✨ Fix formatting

resources/shaders/common.glsl

@@ -185,7 +185,6 @@ vec3 darken(vec3 color, float fac) { return color * (1.0 - fac); }
 // color will be white.
 vec3 lighten(vec3 color, float fac) { return color + (vec3(1.0) - color) * fac; }
 
-
 // change the color based on an offset amount
 vec3 offsetHue(vec3 color, float hueOffset) {
   // Convert RGB to HSV
@@ -251,21 +250,23 @@ float easeOutBack(float x, float e) {
   return p * p * ((e + 1.0) * p + e) + 1.0;
 }
 
-
 // https://easings.net/
 /*
-Easing functions define the rate of change of a parameter over time, commonly used in animations, UI transitions, and game development. They provide a way to make movements more natural or visually appealing rather than linear and mechanical. Popular categories of easing functions include:
+Easing functions define the rate of change of a parameter over time, commonly used in
+animations, UI transitions, and game development. They provide a way to make movements
+more natural or visually appealing rather than linear and mechanical. Popular categories
+of easing functions include:
 
 Linear: Constant speed from start to finish.
-Quadratic (Ease In, Ease Out, Ease In Out): Changes at varying rates, with smoother starts or stops.
+Quadratic (Ease In, Ease Out, Ease In Out): Changes at varying rates, with smoother starts
-Cubic: Similar to quadratic but allows for even more nuanced transitions.
+or stops. Cubic: Similar to quadratic but allows for even more nuanced transitions.
 Exponential: Drastic changes at the start or end, often used for dramatic effects.
 Bounce: Mimics a bouncing object with oscillations.
 Elastic: Simulates the behavior of a spring, with overshooting and oscillations.
-Below are text-based "graphs" of some easing functions, where the horizontal axis represents time and the vertical axis represents progress.
+Below are text-based "graphs" of some easing functions, where the horizontal axis
+represents time and the vertical axis represents progress.
 */
 
-
 // Quadratic Easing
 // Smooth acceleration and deceleration using quadratic (t^2) curves.
 
@@ -309,7 +310,8 @@ float easeOutQuart(float t) {
 
 float easeInOutQuart(float t) {
   // Combines easeIn and easeOut quartic behavior for very smooth transitions.
-    return t < 0.5 ? 8.0 * t * t * t * t : 1.0 - 8.0 * (t - 1.0) * (t - 1.0) * (t - 1.0) * (t - 1.0);
+  return t < 0.5 ? 8.0 * t * t * t * t
+                 : 1.0 - 8.0 * (t - 1.0) * (t - 1.0) * (t - 1.0) * (t - 1.0);
 }
 
 // Sine Easing
@@ -347,7 +349,8 @@ float easeInOutExpo(float t) {
   // Combines easeIn and easeOut exponential for sharp transitions.
   if (t == 0.0) return 0.0;
   if (t == 1.0) return 1.0;
-    return t < 0.5 ? 0.5 * pow(2.0, 20.0 * t - 10.0) : 1.0 - 0.5 * pow(2.0, -20.0 * t + 10.0);
+  return t < 0.5 ? 0.5 * pow(2.0, 20.0 * t - 10.0)
+                 : 1.0 - 0.5 * pow(2.0, -20.0 * t + 10.0);
 }
 
 // Back Easing
@@ -362,8 +365,6 @@ float easeInOutBack(float t) {
            : (pow(2.0 * t - 2.0, 2.0) * ((c2 + 1.0) * (t * 2.0 - 2.0) + c2) + 2.0) / 2.0;
 }
 
-
-
 // --------------------------------------------------------------------- edge mask helpers
 
 // This method returns a mask which smoothly transitions towards zero when approaching
@@ -387,7 +388,7 @@ float getEdgeMask(vec2 uv, vec2 maxUV, float fadeWidth) {
 // the fade zone is given in pixels. This uses the standard uniforms uSize and uPadding.
 // This means that the fading zone is not actually at the actors boundaries but at the
 // position of the window border in the texture.
-// The offset paramter controls whether the fading is placed inside the window borders
+// The offset parameter controls whether the fading is placed inside the window borders
 // (offset = 0), ontop the window borders (offset = 0.5) or outside the window borders
 // (offset = 1).
 float getAbsoluteEdgeMask(float fadePixels, float offset) {
@@ -428,19 +429,13 @@ float getWinding(vec2 a, vec2 b) { return cross(vec3(a, 0.0), vec3(b, 0.0)).z; }
 
 // Rotates the given 2D vector a clockwise by the angle alpha (given in radians).
 vec2 rotate(vec2 a, float angle) {
-  return vec2(
+  return vec2(a.x * cos(angle) - a.y * sin(angle), a.x * sin(angle) + a.y * cos(angle));
-    a.x * cos(angle) - a.y * sin(angle), 
-    a.x * sin(angle) + a.y * cos(angle)
-    );
 }
 
 // rotates a given 2d vector, around a given center (angle is in radians)
-vec2 rotate(vec2 a, float angle, vec2 center)
+vec2 rotate(vec2 a, float angle, vec2 center) {
-{
+  return vec2(cos(angle) * (a.x - center.x) + sin(angle) * (a.y - center.y) + center.x,
-    return vec2(
+              cos(angle) * (a.y - center.y) - sin(angle) * (a.x - center.x) + center.y);
-        cos(angle) * (a.x - center.x) + sin(angle) * (a.y - center.y) + center.x,
-        cos(angle) * (a.y - center.y) - sin(angle) * (a.x - center.x) + center.y
-    );
 }
 
 // --------------------------------------------------------------------------------- noise
@@ -645,10 +640,8 @@ float simplex3DFractal(vec3 m) {
          0.1333333 * simplex3D(4.0 * m * rot3) + 0.0666667 * simplex3D(8.0 * m);
 }
 
-
 // --------------------------------------------------------------------------------- remap
 
-
 /*
 These functions remap a given value from one range to another.
 The remap operation is particularly useful in shader programming
@@ -671,42 +664,30 @@ This ensures a linear transformation from the old range to the new range.
 // Maps a float value from one range [oldMin, oldMax] to another range [newMin, newMax].
 // This is useful for normalizing or scaling scalar values to fit within a desired range.
 float remap(float value, float oldMin, float oldMax, float newMin, float newMax) {
-    return clamp(
+  return clamp(newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin), newMin,
-      newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin),
+               newMax);
-      newMin,
-      newMax
-      );
 }
 
 // Remap for vec2
-// Maps a 2D vector (vec2) from one range [oldMin, oldMax] to another range [newMin, newMax].
+// Maps a 2D vector (vec2) from one range [oldMin, oldMax] to another range [newMin,
-// Each component of the vec2 is individually scaled and transformed.
+// newMax]. Each component of the vec2 is individually scaled and transformed.
 vec2 remap(vec2 value, vec2 oldMin, vec2 oldMax, vec2 newMin, vec2 newMax) {
-    return clamp(
+  return clamp(newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin), newMin,
-      newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin),
+               newMax);
-      newMin,
-      newMax
-      );
 }
 
 // Remap for vec3
-// Maps a 3D vector (vec3) from one range [oldMin, oldMax] to another range [newMin, newMax].
+// Maps a 3D vector (vec3) from one range [oldMin, oldMax] to another range [newMin,
-// Each component of the vec3 is individually scaled and transformed.
+// newMax]. Each component of the vec3 is individually scaled and transformed.
 vec3 remap(vec3 value, vec3 oldMin, vec3 oldMax, vec3 newMin, vec3 newMax) {
-    return clamp(
+  return clamp(newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin), newMin,
-      newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin),
+               newMax);
-      newMin,
-      newMax
-      );
 }
 
 // Remap for vec4
-// Maps a 4D vector (vec4) from one range [oldMin, oldMax] to another range [newMin, newMax].
+// Maps a 4D vector (vec4) from one range [oldMin, oldMax] to another range [newMin,
-// Each component of the vec4 is individually scaled and transformed.
+// newMax]. Each component of the vec4 is individually scaled and transformed.
 vec4 remap(vec4 value, vec4 oldMin, vec4 oldMax, vec4 newMin, vec4 newMax) {
-    return clamp(
+  return clamp(newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin), newMin,
-      newMin + (value - oldMin) * (newMax - newMin) / (oldMax - oldMin),
+               newMax);
-      newMin,
-      newMax
-      );
 }