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Complementary Reimagined r5.1.1 - Ocean Physics Support

Created 11 months agoDiff never expires

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////////////////////////////////////////

// Complementary Reimagined by EminGT //

////////////////////////////////////////

//Common//

#include "/lib/common.glsl"

const int PHYSICS_ITERATIONS_OFFSET = 13;

const float PHYSICS_DRAG_MULT = 0.048;

const float PHYSICS_XZ_SCALE = 0.035;

const float PHYSICS_TIME_MULTIPLICATOR = 0.45;

const float PHYSICS_W_DETAIL = 0.75;

const float PHYSICS_FREQUENCY = 6.0;

const float PHYSICS_SPEED = 2.0;

const float PHYSICS_WEIGHT = 0.8;

const float PHYSICS_FREQUENCY_MULT = 1.18;

const float PHYSICS_SPEED_MULT = 1.07;

const float PHYSICS_ITER_INC = 12.0;

const float PHYSICS_NORMAL_STRENGTH = 1.4;

uniform int physics_iterationsNormal;

uniform vec2 physics_waveOffset;

uniform ivec2 physics_textureOffset;

uniform float physics_gameTime;

uniform float physics_globalTime;

uniform float physics_oceanHeight;

uniform float physics_oceanWaveHorizontalScale;

uniform vec3 physics_modelOffset;

uniform float physics_rippleRange;

uniform float physics_foamAmount;

uniform float physics_foamOpacity;

uniform sampler2D physics_waviness;

uniform sampler2D physics_ripples;

uniform sampler3D physics_foam;

uniform sampler2D physics_lightmap;

float physics_waveHeight(vec2 position, int iterations, float factor, float time) {

position = (position - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;

float iter = 0.0;

float frequency = PHYSICS_FREQUENCY;

float speed = PHYSICS_SPEED;

float weight = 1.0;

float height = 0.0;

float waveSum = 0.0;

float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;

for (int i = 0; i < iterations; i++) {

vec2 direction = vec2(sin(iter), cos(iter));

float x = dot(direction, position) * frequency + modifiedTime * speed;

float wave = exp(sin(x) - 1.0);

float result = wave * cos(x);

vec2 force = result * weight * direction;

position -= force * PHYSICS_DRAG_MULT;

height += wave * weight;

iter += PHYSICS_ITER_INC;

waveSum += weight;

weight *= PHYSICS_WEIGHT;

frequency *= PHYSICS_FREQUENCY_MULT;

speed *= PHYSICS_SPEED_MULT;

}

return height / waveSum * physics_oceanHeight * factor - physics_oceanHeight * factor * 0.5;

}

vec2 physics_waveDirection(vec2 position, int iterations, float time) {

position = (position - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;

float iter = 0.0;

float frequency = PHYSICS_FREQUENCY;

float speed = PHYSICS_SPEED;

float weight = 1.0;

float waveSum = 0.0;

float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;

vec2 dx = vec2(0.0);

for (int i = 0; i < iterations; i++) {

vec2 direction = vec2(sin(iter), cos(iter));

float x = dot(direction, position) * frequency + modifiedTime * speed;

float wave = exp(sin(x) - 1.0);

float result = wave * cos(x);

vec2 force = result * weight * direction;

dx += force / pow(weight, PHYSICS_W_DETAIL);

position -= force * PHYSICS_DRAG_MULT;

iter += PHYSICS_ITER_INC;

waveSum += weight;

weight *= PHYSICS_WEIGHT;

frequency *= PHYSICS_FREQUENCY_MULT;

speed *= PHYSICS_SPEED_MULT;

}

return vec2(dx / pow(waveSum, 1.0 - PHYSICS_W_DETAIL));

}

vec3 physics_waveNormal(const in vec2 position, const in vec2 direction, const in float factor, const in float time) {

float oceanHeightFactor = physics_oceanHeight / 13.0;

float totalFactor = oceanHeightFactor * factor;

vec3 waveNormal = normalize(vec3(direction.x * totalFactor, PHYSICS_NORMAL_STRENGTH, direction.y * totalFactor));

vec2 eyePosition = position + physics_modelOffset.xz;

vec2 rippleFetch = (eyePosition + vec2(physics_rippleRange)) / (physics_rippleRange * 2.0);

vec2 rippleTexelSize = vec2(2.0 / textureSize(physics_ripples, 0).x, 0.0);

float left = texture(physics_ripples, rippleFetch - rippleTexelSize.xy).r;

float right = texture(physics_ripples, rippleFetch + rippleTexelSize.xy).r;

float top = texture(physics_ripples, rippleFetch - rippleTexelSize.yx).r;

float bottom = texture(physics_ripples, rippleFetch + rippleTexelSize.yx).r;

float totalEffect = left + right + top + bottom;

float normalx = left - right;

float normalz = top - bottom;

vec3 rippleNormal = normalize(vec3(normalx, 1.0, normalz));

return normalize(mix(waveNormal, rippleNormal, pow(totalEffect, 0.5)));

}

struct WavePixelData {

vec2 direction;

vec2 worldPos;

vec3 normal;

float foam;

float height;

};

WavePixelData physics_wavePixel(const in vec2 position, const in float factor, const in float iterations, const in float time) {

vec2 wavePos = (position.xy - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;

float iter = 0.0;

float frequency = PHYSICS_FREQUENCY;

float speed = PHYSICS_SPEED;

float weight = 1.0;

float height = 0.0;

float waveSum = 0.0;

float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;

vec2 dx = vec2(0.0);

for (int i = 0; i < iterations; i++) {

vec2 direction = vec2(sin(iter), cos(iter));

float x = dot(direction, wavePos) * frequency + modifiedTime * speed;

float wave = exp(sin(x) - 1.0);

float result = wave * cos(x);

vec2 force = result * weight * direction;

dx += force / pow(weight, PHYSICS_W_DETAIL);

wavePos -= force * PHYSICS_DRAG_MULT;

height += wave * weight;

iter += PHYSICS_ITER_INC;

waveSum += weight;

weight *= PHYSICS_WEIGHT;

frequency *= PHYSICS_FREQUENCY_MULT;

speed *= PHYSICS_SPEED_MULT;

}

WavePixelData data;

data.direction = -vec2(dx / pow(waveSum, 1.0 - PHYSICS_W_DETAIL));

data.worldPos = wavePos / physics_oceanWaveHorizontalScale / PHYSICS_XZ_SCALE;

data.height = height / waveSum * physics_oceanHeight * factor - physics_oceanHeight * factor * 0.5;

data.normal = physics_waveNormal(position, data.direction, factor, time);

float waveAmplitude = data.height * pow(max(data.normal.y, 0.0), 4.0);

vec2 waterUV = mix(position - physics_waveOffset, data.worldPos, clamp(factor * 2.0, 0.2, 1.0));

vec2 s1 = textureLod(physics_foam, vec3(waterUV * 0.26, physics_globalTime / 360.0), 0).rg;

vec2 s2 = textureLod(physics_foam, vec3(waterUV * 0.02, physics_globalTime / 360.0 + 0.5), 0).rg;

vec2 s3 = textureLod(physics_foam, vec3(waterUV * 0.1, physics_globalTime / 360.0 + 1.0), 0).rg;

float waterSurfaceNoise = s1.r * s2.r * s3.r * 2.8 * physics_foamAmount;

waveAmplitude = clamp(waveAmplitude * 1.2, 0.0, 1.0);

waterSurfaceNoise = (1.0 - waveAmplitude) * waterSurfaceNoise + waveAmplitude * physics_foamAmount;

float worleyNoise = 0.2 + 0.8 * s1.g * (1.0 - s2.g);

float waterFoamMinSmooth = 0.45;

float waterFoamMaxSmooth = 2.0;

waterSurfaceNoise = smoothstep(waterFoamMinSmooth, 1.0, waterSurfaceNoise) * worleyNoise;

data.foam = clamp(waterFoamMaxSmooth * waterSurfaceNoise * physics_foamOpacity, 0.0, 1.0);

if (!gl_FrontFacing) {

data.normal = -data.normal;

}

return data;

}

//////////Fragment Shader//////////Fragment Shader//////////Fragment Shader//////////

#ifdef FRAGMENT_SHADER

flat in int mat;

in vec2 texCoord;

in vec2 lmCoord;

flat in vec3 upVec, sunVec, northVec, eastVec;

in vec3 normal;

in vec3 viewVector;

in vec3 physics_localPosition;

in vec3 physics_foamColor;

in float physics_localWaviness;

WavePixelData physics_waveData;

in vec4 glColor;

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR

flat in vec3 binormal, tangent;

#endif

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM

in vec2 signMidCoordPos;

flat in vec2 absMidCoordPos;

#endif

#ifdef POM

in vec4 vTexCoordAM;

#endif

//Uniforms//

uniform int isEyeInWater;

uniform int frameCounter;

uniform int heldItemId;

uniform int heldItemId2;

uniform float near;

uniform float far;

uniform float nightVision;

uniform float blindness;

uniform float darknessFactor;

uniform float frameTimeCounter;

uniform ivec2 eyeBrightness;

uniform vec3 skyColor;

uniform vec3 cameraPosition;

uniform mat4 gbufferProjectionInverse;

uniform mat4 gbufferModelViewInverse;

uniform mat4 shadowModelView;

uniform mat4 shadowProjection;

uniform float viewWidth;

uniform float viewHeight;

uniform float aspectRatio;

uniform sampler2D tex;

uniform sampler2D noisetex;

#if WATER_STYLE >= 2 || defined CLOUDS_REIMAGINED && defined CLOUD_SHADOWS || WATER_REFLECT_QUALITY >= 1 && defined SKY_EFFECT_REFLECTION && defined VL_CLOUDS_ACTIVE

uniform sampler2D gaux4;

#endif

#ifdef VL_CLOUDS_ACTIVE

uniform sampler2D gaux1;

#endif

#if WATER_QUALITY >= 2 || WATER_REFLECT_QUALITY >= 1

uniform sampler2D depthtex1;

#endif

#if WATER_REFLECT_QUALITY >= 1 || defined FANCY_NETHERPORTAL

uniform mat4 gbufferProjection;

#endif

#if WATER_REFLECT_QUALITY >= 1

uniform sampler2D gaux2;

#endif

#if RAIN_PUDDLES >= 1

#if RAIN_PUDDLES < 3

uniform float inRainy;

#else

float inRainy = 1.0;

#endif

#if defined GENERATED_NORMALS || defined COATED_TEXTURES || defined POM || WATER_STYLE >= 2

uniform ivec2 atlasSize;

#endif

#ifdef CUSTOM_PBR

uniform sampler2D normals;

uniform sampler2D specular;

#endif

#if WATER_REFLECT_QUALITY >= 1 && defined SKY_EFFECT_REFLECTION && AURORA_STYLE > 0

uniform float inSnowy;

#ifndef UNIFORM_MOONPHASE

#define UNIFORM_MOONPHASE

uniform int moonPhase;

#endif

//Pipeline Constants//

//Common Variables//

float NdotU = dot(normal, upVec);

float NdotUmax0 = max(NdotU, 0.0);

float SdotU = dot(sunVec, upVec);

float sunFactor = SdotU < 0.0 ? clamp(SdotU + 0.375, 0.0, 0.75) / 0.75 : clamp(SdotU + 0.03125, 0.0, 0.0625) / 0.0625;

float sunVisibility = clamp(SdotU + 0.0625, 0.0, 0.125) / 0.125;

float sunVisibility2 = sunVisibility * sunVisibility;

float shadowTimeVar1 = abs(sunVisibility - 0.5) * 2.0;

float shadowTimeVar2 = shadowTimeVar1 * shadowTimeVar1;

float shadowTime = shadowTimeVar2 * shadowTimeVar2;

#ifdef OVERWORLD

vec3 lightVec = sunVec * ((timeAngle < 0.5325 || timeAngle > 0.9675) ? 1.0 : -1.0);

#else

vec3 lightVec = sunVec;

#endif

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR

mat3 tbnMatrix = mat3(

tangent.x, binormal.x, normal.x,

tangent.y, binormal.y, normal.y,

tangent.z, binormal.z, normal.z

);

#endif

//Common Functions//

float GetLinearDepth(float depth) {

return (2.0 * near) / (far + near - depth * (far - near));

}

//Includes//

#include "/lib/util/dither.glsl"

#include "/lib/util/spaceConversion.glsl"

#include "/lib/lighting/mainLighting.glsl"

#include "/lib/atmospherics/fog/mainFog.glsl"

#ifdef OVERWORLD

#include "/lib/atmospherics/sky.glsl"

#endif

#if WATER_REFLECT_QUALITY >= 1

#if defined SKY_EFFECT_REFLECTION && defined OVERWORLD

#if AURORA_STYLE > 0

#include "/lib/atmospherics/auroraBorealis.glsl"

#endif

#ifdef NIGHT_NEBULA

#include "/lib/atmospherics/nightNebula.glsl"

#else

#include "/lib/atmospherics/stars.glsl"

#endif

#ifdef VL_CLOUDS_ACTIVE

#include "/lib/atmospherics/clouds/mainClouds.glsl"

#endif

#include "/lib/materials/materialMethods/reflections.glsl"

#endif

#ifdef TAA

#include "/lib/antialiasing/jitter.glsl"

#endif

#if defined GENERATED_NORMALS || defined COATED_TEXTURES || WATER_STYLE >= 2

#include "/lib/util/miplevel.glsl"

#endif

#ifdef GENERATED_NORMALS

#include "/lib/materials/materialMethods/generatedNormals.glsl"

#endif

#ifdef CUSTOM_PBR

#include "/lib/materials/materialHandling/customMaterials.glsl"

#endif

#ifdef ATM_COLOR_MULTS

#include "/lib/colors/colorMultipliers.glsl"

#endif

#ifdef MOON_PHASE_INF_ATMOSPHERE

#include "/lib/colors/moonPhaseInfluence.glsl"

#endif

#ifdef COLOR_CODED_PROGRAMS

#include "/lib/misc/colorCodedPrograms.glsl"

#endif

//Program//

void main() {

physics_waveData = physics_wavePixel(physics_localPosition.xz, physics_localWaviness, physics_iterationsNormal, physics_gameTime);

vec3 physics_normal = normalize(gl_NormalMatrix * physics_waveData.normal);

if (!gl_FrontFacing) {

physics_waveData.normal = -physics_waveData.normal;

}

vec4 colorP = texture2D(tex, texCoord);

vec4 color = colorP * vec4(glColor.rgb, 1.0);

vec2 screenCoord = gl_FragCoord.xy / vec2(viewWidth, viewHeight);

vec3 screenPos = vec3(screenCoord, gl_FragCoord.z);

#ifdef TAA

vec3 viewPos = ScreenToView(vec3(TAAJitter(screenPos.xy, -0.5), screenPos.z));

#else

vec3 viewPos = ScreenToView(screenPos);

#endif

float lViewPos = length(viewPos);

float dither = Bayer64(gl_FragCoord.xy);

#ifdef TAA

dither = fract(dither + 1.61803398875 * mod(float(frameCounter), 3600.0));

#endif

#ifdef LIGHT_COLOR_MULTS

lightColorMult = GetLightColorMult();

#endif

#ifdef ATM_COLOR_MULTS

atmColorMult = GetAtmColorMult();

sqrtAtmColorMult = sqrt(atmColorMult);

#endif

#ifdef VL_CLOUDS_ACTIVE

float cloudLinearDepth = texelFetch(gaux1, texelCoord, 0).r;

if (pow2(cloudLinearDepth + OSIEBCA * dither) * far < min(lViewPos, far)) discard;

#endif

#if WATER_QUALITY >= 3

float materialMask = 0.0;

#endif

vec3 nViewPos = normalize(viewPos);

vec3 playerPos = ViewToPlayer(viewPos);

float VdotU = dot(nViewPos, upVec);

float VdotS = dot(nViewPos, sunVec);

float VdotN = dot(nViewPos, normal);

// Materials

vec4 translucentMult = vec4(1.0);

bool noSmoothLighting = false, noDirectionalShading = false, translucentMultCalculated = false;

#ifdef GENERATED_NORMALS

bool noGeneratedNormals = false;

#endif

int subsurfaceMode = 0;

float smoothnessG = 0.0, highlightMult = 1.0, reflectMult = 0.0, emission = 0.0;

vec2 lmCoordM = lmCoord;

vec3 normalM = VdotN > 0.0 ? -normal : normal; // Inverted Iris Water Normal Workaround

vec3 normalM = physics_normal;

vec3 geoNormal = normalM;

vec3 shadowMult = vec3(1.0);

float fresnel = clamp(1.0 + dot(normalM, nViewPos), 0.0, 1.0);

#ifdef IPBR

#include "/lib/materials/materialHandling/translucentMaterials.glsl"

#ifdef GENERATED_NORMALS

if (!noGeneratedNormals) GenerateNormals(normalM, colorP.rgb * colorP.a * 1.5);

#endif

#else

#ifdef CUSTOM_PBR

float smoothnessD, materialMaskPh;

GetCustomMaterials(color, normalM, lmCoordM, NdotU, shadowMult, smoothnessG, smoothnessD, highlightMult, emission, materialMaskPh, viewPos, lViewPos);

// I haven't implemented PBR for the custom ocean shader, this is just for education purposes

//GetCustomMaterials(color, normalM, lmCoordM, NdotU, shadowMult, smoothnessG, smoothnessD, highlightMult, emission, materialMaskPh, viewPos, lViewPos);

reflectMult = smoothnessD;

#endif

if (mat == 31000) { // Water

#include "/lib/materials/specificMaterials/translucents/water.glsl"

} else if (mat == 30020) { // Nether Portal

#ifdef FANCY_NETHERPORTAL

#include "/lib/materials/specificMaterials/translucents/netherPortal.glsl"

#endif

}

#endif

// Blending

if (!translucentMultCalculated)

translucentMult = vec4(mix(vec3(0.666), color.rgb * (1.0 - pow2(pow2(color.a))), color.a), 1.0);

translucentMult.rgb = mix(translucentMult.rgb, vec3(1.0), min1(pow2(pow2(lViewPos / far))));

// Lighting

DoLighting(color, shadowMult, playerPos, viewPos, lViewPos, normalM, lmCoordM,

noSmoothLighting, noDirectionalShading, false, false,

subsurfaceMode, smoothnessG, highlightMult, emission);

// Reflections

#if WATER_REFLECT_QUALITY >= 1

#ifdef LIGHT_COLOR_MULTS

highlightColor *= lightColorMult;

#endif

#ifdef MOON_PHASE_INF_REFLECTION

highlightColor *= pow2(moonPhaseInfluence);

#endif

float fresnelM = (pow3(fresnel) * 0.85 + 0.15) * reflectMult;

float skyLightFactor = pow2(max(lmCoordM.y - 0.7, 0.0) * 3.33333);

#if defined REALTIME_SHADOWS && WATER_REFLECT_QUALITY >= 2 && WATER_QUALITY >= 2

skyLightFactor = max(skyLightFactor, min1(dot(shadowMult, shadowMult)));

#endif

vec4 reflection = GetReflection(normalM, viewPos.xyz, nViewPos, playerPos, lViewPos, -1.0,

depthtex1, dither, skyLightFactor, fresnel,

smoothnessG, geoNormal, color.rgb, shadowMult, highlightMult);

color.rgb = mix(color.rgb, reflection.rgb, fresnelM);

#endif

////

#ifdef COLOR_CODED_PROGRAMS

ColorCodeProgram(color);

#endif

float sky = 0.0;

DoFog(color.rgb, sky, lViewPos, playerPos, VdotU, VdotS, dither);

color.a *= 1.0 - sky;

#ifndef LIGHT_COLORING

/* DRAWBUFFERS:03 */

#else

/* DRAWBUFFERS:08 */

#endif

gl_FragData[0] = color;

gl_FragData[1] = vec4(1.0 - translucentMult.rgb, translucentMult.a);

#if WATER_QUALITY >= 3

#ifndef LIGHT_COLORING

/* DRAWBUFFERS:031 */

#else

/* DRAWBUFFERS:081 */

#endif

gl_FragData[2] = vec4(0.0, materialMask, 0.0, 1.0);

#endif

gl_FragData[0] = mix(gl_FragData[0], vec4(physics_foamColor, 1.0), physics_waveData.foam);

}

#endif

//////////Vertex Shader//////////Vertex Shader//////////Vertex Shader//////////

#ifdef VERTEX_SHADER

out vec3 physics_localPosition;

out vec3 physics_foamColor;

out float physics_localWaviness;

flat out int mat;

out vec2 texCoord;

out vec2 lmCoord;

flat out vec3 upVec, sunVec, northVec, eastVec;

out vec3 normal;

out vec3 viewVector;

out vec4 glColor;

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR

flat out vec3 binormal, tangent;

#endif

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM

out vec2 signMidCoordPos;

flat out vec2 absMidCoordPos;

#endif

#ifdef POM

out vec4 vTexCoordAM;

#endif

//Uniforms//

#ifdef TAA

uniform float viewWidth, viewHeight;

#endif

#ifdef WAVING_WATER_VERTEX

uniform float frameTimeCounter;

uniform vec3 cameraPosition;

uniform mat4 gbufferModelViewInverse;

#endif

//Attributes//

attribute vec4 mc_Entity;

attribute vec4 mc_midTexCoord;

attribute vec4 at_tangent;

//Common Variables//

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR

#else

vec3 binormal;

vec3 tangent;

#endif

//Common Functions//

//Includes//

#ifdef TAA

#include "/lib/antialiasing/jitter.glsl"

#endif

#ifdef WAVING_WATER_VERTEX

#include "/lib/materials/materialMethods/wavingBlocks.glsl"

#endif

//Program//

void main() {

texCoord = (gl_TextureMatrix[0] * gl_MultiTexCoord0).xy;

lmCoord = GetLightMapCoordinates();

physics_foamColor = textureLod(physics_lightmap, (mat4(vec4(0.00390625, 0.0, 0.0, 0.0), vec4(0.0, 0.00390625, 0.0, 0.0), vec4(0.0, 0.0, 0.00390625, 0.0), vec4(0.03125, 0.03125, 0.03125, 1.0)) * gl_MultiTexCoord1).xy, 0).rgb;

physics_localWaviness = texelFetch(physics_waviness, ivec2(gl_Vertex.xz) - physics_textureOffset, 0).r;

vec4 physics_finalPosition = vec4(gl_Vertex.x, gl_Vertex.y + physics_waveHeight(gl_Vertex.xz, PHYSICS_ITERATIONS_OFFSET, physics_localWaviness, physics_gameTime), gl_Vertex.z, gl_Vertex.w);

physics_localPosition = physics_finalPosition.xyz;

glColor = gl_Color;

mat = int(mc_Entity.x + 0.5);

normal = normalize(gl_NormalMatrix * gl_Normal);

upVec = normalize(gbufferModelView[1].xyz);

eastVec = normalize(gbufferModelView[0].xyz);

northVec = normalize(gbufferModelView[2].xyz);

sunVec = GetSunVector();

binormal = normalize(gl_NormalMatrix * cross(at_tangent.xyz, gl_Normal.xyz) * at_tangent.w);

tangent = normalize(gl_NormalMatrix * at_tangent.xyz);

mat3 tbnMatrix = mat3(

mat3 tbnMatrix = mat3(1.0);

tangent.x, binormal.x, normal.x,

tangent.y, binormal.y, normal.y,

tangent.z, binormal.z, normal.z

);

viewVector = tbnMatrix * (gl_ModelViewMatrix * gl_Vertex).xyz;

viewVector = tbnMatrix * (gl_ModelViewMatrix * physics_finalPosition).xyz;

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM

vec2 midCoord = (gl_TextureMatrix[0] * mc_midTexCoord).st;

vec2 texMinMidCoord = texCoord - midCoord;

signMidCoordPos = sign(texMinMidCoord);

absMidCoordPos = abs(texMinMidCoord);

#ifdef POM

vTexCoordAM.zw = abs(texMinMidCoord) * 2;

vTexCoordAM.xy = min(texCoord, midCoord - texMinMidCoord);

#endif

#ifdef WAVING_WATER_VERTEX

vec4 position = gbufferModelViewInverse * gl_ModelViewMatrix * gl_Vertex;

vec4 position = gbufferModelViewInverse * gl_ModelViewMatrix * physics_finalPosition;

DoWave(position.xyz, mat);

gl_Position = gl_ProjectionMatrix * gbufferModelView * position;

#else

gl_Position = ftransform();

#endif

#ifdef TAA

gl_Position.xy = TAAJitter(gl_Position.xy, gl_Position.w);

#endif

gl_Position.z -= 0.0001;

}

#endif

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////////////////////////////////////////
// Complementary Reimagined by EminGT //
////////////////////////////////////////

//Common//
#include "/lib/common.glsl"

//////////Fragment Shader//////////Fragment Shader//////////Fragment Shader//////////
#ifdef FRAGMENT_SHADER

flat in int mat;

in vec2 texCoord;
in vec2 lmCoord;

flat in vec3 upVec, sunVec, northVec, eastVec;
in vec3 normal;
in vec3 viewVector;

in vec4 glColor;

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR
    flat in vec3 binormal, tangent;
#endif

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM
    in vec2 signMidCoordPos;
    flat in vec2 absMidCoordPos;
#endif

#ifdef POM
    in vec4 vTexCoordAM;
#endif

//Uniforms//
uniform int isEyeInWater;
uniform int frameCounter;
uniform int heldItemId;
uniform int heldItemId2;

uniform float near;
uniform float far;
uniform float nightVision;
uniform float blindness;
uniform float darknessFactor;
uniform float frameTimeCounter;

uniform ivec2 eyeBrightness;

uniform vec3 skyColor;
uniform vec3 cameraPosition;

uniform mat4 gbufferProjectionInverse;
uniform mat4 gbufferModelViewInverse;
uniform mat4 shadowModelView;
uniform mat4 shadowProjection;
uniform float viewWidth;
uniform float viewHeight;
uniform float aspectRatio;

uniform sampler2D tex;
uniform sampler2D noisetex;

#if WATER_STYLE >= 2 || defined CLOUDS_REIMAGINED && defined CLOUD_SHADOWS || WATER_REFLECT_QUALITY >= 1 && defined SKY_EFFECT_REFLECTION && defined VL_CLOUDS_ACTIVE
    uniform sampler2D gaux4;
#endif

#ifdef VL_CLOUDS_ACTIVE
    uniform sampler2D gaux1;
#endif

#if WATER_QUALITY >= 2 || WATER_REFLECT_QUALITY >= 1
    uniform sampler2D depthtex1;
#endif

#if WATER_REFLECT_QUALITY >= 1 || defined FANCY_NETHERPORTAL
    uniform mat4 gbufferProjection;
#endif

#if WATER_REFLECT_QUALITY >= 1
    uniform sampler2D gaux2;
#endif

#if RAIN_PUDDLES >= 1
    #if RAIN_PUDDLES < 3
        uniform float inRainy;
    #else
        float inRainy = 1.0;
    #endif
#endif

#if defined GENERATED_NORMALS || defined COATED_TEXTURES || defined POM || WATER_STYLE >= 2
    uniform ivec2 atlasSize;
#endif

#ifdef CUSTOM_PBR
    uniform sampler2D normals;
    uniform sampler2D specular;
#endif

#if WATER_REFLECT_QUALITY >= 1 && defined SKY_EFFECT_REFLECTION && AURORA_STYLE > 0
    uniform float inSnowy;

#ifndef UNIFORM_MOONPHASE
    #define UNIFORM_MOONPHASE
    uniform int moonPhase;
    #endif
#endif

//Pipeline Constants//

//Common Variables//
float NdotU = dot(normal, upVec);
float NdotUmax0 = max(NdotU, 0.0);
float SdotU = dot(sunVec, upVec);
float sunFactor = SdotU < 0.0 ? clamp(SdotU + 0.375, 0.0, 0.75) / 0.75 : clamp(SdotU + 0.03125, 0.0, 0.0625) / 0.0625;
float sunVisibility = clamp(SdotU + 0.0625, 0.0, 0.125) / 0.125;
float sunVisibility2 = sunVisibility * sunVisibility;
float shadowTimeVar1 = abs(sunVisibility - 0.5) * 2.0;
float shadowTimeVar2 = shadowTimeVar1 * shadowTimeVar1;
float shadowTime = shadowTimeVar2 * shadowTimeVar2;

#ifdef OVERWORLD
    vec3 lightVec = sunVec * ((timeAngle < 0.5325 || timeAngle > 0.9675) ? 1.0 : -1.0);
#else
    vec3 lightVec = sunVec;
#endif

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR
    mat3 tbnMatrix = mat3(
        tangent.x, binormal.x, normal.x,
        tangent.y, binormal.y, normal.y,
        tangent.z, binormal.z, normal.z
    );
#endif

//Common Functions//
float GetLinearDepth(float depth) {
    return (2.0 * near) / (far + near - depth * (far - near));
}

//Includes//
#include "/lib/util/dither.glsl"
#include "/lib/util/spaceConversion.glsl"
#include "/lib/lighting/mainLighting.glsl"
#include "/lib/atmospherics/fog/mainFog.glsl"

#ifdef OVERWORLD
    #include "/lib/atmospherics/sky.glsl"
#endif

#if WATER_REFLECT_QUALITY >= 1
    #if defined SKY_EFFECT_REFLECTION && defined OVERWORLD
        #if AURORA_STYLE > 0
            #include "/lib/atmospherics/auroraBorealis.glsl"
        #endif

#ifdef NIGHT_NEBULA
            #include "/lib/atmospherics/nightNebula.glsl"
        #else
            #include "/lib/atmospherics/stars.glsl"
        #endif

#ifdef VL_CLOUDS_ACTIVE 
            #include "/lib/atmospherics/clouds/mainClouds.glsl"
        #endif
    #endif

#include "/lib/materials/materialMethods/reflections.glsl"
#endif

#ifdef TAA
    #include "/lib/antialiasing/jitter.glsl"
#endif

#if defined GENERATED_NORMALS || defined COATED_TEXTURES || WATER_STYLE >= 2
    #include "/lib/util/miplevel.glsl"
#endif

#ifdef GENERATED_NORMALS
    #include "/lib/materials/materialMethods/generatedNormals.glsl"
#endif

#ifdef CUSTOM_PBR
    #include "/lib/materials/materialHandling/customMaterials.glsl"
#endif

#ifdef ATM_COLOR_MULTS
    #include "/lib/colors/colorMultipliers.glsl"
#endif
#ifdef MOON_PHASE_INF_ATMOSPHERE
    #include "/lib/colors/moonPhaseInfluence.glsl"
#endif

#ifdef COLOR_CODED_PROGRAMS
    #include "/lib/misc/colorCodedPrograms.glsl"
#endif

//Program//
void main() {
    vec4 colorP = texture2D(tex, texCoord);
    vec4 color = colorP * vec4(glColor.rgb, 1.0);

vec2 screenCoord = gl_FragCoord.xy / vec2(viewWidth, viewHeight);
    vec3 screenPos = vec3(screenCoord, gl_FragCoord.z);
    #ifdef TAA
        vec3 viewPos = ScreenToView(vec3(TAAJitter(screenPos.xy, -0.5), screenPos.z));
    #else
        vec3 viewPos = ScreenToView(screenPos);
    #endif
    float lViewPos = length(viewPos);

float dither = Bayer64(gl_FragCoord.xy);
    #ifdef TAA
        dither = fract(dither + 1.61803398875 * mod(float(frameCounter), 3600.0));
    #endif

#ifdef LIGHT_COLOR_MULTS
        lightColorMult = GetLightColorMult();
    #endif
    #ifdef ATM_COLOR_MULTS
        atmColorMult = GetAtmColorMult();
        sqrtAtmColorMult = sqrt(atmColorMult);
    #endif

#ifdef VL_CLOUDS_ACTIVE
        float cloudLinearDepth = texelFetch(gaux1, texelCoord, 0).r;

if (pow2(cloudLinearDepth + OSIEBCA * dither) * far < min(lViewPos, far)) discard;
    #endif

#if WATER_QUALITY >= 3
        float materialMask = 0.0;
    #endif

vec3 nViewPos = normalize(viewPos);
    vec3 playerPos = ViewToPlayer(viewPos);
    float VdotU = dot(nViewPos, upVec);
    float VdotS = dot(nViewPos, sunVec);
    float VdotN = dot(nViewPos, normal);

// Materials
    vec4 translucentMult = vec4(1.0);
    bool noSmoothLighting = false, noDirectionalShading = false, translucentMultCalculated = false;
    #ifdef GENERATED_NORMALS
        bool noGeneratedNormals = false;
    #endif
    int subsurfaceMode = 0;
    float smoothnessG = 0.0, highlightMult = 1.0, reflectMult = 0.0, emission = 0.0;
    vec2 lmCoordM = lmCoord;
    vec3 normalM = VdotN > 0.0 ? -normal : normal; // Inverted Iris Water Normal Workaround
    vec3 geoNormal = normalM;
    vec3 shadowMult = vec3(1.0);
    float fresnel = clamp(1.0 + dot(normalM, nViewPos), 0.0, 1.0);
    #ifdef IPBR
        #include "/lib/materials/materialHandling/translucentMaterials.glsl"

#ifdef GENERATED_NORMALS
            if (!noGeneratedNormals) GenerateNormals(normalM, colorP.rgb * colorP.a * 1.5);
        #endif
    #else
        #ifdef CUSTOM_PBR
            float smoothnessD, materialMaskPh;
            GetCustomMaterials(color, normalM, lmCoordM, NdotU, shadowMult, smoothnessG, smoothnessD, highlightMult, emission, materialMaskPh, viewPos, lViewPos);
            reflectMult = smoothnessD;
        #endif

if (mat == 31000) { // Water
            #include "/lib/materials/specificMaterials/translucents/water.glsl"
        } else if (mat == 30020) { // Nether Portal
            #ifdef FANCY_NETHERPORTAL
                #include "/lib/materials/specificMaterials/translucents/netherPortal.glsl"
            #endif
        }
    #endif

// Blending
    if (!translucentMultCalculated)
        translucentMult = vec4(mix(vec3(0.666), color.rgb * (1.0 - pow2(pow2(color.a))), color.a), 1.0);

translucentMult.rgb = mix(translucentMult.rgb, vec3(1.0), min1(pow2(pow2(lViewPos / far))));

// Lighting
    DoLighting(color, shadowMult, playerPos, viewPos, lViewPos, normalM, lmCoordM,
               noSmoothLighting, noDirectionalShading, false, false,
               subsurfaceMode, smoothnessG, highlightMult, emission);

// Reflections
    #if WATER_REFLECT_QUALITY >= 1
        #ifdef LIGHT_COLOR_MULTS
            highlightColor *= lightColorMult;
        #endif
        #ifdef MOON_PHASE_INF_REFLECTION
            highlightColor *= pow2(moonPhaseInfluence);
        #endif

float fresnelM = (pow3(fresnel) * 0.85 + 0.15) * reflectMult;

float skyLightFactor = pow2(max(lmCoordM.y - 0.7, 0.0) * 3.33333);
        #if defined REALTIME_SHADOWS && WATER_REFLECT_QUALITY >= 2 && WATER_QUALITY >= 2
            skyLightFactor = max(skyLightFactor, min1(dot(shadowMult, shadowMult)));
        #endif

vec4 reflection = GetReflection(normalM, viewPos.xyz, nViewPos, playerPos, lViewPos, -1.0,
                                        depthtex1, dither, skyLightFactor, fresnel,
                                        smoothnessG, geoNormal, color.rgb, shadowMult, highlightMult);

color.rgb = mix(color.rgb, reflection.rgb, fresnelM);
    #endif
    ////

#ifdef COLOR_CODED_PROGRAMS
        ColorCodeProgram(color);
    #endif

float sky = 0.0;
    DoFog(color.rgb, sky, lViewPos, playerPos, VdotU, VdotS, dither);
    color.a *= 1.0 - sky;

#ifndef LIGHT_COLORING
    /* DRAWBUFFERS:03 */
    #else
    /* DRAWBUFFERS:08 */
    #endif
    gl_FragData[0] = color;
    gl_FragData[1] = vec4(1.0 - translucentMult.rgb, translucentMult.a);

#if WATER_QUALITY >= 3
        #ifndef LIGHT_COLORING
        /* DRAWBUFFERS:031 */
        #else
        /* DRAWBUFFERS:081 */
        #endif
        gl_FragData[2] = vec4(0.0, materialMask, 0.0, 1.0);
    #endif
}

#endif

//////////Vertex Shader//////////Vertex Shader//////////Vertex Shader//////////
#ifdef VERTEX_SHADER

flat out int mat;

out vec2 texCoord;
out vec2 lmCoord;

flat out vec3 upVec, sunVec, northVec, eastVec;
out vec3 normal;
out vec3 viewVector;

out vec4 glColor;

#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR
    flat out vec3 binormal, tangent;
#endif

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM
    out vec2 signMidCoordPos;
    flat out vec2 absMidCoordPos;
#endif

#ifdef POM
    out vec4 vTexCoordAM;
#endif

//Uniforms//
#ifdef TAA
    uniform float viewWidth, viewHeight;
#endif

#ifdef WAVING_WATER_VERTEX
    uniform float frameTimeCounter;

uniform vec3 cameraPosition;

uniform mat4 gbufferModelViewInverse;
#endif

//Attributes//
attribute vec4 mc_Entity;
attribute vec4 mc_midTexCoord;
attribute vec4 at_tangent;

//Common Variables//
#if WATER_STYLE >= 2 || RAIN_PUDDLES >= 1 && WATER_STYLE == 1 && WATER_QUALITY >= 2 || defined GENERATED_NORMALS || defined CUSTOM_PBR
#else
    vec3 binormal;
    vec3 tangent;
#endif

//Common Functions//

//Includes//
#ifdef TAA
    #include "/lib/antialiasing/jitter.glsl"
#endif

#ifdef WAVING_WATER_VERTEX
    #include "/lib/materials/materialMethods/wavingBlocks.glsl"
#endif

//Program//
void main() {
    texCoord = (gl_TextureMatrix[0] * gl_MultiTexCoord0).xy;
    lmCoord  = GetLightMapCoordinates();

glColor = gl_Color;

mat = int(mc_Entity.x + 0.5);

normal = normalize(gl_NormalMatrix * gl_Normal);
    upVec = normalize(gbufferModelView[1].xyz);
    eastVec = normalize(gbufferModelView[0].xyz);
    northVec = normalize(gbufferModelView[2].xyz);
    sunVec = GetSunVector();

binormal = normalize(gl_NormalMatrix * cross(at_tangent.xyz, gl_Normal.xyz) * at_tangent.w);
    tangent  = normalize(gl_NormalMatrix * at_tangent.xyz);

mat3 tbnMatrix = mat3(
        tangent.x, binormal.x, normal.x,
        tangent.y, binormal.y, normal.y,
        tangent.z, binormal.z, normal.z
    );

viewVector = tbnMatrix * (gl_ModelViewMatrix * gl_Vertex).xyz;

#if WATER_STYLE >= 2 || defined FANCY_NETHERPORTAL || defined GENERATED_NORMALS || defined POM
        vec2 midCoord = (gl_TextureMatrix[0] * mc_midTexCoord).st;
        vec2 texMinMidCoord = texCoord - midCoord;
        signMidCoordPos = sign(texMinMidCoord);
        absMidCoordPos  = abs(texMinMidCoord);

#ifdef POM
            vTexCoordAM.zw  = abs(texMinMidCoord) * 2;
            vTexCoordAM.xy  = min(texCoord, midCoord - texMinMidCoord);
        #endif
    #endif

#ifdef WAVING_WATER_VERTEX
        vec4 position = gbufferModelViewInverse * gl_ModelViewMatrix * gl_Vertex;

DoWave(position.xyz, mat);

gl_Position = gl_ProjectionMatrix * gbufferModelView * position;
    #else
        gl_Position = ftransform();
    #endif

#ifdef TAA
        gl_Position.xy = TAAJitter(gl_Position.xy, gl_Position.w);
    #endif

gl_Position.z -= 0.0001;
}

#endif

परिवर्तित टेक्स्ट

फ़ाइल खोलें

////////////////////////////////////////
// Complementary Reimagined by EminGT //
////////////////////////////////////////

//Common//
#include "/lib/common.glsl"

const int PHYSICS_ITERATIONS_OFFSET = 13;
const float PHYSICS_DRAG_MULT = 0.048;
const float PHYSICS_XZ_SCALE = 0.035;
const float PHYSICS_TIME_MULTIPLICATOR = 0.45;
const float PHYSICS_W_DETAIL = 0.75;
const float PHYSICS_FREQUENCY = 6.0;
const float PHYSICS_SPEED = 2.0;
const float PHYSICS_WEIGHT = 0.8;
const float PHYSICS_FREQUENCY_MULT = 1.18;
const float PHYSICS_SPEED_MULT = 1.07;
const float PHYSICS_ITER_INC = 12.0;
const float PHYSICS_NORMAL_STRENGTH = 1.4;

uniform int physics_iterationsNormal;
uniform vec2 physics_waveOffset;
uniform ivec2 physics_textureOffset;
uniform float physics_gameTime;
uniform float physics_globalTime;
uniform float physics_oceanHeight;
uniform float physics_oceanWaveHorizontalScale;
uniform vec3 physics_modelOffset;
uniform float physics_rippleRange;
uniform float physics_foamAmount;
uniform float physics_foamOpacity;
uniform sampler2D physics_waviness;
uniform sampler2D physics_ripples;
uniform sampler3D physics_foam;
uniform sampler2D physics_lightmap;

float physics_waveHeight(vec2 position, int iterations, float factor, float time) {
    position = (position - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;
	float iter = 0.0;
    float frequency = PHYSICS_FREQUENCY;
    float speed = PHYSICS_SPEED;
    float weight = 1.0;
    float height = 0.0;
    float waveSum = 0.0;
    float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;
    
    for (int i = 0; i < iterations; i++) {
        vec2 direction = vec2(sin(iter), cos(iter));
        float x = dot(direction, position) * frequency + modifiedTime * speed;
        float wave = exp(sin(x) - 1.0);
        float result = wave * cos(x);
        vec2 force = result * weight * direction;
        
        position -= force * PHYSICS_DRAG_MULT;
        height += wave * weight;
        iter += PHYSICS_ITER_INC;
        waveSum += weight;
        weight *= PHYSICS_WEIGHT;
        frequency *= PHYSICS_FREQUENCY_MULT;
        speed *= PHYSICS_SPEED_MULT;
    }
    
    return height / waveSum * physics_oceanHeight * factor - physics_oceanHeight * factor * 0.5;
}

vec2 physics_waveDirection(vec2 position, int iterations, float time) {
    position = (position - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;
	float iter = 0.0;
    float frequency = PHYSICS_FREQUENCY;
    float speed = PHYSICS_SPEED;
    float weight = 1.0;
    float waveSum = 0.0;
    float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;
    vec2 dx = vec2(0.0);
    
    for (int i = 0; i < iterations; i++) {
        vec2 direction = vec2(sin(iter), cos(iter));
        float x = dot(direction, position) * frequency + modifiedTime * speed;
        float wave = exp(sin(x) - 1.0);
        float result = wave * cos(x);
        vec2 force = result * weight * direction;
        
        dx += force / pow(weight, PHYSICS_W_DETAIL); 
        position -= force * PHYSICS_DRAG_MULT;
        iter += PHYSICS_ITER_INC;
        waveSum += weight;
        weight *= PHYSICS_WEIGHT;
        frequency *= PHYSICS_FREQUENCY_MULT;
        speed *= PHYSICS_SPEED_MULT;
    }
    
    return vec2(dx / pow(waveSum, 1.0 - PHYSICS_W_DETAIL));
}

vec3 physics_waveNormal(const in vec2 position, const in vec2 direction, const in float factor, const in float time) {
    float oceanHeightFactor = physics_oceanHeight / 13.0;
    float totalFactor = oceanHeightFactor * factor;
    vec3 waveNormal = normalize(vec3(direction.x * totalFactor, PHYSICS_NORMAL_STRENGTH, direction.y * totalFactor));
    
    vec2 eyePosition = position + physics_modelOffset.xz;
    vec2 rippleFetch = (eyePosition + vec2(physics_rippleRange)) / (physics_rippleRange * 2.0);
    vec2 rippleTexelSize = vec2(2.0 / textureSize(physics_ripples, 0).x, 0.0);
    float left = texture(physics_ripples, rippleFetch - rippleTexelSize.xy).r;
    float right = texture(physics_ripples, rippleFetch + rippleTexelSize.xy).r;
    float top = texture(physics_ripples, rippleFetch - rippleTexelSize.yx).r;
    float bottom = texture(physics_ripples, rippleFetch + rippleTexelSize.yx).r;
    float totalEffect = left + right + top + bottom;
    
    float normalx = left - right;
    float normalz = top - bottom;
    vec3 rippleNormal = normalize(vec3(normalx, 1.0, normalz));
    return normalize(mix(waveNormal, rippleNormal, pow(totalEffect, 0.5)));
}

struct WavePixelData {
    vec2 direction;
    vec2 worldPos;
    vec3 normal;
    float foam;
    float height;
};

WavePixelData physics_wavePixel(const in vec2 position, const in float factor, const in float iterations, const in float time) {
    vec2 wavePos = (position.xy - physics_waveOffset) * PHYSICS_XZ_SCALE * physics_oceanWaveHorizontalScale;
    float iter = 0.0;
    float frequency = PHYSICS_FREQUENCY;
    float speed = PHYSICS_SPEED;
    float weight = 1.0;
    float height = 0.0;
    float waveSum = 0.0;
    float modifiedTime = time * PHYSICS_TIME_MULTIPLICATOR;
    vec2 dx = vec2(0.0);
    
    for (int i = 0; i < iterations; i++) {
        vec2 direction = vec2(sin(iter), cos(iter));
        float x = dot(direction, wavePos) * frequency + modifiedTime * speed;
        float wave = exp(sin(x) - 1.0);
        float result = wave * cos(x);
        vec2 force = result * weight * direction;
        
        dx += force / pow(weight, PHYSICS_W_DETAIL); 
        wavePos -= force * PHYSICS_DRAG_MULT;
        height += wave * weight;
        iter += PHYSICS_ITER_INC;
        waveSum += weight;
        weight *= PHYSICS_WEIGHT;
        frequency *= PHYSICS_FREQUENCY_MULT;
        speed *= PHYSICS_SPEED_MULT;
    }
    
    WavePixelData data;
    data.direction = -vec2(dx / pow(waveSum, 1.0 - PHYSICS_W_DETAIL));
    data.worldPos = wavePos / physics_oceanWaveHorizontalScale / PHYSICS_XZ_SCALE;
    data.height = height / waveSum * physics_oceanHeight * factor - physics_oceanHeight * factor * 0.5;
    
    data.normal = physics_waveNormal(position, data.direction, factor, time);

float waveAmplitude = data.height * pow(max(data.normal.y, 0.0), 4.0);
    vec2 waterUV = mix(position - physics_waveOffset, data.worldPos, clamp(factor * 2.0, 0.2, 1.0));
    
    vec2 s1 = textureLod(physics_foam, vec3(waterUV * 0.26, physics_globalTime / 360.0), 0).rg;
    vec2 s2 = textureLod(physics_foam, vec3(waterUV * 0.02, physics_globalTime / 360.0 + 0.5), 0).rg;
    vec2 s3 = textureLod(physics_foam, vec3(waterUV * 0.1, physics_globalTime / 360.0 + 1.0), 0).rg;
    
    float waterSurfaceNoise = s1.r * s2.r * s3.r * 2.8 * physics_foamAmount;
    waveAmplitude = clamp(waveAmplitude * 1.2, 0.0, 1.0);
    waterSurfaceNoise = (1.0 - waveAmplitude) * waterSurfaceNoise + waveAmplitude * physics_foamAmount;
    
    float worleyNoise = 0.2 + 0.8 * s1.g * (1.0 - s2.g);
    float waterFoamMinSmooth = 0.45;
    float waterFoamMaxSmooth = 2.0;
    waterSurfaceNoise = smoothstep(waterFoamMinSmooth, 1.0, waterSurfaceNoise) * worleyNoise;
    
    data.foam = clamp(waterFoamMaxSmooth * waterSurfaceNoise * physics_foamOpacity, 0.0, 1.0);
    
    if (!gl_FrontFacing) {
    	data.normal = -data.normal;
    }
    
    return data;
}

//////////Fragment Shader//////////Fragment Shader//////////Fragment Shader//////////
#ifdef FRAGMENT_SHADER

flat in int mat;

in vec2 texCoord;
in vec2 lmCoord;

flat in vec3 upVec, sunVec, northVec, eastVec;
in vec3 normal;
in vec3 viewVector;
in vec3 physics_localPosition;
in vec3 physics_foamColor;
in float physics_localWaviness;
WavePixelData physics_waveData;