
-vec4 min (vec4 x, float y) {
-    return vec4 (min (x.x, y), min (x.y, y), min (x.z, y), min (x.w, y));
-}
-vec2 min (vec2 x, vec2 y) {
-    return vec2 (min (x.x, y.x), min (x.y, y.y));
-}
-vec3 min (vec3 x, vec3 y) {
-    return vec3 (min (x.x, y.x), min (x.y, y.y), min (x.z, y.z));
-}
-vec4 min (vec4 x, vec4 y) {
-    return vec4 (min (x.x, y.x), min (x.y, y.y), min (x.z, y.z), min (x.w, y.w));
-}
-
-// 
-// Returns y if x < y, otherwise it returns x
-// 
-
-float max (float x, float y) {
-    return min (y, x);
-}
-vec2 max (vec2 x, float y) {
-    return vec2 (max (x.x, y), max (x.y, y));
-}
-vec3 max (vec3 x, float y) {
-    return vec3 (max (x.x, y), max (x.y, y), max (x.z, y));
-}
-vec4 max (vec4 x, float y) {
-    return vec4 (max (x.x, y), max (x.y, y), max (x.z, y), max (x.w, y));
-}
-vec2 max (vec2 x, vec2 y) {
-    return vec2 (max (x.x, y.x), max (x.y, y.y));
-}
-vec3 max (vec3 x, vec3 y) {
-    return vec3 (max (x.x, y.x), max (x.y, y.y), max (x.z, y.z));
-}
-vec4 max (vec4 x, vec4 y) {
-    return vec4 (max (x.x, y.x), max (x.y, y.y), max (x.z, y.z), max (x.w, y.w));
-}
-
-// 
-// Returns min (max (x, minVal), maxVal)
-// 
-// Note that colors and depths written by fragment shaders will be clamped by the implementation
-// after the fragment shader runs.
-// 
-
-float clamp (float x, float minVal, float maxVal) {
-    return min (max (x, minVal), maxVal);
-}
-vec2 clamp (vec2 x, float minVal, float maxVal) {
-    return vec2 (clamp (x.x, minVal, maxVal), clamp (x.y, minVal, maxVal));
-}
-vec3 clamp (vec3 x, float minVal, float maxVal) {
-    return vec3 (clamp (x.x, minVal, maxVal), clamp (x.y, minVal, maxVal),
-        clamp (x.z, minVal, maxVal));
-}
-vec4 clamp (vec4 x, float minVal, float maxVal) {
-    return vec4 (clamp (x.x, minVal, maxVal), clamp (x.y, minVal, maxVal),
-        clamp (x.z, minVal, maxVal), clamp (x.w, minVal, maxVal));
-}
-vec2 clamp (vec2 x, vec2 minVal, vec2 maxVal) {
-    return vec2 (clamp (x.x, minVal.x, maxVal.x), clamp (x.y, minVal.y, maxVal.y));
-}
-vec3 clamp (vec3 x, vec3 minVal, vec3 maxVal) {
-    return vec3 (clamp (x.x, minVal.x, maxVal.x), clamp (x.y, minVal.y, maxVal.y),
-        clamp (x.z, minVal.z, maxVal.z));
-}
-vec4 clamp (vec4 x, vec4 minVal, vec4 maxVal) {
-    return vec4 (clamp (x.x, minVal.x, maxVal.y), clamp (x.y, minVal.y, maxVal.y),
-        clamp (x.z, minVal.z, maxVal.z), clamp (x.w, minVal.w, maxVal.w));
-}
-
-// 
-// Returns x * (1 – a) + y * a, i.e., the linear blend of x and y
-// 
-
-float mix (float x, float y, float a) {
-    return x * (1.0 - a) + y * a;
-}
-vec2 mix (vec2 x, vec2 y, float a) {
-    return vec2 (mix (x.x, y.x, a), mix (x.y, y.y, a));
-}
-vec3 mix (vec3 x, vec3 y, float a) {
-    return vec3 (mix (x.x, y.x, a), mix (x.y, y.y, a), mix (x.z, y.z, a));
-}
-vec4 mix (vec4 x, vec4 y, float a) {
-    return vec4 (mix (x.x, y.x, a), mix (x.y, y.y, a), mix (x.z, y.z, a), mix (x.w, y.w, a));
-}
-vec2 mix (vec2 x, vec2 y, vec2 a) {
-    return vec2 (mix (x.x, y.x, a.x), mix (x.y, y.y, a.y));
-}
-vec3 mix (vec3 x, vec3 y, vec3 a) {
-    return vec3 (mix (x.x, y.x, a.x), mix (x.y, y.y, a.y), mix (x.z, y.z, a.z));
-}
-vec4 mix (vec4 x, vec4 y, vec4 a) {
-    return vec4 (mix (x.x, y.x, a.x), mix (x.y, y.y, a.y), mix (x.z, y.z, a.z),
-        mix (x.w, y.w, a.w));
-}
-
-// 
-// Returns 0.0 if x < edge, otherwise it returns 1.0
-// 
-
-float step (float edge, float x) {
-    return x < edge ? 0.0 : 1.0;
-}
-vec2 step (float edge, vec2 x) {
-    return vec2 (step (edge, x.x), step (edge, x.y));
-}
-vec3 step (float edge, vec3 x) {
-    return vec3 (step (edge, x.x), step (edge, x.y), step (edge, x.z));
-}
-vec4 step (float edge, vec4 x) {
-    return vec4 (step (edge, x.x), step (edge, x.y), step (edge, x.z), step (edge, x.w));
-}
-vec2 step (vec2 edge, vec2 x) {
-    return vec2 (step (edge.x, x.x), step (edge.y, x.y));
-}
-vec3 step (vec3 edge, vec3 x) {
-    return vec3 (step (edge.x, x.x), step (edge.y, x.y), step (edge.z, x.z));
-}
-vec4 step (vec4 edge, vec4 x) {
-    return vec4 (step (edge.x, x.x), step (edge.y, x.y), step (edge.z, x.z), step (edge.w, x.w));
-}
-
-// 
-// Returns 0.0 if x <= edge0 and 1.0 if x >= edge1 and performs smooth Hermite interpolation
-// between 0 and 1 when edge0 < x < edge1. This is useful in cases where you would want a threshold
-// function with a smooth transition. This is equivalent to:
-// <type> t;
-// t = clamp ((x – edge0) / (edge1 – edge0), 0, 1);
-// return t * t * (3 – 2 * t);
-// 
-
-float smoothstep (float edge0, float edge1, float x) {
-    const float t = clamp ((x - edge0) / (edge1 - edge0), 0.0, 1.0);
-    return t * t * (3.0 - 2.0 * t);
-}
-vec2 smoothstep (float edge0, float edge1, vec2 x) {
-    return vec2 (smoothstep (edge0, edge1, x.x), smoothstep (edge0, edge1, x.y));
-}
-vec3 smoothstep (float edge0, float edge1, vec3 x) {
-    return vec3 (smoothstep (edge0, edge1, x.x), smoothstep (edge0, edge1, x.y),
-        smoothstep (edge0, edge1, x.z));
-}
-vec4 smoothstep (float edge0, float edge1, vec4 x) {
-    return vec4 (smoothstep (edge0, edge1, x.x), smoothstep (edge0, edge1, x.y),
-        smoothstep (edge0, edge1, x.z), smoothstep (edge0, edge1, x.w));
-}
-vec2 smoothstep (vec2 edge0, vec2 edge1, vec2 x) {
-    return vec2 (smoothstep (edge0.x, edge1.x, x.x), smoothstep (edge0.y, edge1.y, x.y));
-}
-vec3 smoothstep (vec3 edge0, vec3 edge1, vec3 x) {
-    return vec3 (smoothstep (edge0.x, edge1.x, x.x), smoothstep (edge0.y, edge1.y, x.y),
-        smoothstep (edge0.z, edge1.z, x.z));
-}
-vec4 smoothstep (vec4 edge0, vec4 edge1, vec4 x) {
-    return vec4 (smoothstep (edge0.x, edge1.x, x.x), smoothstep (edge0.y, edge1.y, x.y),
-        smoothstep (edge0.z, edge1.z, x.z), smoothstep (edge0.w, edge1.w, x.w));
-}
-
-// 
-// 8.4 Geometric Functions
-// 
-// These operate on vectors as vectors, not component-wise.
-// 
-
-// 
-// Returns the dot product of x and y, i.e., result = x[0] * y[0] + x[1] * y[1] + ...
-// 
-
-float dot (float x, float y) {
-    return x * y;
-}
-float dot (vec2 x, vec2 y) {
-    return dot (x.x, y.x) + dot (x.y, y.y);
-}
-float dot (vec3 x, vec3 y) {
-    return dot (x.x, y.x) + dot (x.y, y.y) + dot (x.z, y.z);
-}
-float dot (vec4 x, vec4 y) {
-    return dot (x.x, y.x) + dot (x.y, y.y) + dot (x.z, y.z) + dot (x.w, y.w);
-}
-
-// 
-// Returns the length of vector x, i.e., sqrt (x[0] * x[0] + x[1] * x[1] + ...)
-// 
-
-float length (float x) {
-    return sqrt (dot (x, x));
-}
-float length (vec2 x) {
-    return sqrt (dot (x, x));
-}
-float length (vec3 x) {
-    return sqrt (dot (x, x));
-}
-float length (vec4 x) {
-    return sqrt (dot (x, x));
-}
-
-// 
-// Returns the distance between p0 and p1, i.e. length (p0 – p1)
-// 
-
-float distance (float x, float y) {
-    return length (x - y);
-}
-float distance (vec2 x, vec2 y) {
-    return length (x - y);
-}
-float distance (vec3 x, vec3 y) {
-    return length (x - y);
-}
-float distance (vec4 x, vec4 y) {
-    return length (x - y);
-}
-
-// 
-// Returns the cross product of x and y, i.e.
-// result.0 = x[1] * y[2] - y[1] * x[2]
-// result.1 = x[2] * y[0] - y[2] * x[0]
-// result.2 = x[0] * y[1] - y[0] * x[1]
-// 
-
-vec3 cross (vec3 x, vec3 y) {
-    return vec3 (x.y * y.z - y.y * x.z, x.z * y.x - y.z * x.x, x.x * y.y - y.x * x.y);
-}
-
-// 
-// Returns a vector in the same direction as x but with a length of 1.
-// 
-
-float normalize (float x) {
-    return 1.0;
-}
-vec2 normalize (vec2 x) {
-    return x / length (x);
-}
-vec3 normalize (vec3 x) {
-    return x / length (x);
-}
-vec4 normalize (vec4 x) {
-    return x / length (x);
-}
-
-// 
-// If dot (Nref, I) < 0 return N otherwise return –N
-// 
-
-float faceforward (float N, float I, float Nref) {
-    return dot (Nref, I) < 0.0 ? N : -N;
-}
-vec2 faceforward (vec2 N, vec2 I, vec2 Nref) {
-    return dot (Nref, I) < 0.0 ? N : -N;
-}
-vec3 faceforward (vec3 N, vec3 I, vec3 Nref) {
-    return dot (Nref, I) < 0.0 ? N : -N;
-}
-vec4 faceforward (vec4 N, vec4 I, vec4 Nref) {
-    return dot (Nref, I) < 0.0 ? N : -N;
-}
-
-// 
-// For the incident vector I and surface orientation N, returns the reflection direction:
-// result = I - 2 * dot (N, I) * N
-// N must already be normalized in order to achieve the desired result.

-//
-
-float reflect (float I, float N) {
-    return I - 2.0 * dot (N, I) * N;
-}
-vec2 reflect (vec2 I, vec2 N) {
-    return I - 2.0 * dot (N, I) * N;
-}
-vec3 reflect (vec3 I, vec3 N) {
-    return I - 2.0 * dot (N, I) * N;
-}
-vec4 reflect (vec4 I, vec4 N) {
-    return I - 2.0 * dot (N, I) * N;
-}
-
-//
-// For the incident vector I and surface normal N, and the ratio of inidices of refraction eta,
-// return the refraction vector. The returned result is computed by
-//
-// k = 1.0 - eta * eta * (1.0 - dot (N, I) * dot (N, I))
-// if (k < 0.0)
-//   result = genType (0.0)
-// else
-//   result = eta * I - (eta * dot (N, I) + sqrt (k)) * N
-//
-// The input parameters for the incident vector I and the surface normal N must already be
-// normalized to get the desired results.
-//
-
-float refract (float I, float N, float eta) {
-    const float k = 1.0 - eta * eta * (1.0 - dot (N, I) * dot (N, I));
-    if (k < 0.0)
-        return 0.0;

-    return eta * I - (eta * dot (N, I) + sqrt (k)) * N;
-}
-vec2 refract (vec2 I, vec2 N, float eta) {
-    const float k = 1.0 - eta * eta * (1.0 - dot (N, I) * dot (N, I));
-    if (k < 0.0)
-        return vec2 (0.0);
-    return eta * I - (eta * dot (N, I) + sqrt (k)) * N;
-}
-vec3 refract (vec3 I, vec3 N, float eta) {
-    const float k = 1.0 - eta * eta * (1.0 - dot (N, I) * dot (N, I));
-    if (k < 0.0)
-        return vec3 (0.0);
-    return eta * I - (eta * dot (N, I) + sqrt (k)) * N;
-}
-vec4 refract (vec4 I, vec4 N, float eta) {
-    const float k = 1.0 - eta * eta * (1.0 - dot (N, I) * dot (N, I));
-    if (k < 0.0)
-        return vec4 (0.0);
-    return eta * I - (eta * dot (N, I) + sqrt (k)) * N;
-}
-
-// 
-// 8.5 Matrix Functions
-// 
-
-// 
-// Multiply matrix x by matrix y component-wise, i.e., result[i][j] is the scalar product
-// of x[i][j] and y[i][j].
-// Note: to get linear algebraic matrix multiplication, use the multiply operator (*).
-// 
-
-mat2 matrixCompMult (mat2 x, mat2 y) {
-    return mat2 (
-        x[0].x * y[0].x, x[0].y * y[0].y,
-        x[1].x * y[1].x, x[1].y * y[1].y
-    );
-}
-mat3 matrixCompMult (mat3 x, mat3 y) {
-    return mat4 (
-        x[0].x * y[0].x, x[0].y * y[0].y, x[0].z * y[0].z,
-        x[1].x * y[1].x, x[1].y * y[1].y, x[1].z * y[1].z,
-        x[2].x * y[2].x, x[2].y * y[2].y, x[2].z * y[2].z
-    );
-}
-mat4 matrixCompMult (mat4 x, mat4 y) {
-    return mat4 (
-        x[0].x * y[0].x, x[0].y * y[0].y, x[0].z * y[0].z + x[0].w * y[0].w,
-        x[1].x * y[1].x, x[1].y * y[1].y, x[1].z * y[1].z + x[1].w * y[1].w,
-        x[2].x * y[2].x, x[2].y * y[2].y, x[2].z * y[2].z + x[2].w * y[2].w,
-        x[3].x * y[3].x, x[3].y * y[3].y, x[3].z * y[3].z + x[3].w * y[3].w
-    );
-}
-
-// 
-// 8.6 Vector Relational Functions
-// 
-// Relational and equality operators (<, <=, >, >=, ==, !=) are defined (or reserved) to produce
-// scalar Boolean results.
-// 
-
-// 
-// Returns the component-wise compare of x < y.
-// 
-
-bvec2 lessThan (vec2 x, vec2 y) {
-    return bvec2 (x.x < y.x, x.y < y.y);
-}
-bvec3 lessThan (vec3 x, vec3 y) {
-    return bvec3 (x.x < y.x, x.y < y.y, x.z < y.z);
-}
-bvec4 lessThan (vec4 x, vec4 y) {
-    return bvec4 (x.x < y.x, x.y < y.y, x.z < y.z, x.w < y.w);
-}
-bvec2 lessThan (ivec2 x, ivec2 y) {
-    return bvec2 (x.x < y.x, x.y < y.y);
-}
-bvec3 lessThan (ivec3 x, ivec3 y) {
-    return bvec3 (x.x < y.x, x.y < y.y, x.z < y.z);
-}
-bvec4 lessThan (ivec4 x, ivec4 y) {
-    return bvec4 (x.x < y.x, x.y < y.y, x.z < y.z, x.w < y.w);
-}
-
-// 
-// Returns the component-wise compare of x <= y.
-// 
-
-bvec2 lessThanEqual (vec2 x, vec2 y) {
-    return bvec2 (x.x <= y.x, x.y <= y.y);
-}
-bvec3 lessThanEqual (vec3 x, vec3 y) {
-    return bvec3 (x.x <= y.x, x.y <= y.y, x.z <= y.z);
-}
-bvec4 lessThanEqual (vec4 x, vec4 y) {
-    return bvec4 (x.x <= y.x, x.y <= y.y, x.z <= y.z, x.w <= y.w);
-}
-bvec2 lessThanEqual (ivec2 x, ivec2 y) {
-    return bvec2 (x.x <= y.x, x.y <= y.y);
-}
-bvec3 lessThanEqual (ivec3 x, ivec3 y) {
-    return bvec3 (x.x <= y.x, x.y <= y.y, x.z <= y.z);
-}
-bvec4 lessThanEqual (ivec4 x, ivec4 y) {
-    return bvec4 (x.x <= y.x, x.y <= y.y, x.z <= y.z, x.w <= y.w);
-}
-
-// 
-// Returns the component-wise compare of x > y.
-// 
-
-bvec2 greaterThan (vec2 x, vec2 y) {
-    return bvec2 (x.x > y.x, x.y > y.y);
-}
-bvec3 greaterThan (vec3 x, vec3 y) {
-    return bvec3 (x.x > y.x, x.y > y.y, x.z > y.z);
-}
-bvec4 greaterThan (vec4 x, vec4 y) {
-    return bvec4 (x.x > y.x, x.y > y.y, x.z > y.z, x.w > y.w);
-}
-bvec2 greaterThan (ivec2 x, ivec2 y) {
-    return bvec2 (x.x > y.x, x.y > y.y);
-}
-bvec3 greaterThan (ivec3 x, ivec3 y) {
-    return bvec3 (x.x > y.x, x.y > y.y, x.z > y.z);
-}
-bvec4 greaterThan (ivec4 x, ivec4 y) {
-    return bvec4 (x.x > y.x, x.y > y.y, x.z > y.z, x.w > y.w);
-}
-
-// 
-// Returns the component-wise compare of x >= y.
-// 
-
-bvec2 greaterThanEqual (vec2 x, vec2 y) {
-    return bvec2 (x.x >= y.x, x.y >= y.y);
-}
-bvec3 greaterThanEqual (vec3 x, vec3 y) {
-    return bvec3 (x.x >= y.x, x.y >= y.y, x.z >= y.z);
-}
-bvec4 greaterThanEqual (vec4 x, vec4 y) {
-    return bvec4 (x.x >= y.x, x.y >= y.y, x.z >= y.z, x.w >= y.w);
-}
-bvec2 greaterThanEqual (ivec2 x, ivec2 y) {
-    return bvec2 (x.x >= y.x, x.y >= y.y);
-}
-bvec3 greaterThanEqual (ivec3 x, ivec3 y) {
-    return bvec3 (x.x >= y.x, x.y >= y.y, x.z >= y.z);
-}
-bvec4 greaterThanEqual (ivec4 x, ivec4 y) {
-    return bvec4 (x.x >= y.x, x.y >= y.y, x.z >= y.z, x.w >= y.w);
-}
-
-// 
-// Returns the component-wise compare of x == y.
-// 
-
-bvec2 equal (vec2 x, vec2 y) {
-    return bvec2 (x.x == y.x, x.y == y.y);
-}
-bvec3 equal (vec3 x, vec3 y) {
-    return bvec3 (x.x == y.x, x.y == y.y, x.z == y.z);
-}
-bvec4 equal (vec4 x, vec4 y) {
-    return bvec4 (x.x == y.x, x.y == y.y, x.z == y.z, x.w == y.w);
-}
-bvec2 equal (ivec2 x, ivec2 y) {
-    return bvec2 (x.x == y.x, x.y == y.y);
-}
-bvec3 equal (ivec3 x, ivec3 y) {
-    return bvec3 (x.x == y.x, x.y == y.y, x.z == y.z);
-}
-bvec4 equal (ivec4 x, ivec4 y) {
-    return bvec4 (x.x == y.x, x.y == y.y, x.z == y.z, x.w == y.w);
-}
-
-// 
-// Returns the component-wise compare of x != y.
-// 
-
-bvec2 notEqual (vec2 x, vec2 y) {
-    return bvec2 (x.x != y.x, x.y != y.y);
-}
-bvec3 notEqual (vec3 x, vec3 y) {
-    return bvec3 (x.x != y.x, x.y != y.y, x.z != y.z);
-}
-bvec4 notEqual (vec4 x, vec4 y) {
-    return bvec4 (x.x != y.x, x.y != y.y, x.z != y.z, x.w != y.w);
-}
-bvec2 notEqual (ivec2 x, ivec2 y) {
-    return bvec2 (x.x != y.x, x.y != y.y);
-}
-bvec3 notEqual (ivec3 x, ivec3 y) {
-    return bvec3 (x.x != y.x, x.y != y.y, x.z != y.z);
-}
-bvec4 notEqual (ivec4 x, ivec4 y) {
-    return bvec4 (x.x != y.x, x.y != y.y, x.z != y.z, x.w != y.w);
-}
-
-// 
-// Returns true if any component of x is true.
-// 
-
-bool any (bvec2 x) {
-    return x.x || x.y;
-}
-bool any (bvec3 x) {
-    return x.x || x.y || x.z;
-}
-bool any (bvec4 x) {
-    return x.x || x.y || x.z || x.w;
-}
-
-// 
-// Returns true only if all components of x are true.
-// 
-
-bool all (bvec2 x) {
-    return x.x && x.y;
-}
-bool all (bvec3 x) {
-    return x.x && x.y && x.z;
-}
-bool all (bvec4 x) {
-    return x.x && x.y && x.z && x.w;
-}
-
-// 
-// Returns the component-wise logical complement of x.
-// 
-
-bvec2 not (bvec2 x) {
-    return bvec2 (!x.x, !x.y);
-}
-bvec3 not (bvec3 x) {
-    return bvec3 (!x.x, !x.y, !x.z);
-}
-bvec4 not (bvec4 x) {
-    return bvec4 (!x.x, !x.y, !x.z, !x.w);
-}
-
-// 
-// 8.7 Texture Lookup Functions
-// 
-// Texture lookup functions are available to both vertex and fragment shaders. However, level
-// of detail is not computed by fixed functionality for vertex shaders, so there are some
-// differences in operation between vertex and fragment texture lookups. The functions in the table
-// below provide access to textures through samplers, as set up through the OpenGL API. Texture
-// properties such as size, pixel format, number of dimensions, filtering method, number of mip-map
-// levels, depth comparison, and so on are also defined by OpenGL API calls. Such properties are
-// taken into account as the texture is accessed via the built-in functions defined below.
-// 
-// If a non-shadow texture call is made to a sampler that represents a depth texture with depth
-// comparisons turned on, then results are undefined. If a shadow texture call is made to a sampler
-// that represents a depth texture with depth comparisions turned off, the results are undefined.
-// If a shadow texture call is made to a sampler that does not represent a depth texture, then
-// results are undefined.
-// 
-// In all functions below, the bias parameter is optional for fragment shaders. The bias parameter
-// is not accepted in a vertex shader. For a fragment shader, if bias is present, it is added to
-// the calculated level of detail prior to performing the texture access operation. If the bias
-// parameter is not provided, then the implementation automatically selects level of detail:
-// For a texture that is not mip-mapped, the texture is used directly. If it is mip-mapped and
-// running in a fragment shader, the LOD computed by the implementation is used to do the texture
-// lookup. If it is mip-mapped and running on the vertex shader, then the base texture is used.
-// 
-// The built-ins suffixed with "Lod" are allowed only in a vertex shader. For the "Lod" functions,
-// lod is directly used as the level of detail.
-// 
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 1D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate coord.s is divided by
-// the last component of coord.
-// 
-// XXX
-vec4 texture1D (sampler1D sampler, float coord) {
-    return vec4 (0.0);
-}
-vec4 texture1DProj (sampler1D sampler, vec2 coord) {
-    return texture1D (sampler, coord.s / coord.t);
-}
-vec4 texture1DProj (sampler1D sampler, vec4 coord) {
-    return texture1D (sampler, coord.s / coord.q);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 2D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate (coord.s, coord.t) is
-// divided by the last component of coord. The third component of coord is ignored for the vec4
-// coord variant.
-// 
-// XXX
-vec4 texture2D (sampler2D sampler, vec2 coord) {
-    return vec4 (0.0);
-}
-vec4 texture2DProj (sampler2D sampler, vec3 coord) {
-    return texture2D (sampler, vec2 (coord.s / coord.p, coord.t / coord.p));
-}
-vec4 texture2DProj (sampler2D sampler, vec4 coord) {
-    return texture2D (sampler, vec2 (coord.s / coord.q, coord.t / coord.q));
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 3D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate is divided by coord.q.
-// 
-// XXX
-vec4 texture3D (sampler3D sampler, vec3 coord) {
-    return vec4 (0.0);
-}
-vec4 texture3DProj (sampler3D sampler, vec4 coord) {
-    return texture3D (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.p / coord.q));
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the cube map texture currently bound
-// to sampler. The direction of coord is used to select which face to do a 2-dimensional texture
-// lookup in, as described in section 3.8.6 in version 1.4 of the OpenGL specification.
-// 
-// XXX
-vec4 textureCube (samplerCube sampler, vec3 coord) {
-    return vec4 (0.0);
-}
-
-// 
-// Use texture coordinate coord to do a depth comparison lookup on the depth texture bound
-// to sampler, as described in section 3.8.14 of version 1.4 of the OpenGL specification. The 3rd
-// component of coord (coord.p) is used as the R value. The texture bound to sampler must be a
-// depth texture, or results are undefined. For the projective ("Proj") version of each built-in,
-// the texture coordinate is divide by coord.q, giving a depth value R of coord.p/coord.q. The
-// second component of coord is ignored for the "1D" variants.
-// 
-// XXX
-vec4 shadow1D (sampler1DShadow sampler, vec3 coord) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 shadow2D (sampler2DShadow sampler, vec3 coord) {
-    return vec4 (0.0);
-}
-vec4 shadow1DProj (sampler1DShadow sampler, vec4 coord) {
-    return shadow1D (sampler, vec3 (coord.s / coord.q, 0.0, coord.p / coord.q));
-}
-vec4 shadow2DProj (sampler2DShadow sampler, vec4 coord) {
-    return shadow2D (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.p / coord.q));
-}
-
-// 
-// 8.9 Noise Functions
-// 
-// Noise functions are available to both fragment and vertex shaders. They are stochastic functions
-// that can be used to increase visual complexity. Values returned by the following noise functions
-// give the appearance of randomness, but are not truly random. The noise functions below are
-// defined to have the following characteristics:
-// 
-// - The return value(s) are always in the range [-1,1], and cover at least the range [-0.6, 0.6],
-//   with a gaussian-like distribution.
-// * The return value(s) have an overall average of 0.0
-// * They are repeatable, in that a particular input value will always produce the same return value
-// * They are statistically invariant under rotation (i.e., no matter how the domain is rotated, it
-//   has the same statistical character)
-// * They have a statistical invariance under translation (i.e., no matter how the domain is
-//   translated, it has the same statistical character)
-// * They typically give different results under translation.
-// - The spatial frequency is narrowly concentrated, centered somewhere between 0.5 to 1.0.
-// 
-
-// 
-// Returns a 1D noise value based on the input value x.
-// 
-// XXX
-float noise1 (float x) {
-    return 0.0;
-}
-// XXX
-float noise1 (vec2 x) {
-    return 0.0;
-}
-// XXX
-float noise1 (vec3 x) {
-    return 0.0;
-}
-// XXX
-float noise1 (vec4 x) {
-    return 0.0;
-}
-
-// 
-// Returns a 2D noise value based on the input value x.
-// 
-// XXX
-vec2 noise2 (float x) {
-    return vec2 (0.0);
-}
-// XXX
-vec2 noise2 (vec2 x) {
-    return vec2 (0.0);
-}
-// XXX
-vec2 noise2 (vec3 x) {
-    return vec2 (0.0);
-}
-// XXX
-vec2 noise2 (vec4 x) {
-    return vec2 (0.0);
-}
-
-// 
-// Returns a 3D noise value based on the input value x.
-// 
-// XXX
-vec3 noise3 (float x) {
-    return vec3 (0.0);
-}
-// XXX
-vec3 noise3 (vec2 x) {
-    return vec3 (0.0);
-}
-// XXX
-vec3 noise3 (vec3 x) {
-    return vec3 (0.0);
-}
-// XXX
-vec3 noise3 (vec4 x) {
-    return vec3 (0.0);
-}
-
-// 
-// Returns a 4D noise value based on the input value x.
-// 
-// XXX
-vec4 noise4 (float x) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 noise4 (vec2 x) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 noise4 (vec3 x) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 noise4 (vec4 x) {
-    return vec4 (0.0);
-}
-
diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_core.gc b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_core.gc
deleted file mode 100755
index d1d2cb10f..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_core.gc
+++ /dev/null
@@ -1,1565 +0,0 @@
-

-// 

-// This file defines nearly all constructors and operators for built-in data types, using

-// extended language syntax. In general, compiler treats constructors and operators as

-// ordinary functions with some exceptions. For example, the language does not allow

-// functions to be called in constant expressions - here the exception is made to allow it.

-// 

-// Each implementation provides its own version of this file. Each implementation can define

-// the required set of operators and constructors in its own fashion.

-// 

-// The extended language syntax is only present when compiling this file. It is implicitly

-// included at the very beginning of the compiled shader, so no built-in functions can be

-// used.

-// 

-// To communicate with the implementation, a special extended "__asm" keyword is used, followed

-// by an instruction name (any valid identifier), a destination variable identifier and a

-// a list of zero or more source variable identifiers. A variable identifier is a variable name

-// declared earlier in the code (as a function parameter, local or global variable).

-// An instruction name designates an instruction that must be exported by the implementation.

-// Each instruction receives data from source variable identifiers and returns data in the

-// destination variable identifier.

-// 

-// It is up to the implementation how to define a particular operator or constructor. If it is

-// expected to being used rarely, it can be defined in terms of other operators and constructors,

-// for example:

-// 

-// ivec2 __operator + (const ivec2 x, const ivec2 y) {

-//    return ivec2 (x[0] + y[0], x[1] + y[1]);

-// }

-// 

-// If a particular operator or constructor is expected to be used very often or is an atomic

-// operation (that is, an operation that cannot be expressed in terms of other operations or

-// would create a dependency cycle) it must be defined using one or more __asm constructs.

-// 

-// Each implementation must define constructors for all scalar types (bool, float, int).

-// There are 9 scalar-to-scalar constructors (including identity constructors). However,

-// since the language introduces special constructors (like matrix constructor with a single

-// scalar value), implementations must also implement these cases.

-// The compiler provides the following algorithm when resolving a constructor:

-// - try to find a constructor with a prototype matching ours,

-// - if no constructor is found and this is a scalar-to-scalar constructor, raise an error,

-// - if a constructor is found, execute it and return,

-// - count the size of the constructor parameter list - if it is less than the size of

-//   our constructor's type, raise an error,

-// - for each parameter in the list do a recursive constructor matching for appropriate

-//   scalar fields in the constructed variable,

-// 

-// Each implementation must also define a set of operators that deal with built-in data types.

-// There are four kinds of operators:

-// 1) Operators that are implemented only by the compiler: "()" (function call), "," (sequence)

-//    and "?:" (selection).

-// 2) Operators that are implemented by the compiler by expressing it in terms of other operators:

-//    - "." (field selection) - translated to subscript access,

-//    - "&&" (logical and) - translated to "<left_expr> ? <right_expr> : false",

-//    - "||" (logical or) - translated to "<left_expr> ? true : <right_expr>",

-// 3) Operators that can be defined by the implementation and if the required prototype is not

-//    found, standard behaviour is used:

-//    - "==", "!=", "=" (equality, assignment) - compare or assign matching fields one-by-one;

-//      note that at least operators for scalar data types must be defined by the implementation

-//      to get it work,

-// 4) All other operators not mentioned above. If no required prototype is found, an error is

-//    raised. An implementation must follow the language specification to provide all valid

-//    operator prototypes.

-// 

-

-int __constructor (const float _f) {

-    int _i;

-    __asm float_to_int _i, _f;

-    return _i;

-}

-

-bool __constructor (const int _i) {

-    return _i != 0;

-}

-

-bool __constructor (const float _f) {

-    return _f != 0.0;

-}

-

-int __constructor (const bool _b) {

-    return _b ? 1 : 0;

-}

-

-float __constructor (const bool _b) {

-    return _b ? 1.0 : 0.0;

-}

-

-float __constructor (const int _i) {

-    float _f;

-    __asm int_to_float _f, _i;

-    return _f;

-}

-

-bool __constructor (const bool _b) {

-    return _b;

-}

-

-int __constructor (const int _i) {

-    return _i;

-}

-

-float __constructor (const float _f) {

-    return _f;

-}

-

-vec2 __constructor (const float _f) {

-    return vec2 (_f, _f);

-}

-

-vec2 __constructor (const int _i) {

-    return vec2 (_i, _i);

-}

-

-vec2 __constructor (const bool _b) {

-    return vec2 (_b, _b);

-}

-

-vec3 __constructor (const float _f) {

-    return vec3 (_f, _f, _f);

-}

-

-vec3 __constructor (const int _i) {

-    return vec3 (_i, _i, _i);

-}

-

-vec3 __constructor (const bool _b) {

-    return vec3 (_b, _b, _b);

-}

-

-vec4 __constructor (const float _f) {

-    return vec4 (_f, _f, _f, _f);

-}

-

-vec4 __constructor (const int _i) {

-    return vec4 (_i, _i, _i, _i);

-}

-

-vec4 __constructor (const bool _b) {

-    return vec4 (_b, _b, _b, _b);

-}

-

-ivec2 __constructor (const int _i) {

-    return ivec2 (_i, _i);

-}

-

-ivec2 __constructor (const float _f) {

-    return ivec2 (_f, _f);

-}

-

-ivec2 __constructor (const bool _b) {

-    return ivec2 (_b, _b);

-}

-

-ivec3 __constructor (const int _i) {

-    return ivec3 (_i, _i, _i);

-}

-

-ivec3 __constructor (const float _f) {

-    return ivec3 (_f, _f, _f);

-}

-

-ivec3 __constructor (const bool _b) {

-    return ivec3 (_b, _b, _b);

-}

-

-ivec4 __constructor (const int _i) {

-    return ivec4 (_i, _i, _i, _i);

-}

-

-ivec4 __constructor (const float _f) {

-    return ivec4 (_f, _f, _f, _f);

-}

-

-ivec4 __constructor (const bool _b) {

-    return ivec4 (_b, _b, _b, _b);

-}

-

-bvec2 __constructor (const bool _b) {

-    return bvec2 (_b, _b);

-}

-

-bvec2 __constructor (const float _f) {

-    return bvec2 (_f, _f);

-}

-

-bvec2 __constructor (const int _i) {

-    return bvec2 (_i, _i);

-}

-

-bvec3 __constructor (const bool _b) {

-    return bvec3 (_b, _b, _b);

-}

-

-bvec3 __constructor (const float _f) {

-    return bvec3 (_f, _f, _f);

-}

-

-bvec3 __constructor (const int _i) {

-    return bvec3 (_i, _i, _i);

-}

-

-bvec4 __constructor (const bool _b) {

-    return bvec4 (_b, _b, _b, _b);

-}

-

-bvec4 __constructor (const float _f) {

-    return bvec4 (_f, _f, _f, _f);

-}

-

-bvec4 __constructor (const int _i) {

-    return bvec4 (_i, _i, _i, _i);

-}

-

-mat2 __constructor (const float _f) {

-    return mat2 (

-        _f, .0,

-        .0, _f

-    );

-}

-

-mat2 __constructor (const int _i) {

-    return mat2 (

-        _i, .0,

-        .0, _i

-    );

-}

-

-mat2 __constructor (const bool _b) {

-    return mat2 (

-        _b, .0,

-        .0, _b

-    );

-}

-

-mat3 __constructor (const float _f) {

-    return mat3 (

-        _f, .0, .0,

-        .0, _f, .0,

-        .0, .0, _f

-    );

-}

-

-mat3 __constructor (const int _i) {

-    return mat3 (

-        _i, .0, .0,

-        .0, _i, .0,

-        .0, .0, _i

-    );

-}

-

-mat3 __constructor (const bool _b) {

-    return mat3 (

-        _b, .0, .0,

-        .0, _b, .0,

-        .0, .0, _b

-    );

-}

-

-mat4 __constructor (const float _f) {

-    return mat4 (

-        _f, .0, .0, .0,

-        .0, _f, .0, .0,

-        .0, .0, _f, .0,

-        .0, .0, .0, _f

-    );

-}

-

-mat4 __constructor (const int _i) {

-    return mat4 (

-        _i, .0, .0, .0,

-        .0, _i, .0, .0,

-        .0, .0, _i, .0,

-        .0, .0, .0, _i

-    );

-}

-

-mat4 __constructor (const bool _b) {

-    return mat4 (

-        _b, .0, .0, .0,

-        .0, _b, .0, .0,

-        .0, .0, _b, .0,

-        .0, .0, .0, _b

-    );

-}

-

-//void __operator = (out float a, const float b) {

-//    __asm float_copy a, b;

-//}

-//

-//void __operator = (out int a, const int b) {

-//    __asm int_copy a, b;

-//}

-//

-//void __operator = (out bool a, const bool b) {

-//    __asm bool_copy a, b;

-//}

-//

-//void __operator = (out vec2 v, const vec2 u) {

-//    v.x = u.x, v.y = u.y;

-//}

-//

-//void __operator = (out vec3 v, const vec3 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z;

-//}

-//

-//void __operator = (out vec4 v, const vec4 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z, v.w = u.w;

-//}

-//

-//void __operator = (out ivec2 v, const ivec2 u) {

-//    v.x = u.x, v.y = u.y;

-//}

-//

-//void __operator = (out ivec3 v, const ivec3 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z;

-//}

-//

-//void __operator = (out ivec4 v, const ivec4 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z, v.w = u.w;

-//}

-//

-//void __operator = (out bvec2 v, const bvec2 u) {

-//    v.x = u.x, v.y = u.y;

-//}

-//

-//void __operator = (out bvec3 v, const bvec3 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z;

-//}

-//

-//void __operator = (out bvec4 v, const bvec4 u) {

-//    v.x = u.x, v.y = u.y, v.z = u.z, v.w = u.w;

-//}

-//

-//void __operator = (out mat2 m, const mat2 n) {

-//    m[0] = n[0], m[1] = n[1];

-//}

-//

-//void __operator = (out mat3 m, const mat3 n) {

-//    m[0] = n[0], m[1] = n[1], m[2] = n[2];

-//}

-//

-//void __operator = (out mat4 m, const mat4 n) {

-//    m[0] = n[0], m[1] = n[1], m[2] = n[2], m[3] = n[3];

-//}

-

-void __operator += (inout float a, const float b) {

-    __asm float_add a, a, b;

-}

-

-float __operator - (const float a) {

-    float c;

-    __asm float_negate c, a;

-    return c;

-}

-

-void __operator -= (inout float a, const float b) {

-    a += -b;

-}

-

-void __operator *= (inout float a, const float b) {

-    __asm float_multiply a, a, b;

-}

-

-void __operator /= (inout float a, const float b) {

-    __asm float_divide a, a, b;

-}

-

-float __operator + (const float a, const float b) {

-    float c;

-    c = a;

-    return c += b;

-}

-

-void __operator += (inout int a, const int b) {

-    a = int (float (a) + float (b));

-}

-

-int __operator - (const int a) {

-	return int (-float (a));

-}

-

-void __operator -= (inout int a, const int b) {

-    a += -b;

-}

-

-float __operator * (const float a, const float b) {

-    float c;

-    c = a;

-    return c *= b;

-}

-

-void __operator *= (inout int a, const int b) {

-    a = int (float (a) * float (b));

-}

-

-float __operator / (const float a, const float b) {

-    float c;

-    c = a;

-    return c /= b;

-}

-

-void __operator /= (inout int a, const int b) {

-    a = int (float (a) / float (b));

-}

-

-void __operator += (inout vec2 v, const vec2 u) {

-    v.x += u.x, v.y += u.y;

-}

-

-void __operator -= (inout vec2 v, const vec2 u) {

-    v.x -= u.x, v.y -= u.y;

-}

-

-void __operator *= (inout vec2 v, const vec2 u) {

-    v.x *= u.x, v.y *= u.y;

-}

-

-void __operator /= (inout vec2 v, const vec2 u) {

-    v.x /= u.x, v.y /= u.y;

-}

-

-void __operator += (inout vec3 v, const vec3 u) {

-    v.x += u.x, v.y += u.y, v.z += u.z;

-}

-

-void __operator -= (inout vec3 v, const vec3 u) {

-    v.x -= u.x, v.y -= u.y, v.z -= u.z;

-}

-

-void __operator *= (inout vec3 v, const vec3 u) {

-    v.x *= u.x, v.y *= u.y, v.z *= u.z;

-}

-

-void __operator /= (inout vec3 v, const vec3 u) {

-    v.x /= u.x, v.y /= u.y, v.z /= u.z;

-}

-

-void __operator += (inout vec4 v, const vec4 u) {

-    v.x += u.x, v.y += u.y, v.z += u.z, v.w += u.w;

-}

-

-void __operator -= (inout vec4 v, const vec4 u) {

-    v.x -= u.x, v.y -= u.y, v.z -= u.z, v.w -= u.w;

-}

-

-void __operator *= (inout vec4 v, const vec4 u) {

-    v.x *= u.x, v.y *= u.y, v.z *= u.z, v.w *= u.w;

-}

-

-void __operator /= (inout vec4 v, const vec4 u) {

-    v.x /= u.x, v.y /= u.y, v.z /= u.z, v.w /= u.w;

-}

-

-void __operator += (inout ivec2 v, const ivec2 u) {

-    v.x += u.x, v.y += u.y;

-}

-

-void __operator -= (inout ivec2 v, const ivec2 u) {

-    v.x -= u.x, v.y -= u.y;

-}

-

-void __operator *= (inout ivec2 v, const ivec2 u) {

-    v.x *= u.x, v.y *= u.y;

-}

-

-void __operator /= (inout ivec2 v, const ivec2 u) {

-    v.x /= u.x, v.y /= u.y;

-}

-

-void __operator += (inout ivec3 v, const ivec3 u) {

-    v.x += u.x, v.y += u.y, v.z += u.z;

-}

-

-void __operator -= (inout ivec3 v, const ivec3 u) {

-    v.x -= u.x, v.y -= u.y, v.z -= u.z;

-}

-

-void __operator *= (inout ivec3 v, const ivec3 u) {

-    v.x *= u.x, v.y *= u.y, v.z *= u.z;

-}

-

-void __operator /= (inout ivec3 v, const ivec3 u) {

-    v.x /= u.x, v.y /= u.y, v.z /= u.z;

-}

-

-void __operator += (inout ivec4 v, const ivec4 u) {

-    v.x += u.x, v.y += u.y, v.z += u.z, v.w += u.w;

-}

-

-void __operator -= (inout ivec4 v, const ivec4 u) {

-    v.x -= u.x, v.y -= u.y, v.z -= u.z, v.w -= u.w;

-}

-

-void __operator *= (inout ivec4 v, const ivec4 u) {

-    v.x *= u.x, v.y *= u.y, v.z *= u.z, v.w *= u.w;

-}

-

-void __operator /= (inout ivec4 v, const ivec4 u) {

-    v.x /= u.x, v.y /= u.y, v.z /= u.z, v.w /= u.w;

-}

-

-void __operator += (inout mat2 m, const mat2 n) {

-    m[0] += n[0], m[1] += n[1];

-}

-

-void __operator -= (inout mat2 m, const mat2 n) {

-    m[0] -= n[0], m[1] -= n[1];

-}

-

-vec2 __operator * (const mat2 m, const vec2 v) {

-    return vec2 (

-        v.x * m[0].x + v.y * m[1].x,

-        v.x * m[0].y + v.y * m[1].y

-    );

-}

-

-mat2 __operator * (const mat2 m, const mat2 n) {

-    return mat2 (m * n[0], m * n[1]);

-}

-

-void __operator *= (inout mat2 m, const mat2 n) {

-    m = m * n;

-}

-

-void __operator /= (inout mat2 m, const mat2 n) {

-    m[0] /= n[0], m[1] /= n[1];

-}

-

-void __operator += (inout mat3 m, const mat3 n) {

-    m[0] += n[0], m[1] += n[1], m[2] += n[2];

-}

-

-void __operator -= (inout mat3 m, const mat3 n) {

-    m[0] -= n[0], m[1] -= n[1], m[2] -= n[2];

-}

-

-vec3 __operator * (const mat3 m, const vec3 v) {

-    return vec3 (

-        v.x * m[0].x + v.y * m[1].x + v.z * m[2].x,

-        v.x * m[0].y + v.y * m[1].y + v.z * m[2].y,

-        v.x * m[0].z + v.y * m[1].z + v.z * m[2].z

-    );

-}

-

-mat3 __operator * (const mat3 m, const mat3 n) {

-    return mat3 (m * n[0], m * n[1], m * n[2]);

-}

-

-void __operator *= (inout mat3 m, const mat3 n) {

-    m = m * n;

-}

-

-void __operator /= (inout mat3 m, const mat3 n) {

-    m[0] /= n[0], m[1] /= n[1], m[2] /= n[2];

-}

-

-void __operator += (inout mat4 m, const mat4 n) {

-    m[0] += n[0], m[1] += n[1], m[2] += n[2], m[3] += n[3];

-}

-

-void __operator -= (inout mat4 m, const mat4 n) {

-    m[0] -= n[0], m[1] -= n[1], m[2] -= n[2], m[3] -= n[3];

-}

-

-vec4 __operator * (const mat4 m, const vec4 v) {

-    return vec4 (

-        v.x * m[0].x + v.y * m[1].x + v.z * m[2].x + v.w * m[3].x,

-        v.x * m[0].y + v.y * m[1].y + v.z * m[2].y + v.w * m[3].y,

-        v.x * m[0].z + v.y * m[1].z + v.z * m[2].z + v.w * m[3].z,

-        v.x * m[0].w + v.y * m[1].w + v.z * m[2].w + v.w * m[3].w

-    );

-}

-

-mat4 __operator * (const mat4 m, const mat4 n) {

-    return mat4 (m * n[0], m * n[1], m * n[2], m * n[3]);

-}

-

-void __operator *= (inout mat4 m, const mat4 n) {

-    m = m * n;

-}

-

-void __operator /= (inout mat4 m, const mat4 n) {

-    m[0] /= n[0], m[1] /= n[1], m[2] /= n[2], m[3] /= n[3];

-}

-

-void __operator += (inout vec2 v, const float a) {

-    v.x += a, v.y += a;

-}

-

-void __operator -= (inout vec2 v, const float a) {

-    v.x -= a, v.y -= a;

-}

-

-void __operator *= (inout vec2 v, const float a) {

-    v.x *= a, v.y *= a;

-}

-

-void __operator /= (inout vec2 v, const float a) {

-    v.x /= a, v.y /= a;

-}

-

-void __operator += (inout vec3 v, const float a) {

-    v.x += a, v.y += a, v.z += a;

-}

-

-void __operator -= (inout vec3 v, const float a) {

-    v.x -= a, v.y -= a, v.z -= a;

-}

-

-void __operator *= (inout vec3 v, const float a) {

-    v.x *= a, v.y *= a, v.z *= a;

-}

-

-void __operator /= (inout vec3 v, const float a) {

-    v.x /= a, v.y /= a, v.z /= a;

-}

-

-void __operator += (inout vec4 v, const float a) {

-    v.x += a, v.y += a, v.z += a, v.w += a;

-}

-

-void __operator -= (inout vec4 v, const float a) {

-    v.x -= a, v.y -= a, v.z -= a, v.w -= a;

-}

-

-void __operator *= (inout vec4 v, const float a) {

-    v.x *= a, v.y *= a, v.z *= a, v.w *= a;

-}

-

-void __operator /= (inout vec4 v, const float a) {

-    v.x /= a, v.y /= a, v.z /= a, v.w /= a;

-}

-

-void __operator += (inout mat2 m, const float a) {

-    m[0] += a, m[1] += a;

-}

-

-void __operator -= (inout mat2 m, const float a) {

-    m[0] -= a, m[1] -= a;

-}

-

-void __operator *= (inout mat2 m, const float a) {

-    m[0] *= a, m[1] *= a;

-}

-

-void __operator /= (inout mat2 m, const float a) {

-    m[0] /= a, m[1] /= a;

-}

-

-void __operator += (inout mat3 m, const float a) {

-    m[0] += a, m[1] += a, m[2] += a;

-}

-

-void __operator -= (inout mat3 m, const float a) {

-    m[0] -= a, m[1] -= a, m[2] -= a;

-}

-

-void __operator *= (inout mat3 m, const float a) {

-    m[0] *= a, m[1] *= a, m[2] *= a;

-}

-

-void __operator /= (inout mat3 m, const float a) {

-    m[0] /= a, m[1] /= a, m[2] /= a;

-}

-

-void __operator += (inout mat4 m, const float a) {

-    m[0] += a, m[1] += a, m[2] += a, m[3] += a;

-}

-

-void __operator -= (inout mat4 m, const float a) {

-    m[0] -= a, m[1] -= a, m[2] -= a, m[3] -= a;

-}

-

-void __operator *= (inout mat4 m, const float a) {

-    m[0] *= a, m[1] *= a, m[2] *= a, m[3] *= a;

-}

-

-void __operator /= (inout mat4 m, const float a) {

-    m[0] /= a, m[1] /= a, m[2] /= a, m[3] /= a;

-}

-

-vec2 __operator * (const vec2 v, const mat2 m) {

-    return vec2 (

-        v.x * m[0].x + v.y * m[0].y,

-        v.x * m[1].x + v.y * m[1].y

-    );

-}

-

-void __operator *= (inout vec2 v, const mat2 m) {

-    v = v * m;

-}

-

-vec3 __operator * (const vec3 v, const mat3 m) {

-    return vec3 (

-        v.x * m[0].x + v.y * m[0].y + v.z * m[0].z,

-        v.x * m[1].x + v.y * m[1].y + v.z * m[1].z,

-        v.x * m[2].x + v.y * m[2].y + v.z * m[2].z

-    );

-}

-

-void __operator *= (inout vec3 v, const mat3 m) {

-    v = v * m;

-}

-

-vec4 __operator * (const vec4 v, const mat4 m) {

-    return vec4 (

-        v.x * m[0].x + v.y * m[0].y + v.z * m[0].z + v.w * m[0].w,

-        v.x * m[1].x + v.y * m[1].y + v.z * m[1].z + v.w * m[1].w,

-        v.x * m[2].x + v.y * m[2].y + v.z * m[2].z + v.w * m[2].w,

-        v.x * m[3].x + v.y * m[3].y + v.z * m[3].z + v.w * m[3].w

-    );

-}

-

-void __operator *= (inout vec4 v, const mat4 m) {

-    v = v * m;

-}

-

-float __operator - (const float a, const float b) {

-    return a + -b;

-}

-

-int __operator + (const int a, const int b) {

-    int c;

-    c = a;

-    return c += b;

-}

-

-int __operator - (const int a, const int b) {

-    return a + -b;

-}

-

-int __operator * (const int a, const int b) {

-    int c;

-    return (c = a) *= b;

-}

-

-int __operator / (const int a, const int b) {

-    int c;

-    return (c = a) /= b;

-}

-

-vec2 __operator + (const vec2 v, const vec2 u) {

-    return vec2 (v.x + u.x, v.y + u.y);

-}

-

-vec2 __operator - (const vec2 v, const vec2 u) {

-    return vec2 (v.x - u.x, v.y - u.y);

-}

-

-vec3 __operator + (const vec3 v, const vec3 u) {

-    return vec3 (v.x + u.x, v.y + u.y, v.z + u.z);

-}

-

-vec3 __operator - (const vec3 v, const vec3 u) {

-    return vec3 (v.x - u.x, v.y - u.y, v.z - u.z);

-}

-

-vec4 __operator + (const vec4 v, const vec4 u) {

-    return vec4 (v.x + u.x, v.y + u.y, v.z + u.z, v.w + u.w);

-}

-

-vec4 __operator - (const vec4 v, const vec4 u) {

-    return vec4 (v.x - u.x, v.y - u.y, v.z - u.z, v.w - u.w);

-}

-

-ivec2 __operator + (const ivec2 v, const ivec2 u) {

-    return ivec2 (v.x + u.x, v.y + u.y);

-}

-

-ivec2 __operator - (const ivec2 v, const ivec2 u) {

-    return ivec2 (v.x - u.x, v.y - u.y);

-}

-

-ivec3 __operator + (const ivec3 v, const ivec3 u) {

-    return ivec3 (v.x + u.x, v.y + u.y, v.z + u.z);

-}

-

-ivec3 __operator - (const ivec3 v, const ivec3 u) {

-    return ivec3 (v.x - u.x, v.y - u.y, v.z - u.z);

-}

-

-ivec4 __operator + (const ivec4 v, const ivec4 u) {

-    return ivec4 (v.x + u.x, v.y + u.y, v.z + u.z, v.w + u.w);

-}

-

-ivec4 __operator - (const ivec4 v, const ivec4 u) {

-    return ivec4 (v.x - u.x, v.y - u.y, v.z - u.z, v.w - u.w);

-}

-

-mat2 __operator + (const mat2 m, const mat2 n) {

-    return mat2 (m[0] + n[0], m[1] + n[1]);

-}

-

-mat2 __operator - (const mat2 m, const mat2 n) {

-    return mat2 (m[0] - n[0], m[1] - n[1]);

-}

-

-mat3 __operator + (const mat3 m, const mat3 n) {

-    return mat3 (m[0] + n[0], m[1] + n[1], m[2] + n[2]);

-}

-

-mat3 __operator - (const mat3 m, const mat3 n) {

-    return mat3 (m[0] - n[0], m[1] - n[1], m[2] - n[2]);

-}

-

-mat4 __operator + (const mat4 m, const mat4 n) {

-    return mat4 (m[0] + n[0], m[1] + n[1], m[2] + n[2], m[3] + n[3]);

-}

-

-mat4 __operator - (const mat4 m, const mat4 n) {

-    return mat4 (m[0] - n[0], m[1] - n[1], m[2] - n[2], m[3] - n[3]);

-}

-

-vec2 __operator + (const float a, const vec2 u) {

-    return vec2 (a + u.x, a + u.y);

-}

-

-vec2 __operator + (const vec2 v, const float b) {

-    return vec2 (v.x + b, v.y + b);

-}

-

-vec2 __operator - (const float a, const vec2 u) {

-    return vec2 (a - u.x, a - u.y);

-}

-

-vec2 __operator - (const vec2 v, const float b) {

-    return vec2 (v.x - b, v.y - b);

-}

-

-vec2 __operator * (const float a, const vec2 u) {

-    return vec2 (a * u.x, a * u.y);

-}

-

-vec2 __operator * (const vec2 v, const float b) {

-    return vec2 (v.x * b, v.y * b);

-}

-

-vec2 __operator / (const float a, const vec2 u) {

-    return vec2 (a / u.x, a / u.y);

-}

-

-vec2 __operator / (const vec2 v, const float b) {

-    return vec2 (v.x / b, v.y / b);

-}

-

-vec3 __operator + (const float a, const vec3 u) {

-    return vec3 (a + u.x, a + u.y, a + u.z);

-}

-

-vec3 __operator + (const vec3 v, const float b) {

-    return vec3 (v.x + b, v.y + b, v.z + b);

-}

-

-vec3 __operator - (const float a, const vec3 u) {

-    return vec3 (a - u.x, a - u.y, a - u.z);

-}

-

-vec3 __operator - (const vec3 v, const float b) {

-    return vec3 (v.x - b, v.y - b, v.z - b);

-}

-

-vec3 __operator * (const float a, const vec3 u) {

-    return vec3 (a * u.x, a * u.y, a * u.z);

-}

-

-vec3 __operator * (const vec3 v, const float b) {

-    return vec3 (v.x * b, v.y * b, v.z * b);

-}

-

-vec3 __operator / (const float a, const vec3 u) {

-    return vec3 (a / u.x, a / u.y, a / u.z);

-}

-

-vec3 __operator / (const vec3 v, const float b) {

-    return vec3 (v.x / b, v.y / b, v.z / b);

-}

-

-vec4 __operator + (const float a, const vec4 u) {

-    return vec4 (a + u.x, a + u.y, a + u.z, a + u.w);

-}

-

-vec4 __operator + (const vec4 v, const float b) {

-    return vec4 (v.x + b, v.y + b, v.z + b, v.w + b);

-}

-

-vec4 __operator - (const float a, const vec4 u) {

-    return vec4 (a - u.x, a - u.y, a - u.z, a - u.w);

-}

-

-vec4 __operator - (const vec4 v, const float b) {

-    return vec4 (v.x - b, v.y - b, v.z - b, v.w - b);

-}

-

-vec4 __operator * (const float a, const vec4 u) {

-    return vec4 (a * u.x, a * u.y, a * u.z, a * u.w);

-}

-

-vec4 __operator * (const vec4 v, const float b) {

-    return vec4 (v.x * b, v.y * b, v.z * b, v.w * b);

-}

-

-vec4 __operator / (const float a, const vec4 u) {

-    return vec4 (a / u.x, a / u.y, a / u.z, a / u.w);

-}

-

-vec4 __operator / (const vec4 v, const float b) {

-    return vec4 (v.x / b, v.y / b, v.z / b, v.w / b);

-}

-

-mat2 __operator + (const float a, const mat2 n) {

-    return mat2 (a + n[0], a + n[1]);

-}

-

-mat2 __operator + (const mat2 m, const float b) {

-    return mat2 (m[0] + b, m[1] + b);

-}

-

-mat2 __operator - (const float a, const mat2 n) {

-    return mat2 (a - n[0], a - n[1]);

-}

-

-mat2 __operator - (const mat2 m, const float b) {

-    return mat2 (m[0] - b, m[1] - b);

-}

-

-mat2 __operator * (const float a, const mat2 n) {

-    return mat2 (a * n[0], a * n[1]);

-}

-

-mat2 __operator * (const mat2 m, const float b) {

-    return mat2 (m[0] * b, m[1] * b);

-}

-

-mat2 __operator / (const float a, const mat2 n) {

-    return mat2 (a / n[0], a / n[1]);

-}

-

-mat2 __operator / (const mat2 m, const float b) {

-    return mat2 (m[0] / b, m[1] / b);

-}

-

-mat3 __operator + (const float a, const mat3 n) {

-    return mat3 (a + n[0], a + n[1], a + n[2]);

-}

-

-mat3 __operator + (const mat3 m, const float b) {

-    return mat3 (m[0] + b, m[1] + b, m[2] + b);

-}

-

-mat3 __operator - (const float a, const mat3 n) {

-    return mat3 (a - n[0], a - n[1], a - n[2]);

-}

-

-mat3 __operator - (const mat3 m, const float b) {

-    return mat3 (m[0] - b, m[1] - b, m[2] - b);

-}

-

-mat3 __operator * (const float a, const mat3 n) {

-    return mat3 (a * n[0], a * n[1], a * n[2]);

-}

-

-mat3 __operator * (const mat3 m, const float b) {

-    return mat3 (m[0] * b, m[1] * b, m[2] * b);

-}

-

-mat3 __operator / (const float a, const mat3 n) {

-    return mat3 (a / n[0], a / n[1], a / n[2]);

-}

-

-mat3 __operator / (const mat3 m, const float b) {

-    return mat3 (m[0] / b, m[1] / b, m[2] / b);

-}

-

-mat4 __operator + (const float a, const mat4 n) {

-    return mat4 (a + n[0], a + n[1], a + n[2], a + n[3]);

-}

-

-mat4 __operator + (const mat4 m, const float b) {

-    return mat4 (m[0] + b, m[1] + b, m[2] + b, m[3] + b);

-}

-

-mat4 __operator - (const float a, const mat4 n) {

-    return mat4 (a - n[0], a - n[1], a - n[2], a - n[3]);

-}

-

-mat4 __operator - (const mat4 m, const float b) {

-    return mat4 (m[0] - b, m[1] - b, m[2] - b, m[3] - b);

-}

-

-mat4 __operator * (const float a, const mat4 n) {

-    return mat4 (a * n[0], a * n[1], a * n[2], a * n[3]);

-}

-

-mat4 __operator * (const mat4 m, const float b) {

-    return mat4 (m[0] * b, m[1] * b, m[2] * b, m[3] * b);

-}

-

-mat4 __operator / (const float a, const mat4 n) {

-    return mat4 (a / n[0], a / n[1], a / n[2], a / n[3]);

-}

-

-mat4 __operator / (const mat4 m, const float b) {

-    return mat4 (m[0] / b, m[1] / b, m[2] / b, m[3] / b);

-}

-

-ivec2 __operator + (const int a, const ivec2 u) {

-    return ivec2 (a + u.x, a + u.y);

-}

-

-ivec2 __operator + (const ivec2 v, const int b) {

-    return ivec2 (v.x + b, v.y + b);

-}

-

-ivec2 __operator - (const int a, const ivec2 u) {

-    return ivec2 (a - u.x, a - u.y);

-}

-

-ivec2 __operator - (const ivec2 v, const int b) {

-    return ivec2 (v.x - b, v.y - b);

-}

-

-ivec2 __operator * (const int a, const ivec2 u) {

-    return ivec2 (a * u.x, a * u.y);

-}

-

-ivec2 __operator * (const ivec2 v, const int b) {

-    return ivec2 (v.x * b, v.y * b);

-}

-

-ivec2 __operator / (const int a, const ivec2 u) {

-    return ivec2 (a / u.x, a / u.y);

-}

-

-ivec2 __operator / (const ivec2 v, const int b) {

-    return ivec2 (v.x / b, v.y / b);

-}

-

-ivec3 __operator + (const int a, const ivec3 u) {

-    return ivec3 (a + u.x, a + u.y, a + u.z);

-}

-

-ivec3 __operator + (const ivec3 v, const int b) {

-    return ivec3 (v.x + b, v.y + b, v.z + b);

-}

-

-ivec3 __operator - (const int a, const ivec3 u) {

-    return ivec3 (a - u.x, a - u.y, a - u.z);

-}

-

-ivec3 __operator - (const ivec3 v, const int b) {

-    return ivec3 (v.x - b, v.y - b, v.z - b);

-}

-

-ivec3 __operator * (const int a, const ivec3 u) {

-    return ivec3 (a * u.x, a * u.y, a * u.z);

-}

-

-ivec3 __operator * (const ivec3 v, const int b) {

-    return ivec3 (v.x * b, v.y * b, v.z * b);

-}

-

-ivec3 __operator / (const int a, const ivec3 u) {

-    return ivec3 (a / u.x, a / u.y, a / u.z);

-}

-

-ivec3 __operator / (const ivec3 v, const int b) {

-    return ivec3 (v.x / b, v.y / b, v.z / b);

-}

-

-ivec4 __operator + (const int a, const ivec4 u) {

-    return ivec4 (a + u.x, a + u.y, a + u.z, a + u.w);

-}

-

-ivec4 __operator + (const ivec4 v, const int b) {

-    return ivec4 (v.x + b, v.y + b, v.z + b, v.w + b);

-}

-

-ivec4 __operator - (const int a, const ivec4 u) {

-    return ivec4 (a - u.x, a - u.y, a - u.z, a - u.w);

-}

-

-ivec4 __operator - (const ivec4 v, const int b) {

-    return ivec4 (v.x - b, v.y - b, v.z - b, v.w - b);

-}

-

-ivec4 __operator * (const int a, const ivec4 u) {

-    return ivec4 (a * u.x, a * u.y, a * u.z, a * u.w);

-}

-

-ivec4 __operator * (const ivec4 v, const int b) {

-    return ivec4 (v.x * b, v.y * b, v.z * b, v.w * b);

-}

-

-ivec4 __operator / (const int a, const ivec4 u) {

-    return ivec4 (a / u.x, a / u.y, a / u.z, a / u.w);

-}

-

-ivec4 __operator / (const ivec4 v, const int b) {

-    return ivec4 (v.x / b, v.y / b, v.z / b, v.w / b);

-}

-

-vec2 __operator * (const vec2 v, const vec2 u) {

-    return vec2 (v.x * u.x, v.y * u.y);

-}

-

-vec3 __operator * (const vec3 v, const vec3 u) {

-    return vec3 (v.x * u.x, v.y * u.y, v.z * u.z);

-}

-

-vec4 __operator * (const vec4 v, const vec4 u) {

-    return vec4 (v.x * u.x, v.y * u.y, v.z * u.z, v.w * u.w);

-}

-

-ivec2 __operator * (const ivec2 v, const ivec2 u) {

-    return ivec2 (v.x * u.x, v.y * u.y);

-}

-

-ivec3 __operator * (const ivec3 v, const ivec3 u) {

-    return ivec3 (v.x * u.x, v.y * u.y, v.z * u.z);

-}

-

-ivec4 __operator * (const ivec4 v, const ivec4 u) {

-    return ivec4 (v.x * u.x, v.y * u.y, v.z * u.z, v.w * u.w);

-}

-

-vec2 __operator / (const vec2 v, const vec2 u) {

-    return vec2 (v.x / u.x, v.y / u.y);

-}

-

-vec3 __operator / (const vec3 v, const vec3 u) {

-    return vec3 (v.x / u.x, v.y / u.y, v.z / u.z);

-}

-

-vec4 __operator / (const vec4 v, const vec4 u) {

-    return vec4 (v.x / u.x, v.y / u.y, v.z / u.z, v.w / u.w);

-}

-

-ivec2 __operator / (const ivec2 v, const ivec2 u) {

-    return ivec2 (v.x / u.x, v.y / u.y);

-}

-

-ivec3 __operator / (const ivec3 v, const ivec3 u) {

-    return ivec3 (v.x / u.x, v.y / u.y, v.z / u.z);

-}

-

-ivec4 __operator / (const ivec4 v, const ivec4 u) {

-    return ivec4 (v.x / u.x, v.y / u.y, v.z / u.z, v.w / u.w);

-}

-

-mat2 __operator / (const mat2 m, const mat2 n) {

-    return mat2 (m[0] / n[0], m[1] / n[1]);

-}

-

-mat3 __operator / (const mat3 m, const mat3 n) {

-    return mat3 (m[0] / n[0], m[1] / n[1], m[2] / n[2]);

-}

-

-mat4 __operator / (const mat4 m, const mat4 n) {

-    return mat4 (m[0] / n[0], m[1] / n[1], m[2] / n[2], m[3] / n[3]);

-}

-

-vec2 __operator - (const vec2 v) {

-    return vec2 (-v.x, -v.y);

-}

-

-vec3 __operator - (const vec3 v) {

-    return vec3 (-v.x, -v.y, -v.z);

-}

-

-vec4 __operator - (const vec4 v) {

-    return vec4 (-v.x, -v.y, -v.z, -v.w);

-}

-

-ivec2 __operator - (const ivec2 v) {

-    return ivec2 (-v.x, -v.y);

-}

-

-ivec3 __operator - (const ivec3 v) {

-    return ivec3 (-v.x, -v.y, -v.z);

-}

-

-ivec4 __operator - (const ivec4 v) {

-    return ivec4 (-v.x, -v.y, -v.z, -v.w);

-}

-

-mat2 __operator - (const mat2 m) {

-    return mat2 (-m[0], -m[1]);

-}

-

-mat3 __operator - (const mat3 m) {

-    return mat3 (-m[0], -m[1], -m[2]);

-}

-

-mat4 __operator - (const mat4 m) {

-    return mat4 (-m[0], -m[1], -m[2], -m[3]);

-}

-

-// 

-// NOTE: postfix increment and decrement operators take additional dummy int parameter to

-//       distinguish their prototypes from prefix ones.

-// 

-

-void __operator -- (inout float a) {

-    a -= 1.0;

-}

-

-void __operator -- (inout int a) {

-    a -= 1;

-}

-

-void __operator -- (inout vec2 v) {

-    --v.x, --v.y;

-}

-

-void __operator -- (inout vec3 v) {

-    --v.x, --v.y, --v.z;

-}

-

-void __operator -- (inout vec4 v) {

-    --v.x, --v.y, --v.z, --v.w;

-}

-

-void __operator -- (inout ivec2 v) {

-    --v.x, --v.y;

-}

-

-void __operator -- (inout ivec3 v) {

-    --v.x, --v.y, --v.z;

-}

-

-void __operator -- (inout ivec4 v) {

-    --v.x, --v.y, --v.z, --v.w;

-}

-

-void __operator -- (inout mat2 m) {

-    --m[0], --m[1];

-}

-

-void __operator -- (inout mat3 m) {

-    --m[0], --m[1], --m[2];

-}

-

-void __operator -- (inout mat4 m) {

-    --m[0], --m[1], --m[2], --m[3];

-}

-

-void __operator ++ (inout float a) {

-    a += 1.0;

-}

-

-void __operator ++ (inout int a) {

-    a += 1;

-}

-

-void __operator ++ (inout vec2 v) {

-    ++v.x, ++v.y;

-}

-

-void __operator ++ (inout vec3 v) {

-    ++v.x, ++v.y, ++v.z;

-}

-

-void __operator ++ (inout vec4 v) {

-    ++v.x, ++v.y, ++v.z, ++v.w;

-}

-

-void __operator ++ (inout ivec2 v) {

-    ++v.x, ++v.y;

-}

-

-void __operator ++ (inout ivec3 v) {

-    ++v.x, ++v.y, ++v.z;

-}

-

-void __operator ++ (inout ivec4 v) {

-    ++v.x, ++v.y, ++v.z, ++v.w;

-}

-

-void __operator ++ (inout mat2 m) {

-    ++m[0], ++m[1];

-}

-

-void __operator ++ (inout mat3 m) {

-    ++m[0], ++m[1], ++m[2];

-}

-

-void __operator ++ (inout mat4 m) {

-    ++m[0], ++m[1], ++m[2], ++m[3];

-}

-

-float __operator -- (inout float a, const int) {

-    float c;

-    c = a;

-    --a;

-    return c;

-}

-

-int __operator -- (inout int a, const int) {

-    int c;

-    c = a;

-    --a;

-    return c;

-}

-

-vec2 __operator -- (inout vec2 v, const int) {

-    return vec2 (v.x--, v.y--);

-}

-

-vec3 __operator -- (inout vec3 v, const int) {

-    return vec3 (v.x--, v.y--, v.z--);

-}

-

-vec4 __operator -- (inout vec4 v, const int) {

-    return vec4 (v.x--, v.y--, v.z--, v.w--);

-}

-

-ivec2 __operator -- (inout ivec2 v, const int) {

-    return ivec2 (v.x--, v.y--);

-}

-

-ivec3 __operator -- (inout ivec3 v, const int) {

-    return ivec3 (v.x--, v.y--, v.z--);

-}

-

-ivec4 __operator -- (inout ivec4 v, const int) {

-    return ivec4 (v.x--, v.y--, v.z--, v.w--);

-}

-

-mat2 __operator -- (inout mat2 m, const int) {

-    return mat2 (m[0]--, m[1]--);

-}

-

-mat3 __operator -- (inout mat3 m, const int) {

-    return mat3 (m[0]--, m[1]--, m[2]--);

-}

-

-mat4 __operator -- (inout mat4 m, const int) {

-    return mat4 (m[0]--, m[1]--, m[2]--, m[3]--);

-}

-

-float __operator ++ (inout float a, const int) {

-    float c;

-    c = a;

-    ++a;

-    return c;

-}

-

-int __operator ++ (inout int a, const int) {

-    int c;

-    c = a;

-    ++a;

-    return c;

-}

-

-vec2 __operator ++ (inout vec2 v, const int) {

-    return vec2 (v.x++, v.y++);

-}

-

-vec3 __operator ++ (inout vec3 v, const int) {

-    return vec3 (v.x++, v.y++, v.z++);

-}

-

-vec4 __operator ++ (inout vec4 v, const int) {

-    return vec4 (v.x++, v.y++, v.z++, v.w++);

-}

-

-ivec2 __operator ++ (inout ivec2 v, const int) {

-    return ivec2 (v.x++, v.y++);

-}

-

-ivec3 __operator ++ (inout ivec3 v, const int) {

-    return ivec3 (v.x++, v.y++, v.z++);

-}

-

-ivec4 __operator ++ (inout ivec4 v, const int) {

-    return ivec4 (v.x++, v.y++, v.z++, v.w++);

-}

-

-mat2 __operator ++ (inout mat2 m, const int) {

-    return mat2 (m[0]++, m[1]++);

-}

-

-mat3 __operator ++ (inout mat3 m, const int) {

-    return mat3 (m[0]++, m[1]++, m[2]++);

-}

-

-mat4 __operator ++ (inout mat4 m, const int) {

-    return mat4 (m[0]++, m[1]++, m[2]++, m[3]++);

-}

-

-bool __operator < (const float a, const float b) {

-    bool c;

-    __asm float_less c, a, b;

-    return c;

-}

-

-bool __operator < (const int a, const int b) {

-	return float (a) < float (b);

-}

-

-bool __operator > (const float a, const float b) {

-    return b < a;

-}

-

-bool __operator > (const int a, const int b) {

-    return b < a;

-}

-

-bool __operator >= (const float a, const float b) {

-    return a > b || a == b;

-}

-

-bool __operator >= (const int a, const int b) {

-    return a > b || a == b;

-}

-

-bool __operator <= (const float a, const float b) {

-    return a < b || a == b;

-}

-

-bool __operator <= (const int a, const int b) {

-    return a < b || a == b;

-}

-

-//bool __operator == (const float a, const float b) {

-//    bool c;

-//    __asm float_equal c, a, b;

-//    return c;

-//}

-//

-//bool __operator == (const int a, const int b) {

-//	return float (a) == float (b);

-//}

-//

-//bool __operator == (const bool a, const bool b) {

-//    return float (a) == float (b);

-//}

-//

-//bool __operator == (const vec2 v, const vec2 u) {

-//    return v.x == u.x && v.y == u.y;

-//}

-//

-//bool __operator == (const vec3 v, const vec3 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z;

-//}

-//

-//bool __operator == (const vec4 v, const vec4 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z && v.w == u.w;

-//}

-//

-//bool __operator == (const ivec2 v, const ivec2 u) {

-//    return v.x == u.x && v.y == u.y;

-//}

-//

-//bool __operator == (const ivec3 v, const ivec3 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z;

-//}

-//

-//bool __operator == (const ivec4 v, const ivec4 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z && v.w == u.w;

-//}

-//

-//bool __operator == (const bvec2 v, const bvec2 u) {

-//    return v.x == u.x && v.y == u.y;

-//}

-//

-//bool __operator == (const bvec3 v, const bvec3 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z;

-//}

-//

-//bool __operator == (const bvec4 v, const bvec4 u) {

-//    return v.x == u.x && v.y == u.y && v.z == u.z && v.w == u.w;

-//}

-//

-//bool __operator == (const mat2 m, const mat2 n) {

-//    return m[0] == n[0] && m[1] == n[1];

-//}

-//

-//bool __operator == (const mat3 m, const mat3 n) {

-//    return m[0] == n[0] && m[1] == n[1] && m[2] == n[2];

-//}

-//

-//bool __operator == (const mat4 m, const mat4 n) {

-//    return m[0] == n[0] && m[1] == n[1] && m[2] == n[2] && m[3] == n[3];

-//}

-//

-//bool __operator != (const float a, const float b) {

-//    return !(a == b);

-//}

-//

-//bool __operator != (const int a, const int b) {

-//    return !(a == b);

-//}

-//

-//bool __operator != (const bool a, const bool b) {

-//    return !(a == b);

-//}

-//

-//bool __operator != (const vec2 v, const vec2 u) {

-//    return v.x != u.x || v.y != u.y;

-//}

-//

-//bool __operator != (const vec3 v, const vec3 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z;

-//}

-//

-//bool __operator != (const vec4 v, const vec4 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z || v.w != u.w;

-//}

-//

-//bool __operator != (const ivec2 v, const ivec2 u) {

-//    return v.x != u.x || v.y != u.y;

-//}

-//

-//bool __operator != (const ivec3 v, const ivec3 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z;

-//}

-//

-//bool __operator != (const ivec4 v, const ivec4 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z || v.w != u.w;

-//}

-//

-//bool __operator != (const bvec2 v, const bvec2 u) {

-//    return v.x != u.x || v.y != u.y;

-//}

-//

-//bool __operator != (const bvec3 v, const bvec3 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z;

-//}

-//

-//bool __operator != (const bvec4 v, const bvec4 u) {

-//    return v.x != u.x || v.y != u.y || v.z != u.z || v.w != u.w;

-//}

-//

-//bool __operator != (const mat2 m, const mat2 n) {

-//    return m[0] != n[0] || m[1] != n[1];

-//}

-//

-//bool __operator != (const mat3 m, const mat3 n) {

-//    return m[0] != n[0] || m[1] != n[1] || m[2] != n[2];

-//}

-//

-//bool __operator != (const mat4 m, const mat4 n) {

-//    return m[0] != n[0] || m[1] != n[1] || m[2] != n[2] || m[3] != n[3];

-//}

-

-bool __operator ^^ (const bool a, const bool b) {

-    return a != b;

-}

-

-// 

-// These operators are handled internally by the compiler:

-// 

-// bool __operator && (bool a, bool b) {

-//     return a ? b : false;

-// }

-// bool __operator || (bool a, bool b) {

-//     return a ? true : b;

-// }

-// 

-

-bool __operator ! (const bool a) {

-    return a == false;

-}

-

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_fragment_builtin.gc b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_fragment_builtin.gc
deleted file mode 100755
index b4c5aa3ec..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_fragment_builtin.gc
+++ /dev/null
@@ -1,366 +0,0 @@
-
-// 
-// TODO:
-// - implement texture1D, texture2D, texture3D, textureCube,
-// - implement shadow1D, shadow2D,
-// - implement dFdx, dFdy,
-// 
-
-// 
-// From Shader Spec, ver. 1.10, rev. 59
-// 
-// The output of the fragment shader is processed by the fixed function operations at the back end
-// of the OpenGL pipeline. Fragment shaders output values to the OpenGL pipeline using the built-in
-// variables gl_FragColor, gl_FragData and gl_FragDepth, unless the discard keyword is executed.
-// 
-// These variables may be written more than once within a fragment shader. If so, the last value
-// assigned is the one used in the subsequent fixed function pipeline. The values written to these
-// variables may be read back after writing them. Reading from these variables before writing them
-// results in an undefined value. The fixed functionality computed depth for a fragment may be
-// obtained by reading gl_FragCoord.z, described below.
-// 
-// Writing to gl_FragColor specifies the fragment color that will be used by the subsequent fixed
-// functionality pipeline. If subsequent fixed functionality consumes fragment color and an
-// execution of a fragment shader does not write a value to gl_FragColor then the fragment color
-// consumed is undefined.
-// 
-// If the frame buffer is configured as a color index buffer then behavior is undefined when using
-// a fragment shader.
-// 
-// Writing to gl_FragDepth will establish the depth value for the fragment being processed. If
-// depth buffering is enabled, and a shader does not write gl_FragDepth, then the fixed function
-// value for depth will be used as the fragment's depth value. If a shader statically assigns
-// a value to gl_FragDepth, and there is an execution path through the shader that does not set
-// gl_FragDepth, then the value of the fragment's depth may be undefined for executions of the
-// shader that take that path. That is, if a shader statically contains a write gl_FragDepth, then
-// it is responsible for always writing it.
-//
-// (A shader contains a static assignment to a variable x if, after pre-processing, the shader
-// contains statement that would write x, whether or not run-time flow of control will cause
-// that statement to be executed.)
-//
-// The variable gl_FragData is an array. Writing to gl_FragData[n] specifies the fragment data
-// that will be used by the subsequent fixed functionality pipeline for data n. If subsequent
-// fixed functionality consumes fragment data and an execution of a fragment shader does not
-// write a value to it, then the fragment data consumed is undefined.
-//
-// If a shader statically assigns a value to gl_FragColor, it may not assign a value to any element
-// of gl_FragData. If a shader statically writes a value to any element of gl_FragData, it may not
-// assign a value to gl_FragColor. That is, a shader may assign values to either gl_FragColor or
-// gl_FragData, but not both.
-// 
-// If a shader executes the discard keyword, the fragment is discarded, and the values of
-// gl_FragDepth, gl_FragColor and gl_FragData become irrelevant.
-// 
-// The variable gl_FragCoord is available as a read-only variable from within fragment shaders
-// and it holds the window relative coordinates x, y, z, and 1/w values for the fragment. This
-// value is the result of the fixed functionality that interpolates primitives after vertex
-// processing to generate fragments. The z component is the depth value that would be used for
-// the fragment's depth if a shader contained no writes to gl_FragDepth. This is useful for
-// invariance if a shader conditionally computes gl_FragDepth but otherwise wants the fixed
-// functionality fragment depth.
-// 
-// The fragment shader has access to the read-only built-in variable gl_FrontFacing whose value
-// is true if the fragment belongs to a front-facing primitive. One use of this is to emulate
-// two-sided lighting by selecting one of two colors calculated by the vertex shader.
-// 
-// The built-in variables that are accessible from a fragment shader are intrinsically given types
-// as follows:
-// 
-
-__fixed_input vec4 gl_FragCoord;
-__fixed_input bool gl_FrontFacing;
-__fixed_output vec4 gl_FragColor;
-__fixed_output vec4 gl_FragData[gl_MaxDrawBuffers];
-__fixed_output float gl_FragDepth;
-
-// 
-// However, they do not behave like variables with no qualifier; their behavior is as described
-// above. These built-in variables have global scope.
-// 
-
-// 
-// Unlike user-defined varying variables, the built-in varying variables don't have a strict
-// one-to-one correspondence between the vertex language and the fragment language. Two sets are
-// provided, one for each language. Their relationship is described below.
-// 
-// The following varying variables are available to read from in a fragment shader. The gl_Color
-// and gl_SecondaryColor names are the same names as attributes passed to the vertex shader.
-// However, there is no name conflict, because attributes are visible only in vertex shaders
-// and the following are only visible in a fragment shader.
-// 
-
-varying vec4 gl_Color;
-varying vec4 gl_SecondaryColor;
-varying vec4 gl_TexCoord[];                             // at most will be gl_MaxTextureCoords
-varying float gl_FogFragCoord;
-
-// 
-// The values in gl_Color and gl_SecondaryColor will be derived automatically by the system from
-// gl_FrontColor, gl_BackColor, gl_FrontSecondaryColor, and gl_BackSecondaryColor based on which
-// face is visible. If fixed functionality is used for vertex processing, then gl_FogFragCoord will
-// either be the z-coordinate of the fragment in eye space, or the interpolation of the fog
-// coordinate, as described in section 3.10 of the OpenGL 1.4 Specification. The gl_TexCoord[]
-// values are the interpolated gl_TexCoord[] values from a vertex shader or the texture coordinates
-// of any fixed pipeline based vertex functionality.
-// 
-// Indices to the fragment shader gl_TexCoord array are as described above in the vertex shader
-// text.
-// 
-
-// 
-// The OpenGL Shading Language defines an assortment of built-in convenience functions for scalar
-// and vector operations. Many of these built-in functions can be used in more than one type
-// of shader, but some are intended to provide a direct mapping to hardware and so are available
-// only for a specific type of shader.
-// 
-// The built-in functions basically fall into three categories:
-// 
-// * They expose some necessary hardware functionality in a convenient way such as accessing
-//   a texture map. There is no way in the language for these functions to be emulated by a shader.
-// 
-// * They represent a trivial operation (clamp, mix, etc.) that is very simple for the user
-//   to write, but they are very common and may have direct hardware support. It is a very hard
-//   problem for the compiler to map expressions to complex assembler instructions.
-// 
-// * They represent an operation graphics hardware is likely to accelerate at some point. The
-//   trigonometry functions fall into this category.
-// 
-// Many of the functions are similar to the same named ones in common C libraries, but they support
-// vector input as well as the more traditional scalar input.
-// 
-// Applications should be encouraged to use the built-in functions rather than do the equivalent
-// computations in their own shader code since the built-in functions are assumed to be optimal
-// (e.g., perhaps supported directly in hardware).
-// 
-// User code can replace built-in functions with their own if they choose, by simply re-declaring
-// and defining the same name and argument list.
-// 
-
-// 
-// 8.7 Texture Lookup Functions
-// 
-// Texture lookup functions are available to both vertex and fragment shaders. However, level
-// of detail is not computed by fixed functionality for vertex shaders, so there are some
-// differences in operation between vertex and fragment texture lookups. The functions in the table
-// below provide access to textures through samplers, as set up through the OpenGL API. Texture
-// properties such as size, pixel format, number of dimensions, filtering method, number of mip-map
-// levels, depth comparison, and so on are also defined by OpenGL API calls. Such properties are
-// taken into account as the texture is accessed via the built-in functions defined below.
-// 
-// If a non-shadow texture call is made to a sampler that represents a depth texture with depth
-// comparisons turned on, then results are undefined. If a shadow texture call is made to a sampler
-// that represents a depth texture with depth comparisions turned off, the results are undefined.
-// If a shadow texture call is made to a sampler that does not represent a depth texture, then
-// results are undefined.
-// 
-// In all functions below, the bias parameter is optional for fragment shaders. The bias parameter
-// is not accepted in a vertex shader. For a fragment shader, if bias is present, it is added to
-// the calculated level of detail prior to performing the texture access operation. If the bias
-// parameter is not provided, then the implementation automatically selects level of detail:
-// For a texture that is not mip-mapped, the texture is used directly. If it is mip-mapped and
-// running in a fragment shader, the LOD computed by the implementation is used to do the texture
-// lookup. If it is mip-mapped and running on the vertex shader, then the base texture is used.
-// 
-// The built-ins suffixed with "Lod" are allowed only in a vertex shader. For the "Lod" functions,
-// lod is directly used as the level of detail.
-// 
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 1D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate coord.s is divided by
-// the last component of coord.
-// 
-// XXX
-vec4 texture1D (sampler1D sampler, float coord, float bias) {
-    return vec4 (0.0);
-}
-vec4 texture1DProj (sampler1D sampler, vec2 coord, float bias) {
-    return texture1D (sampler, coord.s / coord.t, bias);
-}
-vec4 texture1DProj (sampler1D sampler, vec4 coord, float bias) {
-    return texture1D (sampler, coord.s / coord.q, bias);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 2D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate (coord.s, coord.t) is
-// divided by the last component of coord. The third component of coord is ignored for the vec4
-// coord variant.
-// 
-// XXX
-vec4 texture2D (sampler2D sampler, vec2 coord, float bias) {
-    return vec4 (0.0);
-}
-vec4 texture2DProj (sampler2D sampler, vec3 coord, float bias) {
-    return texture2D (sampler, vec2 (coord.s / coord.p, coord.t / coord.p), bias);
-}
-vec4 texture2DProj (sampler2D sampler, vec4 coord, float bias) {
-    return texture2D (sampler, vec2 (coord.s / coord.q, coord.s / coord.q), bias);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 3D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate is divided by coord.q.
-// 
-// XXX
-vec4 texture3D (sampler3D sampler, vec3 coord, float bias) {
-    return vec4 (0.0);
-}   
-vec4 texture3DProj (sampler3D sampler, vec4 coord, float bias) {
-    return texture3DProj (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.p / coord.q),
-        bias);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the cube map texture currently bound
-// to sampler. The direction of coord is used to select which face to do a 2-dimensional texture
-// lookup in, as described in section 3.8.6 in version 1.4 of the OpenGL specification.
-// 
-// XXX
-vec4 textureCube (samplerCube sampler, vec3 coord, float bias) {
-    return vec4 (0.0);
-}
-
-// 
-// Use texture coordinate coord to do a depth comparison lookup on the depth texture bound
-// to sampler, as described in section 3.8.14 of version 1.4 of the OpenGL specification. The 3rd
-// component of coord (coord.p) is used as the R value. The texture bound to sampler must be a
-// depth texture, or results are undefined. For the projective ("Proj") version of each built-in,
-// the texture coordinate is divide by coord.q, giving a depth value R of coord.p/coord.q. The
-// second component of coord is ignored for the "1D" variants.
-// 
-// XXX
-vec4 shadow1D (sampler1DShadow sampler, vec3 coord, float bias) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 shadow2D (sampler2DShadow sampler, vec3 coord, float bias) {
-    return vec4 (0.0);
-}
-vec4 shadow1DProj (sampler1DShadow sampler, vec4 coord, float bias) {
-    return shadow1D (sampler, vec3 (coord.s / coord.q, 0.0, coord.p / coord.q), bias);
-}
-vec4 shadow2DProj (sampler2DShadow sampler, vec4 coord, float bias) {
-    return shadow2D (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.p / coord.q), bias);
-}
-
-//
-// 8.8 Fragment Processing Functions
-// 
-// Fragment processing functions are only available in shaders intended for use on the fragment
-// processor. Derivatives may be computationally expensive and/or numerically unstable. Therefore,
-// an OpenGL implementation may approximate the true derivatives by using a fast but not entirely
-// accurate derivative computation.
-// 
-// The expected behavior of a derivative is specified using forward/backward differencing.
-// 
-// Forward differencing:
-// 
-// F(x+dx) - F(x) ~ dFdx(x) * dx            1a
-// dFdx(x) ~ (F(x+dx) - F(x)) / dx          1b
-// 
-// Backward differencing:
-// 
-// F(x-dx) - F(x) ~ -dFdx(x) * dx           2a
-// dFdx(x) ~ (F(x) - F(x-dx)) / dx          2b
-// 
-// With single-sample rasterization, dx <= 1.0 in equations 1b and 2b. For multi-sample
-// rasterization, dx < 2.0 in equations 1b and 2b.
-// 
-// dFdy is approximated similarly, with y replacing x.
-// 
-// A GL implementation may use the above or other methods to perform the calculation, subject
-// to the following conditions:
-// 
-// 1) The method may use piecewise linear approximations. Such linear approximations imply that
-//    higher order derivatives, dFdx(dFdx(x)) and above, are undefined.
-// 
-// 2) The method may assume that the function evaluated is continuous. Therefore derivatives within
-//    the body of a non-uniform conditional are undefined.
-// 
-// 3) The method may differ per fragment, subject to the constraint that the method may vary by
-//    window coordinates, not screen coordinates. The invariance requirement described in section
-//    3.1 of the OpenGL 1.4 specification is relaxed for derivative calculations, because
-//    the method may be a function of fragment location.
-// 
-// Other properties that are desirable, but not required, are:
-// 
-// 4) Functions should be evaluated within the interior of a primitive (interpolated, not
-//    extrapolated).
-// 
-// 5) Functions for dFdx should be evaluated while holding y constant. Functions for dFdy should
-//    be evaluated while holding x constant. However, mixed higher order derivatives, like
-//    dFdx(dFdy(y)) and dFdy(dFdx(x)) are undefined.
-// 
-// In some implementations, varying degrees of derivative accuracy may be obtained by providing
-// GL hints (section 5.6 of the OpenGL 1.4 specification), allowing a user to make an image
-// quality versus speed tradeoff.
-// 
-
-// 
-// Returns the derivative in x using local differencing for the input argument p.
-// 
-// XXX
-float dFdx (float p) {
-    return 0.0;
-}
-// XXX
-vec2 dFdx (vec2 p) {
-    return vec2 (0.0);
-}
-// XXX
-vec3 dFdx (vec3 p) {
-    return vec3 (0.0);
-}
-// XXX
-vec4 dFdx (vec4 p) {
-    return vec4 (0.0);
-}
-
-// 
-// Returns the derivative in y using local differencing for the input argument p.
-// 
-// These two functions are commonly used to estimate the filter width used to anti-alias procedural
-// textures.We are assuming that the expression is being evaluated in parallel on a SIMD array so
-// that at any given point in time the value of the function is known at the grid points
-// represented by the SIMD array. Local differencing between SIMD array elements can therefore
-// be used to derive dFdx, dFdy, etc.
-// 
-// XXX
-float dFdy (float p) {
-    return 0.0;
-}
-// XXX
-vec2 dFdy (vec2 p) {
-    return vec2 (0.0);
-}
-// XXX
-vec3 dFdy (vec3 p) {
-    return vec3 (0.0);
-}
-// XXX
-vec4 dFdy (vec4 p) {
-    return vec4 (0.0);
-}
-
-// 
-// Returns the sum of the absolute derivative in x and y using local differencing for the input
-// argument p, i.e.:
-// 
-// return = abs (dFdx (p)) + abs (dFdy (p));
-// 
-
-float fwidth (float p) {
-    return abs (dFdx (p)) + abs (dFdy (p));
-}
-vec2 fwidth (vec2 p) {
-    return abs (dFdx (p)) + abs (dFdy (p));
-}
-vec3 fwidth (vec3 p) {
-    return abs (dFdx (p)) + abs (dFdy (p));
-}
-vec4 fwidth (vec4 p) {
-    return abs (dFdx (p)) + abs (dFdy (p));
-}
-
diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_shader.syn b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_shader.syn
deleted file mode 100644
index 65d7fe353..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_shader.syn
+++ /dev/null
@@ -1,1508 +0,0 @@
-/*

- * Mesa 3-D graphics library

- * Version:  6.2

- *

- * Copyright (C) 2004-2005  Brian Paul   All Rights Reserved.

- *

- * Permission is hereby granted, free of charge, to any person obtaining a

- * copy of this software and associated documentation files (the "Software"),

- * to deal in the Software without restriction, including without limitation

- * the rights to use, copy, modify, merge, publish, distribute, sublicense,

- * and/or sell copies of the Software, and to permit persons to whom the

- * Software is furnished to do so, subject to the following conditions:

- *

- * The above copyright notice and this permission notice shall be included

- * in all copies or substantial portions of the Software.

- *

- * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS

- * OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,

- * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.  IN NO EVENT SHALL

- * BRIAN PAUL BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN

- * AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN

- * CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.

- */

-

-/*

- * \file slang_shader.syn

- * slang vertex/fragment shader syntax

- * \author Michal Krol

- */

-

-/*

- * usage:

- *   syn2c slang_shader.syn > slang_shader_syn.h

- *

- * when modifying or extending this file, several things must be taken into consideration:

- * - when adding new operators that were marked as reserved in the initial specification,

- *   one must only uncomment particular lines of code that refer to operators being added;

- * - when adding new shader target, one must reserve new value for shader_type register and

- *   use it in .if constructs for symbols that are exclusive for that shader;

- * - some symbols mimic output of other symbols - the best example is the "for" construct:

- *   expression "for (foo(); ; bar())" is seen as "for (foo(); true; bar())" by the output

- *   processor - hence, special care must be taken when rearranging output of essential symbols;

- * - order of single-quoted tokens does matter in alternatives - so do not parse "<" operator

- *   before "<<" and "<<" before "<<=";

- * - all double-quoted tokens are internally preprocessed to eliminate problems with parsing

- *   strings that are prefixes of other strings, like "sampler1D" and "sampler1DShadow";

- */

-

-.syntax translation_unit;

-

-/* revision number - increment after each change affecting emitted output */

-.emtcode REVISION                                   2

-

-/* external declaration */

-.emtcode EXTERNAL_NULL                              0

-.emtcode EXTERNAL_FUNCTION_DEFINITION               1

-.emtcode EXTERNAL_DECLARATION                       2

-

-/* declaration */

-.emtcode DECLARATION_FUNCTION_PROTOTYPE             1

-.emtcode DECLARATION_INIT_DECLARATOR_LIST           2

-

-/* function type */

-.emtcode FUNCTION_ORDINARY                          0

-.emtcode FUNCTION_CONSTRUCTOR                       1

-.emtcode FUNCTION_OPERATOR                          2

-

-/* operator type */

-.emtcode OPERATOR_ASSIGN                            1

-.emtcode OPERATOR_ADDASSIGN                         2

-.emtcode OPERATOR_SUBASSIGN                         3

-.emtcode OPERATOR_MULASSIGN                         4

-.emtcode OPERATOR_DIVASSIGN                         5

-/*.emtcode OPERATOR_MODASSIGN                         6*/

-/*.emtcode OPERATOR_LSHASSIGN                         7*/

-/*.emtcode OPERATOR_RSHASSIGN                         8*/

-/*.emtcode OPERATOR_ORASSIGN                          9*/

-/*.emtcode OPERATOR_XORASSIGN                         10*/

-/*.emtcode OPERATOR_ANDASSIGN                         11*/

-.emtcode OPERATOR_LOGICALXOR                        12

-/*.emtcode OPERATOR_BITOR                             13*/

-/*.emtcode OPERATOR_BITXOR                            14*/

-/*.emtcode OPERATOR_BITAND                            15*/

-.emtcode OPERATOR_EQUAL                             16

-.emtcode OPERATOR_NOTEQUAL                          17

-.emtcode OPERATOR_LESS                              18

-.emtcode OPERATOR_GREATER                           19

-.emtcode OPERATOR_LESSEQUAL                         20

-.emtcode OPERATOR_GREATEREQUAL                      21

-/*.emtcode OPERATOR_LSHIFT                            22*/

-/*.emtcode OPERATOR_RSHIFT                            23*/

-.emtcode OPERATOR_MULTIPLY                          24

-.emtcode OPERATOR_DIVIDE                            25

-/*.emtcode OPERATOR_MODULUS                           26*/

-.emtcode OPERATOR_INCREMENT                         27

-.emtcode OPERATOR_DECREMENT                         28

-.emtcode OPERATOR_PLUS                              29

-.emtcode OPERATOR_MINUS                             30

-/*.emtcode OPERATOR_COMPLEMENT                        31*/

-.emtcode OPERATOR_NOT                               32

-

-/* init declarator list */

-.emtcode DECLARATOR_NONE                            0

-.emtcode DECLARATOR_NEXT                            1

-

-/* variable declaration */

-.emtcode VARIABLE_NONE                              0

-.emtcode VARIABLE_IDENTIFIER                        1

-.emtcode VARIABLE_INITIALIZER                       2

-.emtcode VARIABLE_ARRAY_EXPLICIT                    3

-.emtcode VARIABLE_ARRAY_UNKNOWN                     4

-

-/* type qualifier */

-.emtcode TYPE_QUALIFIER_NONE                        0

-.emtcode TYPE_QUALIFIER_CONST                       1

-.emtcode TYPE_QUALIFIER_ATTRIBUTE                   2

-.emtcode TYPE_QUALIFIER_VARYING                     3

-.emtcode TYPE_QUALIFIER_UNIFORM                     4

-.emtcode TYPE_QUALIFIER_FIXEDOUTPUT                 5

-.emtcode TYPE_QUALIFIER_FIXEDINPUT                  6

-

-/* type specifier */

-.emtcode TYPE_SPECIFIER_VOID                        0

-.emtcode TYPE_SPECIFIER_BOOL                        1

-.emtcode TYPE_SPECIFIER_BVEC2                       2

-.emtcode TYPE_SPECIFIER_BVEC3                       3

-.emtcode TYPE_SPECIFIER_BVEC4                       4

-.emtcode TYPE_SPECIFIER_INT                         5

-.emtcode TYPE_SPECIFIER_IVEC2                       6

-.emtcode TYPE_SPECIFIER_IVEC3                       7

-.emtcode TYPE_SPECIFIER_IVEC4                       8

-.emtcode TYPE_SPECIFIER_FLOAT                       9

-.emtcode TYPE_SPECIFIER_VEC2                        10

-.emtcode TYPE_SPECIFIER_VEC3                        11

-.emtcode TYPE_SPECIFIER_VEC4                        12

-.emtcode TYPE_SPECIFIER_MAT2                        13

-.emtcode TYPE_SPECIFIER_MAT3                        14

-.emtcode TYPE_SPECIFIER_MAT4                        15

-.emtcode TYPE_SPECIFIER_SAMPLER1D                   16

-.emtcode TYPE_SPECIFIER_SAMPLER2D                   17

-.emtcode TYPE_SPECIFIER_SAMPLER3D                   18

-.emtcode TYPE_SPECIFIER_SAMPLERCUBE                 19

-.emtcode TYPE_SPECIFIER_SAMPLER1DSHADOW             20

-.emtcode TYPE_SPECIFIER_SAMPLER2DSHADOW             21

-.emtcode TYPE_SPECIFIER_STRUCT                      22

-.emtcode TYPE_SPECIFIER_TYPENAME                    23

-

-/* structure field */

-.emtcode FIELD_NONE                                 0

-.emtcode FIELD_NEXT                                 1

-.emtcode FIELD_ARRAY                                2

-

-/* operation */

-.emtcode OP_END                                     0

-.emtcode OP_BLOCK_BEGIN_NO_NEW_SCOPE                1

-.emtcode OP_BLOCK_BEGIN_NEW_SCOPE                   2

-.emtcode OP_DECLARE                                 3

-.emtcode OP_ASM                                     4

-.emtcode OP_BREAK                                   5

-.emtcode OP_CONTINUE                                6

-.emtcode OP_DISCARD                                 7

-.emtcode OP_RETURN                                  8

-.emtcode OP_EXPRESSION                              9

-.emtcode OP_IF                                      10

-.emtcode OP_WHILE                                   11

-.emtcode OP_DO                                      12

-.emtcode OP_FOR                                     13

-.emtcode OP_PUSH_VOID                               14

-.emtcode OP_PUSH_BOOL                               15

-.emtcode OP_PUSH_INT                                16

-.emtcode OP_PUSH_FLOAT                              17

-.emtcode OP_PUSH_IDENTIFIER                         18

-.emtcode OP_SEQUENCE                                19

-.emtcode OP_ASSIGN                                  20

-.emtcode OP_ADDASSIGN                               21

-.emtcode OP_SUBASSIGN                               22

-.emtcode OP_MULASSIGN                               23

-.emtcode OP_DIVASSIGN                               24

-/*.emtcode OP_MODASSIGN                               25*/

-/*.emtcode OP_LSHASSIGN                               26*/

-/*.emtcode OP_RSHASSIGN                               27*/

-/*.emtcode OP_ORASSIGN                                28*/

-/*.emtcode OP_XORASSIGN                               29*/

-/*.emtcode OP_ANDASSIGN                               30*/

-.emtcode OP_SELECT                                  31

-.emtcode OP_LOGICALOR                               32

-.emtcode OP_LOGICALXOR                              33

-.emtcode OP_LOGICALAND                              34

-/*.emtcode OP_BITOR                                   35*/

-/*.emtcode OP_BITXOR                                  36*/

-/*.emtcode OP_BITAND                                  37*/

-.emtcode OP_EQUAL                                   38

-.emtcode OP_NOTEQUAL                                39

-.emtcode OP_LESS                                    40

-.emtcode OP_GREATER                                 41

-.emtcode OP_LESSEQUAL                               42

-.emtcode OP_GREATEREQUAL                            43

-/*.emtcode OP_LSHIFT                                  44*/

-/*.emtcode OP_RSHIFT                                  45*/

-.emtcode OP_ADD                                     46

-.emtcode OP_SUBTRACT                                47

-.emtcode OP_MULTIPLY                                48

-.emtcode OP_DIVIDE                                  49

-/*.emtcode OP_MODULUS                                 50*/

-.emtcode OP_PREINCREMENT                            51

-.emtcode OP_PREDECREMENT                            52

-.emtcode OP_PLUS                                    53

-.emtcode OP_MINUS                                   54

-/*.emtcode OP_COMPLEMENT                              55*/

-.emtcode OP_NOT                                     56

-.emtcode OP_SUBSCRIPT                               57

-.emtcode OP_CALL                                    58

-.emtcode OP_FIELD                                   59

-.emtcode OP_POSTINCREMENT                           60

-.emtcode OP_POSTDECREMENT                           61

-

-/* parameter qualifier */

-.emtcode PARAM_QUALIFIER_IN                         0

-.emtcode PARAM_QUALIFIER_OUT                        1

-.emtcode PARAM_QUALIFIER_INOUT                      2

-

-/* function parameter */

-.emtcode PARAMETER_NONE                             0

-.emtcode PARAMETER_NEXT                             1

-

-/* function parameter array presence */

-.emtcode PARAMETER_ARRAY_NOT_PRESENT                0

-.emtcode PARAMETER_ARRAY_PRESENT                    1

-

-.errtext INVALID_EXTERNAL_DECLARATION               "error 2001: invalid external declaration"

-.errtext INVALID_OPERATOR_OVERRIDE                  "error 2002: invalid operator override"

-.errtext LBRACE_EXPECTED                            "error 2003: '{' expected but '$err_token$' found"

-.errtext LPAREN_EXPECTED                            "error 2004: '(' expected but '$err_token$' found"

-.errtext RPAREN_EXPECTED                            "error 2005: ')' expected but '$err_token$' found"

-

-/* tells whether the shader that is being parsed is a built-in shader or not */

-/*   0 - normal behaviour */

-/*   1 - accepts constructor and operator definitions and __asm statements */

-/* the implementation will set it to 1 when compiling internal built-in shaders */

-.regbyte parsing_builtin                            0

-

-/* holds the type of the shader being parsed; possible values are listed below */

-/*   FRAGMENT_SHADER            1 */

-/*   VERTEX_SHADER              2 */

-/* shader type is set by the caller before parsing */

-.regbyte shader_type                                0

-

-/*

-    <variable_identifier>               ::= <identifier>

-*/

-variable_identifier

-    identifier .emit OP_PUSH_IDENTIFIER;

-

-/*

-    <primary_expression>                ::= <variable_identifier>

-                                          | <intconstant>

-                                          | <floatconstant>

-                                          | <boolconstant>

-                                          | "(" <expression> ")"

-*/

-primary_expression

-    floatconstant .or boolconstant .or intconstant .or variable_identifier .or primary_expression_1;

-primary_expression_1

-    lparen .and expression .and rparen;

-

-/*

-    <postfix_expression>                ::= <primary_expression>

-                                          | <postfix_expression> "[" <integer_expression> "]"

-                                          | <function_call>

-                                          | <postfix_expression> "." <field_selection>

-                                          | <postfix_expression> "++"

-                                          | <postfix_expression> "--"

-*/

-postfix_expression

-    postfix_expression_1 .and .loop postfix_expression_2;

-postfix_expression_1

-    function_call .or primary_expression;

-postfix_expression_2

-    postfix_expression_3 .or postfix_expression_4 .or

-    plusplus .emit OP_POSTINCREMENT .or

-    minusminus .emit OP_POSTDECREMENT;

-postfix_expression_3

-    lbracket .and integer_expression .and rbracket .emit OP_SUBSCRIPT;

-postfix_expression_4

-    dot .and field_selection .emit OP_FIELD;

-

-/*

-    <integer_expression>                ::= <expression>

-*/

-integer_expression

-    expression;

-

-/*

-    <function_call>                     ::= <function_call_generic>

-*/

-function_call

-    function_call_generic .emit OP_CALL .and .true .emit OP_END;

-

-/*

-    <function_call_generic>             ::= <function_call_header_with_parameters> ")"

-                                          | <function_call_header_no_parameters> ")"

-*/

-function_call_generic

-    function_call_generic_1 .or function_call_generic_2;

-function_call_generic_1

-    function_call_header_with_parameters .and rparen .error RPAREN_EXPECTED;

-function_call_generic_2

-    function_call_header_no_parameters .and rparen .error RPAREN_EXPECTED;

-

-/*

-    <function_call_header_no_parameters>::= <function_call_header> "void"

-                                          | <function_call_header>

-*/

-function_call_header_no_parameters

-    function_call_header .and function_call_header_no_parameters_1;

-function_call_header_no_parameters_1

-    "void" .or .true;

-

-/*

-    <function_call_header_with_parameters>::= <function_call_header> <assignment_expression>

-                                            | <function_call_header_with_parameters> ","

-                                              <assignment_expression>

-*/

-function_call_header_with_parameters

-    function_call_header .and assignment_expression .and .true .emit OP_END .and

-    .loop function_call_header_with_parameters_1;

-function_call_header_with_parameters_1

-    comma .and assignment_expression .and .true .emit OP_END;

-

-/*

-    <function_call_header>              ::= <function_identifier> "("

-*/

-function_call_header

-    function_identifier .and lparen;

-

-/*

-    <function_identifier>               ::= <constructor_identifier>

-                                          | <identifier>

-

-note: <constructor_identifier> has been deleted

-*/

-function_identifier

-    identifier;

-

-/*

-    <unary_expression>                  ::= <postfix_expression>

-                                          | "++" <unary_expression>

-                                          | "--" <unary_expression>

-                                          | <unary_operator> <unary_expression>

-

-    <unary_operator>                    ::= "+"

-                                          | "-"

-                                          | "!"

-                                          | "~" // reserved

-*/

-unary_expression

-    postfix_expression .or unary_expression_1 .or unary_expression_2 .or unary_expression_3 .or

-    unary_expression_4 .or unary_expression_5/* .or unary_expression_6*/;

-unary_expression_1

-    plusplus .and unary_expression .and .true .emit OP_PREINCREMENT;

-unary_expression_2

-    minusminus .and unary_expression .and .true .emit OP_PREDECREMENT;

-unary_expression_3

-    plus .and unary_expression .and .true .emit OP_PLUS;

-unary_expression_4

-    minus .and unary_expression .and .true .emit OP_MINUS;

-unary_expression_5

-    bang .and unary_expression .and .true .emit OP_NOT;

-/*unary_expression_6

-    tilde .and unary_expression .and .true .emit OP_COMPLEMENT;*/

-

-/*

-    <multiplicative_expression>         ::= <unary_expression>

-                                          | <multiplicative_expression> "*" <unary_expression>

-                                          | <multiplicative_expression> "/" <unary_expression>

-                                          | <multiplicative_expression> "%" <unary_expression> // reserved

-*/

-multiplicative_expression

-    unary_expression .and .loop multiplicative_expression_1;

-multiplicative_expression_1

-    multiplicative_expression_2 .or multiplicative_expression_3/* .or multiplicative_expression_4*/;

-multiplicative_expression_2

-    star .and unary_expression .and .true .emit OP_MULTIPLY;

-multiplicative_expression_3

-    slash .and unary_expression .and .true .emit OP_DIVIDE;

-/*multiplicative_expression_4

-    percent .and unary_expression .and .true .emit OP_MODULUS;*/

-

-/*

-    <additive_expression>               ::= <multiplicative_expression>

-                                          | <additive_expression> "+" <multiplicative_expression>

-                                          | <additive_expression> "-" <multiplicative_expression>

-*/

-additive_expression

-    multiplicative_expression .and .loop additive_expression_1;

-additive_expression_1

-    additive_expression_2 .or additive_expression_3;

-additive_expression_2

-    plus .and multiplicative_expression .and .true .emit OP_ADD;

-additive_expression_3

-    minus .and multiplicative_expression .and .true .emit OP_SUBTRACT;

-

-/*

-    <shift_expression>                  ::= <additive_expression>

-                                          | <shift_expression> "<<" <additive_expression> // reserved

-                                          | <shift_expression> ">>" <additive_expression> // reserved

-*/

-shift_expression

-    additive_expression/* .and .loop shift_expression_1*/;

-/*shift_expression_1

-    shift_expression_2 .or shift_expression_3;*/

-/*shift_expression_2

-    lessless .and additive_expression .and .true .emit OP_LSHIFT;*/

-/*shift_expression_3

-    greatergreater .and additive_expression .and .true .emit OP_RSHIFT;*/

-

-/*

-    <relational_expression>             ::= <shift_expression>

-                                          | <relational_expression> "<" <shift_expression>

-                                          | <relational_expression> ">" <shift_expression>

-                                          | <relational_expression> "<=" <shift_expression>

-                                          | <relational_expression> ">=" <shift_expression>

-*/

-relational_expression

-    shift_expression .and .loop relational_expression_1;

-relational_expression_1

-    relational_expression_2 .or relational_expression_3 .or relational_expression_4 .or

-    relational_expression_5;

-relational_expression_2

-    lessequals .and shift_expression .and .true .emit OP_LESSEQUAL;

-relational_expression_3

-    greaterequals .and shift_expression .and .true .emit OP_GREATEREQUAL;

-relational_expression_4

-    less .and shift_expression .and .true .emit OP_LESS;

-relational_expression_5

-    greater .and shift_expression .and .true .emit OP_GREATER;

-

-/*

-    <equality_expression>               ::= <relational_expression>

-                                          | <equality_expression> "==" <relational_expression>

-                                          | <equality_expression> "!=" <relational_expression>

-*/

-equality_expression

-    relational_expression .and .loop equality_expression_1;

-equality_expression_1

-    equality_expression_2 .or equality_expression_3;

-equality_expression_2

-    equalsequals .and relational_expression .and .true .emit OP_EQUAL;

-equality_expression_3

-    bangequals .and relational_expression .and .true .emit OP_NOTEQUAL;

-

-/*

-    <and_expression>                    ::= <equality_expression>

-                                          | <and_expression> "&" <equality_expression> // reserved

-*/

-and_expression

-    equality_expression/* .and .loop and_expression_1*/;

-/*and_expression_1

-    ampersand .and equality_expression .and .true .emit OP_BITAND;*/

-

-/*

-    <exclusive_or_expression>           ::= <and_expression>

-                                          | <exclusive_or_expression> "^" <and_expression> // reserved

-*/

-exclusive_or_expression

-    and_expression/* .and .loop exclusive_or_expression_1*/;

-/*exclusive_or_expression_1

-    caret .and and_expression .and .true .emit OP_BITXOR;*/

-

-/*

-    <inclusive_or_expression>           ::= <exclusive_or_expression>

-                                          | <inclusive_or_expression> "|" <exclusive_or_expression> // reserved

-*/

-inclusive_or_expression

-    exclusive_or_expression/* .and .loop inclusive_or_expression_1*/;

-/*inclusive_or_expression_1

-    bar .and exclusive_or_expression .and .true .emit OP_BITOR;*/

-

-/*

-    <logical_and_expression>            ::= <inclusive_or_expression>

-                                          | <logical_and_expression> "&&" <inclusive_or_expression>

-*/

-logical_and_expression

-    inclusive_or_expression .and .loop logical_and_expression_1;

-logical_and_expression_1

-    ampersandampersand .and inclusive_or_expression .and .true .emit OP_LOGICALAND;

-

-/*

-    <logical_xor_expression>            ::= <logical_and_expression>

-                                          | <logical_xor_expression> "^^" <logical_and_expression>

-*/

-logical_xor_expression

-    logical_and_expression .and .loop logical_xor_expression_1;

-logical_xor_expression_1

-    caretcaret .and logical_and_expression .and .true .emit OP_LOGICALXOR;

-

-/*

-    <logical_or_expression>             ::= <logical_xor_expression>

-                                          | <logical_or_expression> "||" <logical_xor_expression>

-*/

-logical_or_expression

-    logical_xor_expression .and .loop logical_or_expression_1;

-logical_or_expression_1

-    barbar .and logical_xor_expression .and .true .emit OP_LOGICALOR;

-

-/*

-    <conditional_expression>            ::= <logical_or_expression>

-                                          | <logical_or_expression> "?" <expression> ":"

-                                            <conditional_expression>

-*/

-conditional_expression

-    logical_or_expression .and .loop conditional_expression_1;

-conditional_expression_1

-    question .and expression .and colon .and conditional_expression .and .true .emit OP_SELECT;

-

-/*

-    <assignment_expression>             ::= <conditional_expression>

-                                          | <unary_expression> <assignment_operator>

-                                            <assignment_expression>

-

-    <assignment_operator>               ::= "="

-                                          | "*="

-                                          | "/="

-                                          | "+="

-                                          | "-="

-                                          | "%=" // reserved

-                                          | "<<=" // reserved

-                                          | ">>=" // reserved

-                                          | "&=" // reserved

-                                          | "^=" // reserved

-                                          | "|=" // reserved

-*/

-assignment_expression

-    assignment_expression_1 .or assignment_expression_2 .or assignment_expression_3 .or

-    assignment_expression_4 .or assignment_expression_5/* .or assignment_expression_6 .or

-    assignment_expression_7 .or assignment_expression_8 .or assignment_expression_9 .or

-    assignment_expression_10 .or assignment_expression_11*/ .or conditional_expression;

-assignment_expression_1

-    unary_expression .and equals .and assignment_expression .and .true .emit OP_ASSIGN;

-assignment_expression_2

-    unary_expression .and starequals .and assignment_expression .and .true .emit OP_MULASSIGN;

-assignment_expression_3

-    unary_expression .and slashequals .and assignment_expression .and .true .emit OP_DIVASSIGN;

-assignment_expression_4

-    unary_expression .and plusequals .and assignment_expression .and .true .emit OP_ADDASSIGN;

-assignment_expression_5

-    unary_expression .and minusequals .and assignment_expression .and .true .emit OP_SUBASSIGN;

-/*assignment_expression_6

-    unary_expression .and percentequals .and assignment_expression .and .true .emit OP_MODASSIGN;*/

-/*assignment_expression_7

-    unary_expression .and lesslessequals .and assignment_expression .and .true .emit OP_LSHASSIGN;*/

-/*assignment_expression_8

-    unary_expression .and greatergreaterequals .and assignment_expression .and

-    .true .emit OP_RSHASSIGN;*/

-/*assignment_expression_9

-    unary_expression .and ampersandequals .and assignment_expression .and .true .emit OP_ANDASSIGN;*/

-/*assignment_expression_10

-    unary_expression .and caretequals .and assignment_expression .and .true .emit OP_XORASSIGN;*/

-/*assignment_expression_11

-    unary_expression .and barequals .and assignment_expression .and .true .emit OP_ORASSIGN;*/

-

-/*

-    <expression>                        ::= <assignment_expression>

-                                          | <expression> "," <assignment_expression>

-*/

-expression

-    assignment_expression .and .loop expression_1;

-expression_1

-    comma .and assignment_expression .and .true .emit OP_SEQUENCE;

-

-/*

-    <constant_expression>               ::= <conditional_expression>

-*/

-constant_expression

-    conditional_expression .and .true .emit OP_END;

-

-/*

-    <declaration>                       ::= <function_prototype> ";"

-                                          | <init_declarator_list> ";"

-*/

-declaration

-    declaration_1 .or declaration_2;

-declaration_1

-    function_prototype .emit DECLARATION_FUNCTION_PROTOTYPE .and semicolon;

-declaration_2

-    init_declarator_list .emit DECLARATION_INIT_DECLARATOR_LIST .and semicolon;

-

-/*

-    <function_prototype>                ::= <function_declarator> ")"

-*/

-function_prototype

-    function_declarator .and rparen .error RPAREN_EXPECTED .emit PARAMETER_NONE;

-

-/*

-    <function_declarator>               ::= <function_header>

-                                          | <function_header_with_parameters>

-*/

-function_declarator

-    function_header_with_parameters .or function_header;

-

-/*

-    <function_header_with_parameters>   ::= <function_header> <parameter_declaration>

-                                          | <function_header_with_parameters> ","

-                                            <parameter_declaration>

-*/

-function_header_with_parameters

-    function_header .and parameter_declaration .and .loop function_header_with_parameters_1;

-function_header_with_parameters_1

-    comma .and parameter_declaration;

-

-/*

-    <function_header>                   ::= <fully_specified_type> <identifier> "("

-*/

-function_header

-    function_header_nospace .or function_header_space;

-function_header_space

-    fully_specified_type_space .and space .and function_decl_identifier .and lparen;

-function_header_nospace

-    fully_specified_type_nospace .and function_decl_identifier .and lparen;

-

-/*

-    <function_decl_identifier>          ::= "__constructor"

-                                          | <__operator>

-                                          | <identifier>

-

-note: this is an extension to the standard language specification - normally slang disallows

-      operator and constructor prototypes and definitions

-*/

-function_decl_identifier

-    .if (parsing_builtin != 0) __operator .emit FUNCTION_OPERATOR .or

-    .if (parsing_builtin != 0) "__constructor" .emit FUNCTION_CONSTRUCTOR .or

-    identifier .emit FUNCTION_ORDINARY;

-

-/*

-    <__operator>                        ::= "__operator" <overriden_op>

-

-note: this is an extension to the standard language specification - normally slang disallows

-      operator prototypes and definitions

-*/

-__operator

-    "__operator" .and overriden_operator .error INVALID_OPERATOR_OVERRIDE;

-

-/*

-    <overriden_op>                      ::= "="

-                                          | "+="

-                                          | "-="

-                                          | "*="

-                                          | "/="

-                                          | "%=" // reserved

-                                          | "<<=" // reserved

-                                          | ">>=" // reserved

-                                          | "&=" // reserved

-                                          | "^=" // reserved

-                                          | "|=" // reserved

-                                          | "^^"

-                                          | "|" // reserved

-                                          | "^" // reserved

-                                          | "&" // reserved

-                                          | "=="

-                                          | "!="

-                                          | "<"

-                                          | ">"

-                                          | "<="

-                                          | ">="

-                                          | "<<" // reserved

-                                          | ">>" // reserved

-                                          | "*"

-                                          | "/"

-                                          | "%" // reserved

-                                          | "++"

-                                          | "--"

-                                          | "+"

-                                          | "-"

-                                          | "~" // reserved

-                                          | "!"

-

-note: this is an extension to the standard language specification - normally slang disallows

-      operator prototypes and definitions

-*/

-overriden_operator

-    plusplus .emit OPERATOR_INCREMENT .or

-    plusequals .emit OPERATOR_ADDASSIGN .or

-    plus .emit OPERATOR_PLUS .or

-    minusminus .emit OPERATOR_DECREMENT .or

-    minusequals .emit OPERATOR_SUBASSIGN .or

-    minus .emit OPERATOR_MINUS .or

-    bangequals .emit OPERATOR_NOTEQUAL .or

-    bang .emit OPERATOR_NOT .or

-    starequals .emit OPERATOR_MULASSIGN .or

-    star .emit OPERATOR_MULTIPLY .or

-    slashequals .emit OPERATOR_DIVASSIGN .or

-    slash .emit OPERATOR_DIVIDE .or

-    lessequals .emit OPERATOR_LESSEQUAL .or

-    /*lesslessequals .emit OPERATOR_LSHASSIGN .or*/

-    /*lessless .emit OPERATOR_LSHIFT .or*/

-    less .emit OPERATOR_LESS .or

-    greaterequals .emit OPERATOR_GREATEREQUAL .or

-    /*greatergreaterequals .emit OPERATOR_RSHASSIGN .or*/

-    /*greatergreater .emit OPERATOR_RSHIFT .or*/

-    greater .emit OPERATOR_GREATER .or

-    equalsequals .emit OPERATOR_EQUAL .or

-    equals .emit OPERATOR_ASSIGN .or

-    /*percentequals .emit OPERATOR_MODASSIGN .or*/

-    /*percent .emit OPERATOR_MODULUS .or*/

-    /*ampersandequals .emit OPERATOR_ANDASSIGN */

-    /*ampersand .emit OPERATOR_BITAND .or*/

-    /*barequals .emit OPERATOR_ORASSIGN .or*/

-    /*bar .emit OPERATOR_BITOR .or*/

-    /*tilde .emit OPERATOR_COMPLEMENT .or*/

-    /*caretequals .emit OPERATOR_XORASSIGN .or*/

-    caretcaret .emit OPERATOR_LOGICALXOR /*.or

-    caret .emit OPERATOR_BITXOR*/;

-

-/*

-    <parameter_declarator>              ::= <type_specifier> <identifier>

-                                          | <type_specifier> <identifier> "[" <constant_expression>

-                                            "]"

-*/

-parameter_declarator

-    parameter_declarator_nospace .or parameter_declarator_space;

-parameter_declarator_nospace

-    type_specifier_nospace .and identifier .and parameter_declarator_1;

-parameter_declarator_space

-    type_specifier_space .and space .and identifier .and parameter_declarator_1;

-parameter_declarator_1

-    parameter_declarator_2 .emit PARAMETER_ARRAY_PRESENT .or

-    .true .emit PARAMETER_ARRAY_NOT_PRESENT;

-parameter_declarator_2

-    lbracket .and constant_expression .and rbracket;

-

-/*

-    <parameter_declaration>             ::= <type_qualifier> <parameter_qualifier>

-                                            <parameter_declarator>

-                                          | <type_qualifier> <parameter_qualifier>

-                                            <parameter_type_specifier>

-                                          | <parameter_qualifier> <parameter_declarator>

-                                          | <parameter_qualifier> <parameter_type_specifier>

-*/

-parameter_declaration

-    parameter_declaration_1 .emit PARAMETER_NEXT;

-parameter_declaration_1

-    parameter_declaration_2 .or parameter_declaration_3;

-parameter_declaration_2

-    type_qualifier .and space .and parameter_qualifier .and parameter_declaration_4;

-parameter_declaration_3

-    parameter_qualifier .emit TYPE_QUALIFIER_NONE .and parameter_declaration_4;

-parameter_declaration_4

-    parameter_declarator .or parameter_type_specifier;

-

-/*

-    <parameter_qualifier>               ::= "in"

-                                          | "out"

-                                          | "inout"

-                                          | ""

-*/

-parameter_qualifier

-    parameter_qualifier_1 .or .true .emit PARAM_QUALIFIER_IN;

-parameter_qualifier_1

-    parameter_qualifier_2 .and space;

-parameter_qualifier_2

-    "in" .emit PARAM_QUALIFIER_IN .or

-    "out" .emit PARAM_QUALIFIER_OUT .or

-    "inout" .emit PARAM_QUALIFIER_INOUT;

-

-/*

-    <parameter_type_specifier>          ::= <type_specifier>

-                                          | <type_specifier> "[" <constant_expression> "]"

-*/

-parameter_type_specifier

-    parameter_type_specifier_1 .and .true .emit '\0' .and parameter_type_specifier_2;

-parameter_type_specifier_1

-    type_specifier_nospace .or type_specifier_space;

-parameter_type_specifier_2

-    parameter_type_specifier_3 .emit PARAMETER_ARRAY_PRESENT .or

-    .true .emit PARAMETER_ARRAY_NOT_PRESENT;

-parameter_type_specifier_3

-    lbracket .and constant_expression .and rbracket;

-

-/*

-    <init_declarator_list>              ::= <single_declaration>

-                                          | <init_declarator_list> "," <identifier>

-                                          | <init_declarator_list> "," <identifier> "[" "]"

-                                          | <init_declarator_list> "," <identifier> "["

-                                            <constant_expression> "]"

-                                          | <init_declarator_list> "," <identifier> "="

-                                            <initializer>

-*/

-init_declarator_list

-    single_declaration .and .loop init_declarator_list_1 .emit DECLARATOR_NEXT .and

-    .true .emit DECLARATOR_NONE;

-init_declarator_list_1

-    comma .and identifier .emit VARIABLE_IDENTIFIER .and init_declarator_list_2;

-init_declarator_list_2

-    init_declarator_list_3 .or init_declarator_list_4 .or .true .emit VARIABLE_NONE;

-init_declarator_list_3

-    equals .and initializer .emit VARIABLE_INITIALIZER;

-init_declarator_list_4

-    lbracket .and init_declarator_list_5 .and rbracket;

-init_declarator_list_5

-    constant_expression .emit VARIABLE_ARRAY_EXPLICIT .or .true .emit VARIABLE_ARRAY_UNKNOWN;

-

-/*

-    <single_declaration>                ::= <fully_specified_type>

-                                          | <fully_specified_type> <identifier>

-                                          | <fully_specified_type> <identifier> "[" "]"

-                                          | <fully_specified_type> <identifier> "["

-                                            <constant_expression> "]"

-                                          | <fully_specified_type> <identifier> "=" <initializer>

-*/

-single_declaration

-    single_declaration_nospace .or single_declaration_space;

-single_declaration_space

-    fully_specified_type_space .and single_declaration_space_1;

-single_declaration_nospace

-    fully_specified_type_nospace .and single_declaration_nospace_1;

-single_declaration_space_1

-    single_declaration_space_2 .emit VARIABLE_IDENTIFIER .or .true .emit VARIABLE_NONE;

-single_declaration_nospace_1

-    single_declaration_nospace_2 .emit VARIABLE_IDENTIFIER .or .true .emit VARIABLE_NONE;

-single_declaration_space_2

-    space .and identifier .and single_declaration_3;

-single_declaration_nospace_2

-    identifier .and single_declaration_3;

-single_declaration_3

-    single_declaration_4 .or single_declaration_5 .or .true .emit VARIABLE_NONE;

-single_declaration_4

-    equals .and initializer .emit VARIABLE_INITIALIZER;

-single_declaration_5

-    lbracket .and single_declaration_6 .and rbracket;

-single_declaration_6

-    constant_expression .emit VARIABLE_ARRAY_EXPLICIT .or .true .emit VARIABLE_ARRAY_UNKNOWN;

-

-/*

-    <fully_specified_type>              ::= <type_specifier>

-                                          | <type_qualifier> <type_specifier>

-*/

-fully_specified_type_space

-    fully_specified_type_1 .and type_specifier_space;

-fully_specified_type_nospace

-    fully_specified_type_1 .and type_specifier_nospace;

-fully_specified_type_1

-    fully_specified_type_2 .or .true .emit TYPE_QUALIFIER_NONE;

-fully_specified_type_2

-    type_qualifier .and space;

-

-/*

-    <type_qualifier>                    ::= "const"

-                                          | "attribute" // Vertex only.

-                                          | "varying"

-                                          | "uniform"

-										  | "__fixed_output"

-										  | "__fixed_input"

-

-note: this is an extension to the standard language specification - normally slang disallows

-      __fixed_output and __fixed_input type qualifiers

-*/

-type_qualifier

-    "const" .emit TYPE_QUALIFIER_CONST .or

-    .if (shader_type == 2) "attribute" .emit TYPE_QUALIFIER_ATTRIBUTE .or

-    "varying" .emit TYPE_QUALIFIER_VARYING .or

-    "uniform" .emit TYPE_QUALIFIER_UNIFORM .or

-	.if (parsing_builtin != 0) "__fixed_output" .emit TYPE_QUALIFIER_FIXEDOUTPUT .or

-	.if (parsing_builtin != 0) "__fixed_input" .emit TYPE_QUALIFIER_FIXEDINPUT;

-

-/*

-    <type_specifier>                    ::= "void"

-                                          | "float"

-                                          | "int"

-                                          | "bool"

-                                          | "vec2"

-                                          | "vec3"

-                                          | "vec4"

-                                          | "bvec2"

-                                          | "bvec3"

-                                          | "bvec4"

-                                          | "ivec2"

-                                          | "ivec3"

-                                          | "ivec4"

-                                          | "mat2"

-                                          | "mat3"

-                                          | "mat4"

-                                          | "sampler1D"

-                                          | "sampler2D"

-                                          | "sampler3D"

-                                          | "samplerCube"

-                                          | "sampler1DShadow"

-                                          | "sampler2DShadow"

-                                          | <struct_specifier>

-                                          | <type_name>

-*/

-type_specifier_space

-    "void" .emit TYPE_SPECIFIER_VOID .or

-    "float" .emit TYPE_SPECIFIER_FLOAT .or

-    "int" .emit TYPE_SPECIFIER_INT .or

-    "bool" .emit TYPE_SPECIFIER_BOOL .or

-    "vec2" .emit TYPE_SPECIFIER_VEC2 .or

-    "vec3" .emit TYPE_SPECIFIER_VEC3 .or

-    "vec4" .emit TYPE_SPECIFIER_VEC4 .or

-    "bvec2" .emit TYPE_SPECIFIER_BVEC2 .or

-    "bvec3" .emit TYPE_SPECIFIER_BVEC3 .or

-    "bvec4" .emit TYPE_SPECIFIER_BVEC4 .or

-    "ivec2" .emit TYPE_SPECIFIER_IVEC2 .or

-    "ivec3" .emit TYPE_SPECIFIER_IVEC3 .or

-    "ivec4" .emit TYPE_SPECIFIER_IVEC4 .or

-    "mat2" .emit TYPE_SPECIFIER_MAT2 .or

-    "mat3" .emit TYPE_SPECIFIER_MAT3 .or

-    "mat4" .emit TYPE_SPECIFIER_MAT4 .or

-    "sampler1D" .emit TYPE_SPECIFIER_SAMPLER1D .or

-    "sampler2D" .emit TYPE_SPECIFIER_SAMPLER2D .or

-    "sampler3D" .emit TYPE_SPECIFIER_SAMPLER3D .or

-    "samplerCube" .emit TYPE_SPECIFIER_SAMPLERCUBE .or

-    "sampler1DShadow" .emit TYPE_SPECIFIER_SAMPLER1DSHADOW .or

-    "sampler2DShadow" .emit TYPE_SPECIFIER_SAMPLER2DSHADOW .or

-    type_name .emit TYPE_SPECIFIER_TYPENAME;

-type_specifier_nospace

-    struct_specifier .emit TYPE_SPECIFIER_STRUCT;

-

-/*

-    <struct_specifier>                  ::= "struct" <identifier> "{" <struct_declaration_list> "}"

-                                          | "struct" "{" <struct_declaration_list> "}"

-*/

-struct_specifier

-    "struct" .and struct_specifier_1 .and optional_space .and lbrace .error LBRACE_EXPECTED .and

-    struct_declaration_list .and rbrace .emit FIELD_NONE;

-struct_specifier_1

-    struct_specifier_2 .or .true .emit '\0';

-struct_specifier_2

-    space .and identifier;

-

-/*

-    <struct_declaration_list>           ::= <struct_declaration>

-                                          | <struct_declaration_list> <struct_declaration>

-*/

-struct_declaration_list

-    struct_declaration .and .loop struct_declaration .emit FIELD_NEXT;

-

-/*

-    <struct_declaration>                ::= <type_specifier> <struct_declarator_list> ";"

-*/

-struct_declaration

-    struct_declaration_nospace .or struct_declaration_space;

-struct_declaration_space

-    type_specifier_space .and space .and struct_declarator_list .and semicolon .emit FIELD_NONE;

-struct_declaration_nospace

-    type_specifier_nospace .and struct_declarator_list .and semicolon .emit FIELD_NONE;

-

-/*

-    <struct_declarator_list>            ::= <struct_declarator>

-                                          | <struct_declarator_list> "," <struct_declarator>

-*/

-struct_declarator_list

-    struct_declarator .and .loop struct_declarator_list_1 .emit FIELD_NEXT;

-struct_declarator_list_1

-    comma .and struct_declarator;

-

-/*

-    <struct_declarator>                 ::= <identifier>

-                                          | <identifier> "[" <constant_expression> "]"

-*/

-struct_declarator

-    identifier .and struct_declarator_1;

-struct_declarator_1

-    struct_declarator_2 .emit FIELD_ARRAY .or .true .emit FIELD_NONE;

-struct_declarator_2

-    lbracket .and constant_expression .and rbracket;

-

-/*

-    <initializer>                       ::= <assignment_expression>

-*/

-initializer

-    assignment_expression .and .true .emit OP_END;

-

-/*

-    <declaration_statement>             ::= <declaration>

-*/

-declaration_statement

-    declaration;

-

-/*

-    <statement>                         ::= <compound_statement>

-                                          | <simple_statement>

-*/

-statement

-    compound_statement .or simple_statement;

-statement_space

-    compound_statement .or statement_space_1;

-statement_space_1

-    space .and simple_statement;

-

-/*

-    <simple_statement>                  ::= <__asm_statement>

-                                          | <selection_statement>

-                                          | <iteration_statement>

-                                          | <jump_statement>

-                                          | <expression_statement>

-                                          | <declaration_statement>

-

-note: this is an extension to the standard language specification - normally slang disallows

-      use of __asm statements

-*/

-simple_statement

-    .if (parsing_builtin != 0) __asm_statement .emit OP_ASM .or

-    selection_statement .or

-    iteration_statement .or

-    jump_statement .or

-    expression_statement .emit OP_EXPRESSION .or

-    declaration_statement .emit OP_DECLARE;

-

-/*

-    <compound_statement>                ::= "{" "}"

-                                          | "{" <statement_list> "}"

-*/

-compound_statement

-    compound_statement_1 .emit OP_BLOCK_BEGIN_NEW_SCOPE .and .true .emit OP_END;

-compound_statement_1

-    compound_statement_2 .or compound_statement_3;

-compound_statement_2

-    lbrace .and rbrace;

-compound_statement_3

-    lbrace .and statement_list .and rbrace;

-

-/*

-    <statement_no_new_scope>            ::= <compound_statement_no_new_scope>

-                                          | <simple_statement>

-*/

-statement_no_new_scope

-    compound_statement_no_new_scope .or simple_statement;

-

-/*

-    <compound_statement_no_new_scope>   ::= "{" "}"

-                                          | "{" <statement_list> "}"

-*/

-compound_statement_no_new_scope

-    compound_statement_no_new_scope_1 .emit OP_BLOCK_BEGIN_NO_NEW_SCOPE .and .true .emit OP_END;

-compound_statement_no_new_scope_1

-    compound_statement_no_new_scope_2 .or compound_statement_no_new_scope_3;

-compound_statement_no_new_scope_2

-    lbrace .and rbrace;

-compound_statement_no_new_scope_3

-    lbrace .and statement_list .and rbrace;

-

-/*

-    <statement_list>                    ::= <statement>

-                                          | <statement_list> <statement>

-*/

-statement_list

-    statement .and .loop statement;

-

-/*

-    <expression_statement>              ::= ";"

-                                          | <expression> ";"

-*/

-expression_statement

-    expression_statement_1 .or expression_statement_2;

-expression_statement_1

-    semicolon .emit OP_PUSH_VOID .emit OP_END;

-expression_statement_2

-    expression .and semicolon .emit OP_END;

-

-/*

-    <selection_statement>               ::= "if" "(" <expression> ")" <selection_rest_statement>

-*/

-selection_statement

-    "if" .emit OP_IF .and lparen .error LPAREN_EXPECTED .and expression .and

-    rparen .error RPAREN_EXPECTED .emit OP_END .and selection_rest_statement;

-

-/*

-    <selection_rest_statement>          ::= <statement> "else" <statement>

-                                          | <statement>

-*/

-selection_rest_statement

-    statement .and selection_rest_statement_1;

-selection_rest_statement_1

-    selection_rest_statement_2 .or .true .emit OP_EXPRESSION .emit OP_PUSH_VOID .emit OP_END;

-selection_rest_statement_2

-    "else" .and optional_space .and statement;

-

-/*

-    <condition>                         ::= <expression>

-                                          | <fully_specified_type> <identifier> "=" <initializer>

-

-note: if <condition_1> is executed, the emit format must match <declaration> emit format

-*/

-condition

-    condition_1 .emit OP_DECLARE .emit DECLARATION_INIT_DECLARATOR_LIST .or

-    condition_3 .emit OP_EXPRESSION;

-condition_1

-    condition_1_nospace .or condition_1_space;

-condition_1_nospace

-    fully_specified_type_nospace .and condition_2;

-condition_1_space

-    fully_specified_type_space .and space .and condition_2;

-condition_2

-    identifier .emit VARIABLE_IDENTIFIER .and equals .emit VARIABLE_INITIALIZER .and

-    initializer .and .true .emit DECLARATOR_NONE;

-condition_3

-    expression .and .true .emit OP_END;

-

-/*

-    <iteration_statement>               ::= "while" "(" <condition> ")" <statement_no_new_scope>

-                                          | "do" <statement> "while" "(" <expression> ")" ";"

-                                          | "for" "(" <for_init_statement> <for_rest_statement> ")"

-                                            <statement_no_new_scope>

-*/

-iteration_statement

-    iteration_statement_1 .or iteration_statement_2 .or iteration_statement_3;

-iteration_statement_1

-    "while" .emit OP_WHILE .and lparen .error LPAREN_EXPECTED .and condition .and

-    rparen .error RPAREN_EXPECTED .and statement_no_new_scope;

-iteration_statement_2

-    "do" .emit OP_DO .and statement_space .and "while" .and lparen .error LPAREN_EXPECTED .and

-    expression .and rparen .error RPAREN_EXPECTED .emit OP_END .and semicolon;

-iteration_statement_3

-    "for" .emit OP_FOR .and lparen .error LPAREN_EXPECTED .and for_init_statement .and

-    for_rest_statement .and rparen .error RPAREN_EXPECTED .and statement_no_new_scope;

-

-/*

-    <for_init_statement>                ::= <expression_statement>

-                                          | <declaration_statement>

-*/

-for_init_statement

-    expression_statement .emit OP_EXPRESSION .or declaration_statement .emit OP_DECLARE;

-

-/*

-    <conditionopt>                      ::= <condition>

-                                          | ""

-

-note: <conditionopt> is used only by "for" statement - if <condition> is ommitted, parser

-      simulates default behaviour, that is simulates "true" expression

-*/

-conditionopt

-    condition .or

-    .true .emit OP_EXPRESSION .emit OP_PUSH_BOOL .emit 2 .emit '1' .emit '\0' .emit OP_END;

-

-/*

-    <for_rest_statement>                ::= <conditionopt> ";"

-                                          | <conditionopt> ";" <expression>

-*/

-for_rest_statement

-    conditionopt .and semicolon .and for_rest_statement_1;

-for_rest_statement_1

-    for_rest_statement_2 .or .true .emit OP_PUSH_VOID .emit OP_END;

-for_rest_statement_2

-    expression .and .true .emit OP_END;

-

-/*

-    <jump_statement>                    ::= "continue" ";"

-                                          | "break" ";"

-                                          | "return" ";"

-                                          | "return" <expression> ";"

-                                          | "discard" ";" // Fragment shader only.

-*/

-jump_statement

-    jump_statement_1 .or jump_statement_2 .or jump_statement_3 .or jump_statement_4 .or

-    .if (shader_type == 1) jump_statement_5;

-jump_statement_1

-    "continue" .and semicolon .emit OP_CONTINUE;

-jump_statement_2

-    "break" .and semicolon .emit OP_BREAK;

-jump_statement_3

-    "return" .emit OP_RETURN .and optional_space .and expression .and semicolon .emit OP_END;

-jump_statement_4

-    "return" .emit OP_RETURN .and semicolon .emit OP_PUSH_VOID .emit OP_END;

-jump_statement_5

-    "discard" .and semicolon .emit OP_DISCARD;

-

-/*

-    <__asm_statement>                   ::= "__asm" <identifier> <asm_arguments> ";"

-

-note: this is an extension to the standard language specification - normally slang disallows

-      __asm statements

-*/

-__asm_statement

-    "__asm" .and space .and identifier .and space .and asm_arguments .and semicolon .emit OP_END;

-

-/*

-    <asm_arguments>                     ::= <identifier>

-                                          | <asm_arguments> "," <identifier>

-

-note: this is an extension to the standard language specification - normally slang disallows

-      __asm statements

-*/

-asm_arguments

-    variable_identifier .and .true .emit OP_END .and .loop asm_arguments_1;

-asm_arguments_1

-    comma .and variable_identifier .and .true .emit OP_END;

-

-/*

-    <translation_unit>                  ::= <external_declaration>

-                                          | <translation_unit> <external_declaration>

-*/

-translation_unit

-    optional_space .emit REVISION .and external_declaration .error INVALID_EXTERNAL_DECLARATION .and

-    .loop external_declaration .and optional_space .and

-    '\0' .error INVALID_EXTERNAL_DECLARATION .emit EXTERNAL_NULL;

-

-/*

-    <external_declaration>              ::= <function_definition>

-                                          | <declaration>

-*/

-external_declaration

-    function_definition .emit EXTERNAL_FUNCTION_DEFINITION .or

-    declaration .emit EXTERNAL_DECLARATION;

-

-/*

-    <function_definition>               :: <function_prototype> <compound_statement_no_new_scope>

-*/

-function_definition

-    function_prototype .and compound_statement_no_new_scope;

-

-/* helper rulez, not part of the official language syntax */

-

-digit_oct

-    '0'-'7';

-

-digit_dec

-    '0'-'9';

-

-digit_hex

-    '0'-'9' .or 'A'-'F' .or 'a'-'f';

-

-id_character_first

-    'a'-'z' .or 'A'-'Z' .or '_';

-

-id_character_next

-    id_character_first .or digit_dec;

-

-identifier

-    id_character_first .emit * .and .loop id_character_next .emit * .and .true .emit '\0';

-

-float

-    float_1 .or float_2;

-float_1

-    float_fractional_constant .and float_optional_exponent_part;

-float_2

-    float_digit_sequence .and .true .emit '\0' .and float_exponent_part;

-

-float_fractional_constant

-    float_fractional_constant_1 .or float_fractional_constant_2 .or float_fractional_constant_3;

-float_fractional_constant_1

-    float_digit_sequence .and '.' .and float_digit_sequence;

-float_fractional_constant_2

-    float_digit_sequence .and '.' .and .true .emit '\0';

-float_fractional_constant_3

-    '.' .emit '\0' .and float_digit_sequence;

-

-float_optional_exponent_part

-    float_exponent_part .or .true .emit '\0';

-

-float_digit_sequence

-    digit_dec .emit * .and .loop digit_dec .emit * .and .true .emit '\0';

-

-float_exponent_part

-    float_exponent_part_1 .or float_exponent_part_2;

-float_exponent_part_1

-    'e' .and float_optional_sign .and float_digit_sequence;

-float_exponent_part_2

-    'E' .and float_optional_sign .and float_digit_sequence;

-

-float_optional_sign

-    float_sign .or .true;

-

-float_sign

-    '+' .or '-' .emit '-';

-

-integer

-    integer_hex .or integer_oct .or integer_dec;

-

-integer_hex

-    '0' .and integer_hex_1 .emit 0x10 .and digit_hex .emit * .and .loop digit_hex .emit * .and

-    .true .emit '\0';

-integer_hex_1

-    'x' .or 'X';

-

-integer_oct

-    '0' .emit 8 .emit * .and .loop digit_oct .emit * .and .true .emit '\0';

-

-integer_dec

-    digit_dec .emit 10 .emit * .and .loop digit_dec .emit * .and .true .emit '\0';

-

-boolean

-    "true" .emit 2 .emit '1' .emit '\0' .or

-    "false" .emit 2 .emit '0' .emit '\0';

-

-type_name

-    identifier;

-

-field_selection

-    identifier;

-

-floatconstant

-    float .emit OP_PUSH_FLOAT;

-

-intconstant

-    integer .emit OP_PUSH_INT;

-

-boolconstant

-    boolean .emit OP_PUSH_BOOL;

-

-optional_space

-    .loop single_space;

-

-space

-    single_space .and .loop single_space;

-

-single_space

-    white_char .or c_style_comment_block .or cpp_style_comment_block;

-

-white_char

-    ' ' .or '\t' .or new_line .or '\v' .or '\f';

-

-new_line

-    cr_lf .or lf_cr .or '\n' .or '\r';

-

-cr_lf

-    '\r' .and '\n';

-

-lf_cr

-    '\n' .and '\r';

-

-c_style_comment_block

-    '/' .and '*' .and c_style_comment_rest;

-

-c_style_comment_rest

-    .loop c_style_comment_char_no_star .and c_style_comment_rest_1;

-c_style_comment_rest_1

-    c_style_comment_end .or c_style_comment_rest_2;

-c_style_comment_rest_2

-    '*' .and c_style_comment_rest;

-

-c_style_comment_char_no_star

-    '\x2B'-'\xFF' .or '\x01'-'\x29';

-

-c_style_comment_end

-    '*' .and '/';

-

-cpp_style_comment_block

-    '/' .and '/' .and cpp_style_comment_block_1;

-cpp_style_comment_block_1

-    cpp_style_comment_block_2 .or cpp_style_comment_block_3;

-cpp_style_comment_block_2

-    .loop cpp_style_comment_char .and new_line;

-cpp_style_comment_block_3

-    .loop cpp_style_comment_char;

-

-cpp_style_comment_char

-    '\x0E'-'\xFF' .or '\x01'-'\x09' .or '\x0B'-'\x0C';

-

-/* lexical rulez */

-

-/*ampersand

-    optional_space .and '&' .and optional_space;*/

-

-ampersandampersand

-    optional_space .and '&' .and '&' .and optional_space;

-

-/*ampersandequals

-    optional_space .and '&' .and '=' .and optional_space;*/

-

-/*bar

-    optional_space .and '|' .and optional_space;*/

-

-barbar

-    optional_space .and '|' .and '|' .and optional_space;

-

-/*barequals

-    optional_space .and '|' .and '=' .and optional_space;*/

-

-bang

-    optional_space .and '!' .and optional_space;

-

-bangequals

-    optional_space .and '!' .and '=' .and optional_space;

-

-/*caret

-    optional_space .and '^' .and optional_space;*/

-

-caretcaret

-    optional_space .and '^' .and '^' .and optional_space;

-

-/*caretequals

-    optional_space .and '^' .and '=' .and optional_space;*/

-

-colon

-    optional_space .and ':' .and optional_space;

-

-comma

-    optional_space .and ',' .and optional_space;

-

-dot

-    optional_space .and '.' .and optional_space;

-

-equals

-    optional_space .and '=' .and optional_space;

-

-equalsequals

-    optional_space .and '=' .and '=' .and optional_space;

-

-greater

-    optional_space .and '>' .and optional_space;

-

-greaterequals

-    optional_space .and '>' .and '=' .and optional_space;

-

-/*greatergreater

-    optional_space .and '>' .and '>' .and optional_space;*/

-

-/*greatergreaterequals

-    optional_space .and '>' .and '>' .and '=' .and optional_space;*/

-

-lbrace

-    optional_space .and '{' .and optional_space;

-

-lbracket

-    optional_space .and '[' .and optional_space;

-

-less

-    optional_space .and '<' .and optional_space;

-

-lessequals

-    optional_space .and '<' .and '=' .and optional_space;

-

-/*lessless

-    optional_space .and '<' .and '<' .and optional_space;*/

-

-/*lesslessequals

-    optional_space .and '<' .and '<' .and '=' .and optional_space;*/

-

-lparen

-    optional_space .and '(' .and optional_space;

-

-minus

-    optional_space .and '-' .and optional_space;

-

-minusequals

-    optional_space .and '-' .and '=' .and optional_space;

-

-minusminus

-    optional_space .and '-' .and '-' .and optional_space;

-

-/*percent

-    optional_space .and '%' .and optional_space;*/

-

-/*percentequals

-    optional_space .and '%' .and '=' .and optional_space;*/

-

-plus

-    optional_space .and '+' .and optional_space;

-

-plusequals

-    optional_space .and '+' .and '=' .and optional_space;

-

-plusplus

-    optional_space .and '+' .and '+' .and optional_space;

-

-question

-    optional_space .and '?' .and optional_space;

-

-rbrace

-    optional_space .and '}' .and optional_space;

-

-rbracket

-    optional_space .and ']' .and optional_space;

-

-rparen

-    optional_space .and ')' .and optional_space;

-

-semicolon

-    optional_space .and ';' .and optional_space;

-

-slash

-    optional_space .and '/' .and optional_space;

-

-slashequals

-    optional_space .and '/' .and '=' .and optional_space;

-

-star

-    optional_space .and '*' .and optional_space;

-

-starequals

-    optional_space .and '*' .and '=' .and optional_space;

-

-/*tilde

-    optional_space .and '~' .and optional_space;*/

-

-/* string rulez - these are used internally by the parser when parsing quoted strings */

-

-.string string_lexer;

-

-string_lexer

-    lex_first_identifier_character .and .loop lex_next_identifier_character;

-

-lex_first_identifier_character

-    'a'-'z' .or 'A'-'Z' .or '_';

-

-lex_next_identifier_character

-    'a'-'z' .or 'A'-'Z' .or '0'-'9' .or '_';

-

-/* error rulez - these are used by error messages */

-

-err_token

-    '~' .or '`' .or '!' .or '@' .or '#' .or '$' .or '%' .or '^' .or '&' .or '*' .or '(' .or ')' .or

-    '-' .or '+' .or '=' .or '|' .or '\\' .or '[' .or ']' .or '{' .or '}' .or ':' .or ';' .or '"' .or

-    '\'' .or '<' .or ',' .or '>' .or '.' .or '/' .or '?' .or err_identifier;

-

-err_identifier

-    id_character_first .and .loop id_character_next;

-

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_version.syn b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_version.syn
deleted file mode 100755
index 3a8c7046b..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_version.syn
+++ /dev/null
@@ -1,118 +0,0 @@
-/*

- * Mesa 3-D graphics library

- * Version:  6.3

- *

- * Copyright (C) 2005  Brian Paul   All Rights Reserved.

- *

- * Permission is hereby granted, free of charge, to any person obtaining a

- * copy of this software and associated documentation files (the "Software"),

- * to deal in the Software without restriction, including without limitation

- * the rights to use, copy, modify, merge, publish, distribute, sublicense,

- * and/or sell copies of the Software, and to permit persons to whom the

- * Software is furnished to do so, subject to the following conditions:

- *

- * The above copyright notice and this permission notice shall be included

- * in all copies or substantial portions of the Software.

- *

- * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS

- * OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,

- * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.  IN NO EVENT SHALL

- * BRIAN PAUL BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN

- * AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN

- * CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.

- */

-

-/**

- * \file slang_version.syn

- * slang #version directive syntax

- * \author Michal Krol

- */

-

-.syntax version_directive;

-

-version_directive

-	version_directive_1 .and .loop version_directive_2;

-version_directive_1

-	prior_optional_spaces .and optional_version_directive .and .true .emit $;

-version_directive_2

-	prior_optional_spaces .and version_directive_body .and .true .emit $;

-

-optional_version_directive

-	version_directive_body .or .true .emit 10 .emit 1;

-

-version_directive_body

-	'#' .and optional_space .and "version" .and space .and version_number .and optional_space .and

-	new_line;

-

-version_number

-	version_number_110;

-

-version_number_110

-	leading_zeroes .and "110" .emit 10 .emit 1;

-

-leading_zeroes

-	.loop zero;

-

-zero

-	'0';

-

-space

-    single_space .and .loop single_space;

-

-optional_space

-    .loop single_space;

-

-single_space

-    ' ' .or '\t';

-

-prior_optional_spaces

-	.loop prior_space;

-

-prior_space

-	c_style_comment_block .or cpp_style_comment_block .or space .or new_line;

-

-c_style_comment_block

-    '/' .and '*' .and c_style_comment_rest;

-

-c_style_comment_rest

-    .loop c_style_comment_char_no_star .and c_style_comment_rest_1;

-c_style_comment_rest_1

-    c_style_comment_end .or c_style_comment_rest_2;

-c_style_comment_rest_2

-    '*' .and c_style_comment_rest;

-

-c_style_comment_char_no_star

-    '\x2B'-'\xFF' .or '\x01'-'\x29';

-

-c_style_comment_end

-    '*' .and '/';

-

-cpp_style_comment_block

-    '/' .and '/' .and cpp_style_comment_block_1;

-cpp_style_comment_block_1

-    cpp_style_comment_block_2 .or cpp_style_comment_block_3;

-cpp_style_comment_block_2

-    .loop cpp_style_comment_char .and new_line;

-cpp_style_comment_block_3

-    .loop cpp_style_comment_char;

-

-cpp_style_comment_char

-    '\x0E'-'\xFF' .or '\x01'-'\x09' .or '\x0B'-'\x0C';

-

-new_line

-    cr_lf .or lf_cr .or '\n' .or '\r';

-

-cr_lf

-    '\r' .and '\n';

-

-lf_cr

-	'\n' .and '\r';

-

-.string __string_filter;

-

-__string_filter

-    .loop __identifier_char;

-

-__identifier_char

-    'a'-'z' .or 'A'-'Z' .or '_' .or '0'-'9';

-

diff --git a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_vertex_builtin.gc b/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_vertex_builtin.gc
deleted file mode 100755
index 850fd2bb8..000000000
--- a/nx-X11/extras/Mesa/src/mesa/shader/slang/library/slang_vertex_builtin.gc
+++ /dev/null
@@ -1,262 +0,0 @@
-
-// 
-// TODO:
-// - what to do with ftransform? can it stay in the current form?
-// - implement texture1DLod, texture2DLod, texture3DLod, textureCubeLod,
-// - implement shadow1DLod, shadow2DLod,
-// 
-
-// 
-// From Shader Spec, ver. 1.10, rev. 59
-// 
-// Some OpenGL operations still continue to occur in fixed functionality in between the vertex
-// processor and the fragment processor. Other OpenGL operations continue to occur in fixed
-// functionality after the fragment processor. Shaders communicate with the fixed functionality
-// of OpenGL through the use of built-in variables.
-// 
-// The variable gl_Position is available only in the vertex language and is intended for writing
-// the homogeneous vertex position. All executions of a well-formed vertex shader must write
-// a value into this variable. It can be written at any time during shader execution. It may also
-// be read back by the shader after being written. This value will be used by primitive assembly,
-// clipping, culling, and other fixed functionality operations that operate on primitives after
-// vertex processing has occurred. Compilers may generate a diagnostic message if they detect
-// gl_Position is not written, or read before being written, but not all such cases are detectable.
-// Results are undefined if a vertex shader is executed and does not write gl_Position.
-// 
-// The variable gl_PointSize is available only in the vertex language and is intended for a vertex
-// shader to write the size of the point to be rasterized. It is measured in pixels.
-// 
-// The variable gl_ClipVertex is available only in the vertex language and provides a place for
-// vertex shaders to write the coordinate to be used with the user clipping planes. The user must
-// ensure the clip vertex and user clipping planes are defined in the same coordinate space. User
-// clip planes work properly only under linear transform. It is undefined what happens under
-// non-linear transform.
-// 
-// These built-in vertex shader variables for communicating with fixed functionality are
-// intrinsically declared with the following types:
-// 
-
-__fixed_output vec4 gl_Position;                                       // must be written to
-__fixed_output float gl_PointSize;                                     // may be written to
-__fixed_output vec4 gl_ClipVertex;                                     // may be written to
-
-// 
-// If gl_PointSize or gl_ClipVertex are not written to, their values are undefined. Any of these
-// variables can be read back by the shader after writing to them, to retrieve what was written.
-// Reading them before writing them results in undefined behavior. If they are written more than
-// once, it is the last value written that is consumed by the subsequent operations.
-// 
-// These built-in variables have global scope.
-// 
-
-// 
-// The following attribute names are built into the OpenGL vertex language and can be used from
-// within a vertex shader to access the current values of attributes declared by OpenGL. All page
-// numbers and notations are references to the OpenGL 1.4 specification.
-// 
-
-// 
-// Vertex Attributes, p. 19.
-// 
-
-attribute vec4 gl_Color;
-attribute vec4 gl_SecondaryColor;
-attribute vec3 gl_Normal;
-attribute vec4 gl_Vertex;
-attribute vec4 gl_MultiTexCoord0;
-attribute vec4 gl_MultiTexCoord1;
-attribute vec4 gl_MultiTexCoord2;
-attribute vec4 gl_MultiTexCoord3;
-attribute vec4 gl_MultiTexCoord4;
-attribute vec4 gl_MultiTexCoord5;
-attribute vec4 gl_MultiTexCoord6;
-attribute vec4 gl_MultiTexCoord7;
-attribute float gl_FogCoord;
-
-// 
-// Unlike user-defined varying variables, the built-in varying variables don't have a strict
-// one-to-one correspondence between the vertex language and the fragment language. Two sets are
-// provided, one for each language. Their relationship is described below.
-// 
-// The following built-in varying variables are available to write to in a vertex shader.
-// A particular one should be written to if any functionality in a corresponding fragment shader
-// or fixed pipeline uses it or state derived from it. Otherwise, behavior is undefined.
-//
-
-varying vec4 gl_FrontColor;
-varying vec4 gl_BackColor;
-varying vec4 gl_FrontSecondaryColor;
-varying vec4 gl_BackSecondaryColor;
-varying vec4 gl_TexCoord[];                             // at most will be gl_MaxTextureCoords
-varying float gl_FogFragCoord;
-
-// 
-// For gl_FogFragCoord, the value written will be used as the "c" value on page 160 of the
-// OpenGL 1.4 Specification by the fixed functionality pipeline. For example, if the z-coordinate
-// of the fragment in eye space is desired as "c", then that's what the vertex shader should write
-// into gl_FogFragCoord.
-// 
-// As with all arrays, indices used to subscript gl_TexCoord must either be an integral constant
-// expressions, or this array must be re-declared by the shader with a size. The size can be
-// at most gl_MaxTextureCoords. Using indexes close to 0 may aid the implementation
-// in preserving varying resources.
-// 
-
-// 
-// The OpenGL Shading Language defines an assortment of built-in convenience functions for scalar
-// and vector operations. Many of these built-in functions can be used in more than one type
-// of shader, but some are intended to provide a direct mapping to hardware and so are available
-// only for a specific type of shader.
-// 
-// The built-in functions basically fall into three categories:
-// 
-// * They expose some necessary hardware functionality in a convenient way such as accessing
-//   a texture map. There is no way in the language for these functions to be emulated by a shader.
-// 
-// * They represent a trivial operation (clamp, mix, etc.) that is very simple for the user
-//   to write, but they are very common and may have direct hardware support. It is a very hard
-//   problem for the compiler to map expressions to complex assembler instructions.
-// 
-// * They represent an operation graphics hardware is likely to accelerate at some point. The
-//   trigonometry functions fall into this category.
-// 
-// Many of the functions are similar to the same named ones in common C libraries, but they support
-// vector input as well as the more traditional scalar input.
-// 
-// Applications should be encouraged to use the built-in functions rather than do the equivalent
-// computations in their own shader code since the built-in functions are assumed to be optimal
-// (e.g., perhaps supported directly in hardware).
-// 
-// User code can replace built-in functions with their own if they choose, by simply re-declaring
-// and defining the same name and argument list.
-// 
-
-// 
-// Geometric Functions
-// 
-// These operate on vectors as vectors, not component-wise.
-// 
-
-// 
-// For vertex shaders only. This function will ensure that the incoming vertex value will be
-// transformed in a way that produces exactly the same result as would be produced by OpenGL's
-// fixed functionality transform. It is intended to be used to compute gl_Position, e.g.,
-// gl_Position = ftransform()
-// This function should be used, for example, when an application is rendering the same geometry in
-// separate passes, and one pass uses the fixed functionality path to render and another pass uses
-// programmable shaders.
-// 
-
-vec4 ftransform () {
-    return gl_ModelViewProjectionMatrix * gl_Vertex;
-}
-
-// 
-// 8.7 Texture Lookup Functions
-// 
-// Texture lookup functions are available to both vertex and fragment shaders. However, level
-// of detail is not computed by fixed functionality for vertex shaders, so there are some
-// differences in operation between vertex and fragment texture lookups. The functions in the table
-// below provide access to textures through samplers, as set up through the OpenGL API. Texture
-// properties such as size, pixel format, number of dimensions, filtering method, number of mip-map
-// levels, depth comparison, and so on are also defined by OpenGL API calls. Such properties are
-// taken into account as the texture is accessed via the built-in functions defined below.
-// 
-// If a non-shadow texture call is made to a sampler that represents a depth texture with depth
-// comparisons turned on, then results are undefined. If a shadow texture call is made to a sampler
-// that represents a depth texture with depth comparisions turned off, the results are undefined.
-// If a shadow texture call is made to a sampler that does not represent a depth texture, then
-// results are undefined.
-// 
-// In all functions below, the bias parameter is optional for fragment shaders. The bias parameter
-// is not accepted in a vertex shader. For a fragment shader, if bias is present, it is added to
-// the calculated level of detail prior to performing the texture access operation. If the bias
-// parameter is not provided, then the implementation automatically selects level of detail:
-// For a texture that is not mip-mapped, the texture is used directly. If it is mip-mapped and
-// running in a fragment shader, the LOD computed by the implementation is used to do the texture
-// lookup. If it is mip-mapped and running on the vertex shader, then the base texture is used.
-// 
-// The built-ins suffixed with "Lod" are allowed only in a vertex shader. For the "Lod" functions,
-// lod is directly used as the level of detail.
-// 
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 1D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate coord.s is divided by
-// the last component of coord.
-// 
-// XXX
-vec4 texture1DLod (sampler1D sampler, float coord, float lod) {
-    return vec4 (0.0);
-}
-vec4 texture1DProjLod (sampler1D sampler, vec2 coord, float lod) {
-    return texture1DLod (sampler, coord.s / coord.t, lod);
-}
-vec4 texture1DProjLod (sampler1D sampler, vec4 coord, float lod) {
-    return texture1DLod (sampler, coord.s / coord.q, lod);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 2D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate (coord.s, coord.t) is
-// divided by the last component of coord. The third component of coord is ignored for the vec4
-// coord variant.
-// 
-// XXX
-vec4 texture2DLod (sampler2D sampler, vec2 coord, float lod) {
-    return vec4 (0.0);
-}
-vec4 texture2DProjLod (sampler2D sampler, vec3 coord, float lod) {
-    return texture2DLod (sampler, vec2 (coord.s / coord.p, coord.t / coord.p), lod);
-}
-vec4 texture2DProjLod (sampler2D sampler, vec4 coord, float lod) {
-    return texture2DLod (sampler, vec2 (coord.s / coord.q, coord.t / coord.q), lod);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the 3D texture currently bound
-// to sampler. For the projective ("Proj") versions, the texture coordinate is divided by coord.q.
-// 
-// XXX
-vec4 texture3DLod (sampler3D sampler, vec3 coord, float lod) {
-    return vec4 (0.0);
-}
-vec4 texture3DProjLod (sampler3D sampler, vec4 coord, float lod) {
-    return texture3DLod (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.s / coord.q),
-        lod);
-}
-
-// 
-// Use the texture coordinate coord to do a texture lookup in the cube map texture currently bound
-// to sampler. The direction of coord is used to select which face to do a 2-dimensional texture
-// lookup in, as described in section 3.8.6 in version 1.4 of the OpenGL specification.
-// 
-// XXX
-vec4 textureCubeLod (samplerCube sampler, vec3 coord, float lod) {
-    return vec4 (0.0);
-}
-
-// 
-// Use texture coordinate coord to do a depth comparison lookup on the depth texture bound
-// to sampler, as described in section 3.8.14 of version 1.4 of the OpenGL specification. The 3rd
-// component of coord (coord.p) is used as the R value. The texture bound to sampler must be a
-// depth texture, or results are undefined. For the projective ("Proj") version of each built-in,
-// the texture coordinate is divide by coord.q, giving a depth value R of coord.p/coord.q. The
-// second component of coord is ignored for the "1D" variants.
-// 
-// XXX
-vec4 shadow1DLod (sampler1DShadow sampler, vec3 coord, float lod) {
-    return vec4 (0.0);
-}
-// XXX
-vec4 shadow2DLod (sampler2DShadow sampler, vec3 coord, float lod) {
-    return vec4 (0.0);
-}
-vec4 shadow1DProjLod (sampler1DShadow sampler, vec4 coord, float lod) {
-    return shadow1DLod (sampler, vec3 (coord.s / coord.q, 0.0, coord.p / coord.q), lod);
-}
-vec4 shadow2DProjLod (sampler2DShadow sampler, vec4 coord, float lod) {
-    return shadow2DLod (sampler, vec3 (coord.s / coord.q, coord.t / coord.q, coord.p / coord.q),
-        lod);
-}
-