REVIEWED: Shaders formating to follow raylib code conventions

examples/others/resources/shaders/glsl100/point_particle.fs

@@ -10,7 +10,7 @@ uniform vec4 color;
 void main()
 {
     // Each point is drawn as a screen space square of gl_PointSize size. gl_PointCoord contains where we are inside of
-    // it. (0, 0) is the top left, (1, 1) the bottom right corner.
+    // it. (0, 0) is the top left, (1, 1) the bottom right corner
-    // Draw each point as a colored circle with alpha 1.0 in the center and 0.0 at the outer edges.
+    // Draw each point as a colored circle with alpha 1.0 in the center and 0.0 at the outer edges
     gl_FragColor = vec4(color.rgb, color.a*(1.0 - length(gl_PointCoord.xy - vec2(0.5))*2.0));
 }

examples/others/resources/shaders/glsl330/point_particle.fs

@@ -11,7 +11,7 @@ out vec4 finalColor;
 void main()
 {
     // Each point is drawn as a screen space square of gl_PointSize size. gl_PointCoord contains where we are inside of
-    // it. (0, 0) is the top left, (1, 1) the bottom right corner.
+    // it. (0, 0) is the top left, (1, 1) the bottom right corner
-    // Draw each point as a colored circle with alpha 1.0 in the center and 0.0 at the outer edges.
+    // Draw each point as a colored circle with alpha 1.0 in the center and 0.0 at the outer edges
     finalColor = vec4(color.rgb, color.a*(1 - length(gl_PointCoord.xy - vec2(0.5))*2));
 }

examples/shaders/resources/shaders/glsl100/bloom.fs

@@ -12,9 +12,9 @@ uniform vec4 colDiffuse;
 
 // NOTE: Add your custom variables here
 
-const vec2 size = vec2(800, 450);   // render size
+const vec2 size = vec2(800, 450);   // Framebuffer size
-const float samples = 5.0;          // pixels per axis; higher = bigger glow, worse performance
+const float samples = 5.0;          // Pixels per axis; higher = bigger glow, worse performance
-const float quality = 2.5;             // lower = smaller glow, better quality
+const float quality = 2.5;          // Defines size factor: Lower = smaller glow, better quality
 
 void main()
 {

examples/shaders/resources/shaders/glsl100/cubes_panning.fs

@@ -16,7 +16,7 @@ float angle = 0.0;
 vec2 VectorRotateTime(vec2 v, float speed)
 {
     float time = uTime*speed;
-    float localTime = fract(time);  // The time domain this works on is 1 sec.
+    float localTime = fract(time);  // The time domain this works on is 1 sec
 
     if ((localTime >= 0.0) && (localTime < 0.25)) angle = 0.0;
     else if ((localTime >= 0.25) && (localTime < 0.50)) angle = PI/4.0*sin(2.0*PI*localTime - PI/2.0);

examples/shaders/resources/shaders/glsl100/deferred_shading.fs

@@ -13,9 +13,9 @@ uniform sampler2D gAlbedoSpec;
 
 struct Light {
     int enabled;
-    int type; // Unused in this demo.
+    int type;       // Unused in this demo
     vec3 position;
-    vec3 target; // Unused in this demo.
+    vec3 target;    // Unused in this demo
     vec4 color;
 };
 

examples/shaders/resources/shaders/glsl100/eratosthenes.fs

@@ -7,12 +7,12 @@ precision mediump float;
   The Sieve of Eratosthenes -- a simple shader by ProfJski
   An early prime number sieve: https://en.wikipedia.org/wiki/Sieve_of_Eratosthenes
 
-  The screen is divided into a square grid of boxes, each representing an integer value.
+  The screen is divided into a square grid of boxes, each representing an integer value
-  Each integer is tested to see if it is a prime number.  Primes are colored white.
+  Each integer is tested to see if it is a prime number.  Primes are colored white
-  Non-primes are colored with a color that indicates the smallest factor which evenly divdes our integer.
+  Non-primes are colored with a color that indicates the smallest factor which evenly divdes our integer
 
-  You can change the scale variable to make a larger or smaller grid.
+  You can change the scale variable to make a larger or smaller grid
-  Total number of integers displayed = scale squared, so scale = 100 tests the first 10,000 integers.
+  Total number of integers displayed = scale squared, so scale = 100 tests the first 10,000 integers
 
   WARNING: If you make scale too large, your GPU may bog down!
 
@@ -38,7 +38,7 @@ vec4 Colorizer(float counter, float maxSize)
 void main()
 {
     vec4 color = vec4(1.0);
-    float scale = 1000.0; // Makes 100x100 square grid. Change this variable to make a smaller or larger grid.
+    float scale = 1000.0; // Makes 100x100 square grid. Change this variable to make a smaller or larger grid
     float value = scale*floor(fragTexCoord.y*scale) + floor(fragTexCoord.x*scale);  // Group pixels into boxes representing integer values
     int valuei = int(value);
 

examples/shaders/resources/shaders/glsl100/hybrid_raster.fs

@@ -1,4 +1,5 @@
 #version 100
+
 #extension GL_EXT_frag_depth : enable   // Extension required for writing depth         
 precision mediump float;                // Precision required for OpenGL ES2 (WebGL)
 
@@ -11,6 +12,7 @@ uniform vec4 colDiffuse;
 void main()
 {
     vec4 texelColor = texture2D(texture0, fragTexCoord);
+
     gl_FragColor = texelColor*colDiffuse*fragColor;
     gl_FragDepthEXT = gl_FragCoord.z;
 }

examples/shaders/resources/shaders/glsl100/hybrid_raymarch.fs

@@ -1,9 +1,9 @@
 #version 100
+
 #extension GL_EXT_frag_depth : enable           //Extension required for writing depth
 #extension GL_OES_standard_derivatives : enable //Extension used for fwidth()
 precision mediump float;                // Precision required for OpenGL ES2 (WebGL)
 
-
 // Input vertex attributes (from vertex shader)
 varying vec2 fragTexCoord;
 varying vec4 fragColor;
@@ -19,13 +19,14 @@ uniform vec2 screenCenter;
 
 #define ZERO 0
 
-// https://learnopengl.com/Advanced-OpenGL/Depth-testing
+// SRC: https://learnopengl.com/Advanced-OpenGL/Depth-testing
-float CalcDepth(in vec3 rd, in float Idist){
+float CalcDepth(in vec3 rd, in float Idist)
+{
     float local_z = dot(normalize(camDir),rd)*Idist;
     return (1.0/(local_z) - 1.0/0.01)/(1.0/1000.0 -1.0/0.01);
 }
 
-// https://iquilezles.org/articles/distfunctions/
+// SRC: https://iquilezles.org/articles/distfunctions/
 float sdHorseshoe(in vec3 p, in vec2 c, in float r, in float le, vec2 w)
 {
     p.x = abs(p.x);
@@ -57,11 +58,10 @@ float sdSixWayCutHollowSphere( vec3 p, float r, float h, float t )
     
     float w = sqrt(r*r-h*h);
     
-    return ((h*q.x<w*q.y) ? length(q-vec2(w,h)) : 
+    return ((h*q.x<w*q.y) ? length(q-vec2(w,h)) : abs(length(q)-r)) - t;
-                            abs(length(q)-r) ) - t;
 }
 
-// https://iquilezles.org/articles/boxfunctions
+// SRC: https://iquilezles.org/articles/boxfunctions
 vec2 iBox(in vec3 ro, in vec3 rd, in vec3 rad) 
 {
     vec3 m = 1.0/rd;
@@ -69,6 +69,7 @@ vec2 iBox( in vec3 ro, in vec3 rd, in vec3 rad )
     vec3 k = abs(m)*rad;
     vec3 t1 = -n - k;
     vec3 t2 = -n + k;
+
     return vec2(max(max(t1.x, t1.y), t1.z),
                  min(min(t2.x, t2.y), t2.z));
 }
@@ -78,20 +79,23 @@ vec2 opU( vec2 d1, vec2 d2 )
     return (d1.x<d2.x) ? d1 : d2;
 }
 
-vec2 map( in vec3 pos ){
+vec2 map(in vec3 pos)
+{
     vec2 res = vec2(sdHorseshoe(pos-vec3(-1.0,0.08, 1.0), vec2(cos(1.3),sin(1.3)), 0.2, 0.3, vec2(0.03,0.5)), 11.5) ;
     res = opU(res, vec2(sdSixWayCutHollowSphere(pos-vec3(0.0, 1.0, 0.0), 4.0, 3.5, 0.5), 4.5)) ;
+
     return res;
 }
 
-// https://www.shadertoy.com/view/Xds3zN
+// SRC: https://www.shadertoy.com/view/Xds3zN
-vec2 raycast( in vec3 ro, in vec3 rd ){
+vec2 raycast(in vec3 ro, in vec3 rd)
+{
     vec2 res = vec2(-1.0,-1.0);
 
     float tmin = 1.0;
     float tmax = 20.0;
 
-    // raytrace floor plane
+    // Raytrace floor plane
     float tp1 = (-ro.y)/rd.y;
     if (tp1>0.0)
     {

examples/shaders/resources/shaders/glsl100/julia_set.fs

@@ -1,19 +1,17 @@
-#version 100
+#version 120
-
-precision mediump float;
 
 // Input vertex attributes (from vertex shader)
 varying vec2 fragTexCoord;
 varying vec4 fragColor;
 
 uniform vec2 c;                 // c.x = real, c.y = imaginary component. Equation done is z^2 + c
-uniform vec2 offset;            // Offset of the scale.
+uniform vec2 offset;            // Offset of the scale
-uniform float zoom;             // Zoom of the scale.
+uniform float zoom;             // Zoom of the scale
 
 // NOTE: Maximum number of shader for-loop iterations depend on GPU,
 // for example, on RasperryPi for this examply only supports up to 60
-const int maxIterations = 48;     // Max iterations to do.
+const int maxIterations = 48;     // Max iterations to do
-const float colorCycles = 1.0;    // Number of times the color palette repeats.
+const float colorCycles = 1.0;    // Number of times the color palette repeats
 
 // Square a complex number
 vec2 ComplexSquare(vec2 z)
@@ -32,22 +30,22 @@ vec3 Hsv2rgb(vec3 c)
 void main()
 {
     /**********************************************************************************************
-      Julia sets use a function z^2 + c, where c is a constant.
+      Julia sets use a function z^2 + c, where c is a constant
-      This function is iterated until the nature of the point is determined.
+      This function is iterated until the nature of the point is determined
 
       If the magnitude of the number becomes greater than 2, then from that point onward
-      the number will get bigger and bigger, and will never get smaller (tends towards infinity).
+      the number will get bigger and bigger, and will never get smaller (tends towards infinity)
-      2^2 = 4, 4^2 = 8 and so on.
+      2^2 = 4, 4^2 = 8 and so on
-      So at 2 we stop iterating.
+      So at 2 we stop iterating
 
-      If the number is below 2, we keep iterating.
+      If the number is below 2, we keep iterating
       But when do we stop iterating if the number is always below 2 (it converges)?
-      That is what maxIterations is for.
+      That is what maxIterations is for
-      Then we can divide the iterations by the maxIterations value to get a normalized value that we can
+      Then we can divide the iterations by the maxIterations value to get a normalized value
-      then map to a color.
+      that we can then map to a color
 
-      We use dot product (z.x * z.x + z.y * z.y) to determine the magnitude (length) squared.
+      We use dot product (z.x*z.x + z.y*z.y) to determine the magnitude (length) squared
-      And once the magnitude squared is > 4, then magnitude > 2 is also true (saves computational power).
+      And once the magnitude squared is > 4, then magnitude > 2 is also true (saves computational power)
     *************************************************************************************************/
 
     // The pixel coordinates are scaled so they are on the mandelbrot scale
@@ -65,18 +63,18 @@ void main()
         iter = iterations;
     }
 
-    // Another few iterations decreases errors in the smoothing calculation.
+    // Another few iterations decreases errors in the smoothing calculation
-    // See http://linas.org/art-gallery/escape/escape.html for more information.
+    // See http://linas.org/art-gallery/escape/escape.html for more information
     z = ComplexSquare(z) + c;
     z = ComplexSquare(z) + c;
 
-    // This last part smooths the color (again see link above).
+    // This last part smooths the color (again see link above)
     float smoothVal = float(iter) + 1.0 - (log(log(length(z)))/log(2.0));
 
-    // Normalize the value so it is between 0 and 1.
+    // Normalize the value so it is between 0 and 1
     float norm = smoothVal/float(maxIterations);
 
-    // If in set, color black. 0.999 allows for some float accuracy error.
+    // If in set, color black. 0.999 allows for some float accuracy error
     if (norm > 0.999) gl_FragColor = vec4(0.0, 0.0, 0.0, 1.0);
     else gl_FragColor = vec4(Hsv2rgb(vec3(norm*colorCycles, 1.0, 1.0)), 1.0);
 }

examples/shaders/resources/shaders/glsl100/mask.fs

@@ -1,6 +1,4 @@
-#version 100
+#version 120
-
-precision mediump float;
 
 // Input vertex attributes (from vertex shader)
 varying vec2 fragTexCoord;

examples/shaders/resources/shaders/glsl100/raymarching.fs

@@ -34,7 +34,7 @@ uniform vec2 resolution;
 // SOFTWARE.
 
 // A list of useful distance function to simple primitives, and an example on how to
-// do some interesting boolean operations, repetition and displacement.
+// do some interesting boolean operations, repetition and displacement
 //
 // More info here: http://www.iquilezles.org/www/articles/distfunctions/distfunctions.htm
 

examples/shaders/resources/shaders/glsl100/rounded_rectangle.fs

@@ -1,9 +1,9 @@
-// Note: SDF by Iñigo Quilez is licensed under MIT License
-
 #version 100
 
 precision mediump float;
 
+// NOTE: SDF by Iñigo Quilez, licensed under MIT License
+
 // Input vertex attributes (from vertex shader)
 varying vec2 fragTexCoord;
 varying vec4 fragColor;

examples/shaders/resources/shaders/glsl100/vertex_displacement.fs

@@ -6,7 +6,6 @@ precision mediump float;
 varying vec2 fragTexCoord;
 varying float height;
 
-
 void main()
 {
     vec4 darkblue = vec4(0.0, 0.13, 0.18, 1.0);

examples/shaders/resources/shaders/glsl100/wave.fs

@@ -11,9 +11,7 @@ uniform sampler2D texture0;
 uniform vec4 colDiffuse;
 
 uniform float seconds;
-
 uniform vec2 size;
-
 uniform float freqX;
 uniform float freqY;
 uniform float ampX;

examples/shaders/resources/shaders/glsl100/write_depth.fs

@@ -1,6 +1,7 @@
 #version 100
+
 #extension GL_EXT_frag_depth : enable          
-precision mediump float;                // Precision required for OpenGL ES2 (WebGL)
+precision mediump float;
 
 varying vec2 fragTexCoord;
 varying vec4 fragColor;

examples/shaders/resources/shaders/glsl120/palette_switch.fs

@@ -16,12 +16,12 @@ void main()
     vec4 texelColor = texture(texture0, fragTexCoord)*fragColor;
 
     // Convert the (normalized) texel color RED component (GB would work, too)
-    // to the palette index by scaling up from [0, 1] to [0, 255].
+    // to the palette index by scaling up from [0, 1] to [0, 255]
     int index = int(texelColor.r*255.0);
     ivec3 color = palette[index];
 
     // Calculate final fragment color. Note that the palette color components
     // are defined in the range [0, 255] and need to be normalized to [0, 1]
-    // for OpenGL to work.
+    // for OpenGL to work
     gl_FragColor = vec4(color/255.0, texelColor.a);
 }

examples/shaders/resources/shaders/glsl120/raymarching.fs

@@ -30,7 +30,7 @@ uniform vec2 resolution;
 // SOFTWARE.
 
 // A list of useful distance function to simple primitives, and an example on how to
-// do some interesting boolean operations, repetition and displacement.
+// do some interesting boolean operations, repetition and displacement
 //
 // More info here: http://www.iquilezles.org/www/articles/distfunctions/distfunctions.htm
 

examples/shaders/resources/shaders/glsl120/rounded_rectangle.fs

@@ -1,7 +1,7 @@
-// Note: SDF by Iñigo Quilez is licensed under MIT License
-
 #version 120
 
+// NOTE: SDF by Iñigo Quilez, licensed under MIT License
+
 // Input vertex attributes (from vertex shader)
 varying vec2 fragTexCoord;
 varying vec4 fragColor;

examples/shaders/resources/shaders/glsl120/shadowmap.fs

@@ -52,7 +52,7 @@ void main()
     vec2 sampleCoords = fragPosLightSpace.xy;
     float curDepth = fragPosLightSpace.z;
 
-    // Slope-scale depth bias: depth biasing reduces "shadow acne" artifacts, where dark stripes appear all over the scene.
+    // Slope-scale depth bias: depth biasing reduces "shadow acne" artifacts, where dark stripes appear all over the scene
     // The solution is adding a small bias to the depth
     // In this case, the bias is proportional to the slope of the surface, relative to the light
     float bias = max(0.0008*(1.0 - dot(normal, l)), 0.00008);
@@ -61,8 +61,8 @@ void main()
     
     // PCF (percentage-closer filtering) algorithm:
     // Instead of testing if just one point is closer to the current point,
-    // we test the surrounding points as well.
+    // we test the surrounding points as well
-    // This blurs shadow edges, hiding aliasing artifacts.
+    // This blurs shadow edges, hiding aliasing artifacts
     vec2 texelSize = vec2(1.0/float(shadowMapResolution));
     for (int x = -1; x <= 1; x++)
     {

examples/shaders/resources/shaders/glsl330/cubes_panning.fs

@@ -17,7 +17,7 @@ float angle = 0.0;
 vec2 VectorRotateTime(vec2 v, float speed)
 {
     float time = uTime*speed;
-    float localTime = fract(time);  // The time domain this works on is 1 sec.
+    float localTime = fract(time);  // The time domain this works on is 1 sec
 
     if ((localTime >= 0.0) && (localTime < 0.25)) angle = 0.0;
     else if ((localTime >= 0.25) && (localTime < 0.50)) angle = PI/4*sin(2*PI*localTime - PI/2);

examples/shaders/resources/shaders/glsl330/deferred_shading.fs

@@ -10,9 +10,9 @@ uniform sampler2D gAlbedoSpec;
 
 struct Light {
     int enabled;
-    int type; // Unused in this demo.
+    int type;       // Unused in this demo
     vec3 position;
-    vec3 target; // Unused in this demo.
+    vec3 target;    // Unused in this demo
     vec4 color;
 };
 

examples/shaders/resources/shaders/glsl330/eratosthenes.fs

@@ -5,12 +5,12 @@
   The Sieve of Eratosthenes -- a simple shader by ProfJski
   An early prime number sieve: https://en.wikipedia.org/wiki/Sieve_of_Eratosthenes
 
-  The screen is divided into a square grid of boxes, each representing an integer value.
+  The screen is divided into a square grid of boxes, each representing an integer value
-  Each integer is tested to see if it is a prime number.  Primes are colored white.
+  Each integer is tested to see if it is a prime number.  Primes are colored white
-  Non-primes are colored with a color that indicates the smallest factor which evenly divdes our integer.
+  Non-primes are colored with a color that indicates the smallest factor which evenly divides our integer
 
-  You can change the scale variable to make a larger or smaller grid.
+  You can change the scale variable to make a larger or smaller grid
-  Total number of integers displayed = scale squared, so scale = 100 tests the first 10,000 integers.
+  Total number of integers displayed = scale squared, so scale = 100 tests the first 10,000 integers
 
   WARNING: If you make scale too large, your GPU may bog down!
 
@@ -39,7 +39,7 @@ vec4 Colorizer(float counter, float maxSize)
 void main()
 {
     vec4 color = vec4(1.0);
-    float scale = 1000.0; // Makes 100x100 square grid. Change this variable to make a smaller or larger grid.
+    float scale = 1000.0; // Makes 100x100 square grid, change this variable to make a smaller or larger grid
     int value = int(scale*floor(fragTexCoord.y*scale)+floor(fragTexCoord.x*scale));  // Group pixels into boxes representing integer values
 
     if ((value == 0) || (value == 1) || (value == 2)) finalColor = vec4(1.0);

examples/shaders/resources/shaders/glsl330/julia_set.fs

@@ -8,11 +8,11 @@ in vec4 fragColor;
 out vec4 finalColor;
 
 uniform vec2 c;                 // c.x = real, c.y = imaginary component. Equation done is z^2 + c
-uniform vec2 offset;            // Offset of the scale.
+uniform vec2 offset;            // Offset of the scale
-uniform float zoom;             // Zoom of the scale.
+uniform float zoom;             // Zoom of the scale
 
-const int maxIterations = 255;     // Max iterations to do.
+const int maxIterations = 255;  // Max iterations to do
-const float colorCycles = 2.0;    // Number of times the color palette repeats. Can show higher detail for higher iteration numbers.
+const float colorCycles = 2.0;  // Number of times the color palette repeats. Can show higher detail for higher iteration numbers
 
 // Square a complex number
 vec2 ComplexSquare(vec2 z)
@@ -31,22 +31,22 @@ vec3 Hsv2rgb(vec3 c)
 void main()
 {
     /**********************************************************************************************
-      Julia sets use a function z^2 + c, where c is a constant.
+      Julia sets use a function z^2 + c, where c is a constant
-      This function is iterated until the nature of the point is determined.
+      This function is iterated until the nature of the point is determined
 
       If the magnitude of the number becomes greater than 2, then from that point onward
-      the number will get bigger and bigger, and will never get smaller (tends towards infinity).
+      the number will get bigger and bigger, and will never get smaller (tends towards infinity)
-      2^2 = 4, 4^2 = 8 and so on.
+      2^2 = 4, 4^2 = 8 and so on
-      So at 2 we stop iterating.
+      So at 2 we stop iterating
 
-      If the number is below 2, we keep iterating.
+      If the number is below 2, we keep iterating
       But when do we stop iterating if the number is always below 2 (it converges)?
-      That is what maxIterations is for.
+      That is what maxIterations is for
-      Then we can divide the iterations by the maxIterations value to get a normalized value that we can
+      Then we can divide the iterations by the maxIterations value to get a normalized value
-      then map to a color.
+      that we can then map to a color
 
-      We use dot product (z.x * z.x + z.y * z.y) to determine the magnitude (length) squared.
+      We use dot product (z.x*z.x + z.y*z.y) to determine the magnitude (length) squared
-      And once the magnitude squared is > 4, then magnitude > 2 is also true (saves computational power).
+      And once the magnitude squared is > 4, then magnitude > 2 is also true (saves computational power)
     *************************************************************************************************/
 
     // The pixel coordinates are scaled so they are on the mandelbrot scale
@@ -63,18 +63,18 @@ void main()
         if (dot(z, z) > 4.0) break;
     }
 
-    // Another few iterations decreases errors in the smoothing calculation.
+    // Another few iterations decreases errors in the smoothing calculation
-    // See http://linas.org/art-gallery/escape/escape.html for more information.
+    // See http://linas.org/art-gallery/escape/escape.html for more information
     z = ComplexSquare(z) + c;
     z = ComplexSquare(z) + c;
 
-    // This last part smooths the color (again see link above).
+    // This last part smooths the color (again see link above)
     float smoothVal = float(iterations) + 1.0 - (log(log(length(z)))/log(2.0));
 
-    // Normalize the value so it is between 0 and 1.
+    // Normalize the value so it is between 0 and 1
     float norm = smoothVal/float(maxIterations);
 
-    // If in set, color black. 0.999 allows for some float accuracy error.
+    // If in set, color black. 0.999 allows for some float accuracy error
     if (norm > 0.999) finalColor = vec4(0.0, 0.0, 0.0, 1.0);
     else finalColor = vec4(Hsv2rgb(vec3(norm*colorCycles, 1.0, 1.0)), 1.0);
 }

examples/shaders/resources/shaders/glsl330/raymarching.fs

@@ -33,7 +33,7 @@ uniform vec2 resolution;
 // SOFTWARE.
 
 // A list of useful distance function to simple primitives, and an example on how to
-// do some interesting boolean operations, repetition and displacement.
+// do some interesting boolean operations, repetition and displacement
 //
 // More info here: http://www.iquilezles.org/www/articles/distfunctions/distfunctions.htm
 

examples/shaders/resources/shaders/glsl330/shadowmap.fs

@@ -55,7 +55,7 @@ void main()
     vec2 sampleCoords = fragPosLightSpace.xy;
     float curDepth = fragPosLightSpace.z;
 
-    // Slope-scale depth bias: depth biasing reduces "shadow acne" artifacts, where dark stripes appear all over the scene.
+    // Slope-scale depth bias: depth biasing reduces "shadow acne" artifacts, where dark stripes appear all over the scene
     // The solution is adding a small bias to the depth
     // In this case, the bias is proportional to the slope of the surface, relative to the light
     float bias = max(0.0002*(1.0 - dot(normal, l)), 0.00002) + 0.00001;
@@ -64,8 +64,8 @@ void main()
 
     // PCF (percentage-closer filtering) algorithm:
     // Instead of testing if just one point is closer to the current point,
-    // we test the surrounding points as well.
+    // we test the surrounding points as well
-    // This blurs shadow edges, hiding aliasing artifacts.
+    // This blurs shadow edges, hiding aliasing artifacts
     vec2 texelSize = vec2(1.0/float(shadowMapResolution));
     for (int x = -1; x <= 1; x++)
     {