mirror of https://github.com/AxioDL/metaforce.git
964 lines
45 KiB
C++
964 lines
45 KiB
C++
#include "CFluidPlaneCPU.hpp"
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#include "CSimplePool.hpp"
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#include "GameGlobalObjects.hpp"
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#include "CFluidPlaneManager.hpp"
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#include "CStateManager.hpp"
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#include "CWorld.hpp"
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#include "World/CScriptWater.hpp"
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#include "TCastTo.hpp"
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#include "Camera/CGameCamera.hpp"
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#define kTableSize 2048
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namespace urde
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{
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CFluidPlaneCPU::CTurbulence::CTurbulence(float speed, float distance, float freqMax, float freqMin,
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float phaseMax, float phaseMin, float amplitudeMax, float amplitudeMin)
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: x0_speed(speed), x4_distance(distance), x8_freqMax(freqMax), xc_freqMin(freqMin),
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x10_phaseMax(phaseMax), x14_phaseMin(phaseMin), x18_amplitudeMax(amplitudeMax), x1c_amplitudeMin(amplitudeMin),
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x2c_ooTurbSpeed(1.f / x0_speed), x30_ooTurbDistance(1.f / x4_distance)
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{
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if (x18_amplitudeMax != 0.f || x1c_amplitudeMin != 0.f)
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{
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x24_tableCount = kTableSize;
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x28_heightSelPitch = x24_tableCount;
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x20_table.reset(new float[x24_tableCount]);
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float anglePitch = 2.f * M_PIF / x28_heightSelPitch;
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float freqConstant = 0.5f * (x8_freqMax + xc_freqMin);
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float freqLinear = 0.5f * (x8_freqMax - xc_freqMin);
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float phaseConstant = 0.5f * (x10_phaseMax + x14_phaseMin);
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float phaseLinear = 0.5f * (x10_phaseMax - x14_phaseMin);
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float amplitudeConstant = 0.5f * (x18_amplitudeMax + x1c_amplitudeMin);
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float amplitudeLinear = 0.5f * (x18_amplitudeMax - x1c_amplitudeMin);
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float curAng = 0.f;
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for (int i=0 ; i<x24_tableCount ; ++i, curAng += anglePitch)
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{
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float angCos = std::cos(curAng);
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x20_table[i] = (amplitudeLinear * angCos + amplitudeConstant) *
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std::sin((freqLinear * angCos + freqConstant) * curAng + (phaseLinear * angCos + phaseConstant));
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}
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x34_hasTurbulence = true;
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}
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}
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CFluidPlaneCPU::CFluidPlaneCPU(CAssetId texPattern1, CAssetId texPattern2, CAssetId texColor, CAssetId bumpMap,
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CAssetId envMap, CAssetId envBumpMap, CAssetId lightMap, float unitsPerLightmapTexel,
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float tileSize, u32 tileSubdivisions, EFluidType fluidType, float alpha,
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const zeus::CVector3f& bumpLightDir, float bumpScale, const CFluidUVMotion& mot,
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float turbSpeed, float turbDistance, float turbFreqMax, float turbFreqMin,
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float turbPhaseMax, float turbPhaseMin, float turbAmplitudeMax, float turbAmplitudeMin,
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float specularMin, float specularMax, float reflectionBlend, float reflectionSize,
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float rippleIntensity, u32 maxVertCount)
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: CFluidPlane(texPattern1, texPattern2, texColor, alpha, fluidType, rippleIntensity, mot),
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xa0_texIdBumpMap(bumpMap), xa4_texIdEnvMap(envMap), xa8_texIdEnvBumpMap(envBumpMap), xac_texId4(lightMap),
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xf0_bumpLightDir(bumpLightDir), xfc_bumpScale(bumpScale), x100_tileSize(tileSize),
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x104_tileSubdivisions(tileSubdivisions & ~0x1),
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x108_rippleResolution(x100_tileSize / float(x104_tileSubdivisions)),
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x10c_specularMin(specularMin), x110_specularMax(specularMax), x114_reflectionBlend(reflectionBlend),
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x118_reflectionSize(reflectionSize), x11c_unitsPerLightmapTexel(unitsPerLightmapTexel),
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x120_turbulence(turbSpeed, turbDistance, turbFreqMax, turbFreqMin, turbPhaseMax,
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turbPhaseMin, turbAmplitudeMax, turbAmplitudeMin),
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m_maxVertCount(maxVertCount)
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{
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if (g_ResFactory->GetResourceTypeById(xa0_texIdBumpMap) == FOURCC('TXTR'))
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xb0_bumpMap = g_SimplePool->GetObj(SObjectTag{FOURCC('TXTR'), xa0_texIdBumpMap});
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if (g_ResFactory->GetResourceTypeById(xa4_texIdEnvMap) == FOURCC('TXTR'))
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xc0_envMap = g_SimplePool->GetObj(SObjectTag{FOURCC('TXTR'), xa4_texIdEnvMap});
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if (g_ResFactory->GetResourceTypeById(xa8_texIdEnvBumpMap) == FOURCC('TXTR'))
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xd0_envBumpMap = g_SimplePool->GetObj(SObjectTag{FOURCC('TXTR'), xa8_texIdEnvBumpMap});
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if (g_ResFactory->GetResourceTypeById(xac_texId4) == FOURCC('TXTR'))
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xe0_lightmap = g_SimplePool->GetObj(SObjectTag{FOURCC('TXTR'), xac_texId4});
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}
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void CFluidPlaneCPU::CreateRipple(const CRipple& ripple, CStateManager& mgr)
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{
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}
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void CFluidPlaneCPU::CalculateLightmapMatrix(const zeus::CTransform& areaXf, const zeus::CTransform& xf,
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const zeus::CAABox& aabb, zeus::CMatrix4f& mtxOut) const
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{
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int width = GetLightMap().GetWidth();
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int height = GetLightMap().GetHeight();
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zeus::CTransform toLocal = areaXf.getRotation().inverse();
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zeus::CAABox areaLocalAABB = aabb.getTransformedAABox(toLocal);
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float f26 = (areaLocalAABB.max.x() - areaLocalAABB.min.x()) / (width * x11c_unitsPerLightmapTexel);
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float f25 = (areaLocalAABB.max.y() - areaLocalAABB.min.y()) / (height * x11c_unitsPerLightmapTexel);
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float f24 = (1.f + std::fmod(areaLocalAABB.min.x() + xf.origin.x(), x11c_unitsPerLightmapTexel)) / width;
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float f23 = (2.f - std::fmod(areaLocalAABB.max.x() + xf.origin.x(), x11c_unitsPerLightmapTexel)) / width;
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float f29 = (1.f + std::fmod(areaLocalAABB.min.y() + xf.origin.y(), x11c_unitsPerLightmapTexel)) / height;
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float f6 = (2.f - std::fmod(areaLocalAABB.max.y() + xf.origin.y(), x11c_unitsPerLightmapTexel)) / height;
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float scaleX = (f26 - f24 - f23) / (areaLocalAABB.max.x() - areaLocalAABB.min.x());
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float scaleY = -(f25 - f29 - f6) / (areaLocalAABB.max.y() - areaLocalAABB.min.y());
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float offX = f24 + f26 * -areaLocalAABB.min.x() / (areaLocalAABB.max.x() - areaLocalAABB.min.x());
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float offY = f25 * areaLocalAABB.min.y() / (areaLocalAABB.max.y() - areaLocalAABB.min.y()) - f6;
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mtxOut = (zeus::CTransform(zeus::CMatrix3f(zeus::CVector3f(scaleX, scaleY, 0.f)),
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zeus::CVector3f(offX, offY, 0.f)) * toLocal).toMatrix4f();
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}
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static bool sSineWaveInitialized = false;
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static float sGlobalSineWave[256] = {};
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static const float* InitializeSineWave()
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{
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if (sSineWaveInitialized)
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return sGlobalSineWave;
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for (int i=0 ; i<256 ; ++i)
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sGlobalSineWave[i] = std::sin(2.f * M_PIF * (i / 256.f));
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sSineWaveInitialized = true;
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return sGlobalSineWave;
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}
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#define kEnableWaterBumpMaps true
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CFluidPlaneShader::RenderSetupInfo
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CFluidPlaneCPU::RenderSetup(const CStateManager& mgr, float alpha, const zeus::CTransform& xf,
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const zeus::CTransform& areaXf, const zeus::CAABox& aabb, const CScriptWater* water) const
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{
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CFluidPlaneShader::RenderSetupInfo out;
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float uvT = mgr.GetFluidPlaneManager()->GetUVT();
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bool hasBumpMap = HasBumpMap() && kEnableWaterBumpMaps;
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bool doubleLightmapBlend = false;
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bool hasEnvMap = mgr.GetCameraManager()->GetFluidCounter() == 0 && HasEnvMap();
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bool hasEnvBumpMap = HasEnvBumpMap();
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InitializeSineWave();
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CGraphics::SetModelMatrix(xf);
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if (hasBumpMap)
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{
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// Build 50% grey directional light with xf0_bumpLightDir and load into LIGHT_3
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// Light 3 in channel 1
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// Vertex colors in channel 0
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out.lights.resize(4);
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out.lights[3] = CLight::BuildDirectional(xf0_bumpLightDir, zeus::CColor::skGrey);
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}
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else
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{
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// Normal light mask in channel 1
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// Vertex colors in channel 0
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out.lights = water->GetActorLights()->BuildLightVector();
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}
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int curTex = 3;
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int bumpMapId;
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int envMapId;
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int envBumpMapId;
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int lightmapId;
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if (hasBumpMap)
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{
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// Load into next
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bumpMapId = curTex++;
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}
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if (hasEnvMap)
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{
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// Load into next
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envMapId = curTex++;
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}
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if (hasEnvBumpMap)
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{
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// Load into next
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envBumpMapId = curTex++;
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}
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float fluidUVs[3][2];
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x4c_uvMotion.CalculateFluidTextureOffset(uvT, fluidUVs);
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out.texMtxs[0][0][0] = x4c_uvMotion.GetFluidLayers()[1].GetUVScale();
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out.texMtxs[0][1][1] = x4c_uvMotion.GetFluidLayers()[1].GetUVScale();
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out.texMtxs[0][3][0] = fluidUVs[1][0];
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out.texMtxs[0][3][1] = fluidUVs[1][1];
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out.texMtxs[1][0][0] = x4c_uvMotion.GetFluidLayers()[2].GetUVScale();
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out.texMtxs[1][1][1] = x4c_uvMotion.GetFluidLayers()[2].GetUVScale();
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out.texMtxs[1][3][0] = fluidUVs[2][0];
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out.texMtxs[1][3][1] = fluidUVs[2][1];
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out.texMtxs[2][0][0] = x4c_uvMotion.GetFluidLayers()[0].GetUVScale();
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out.texMtxs[2][1][1] = x4c_uvMotion.GetFluidLayers()[0].GetUVScale();
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out.texMtxs[2][3][0] = fluidUVs[0][0];
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out.texMtxs[2][3][1] = fluidUVs[0][1];
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// Load normal mtx 0 with
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out.normMtx =
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(zeus::CTransform::Scale(xfc_bumpScale) * CGraphics::g_ViewMatrix.getRotation().inverse()).toMatrix4f();
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// Setup TCGs
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int nextTexMtx = 3;
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if (hasEnvBumpMap)
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{
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float pttScale;
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if (hasEnvMap)
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pttScale = 0.5f * (1.f - x118_reflectionSize);
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else
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pttScale = g_tweakGame->GetFluidEnvBumpScale() * x4c_uvMotion.GetFluidLayers()[0].GetUVScale();
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// Load GX_TEXMTX3 with identity
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zeus::CMatrix4f& texMtx = out.texMtxs[nextTexMtx++];
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texMtx[0][0] = pttScale;
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texMtx[1][1] = pttScale;
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texMtx[3][0] = 0.5f;
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texMtx[3][1] = 0.5f;
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// Load GX_PTTEXMTX0 with scale of pttScale
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// Next: GX_TG_MTX2x4 GX_TG_NRM, GX_TEXMTX3, true, GX_PTTEXMTX0
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out.indScale = 0.5f * (hasEnvMap ? x118_reflectionSize : 1.f);
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// Load ind mtx with scale of (indScale, -indScale)
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// Load envBumpMap into ind stage 0 with previous TCG
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}
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if (hasEnvMap)
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{
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float scale = std::max(aabb.max.x() - aabb.min.x(), aabb.max.y() - aabb.min.y());
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zeus::CMatrix4f& texMtx = out.texMtxs[nextTexMtx++];
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texMtx[0][0] = 1.f / scale;
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texMtx[1][1] = 1.f / scale;
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zeus::CVector3f center = aabb.center();
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texMtx[3][0] = 0.5f + -center.x() / scale;
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texMtx[3][1] = 0.5f + -center.y() / scale;
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// Next: GX_TG_MTX2x4 GX_TG_POS, mtxNext, false, GX_PTIDENTITY
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}
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if (HasLightMap())
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{
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float lowLightBlend = 1.f;
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const CGameArea* area = mgr.GetWorld()->GetAreaAlways(mgr.GetNextAreaId());
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float lightLevel = area->GetPostConstructed()->x1128_worldLightingLevel;
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const CScriptWater* nextWater = water->GetNextConnectedWater(mgr);
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if (std::fabs(water->GetMorphFactor()) < 0.00001f || !nextWater ||
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!nextWater->GetFluidPlane().HasLightMap())
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{
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lightmapId = curTex;
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// Load lightmap
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CalculateLightmapMatrix(areaXf, xf, aabb, out.texMtxs[nextTexMtx++]);
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// Next: GX_TG_MTX2x4 GX_TG_POS, mtxNext, false, GX_PTIDENTITY
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}
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else if (nextWater && nextWater->GetFluidPlane().HasLightMap())
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{
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if (std::fabs(water->GetMorphFactor() - 1.f) < 0.00001f)
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{
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lightmapId = curTex;
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// Load lightmap
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CalculateLightmapMatrix(areaXf, xf, aabb, out.texMtxs[nextTexMtx++]);
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// Next: GX_TG_MTX2x4 GX_TG_POS, mtxNext, false, GX_PTIDENTITY
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}
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else
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{
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lightmapId = curTex;
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// Load lightmap
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CalculateLightmapMatrix(areaXf, xf, aabb, out.texMtxs[nextTexMtx++]);
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// Next: GX_TG_MTX2x4 GX_TG_POS, mtxNext, false, GX_PTIDENTITY
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// Load lightmap
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CalculateLightmapMatrix(areaXf, xf, aabb, out.texMtxs[nextTexMtx++]);
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// Next: GX_TG_MTX2x4 GX_TG_POS, mtxNext, false, GX_PTIDENTITY
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float lum = lightLevel * water->GetMorphFactor();
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out.kColors[3] = zeus::CColor(lum, 1.f);
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lowLightBlend = (1.f - water->GetMorphFactor()) / (1.f - lum);
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doubleLightmapBlend = true;
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}
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}
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out.kColors[2] = zeus::CColor(lowLightBlend * lightLevel, 1.f);
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}
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float waterPlaneOrthoDot = xf.transposeRotate(zeus::CVector3f::skUp).
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dot(CGraphics::g_ViewMatrix.inverse().transposeRotate(zeus::CVector3f::skForward));
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if (waterPlaneOrthoDot < 0.f)
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waterPlaneOrthoDot = -waterPlaneOrthoDot;
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out.kColors[0] =
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zeus::CColor((1.f - waterPlaneOrthoDot) * (x110_specularMax - x10c_specularMin) + x10c_specularMin, alpha);
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out.kColors[1] = zeus::CColor(x114_reflectionBlend, 1.f);
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if (!m_shader || m_cachedDoubleLightmapBlend != doubleLightmapBlend ||
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m_cachedAdditive != (mgr.GetThermalDrawFlag() == EThermalDrawFlag::Hot))
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{
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m_cachedDoubleLightmapBlend = doubleLightmapBlend;
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m_cachedAdditive = mgr.GetThermalDrawFlag() == EThermalDrawFlag::Hot;
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m_shader.emplace(x44_fluidType,
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x10_texPattern1, x20_texPattern2, x30_texColor, xb0_bumpMap, xc0_envMap,
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xd0_envBumpMap, xe0_lightmap,
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m_tessellation ? CFluidPlaneManager::RippleMapTex : boo::ObjToken<boo::ITextureS>{},
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m_cachedDoubleLightmapBlend, m_cachedAdditive, m_maxVertCount);
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}
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return out;
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}
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int CFluidPlaneRender::numTilesInHField;
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int CFluidPlaneRender::numSubdivisionsInTile;
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int CFluidPlaneRender::numSubdivisionsInHField;
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bool CFluidPlaneCPU::PrepareRipple(const CRipple& ripple, const CFluidPlaneRender::SPatchInfo& info,
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CFluidPlaneRender::SRippleInfo& rippleOut)
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{
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auto lifeIdx = int((1.f - (ripple.GetTimeFalloff() - ripple.GetTime()) / ripple.GetTimeFalloff()) * 64.f);
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float dist = CFluidPlaneManager::RippleMaxs[lifeIdx] * (ripple.GetDistanceFalloff() / 256.f);
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dist *= dist;
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if (dist != 0)
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dist = std::sqrt(dist);
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dist = info.x24_ooRippleResolution * dist + 1.f;
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float centerX = info.x24_ooRippleResolution * (ripple.GetCenter().x() - info.xc_globalMin.x());
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float centerY = info.x24_ooRippleResolution * (ripple.GetCenter().y() - info.xc_globalMin.y());
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int fromX = int(centerX - dist) - 1;
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int toX = int(centerX + dist) + 1;
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int fromY = int(centerY - dist) - 1;
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int toY = int(centerY + dist) + 1;
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rippleOut.x4_fromX = std::max(0, fromX);
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rippleOut.x8_toX = std::min(int(info.x0_xSubdivs), toX);
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rippleOut.xc_fromY = std::max(0, fromY);
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rippleOut.x10_toY = std::min(int(info.x1_ySubdivs), toY);
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rippleOut.x14_gfromX = std::max(rippleOut.x14_gfromX, fromX);
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rippleOut.x18_gtoX = std::min(rippleOut.x18_gtoX, toX);
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rippleOut.x1c_gfromY = std::max(rippleOut.x1c_gfromY, fromY);
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rippleOut.x20_gtoY = std::min(rippleOut.x20_gtoY, toY);
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return !(rippleOut.x14_gfromX > rippleOut.x18_gtoX || rippleOut.x1c_gfromY > rippleOut.x20_gtoY);
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}
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void CFluidPlaneCPU::ApplyTurbulence(float t, CFluidPlaneRender::SHFieldSample (&heights)[46][46],
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const u8 (&flags)[9][9], const float sineWave[256],
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const CFluidPlaneRender::SPatchInfo& info,
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const zeus::CVector3f& areaCenter) const
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{
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if (!HasTurbulence())
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{
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memset(&heights, 0, sizeof(heights));
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return;
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}
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float scaledT = t * GetOOTurbulenceSpeed();
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float curY = info.x4_localMin.y() - info.x18_rippleResolution - areaCenter.y();
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int xDivs = (info.x0_xSubdivs + CFluidPlaneRender::numSubdivisionsInTile - 4) /
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CFluidPlaneRender::numSubdivisionsInTile * CFluidPlaneRender::numSubdivisionsInTile + 2;
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int yDivs = (info.x1_ySubdivs + CFluidPlaneRender::numSubdivisionsInTile - 4) /
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CFluidPlaneRender::numSubdivisionsInTile * CFluidPlaneRender::numSubdivisionsInTile + 2;
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for (int i=0 ; i<=yDivs ; ++i)
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{
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float curYSq = curY * curY;
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float curX = info.x4_localMin.x() - info.x18_rippleResolution - areaCenter.x();
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for (int j=0 ; j<=xDivs ; ++j)
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{
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float distFac = curX * curX + curYSq;
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if (distFac != 0.f)
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distFac = std::sqrt(distFac);
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heights[i][j].height =
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GetTurbulenceHeight(GetOOTurbulenceDistance() * distFac + scaledT);
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curX += info.x18_rippleResolution;
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}
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curY += info.x18_rippleResolution;
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}
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}
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void CFluidPlaneCPU::ApplyRipple(const CFluidPlaneRender::SRippleInfo& rippleInfo,
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CFluidPlaneRender::SHFieldSample (&heights)[46][46],
|
|
u8 (&flags)[9][9], const float sineWave[256],
|
|
const CFluidPlaneRender::SPatchInfo& info) const
|
|
{
|
|
float lookupT = 256.f * (1.f - rippleInfo.x0_ripple.GetTime() * rippleInfo.x0_ripple.GetOOTimeFalloff() *
|
|
rippleInfo.x0_ripple.GetOOTimeFalloff()) * rippleInfo.x0_ripple.GetFrequency();
|
|
auto lifeIdx = int(64.f * rippleInfo.x0_ripple.GetTime() * rippleInfo.x0_ripple.GetOOTimeFalloff());
|
|
float distMul = rippleInfo.x0_ripple.GetDistanceFalloff() / 255.f;
|
|
float minDist = CFluidPlaneManager::RippleMins[lifeIdx] * distMul;
|
|
float minDistSq = minDist * minDist;
|
|
if (minDistSq != 0.f)
|
|
minDist = std::sqrt(minDistSq);
|
|
float maxDist = CFluidPlaneManager::RippleMaxs[lifeIdx] * distMul;
|
|
float maxDistSq = maxDist * maxDist;
|
|
if (maxDistSq != 0.f)
|
|
maxDist = std::sqrt(maxDistSq);
|
|
int fromY = (rippleInfo.x1c_gfromY + CFluidPlaneRender::numSubdivisionsInTile - 1) /
|
|
CFluidPlaneRender::numSubdivisionsInTile;
|
|
int fromX = (rippleInfo.x14_gfromX + CFluidPlaneRender::numSubdivisionsInTile - 1) /
|
|
CFluidPlaneRender::numSubdivisionsInTile;
|
|
int toY = (rippleInfo.x20_gtoY + CFluidPlaneRender::numSubdivisionsInTile - 1) /
|
|
CFluidPlaneRender::numSubdivisionsInTile;
|
|
int toX = (rippleInfo.x18_gtoX + CFluidPlaneRender::numSubdivisionsInTile - 1) /
|
|
CFluidPlaneRender::numSubdivisionsInTile;
|
|
|
|
float curY = rippleInfo.x0_ripple.GetCenter().y() - info.xc_globalMin.y() -
|
|
(0.5f * info.x14_tileSize + (fromY - 1) * info.x14_tileSize);
|
|
int curGridY = info.x2a_gridDimX * (info.x2e_tileY + fromY - 1);
|
|
int startGridX = (info.x28_tileX + fromX - 1);
|
|
int gridCells = info.x2a_gridDimX * info.x2c_gridDimY;
|
|
float distFalloff = 64.f * rippleInfo.x0_ripple.GetOODistanceFalloff();
|
|
int curYDiv = rippleInfo.xc_fromY;
|
|
|
|
for (int i=fromY ; i<=toY ; ++i, curY -= info.x14_tileSize)
|
|
{
|
|
int nextYDiv = (i+1) * CFluidPlaneRender::numSubdivisionsInTile;
|
|
float curYSq = curY * curY;
|
|
int curGridX = startGridX;
|
|
int curXDiv = rippleInfo.x4_fromX;
|
|
float curX = rippleInfo.x0_ripple.GetCenter().x() - info.xc_globalMin.x() -
|
|
(0.5f * info.x14_tileSize + (fromX - 1) * info.x14_tileSize);
|
|
for (int j=fromX ; j<=toX ; ++j, curX -= info.x14_tileSize, ++curGridX)
|
|
{
|
|
float dist = curX * curX + curYSq;
|
|
if (dist != 0.f)
|
|
dist = std::sqrt(dist);
|
|
if (maxDist < dist - info.x1c_tileHypRadius || minDist > dist + info.x1c_tileHypRadius)
|
|
continue;
|
|
|
|
bool addedRipple = false;
|
|
int nextXDiv = (j+1) * CFluidPlaneRender::numSubdivisionsInTile;
|
|
float curXMod =
|
|
(rippleInfo.x0_ripple.GetCenter().x() - info.xc_globalMin.x()) - info.x18_rippleResolution * curXDiv;
|
|
float curYMod =
|
|
(rippleInfo.x0_ripple.GetCenter().y() - info.xc_globalMin.y()) - info.x18_rippleResolution * curYDiv;
|
|
|
|
if (!info.x30_gridFlags || (info.x30_gridFlags && curGridY >= 0 && curGridY < gridCells && curGridX >= 0 &&
|
|
curGridX < info.x2a_gridDimX && info.x30_gridFlags[curGridX + curGridY]))
|
|
{
|
|
for (int k=curYDiv ; k<=std::min(rippleInfo.x10_toY, nextYDiv-1) ; ++k,
|
|
curYMod -= info.x18_rippleResolution)
|
|
{
|
|
float tmpXMod = curXMod;
|
|
float curYModSq = curYMod * curYMod;
|
|
for (int l=curXDiv ; l<=std::min(rippleInfo.x8_toX, nextXDiv-1) ; ++l,
|
|
tmpXMod -= info.x18_rippleResolution)
|
|
{
|
|
float divDistSq = tmpXMod * tmpXMod + curYModSq;
|
|
if (divDistSq < minDistSq || divDistSq > maxDistSq)
|
|
continue;
|
|
|
|
if (m_tessellation)
|
|
{
|
|
/* This will be evaluated in tessellation shader instead */
|
|
addedRipple = true;
|
|
break;
|
|
}
|
|
|
|
float divDist = (divDistSq != 0.f) ? std::sqrt(divDistSq) : 0.f;
|
|
if (u8 rippleV = CFluidPlaneManager::RippleValues[lifeIdx][int(divDist * distFalloff)])
|
|
{
|
|
heights[k][l].height += rippleV * rippleInfo.x0_ripple.GetLookupAmplitude() *
|
|
sineWave[int(divDist * rippleInfo.x0_ripple.GetLookupPhase() + lookupT) & 0xff];
|
|
}
|
|
else
|
|
{
|
|
heights[k][l].height += 0.f;
|
|
}
|
|
addedRipple = true;
|
|
}
|
|
}
|
|
|
|
if (addedRipple)
|
|
flags[i][j] = 0x1f;
|
|
}
|
|
else
|
|
{
|
|
int yMin = nextYDiv - 1;
|
|
int yMax = nextYDiv - CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
int xMin = nextXDiv - 1;
|
|
int xMax = nextXDiv - CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
|
|
if (curGridX >= 0.f && curGridX < info.x2a_gridDimX && curGridY - info.x2a_gridDimX >= 0 &&
|
|
!info.x30_gridFlags[curGridX + curGridY - info.x2a_gridDimX])
|
|
yMax -= 2;
|
|
|
|
if (curGridX >= 0.f && curGridX < info.x2a_gridDimX && curGridY + info.x2a_gridDimX < gridCells &&
|
|
!info.x30_gridFlags[curGridX + info.x2a_gridDimX])
|
|
yMin += 2;
|
|
|
|
if (curGridY >= 0 && curGridY < info.x2c_gridDimY && curGridX > 0 &&
|
|
!info.x30_gridFlags[curGridX - 1])
|
|
xMax -= 2;
|
|
|
|
if (curGridY >= 0 && curGridY < info.x2c_gridDimY && curGridX + 1 < info.x2a_gridDimX &&
|
|
!info.x30_gridFlags[curGridX + 1])
|
|
xMin += 2;
|
|
|
|
for (int k=curYDiv ; k<=std::min(rippleInfo.x10_toY, nextYDiv-1) ; ++k,
|
|
curYMod -= info.x18_rippleResolution)
|
|
{
|
|
float tmpXMod = curXMod;
|
|
float curYModSq = curYMod * curYMod;
|
|
for (int l=curXDiv ; l<=std::min(rippleInfo.x8_toX, nextXDiv-1) ; ++l,
|
|
tmpXMod -= info.x18_rippleResolution)
|
|
{
|
|
if (k <= yMax || k >= yMin || l <= xMax || l >= xMin)
|
|
{
|
|
float divDistSq = tmpXMod * tmpXMod + curYModSq;
|
|
if (divDistSq < minDistSq || divDistSq > maxDistSq)
|
|
continue;
|
|
|
|
if (m_tessellation)
|
|
{
|
|
/* This will be evaluated in tessellation shader instead */
|
|
addedRipple = true;
|
|
break;
|
|
}
|
|
|
|
float divDist = (divDistSq != 0.f) ? std::sqrt(divDistSq) : 0.f;
|
|
if (u8 rippleV = CFluidPlaneManager::RippleValues[lifeIdx][int(divDist * distFalloff)])
|
|
{
|
|
heights[k][l].height += rippleV * rippleInfo.x0_ripple.GetLookupAmplitude() *
|
|
sineWave[int(divDist * rippleInfo.x0_ripple.GetLookupPhase() + lookupT) & 0xff];
|
|
}
|
|
else
|
|
{
|
|
heights[k][l].height += 0.f;
|
|
}
|
|
addedRipple = true;
|
|
}
|
|
}
|
|
|
|
if (m_tessellation && addedRipple)
|
|
break;
|
|
}
|
|
|
|
if (addedRipple)
|
|
flags[i][j] = 0xf;
|
|
}
|
|
curXDiv = nextXDiv;
|
|
}
|
|
|
|
curYDiv = nextYDiv;
|
|
curGridY += info.x2a_gridDimX;
|
|
}
|
|
}
|
|
|
|
void CFluidPlaneCPU::ApplyRipples(const rstl::reserved_vector<CFluidPlaneRender::SRippleInfo, 32>& rippleInfos,
|
|
CFluidPlaneRender::SHFieldSample (&heights)[46][46], u8 (&flags)[9][9],
|
|
const float sineWave[256], const CFluidPlaneRender::SPatchInfo& info) const
|
|
{
|
|
for (const CFluidPlaneRender::SRippleInfo& rippleInfo : rippleInfos)
|
|
ApplyRipple(rippleInfo, heights, flags, sineWave, info);
|
|
for (int i=0 ; i<CFluidPlaneRender::numTilesInHField ; ++i)
|
|
flags[0][i+1] |= 1;
|
|
for (int i=0 ; i<CFluidPlaneRender::numTilesInHField ; ++i)
|
|
flags[i+1][0] |= 8;
|
|
for (int i=0 ; i<CFluidPlaneRender::numTilesInHField ; ++i)
|
|
flags[i+1][CFluidPlaneRender::numTilesInHField+1] |= 4;
|
|
for (int i=0 ; i<CFluidPlaneRender::numTilesInHField ; ++i)
|
|
flags[CFluidPlaneRender::numTilesInHField+1][i+1] |= 2;
|
|
}
|
|
|
|
void CFluidPlaneCPU::UpdatePatchNoNormals(CFluidPlaneRender::SHFieldSample (&heights)[46][46],
|
|
const u8 (&flags)[9][9],
|
|
const CFluidPlaneRender::SPatchInfo& info)
|
|
{
|
|
for (int i=1 ; i <= (info.x1_ySubdivs + CFluidPlaneRender::numSubdivisionsInTile - 2) /
|
|
CFluidPlaneRender::numSubdivisionsInTile ; ++i)
|
|
{
|
|
int r10 = i * CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
int r9 = std::max(0, r10 - CFluidPlaneRender::numSubdivisionsInTile);
|
|
int x24 = std::min(r10, info.x1_ySubdivs + 1);
|
|
for (int j=1 ; j <= (info.x0_xSubdivs + CFluidPlaneRender::numSubdivisionsInTile - 2) /
|
|
CFluidPlaneRender::numSubdivisionsInTile ; ++j)
|
|
{
|
|
int r29 = j * CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
int r11 = std::max(0, r29 - CFluidPlaneRender::numSubdivisionsInTile);
|
|
int x28 = std::min(r29, info.x0_xSubdivs + 1);
|
|
if ((flags[i][j] & 0x1f) == 0x1f)
|
|
{
|
|
for (int k=r9 ; k<x24 ; ++k)
|
|
{
|
|
for (int l=r11 ; l<x28 ; ++l)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[k][l];
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
}
|
|
else
|
|
{
|
|
if (i > 0 && i < CFluidPlaneRender::numTilesInHField + 1 &&
|
|
j > 0 && j < CFluidPlaneRender::numTilesInHField + 1)
|
|
{
|
|
int halfSubdivs = CFluidPlaneRender::numSubdivisionsInTile / 2;
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[halfSubdivs + r9][halfSubdivs + r11];
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
|
|
if (i != 0)
|
|
{
|
|
for (int l=r11 ; l<x28 ; ++l)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[r9][l];
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
|
|
if (j != 0)
|
|
{
|
|
for (int k=r9+1 ; k<x24 ; ++k)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[k][r11];
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
}
|
|
}
|
|
}
|
|
}
|
|
|
|
void CFluidPlaneCPU::UpdatePatchWithNormals(CFluidPlaneRender::SHFieldSample (& heights)[46][46],
|
|
const u8 (& flags)[9][9],
|
|
const CFluidPlaneRender::SPatchInfo& info)
|
|
{
|
|
float normalScale = -(2.f * info.x18_rippleResolution);
|
|
float nz = 0.25f * 2.f * info.x18_rippleResolution;
|
|
int curGridY = info.x2e_tileY * info.x2a_gridDimX - 1 + info.x28_tileX;
|
|
for (int i=1 ; i <= (info.x1_ySubdivs + CFluidPlaneRender::numSubdivisionsInTile - 2) /
|
|
CFluidPlaneRender::numSubdivisionsInTile ; ++i, curGridY += info.x2a_gridDimX)
|
|
{
|
|
int r11 = i * CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
int r9 = std::max(0, r11 - CFluidPlaneRender::numSubdivisionsInTile);
|
|
int x38 = std::min(r11, info.x1_ySubdivs + 1);
|
|
for (int j=1 ; j <= (info.x0_xSubdivs + CFluidPlaneRender::numSubdivisionsInTile - 2) /
|
|
CFluidPlaneRender::numSubdivisionsInTile ; ++j)
|
|
{
|
|
int r12 = j * CFluidPlaneRender::numSubdivisionsInTile + 1;
|
|
int x3c = std::min(r12, info.x0_xSubdivs + 1);
|
|
r12 -= CFluidPlaneRender::numSubdivisionsInTile;
|
|
if ((flags[i][j] & 0x1f) == 0x1f)
|
|
{
|
|
for (int k=r9 ; k<x38 ; ++k)
|
|
{
|
|
for (int l=r12 ; l<x3c ; ++l)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[k][l];
|
|
CFluidPlaneRender::SHFieldSample& up = heights[k+1][l];
|
|
CFluidPlaneRender::SHFieldSample& down = heights[k-1][l];
|
|
CFluidPlaneRender::SHFieldSample& right = heights[k][l+1];
|
|
CFluidPlaneRender::SHFieldSample& left = heights[k][l-1];
|
|
float nx = (right.height - left.height) * normalScale;
|
|
float ny = (up.height - down.height) * normalScale;
|
|
float normalizer = ny * ny + nx * nx + nz * nz;
|
|
if (normalizer != 0.f)
|
|
normalizer = std::sqrt(normalizer);
|
|
normalizer = 63.f / normalizer;
|
|
sample.nx = s8(nx * normalizer);
|
|
sample.ny = s8(ny * normalizer);
|
|
sample.nz = s8(nz * normalizer);
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
}
|
|
else
|
|
{
|
|
if (!info.x30_gridFlags || info.x30_gridFlags[curGridY+j])
|
|
{
|
|
if (i > 0 && i < CFluidPlaneRender::numTilesInHField + 1 &&
|
|
j > 0 && j < CFluidPlaneRender::numTilesInHField + 1)
|
|
{
|
|
int halfSubdivs = CFluidPlaneRender::numSubdivisionsInTile / 2;
|
|
int k = halfSubdivs + r9;
|
|
int l = halfSubdivs + r12;
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[k][l];
|
|
CFluidPlaneRender::SHFieldSample& up = heights[k+1][l];
|
|
CFluidPlaneRender::SHFieldSample& down = heights[k-1][l];
|
|
CFluidPlaneRender::SHFieldSample& right = heights[k][l+1];
|
|
CFluidPlaneRender::SHFieldSample& left = heights[k][l-1];
|
|
float nx = (right.height - left.height) * normalScale;
|
|
float ny = (up.height - down.height) * normalScale;
|
|
float normalizer = ny * ny + nx * nx + nz * nz;
|
|
if (normalizer != 0.f)
|
|
normalizer = std::sqrt(normalizer);
|
|
normalizer = 63.f / normalizer;
|
|
sample.nx = s8(nx * normalizer);
|
|
sample.ny = s8(ny * normalizer);
|
|
sample.nz = s8(nz * normalizer);
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
|
|
if (j != 0 && i != 0)
|
|
{
|
|
if ((flags[i][j] & 2) != 0 || (flags[i-1][j] & 1) != 0 ||
|
|
(flags[i][j] & 4) != 0 || (flags[i][j-1] & 8) != 0)
|
|
{
|
|
for (int l=r12 ; l<x3c ; ++l)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[r9][l];
|
|
CFluidPlaneRender::SHFieldSample& up = heights[r9+1][l];
|
|
CFluidPlaneRender::SHFieldSample& down = heights[r9-1][l];
|
|
CFluidPlaneRender::SHFieldSample& right = heights[r9][l+1];
|
|
CFluidPlaneRender::SHFieldSample& left = heights[r9][l-1];
|
|
float nx = (right.height - left.height) * normalScale;
|
|
float ny = (up.height - down.height) * normalScale;
|
|
float normalizer = ny * ny + nx * nx + nz * nz;
|
|
if (normalizer != 0.f)
|
|
normalizer = std::sqrt(normalizer);
|
|
normalizer = 63.f / normalizer;
|
|
sample.nx = s8(nx * normalizer);
|
|
sample.ny = s8(ny * normalizer);
|
|
sample.nz = s8(nz * normalizer);
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
|
|
for (int k=r9 ; k<x38 ; ++k)
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[k][r12];
|
|
CFluidPlaneRender::SHFieldSample& up = heights[k+1][r12];
|
|
CFluidPlaneRender::SHFieldSample& down = heights[k-1][r12];
|
|
CFluidPlaneRender::SHFieldSample& right = heights[k][r12+1];
|
|
CFluidPlaneRender::SHFieldSample& left = heights[k][r12-1];
|
|
float nx = (right.height - left.height) * normalScale;
|
|
float ny = (up.height - down.height) * normalScale;
|
|
float normalizer = ny * ny + nx * nx + nz * nz;
|
|
if (normalizer != 0.f)
|
|
normalizer = std::sqrt(normalizer);
|
|
normalizer = 63.f / normalizer;
|
|
sample.nx = s8(nx * normalizer);
|
|
sample.ny = s8(ny * normalizer);
|
|
sample.nz = s8(nz * normalizer);
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
else
|
|
{
|
|
CFluidPlaneRender::SHFieldSample& sample = heights[r9][r12];
|
|
CFluidPlaneRender::SHFieldSample& up = heights[r9+1][r12];
|
|
CFluidPlaneRender::SHFieldSample& down = heights[r9-1][r12];
|
|
CFluidPlaneRender::SHFieldSample& right = heights[r9][r12+1];
|
|
CFluidPlaneRender::SHFieldSample& left = heights[r9][r12-1];
|
|
float nx = (right.height - left.height) * normalScale;
|
|
float ny = (up.height - down.height) * normalScale;
|
|
float normalizer = ny * ny + nx * nx + nz * nz;
|
|
if (normalizer != 0.f)
|
|
normalizer = std::sqrt(normalizer);
|
|
normalizer = 63.f / normalizer;
|
|
sample.nx = s8(nx * normalizer);
|
|
sample.ny = s8(ny * normalizer);
|
|
sample.nz = s8(nz * normalizer);
|
|
if (sample.height > 0.f)
|
|
sample.wavecapIntensity =
|
|
u8(std::min(255, int(info.x38_wavecapIntensityScale * sample.height)));
|
|
else
|
|
sample.wavecapIntensity = 0;
|
|
}
|
|
}
|
|
}
|
|
}
|
|
}
|
|
}
|
|
|
|
bool CFluidPlaneCPU::UpdatePatch(float time, const CFluidPlaneRender::SPatchInfo& info,
|
|
CFluidPlaneRender::SHFieldSample (&heights)[46][46], u8 (&flags)[9][9],
|
|
const zeus::CVector3f& areaCenter,
|
|
const std::experimental::optional<CRippleManager>& rippleManager,
|
|
int fromX, int toX, int fromY, int toY) const
|
|
{
|
|
rstl::reserved_vector<CFluidPlaneRender::SRippleInfo, 32> rippleInfos;
|
|
if (rippleManager)
|
|
{
|
|
for (const CRipple& ripple : rippleManager->GetRipples())
|
|
{
|
|
if (ripple.GetTime() >= ripple.GetTimeFalloff())
|
|
continue;
|
|
CFluidPlaneRender::SRippleInfo rippleInfo(ripple, fromX, toX, fromY, toY);
|
|
if (PrepareRipple(ripple, info, rippleInfo))
|
|
rippleInfos.push_back(rippleInfo);
|
|
}
|
|
}
|
|
|
|
if (rippleInfos.empty())
|
|
return true;
|
|
|
|
ApplyTurbulence(time, heights, flags, sGlobalSineWave, info, areaCenter);
|
|
ApplyRipples(rippleInfos, heights, flags, sGlobalSineWave, info);
|
|
|
|
/* No further action necessary if using tessellation shaders */
|
|
if (m_tessellation)
|
|
return false;
|
|
|
|
if (info.x37_normalMode == CFluidPlaneRender::NormalMode::NoNormals)
|
|
UpdatePatchNoNormals(heights, flags, info);
|
|
else
|
|
UpdatePatchWithNormals(heights, flags, info);
|
|
|
|
return false;
|
|
}
|
|
|
|
/* Used to be part of locked cache
|
|
* These are too big for stack allocation */
|
|
static CFluidPlaneRender::SHFieldSample lc_heights[46][46] = {};
|
|
static u8 lc_flags[9][9] = {};
|
|
|
|
void CFluidPlaneCPU::Render(const CStateManager& mgr, float alpha, const zeus::CAABox& aabb, const zeus::CTransform& xf,
|
|
const zeus::CTransform& areaXf, bool noNormals, const zeus::CFrustum& frustum,
|
|
const std::experimental::optional<CRippleManager>& rippleManager, TUniqueId waterId,
|
|
const bool* gridFlags, u32 gridDimX, u32 gridDimY, const zeus::CVector3f& areaCenter) const
|
|
{
|
|
TCastToConstPtr<CScriptWater> water = mgr.GetObjectById(waterId);
|
|
CFluidPlaneShader::RenderSetupInfo setupInfo = RenderSetup(mgr, alpha, xf, areaXf, aabb, water.GetPtr());
|
|
|
|
CFluidPlaneRender::NormalMode normalMode;
|
|
if (xb0_bumpMap && kEnableWaterBumpMaps)
|
|
normalMode = CFluidPlaneRender::NormalMode::NBT;
|
|
else if (!noNormals)
|
|
normalMode = CFluidPlaneRender::NormalMode::Normals;
|
|
else
|
|
normalMode = CFluidPlaneRender::NormalMode::NoNormals;
|
|
|
|
// Set Position and color format
|
|
|
|
switch (normalMode)
|
|
{
|
|
case CFluidPlaneRender::NormalMode::NBT:
|
|
// Set NBT format
|
|
break;
|
|
case CFluidPlaneRender::NormalMode::Normals:
|
|
// Set Normal format
|
|
break;
|
|
default:
|
|
break;
|
|
}
|
|
|
|
float rippleResolutionRecip = 1.f / x108_rippleResolution;
|
|
CFluidPlaneRender::numSubdivisionsInTile = x104_tileSubdivisions;
|
|
CFluidPlaneRender::numTilesInHField = std::min(7, 42 / CFluidPlaneRender::numSubdivisionsInTile);
|
|
CFluidPlaneRender::numSubdivisionsInHField =
|
|
CFluidPlaneRender::numTilesInHField * CFluidPlaneRender::numSubdivisionsInTile;
|
|
|
|
zeus::CVector2f ripplePitch(x108_rippleResolution * CFluidPlaneRender::numSubdivisionsInHField);
|
|
|
|
// Amount to shift intensity values right (for added wavecap color)
|
|
int redShift = 0;
|
|
int greenShift = 0;
|
|
int blueShift = 0;
|
|
float wavecapIntensityScale = g_tweakGame->GetWavecapIntensityNormal();
|
|
switch (x44_fluidType)
|
|
{
|
|
case EFluidType::PoisonWater:
|
|
wavecapIntensityScale = g_tweakGame->GetWavecapIntensityPoison();
|
|
redShift = 1;
|
|
blueShift = 1;
|
|
break;
|
|
case EFluidType::Lava:
|
|
case EFluidType::ThickLava:
|
|
wavecapIntensityScale = g_tweakGame->GetWavecapIntensityLava();
|
|
blueShift = 8;
|
|
greenShift = 8;
|
|
break;
|
|
default:
|
|
break;
|
|
}
|
|
|
|
if (water)
|
|
{
|
|
float cameraPenetration =
|
|
mgr.GetCameraManager()->GetCurrentCamera(mgr)->GetTranslation().dot(zeus::CVector3f::skUp) -
|
|
water->GetTriggerBoundsWR().max.z();
|
|
wavecapIntensityScale *= (cameraPenetration >= 0.5f || cameraPenetration < 0.f) ? 1.f : 2.f * cameraPenetration;
|
|
}
|
|
|
|
u32 patchDimX = (water && water->GetPatchDimensionX()) ? water->GetPatchDimensionX() : 128;
|
|
u32 patchDimY = (water && water->GetPatchDimensionY()) ? water->GetPatchDimensionY() : 128;
|
|
|
|
m_verts.clear();
|
|
m_pVerts.clear();
|
|
if (m_tessellation)
|
|
{
|
|
/* Additional uniform data for tessellation evaluation shader */
|
|
zeus::CColor colorMul;
|
|
colorMul.r() = wavecapIntensityScale / 255.f / float(1 << redShift);
|
|
colorMul.g() = wavecapIntensityScale / 255.f / float(1 << greenShift);
|
|
colorMul.b() = wavecapIntensityScale / 255.f / float(1 << blueShift);
|
|
m_shader->prepareDraw(setupInfo, xf.origin, *rippleManager, colorMul, x108_rippleResolution / 4.f);
|
|
}
|
|
else
|
|
{
|
|
m_shader->prepareDraw(setupInfo);
|
|
}
|
|
|
|
u32 tileY = 0;
|
|
float curY = aabb.min.y();
|
|
for (int i=0 ; curY < aabb.max.y() && i<patchDimY ; ++i)
|
|
{
|
|
u32 tileX = 0;
|
|
float curX = aabb.min.x();
|
|
float _remDivsY = (aabb.max.y() - curY) * rippleResolutionRecip;
|
|
for (int j=0 ; curX < aabb.max.x() && j<patchDimX ; ++j)
|
|
{
|
|
if (u8 renderFlags = water->GetPatchRenderFlags(j, i))
|
|
{
|
|
s16 remDivsX = std::min(s16((aabb.max.x() - curX) * rippleResolutionRecip),
|
|
s16(CFluidPlaneRender::numSubdivisionsInHField));
|
|
s16 remDivsY = std::min(s16(_remDivsY), s16(CFluidPlaneRender::numSubdivisionsInHField));
|
|
zeus::CVector3f localMax(x108_rippleResolution * remDivsX + curX,
|
|
x108_rippleResolution * remDivsY + curY, aabb.max.z());
|
|
zeus::CVector3f localMin(curX, curY, aabb.min.z());
|
|
zeus::CAABox testaabb(localMin + xf.origin, localMax + xf.origin);
|
|
if (frustum.aabbFrustumTest(testaabb))
|
|
{
|
|
CFluidPlaneRender::SPatchInfo info(localMin, localMax, xf.origin, x108_rippleResolution,
|
|
x100_tileSize, wavecapIntensityScale,
|
|
CFluidPlaneRender::numSubdivisionsInHField, normalMode,
|
|
redShift, greenShift, blueShift, tileX, gridDimX, gridDimY,
|
|
tileY, gridFlags);
|
|
|
|
int fromX = tileX != 0 ? (2 - CFluidPlaneRender::numSubdivisionsInTile) : 0;
|
|
int toX;
|
|
if (tileX != gridDimX - 1)
|
|
toX = info.x0_xSubdivs + (CFluidPlaneRender::numSubdivisionsInTile - 2);
|
|
else
|
|
toX = info.x0_xSubdivs;
|
|
|
|
int fromY = tileY != 0 ? (2 - CFluidPlaneRender::numSubdivisionsInTile) : 0;
|
|
int toY;
|
|
if (tileY != gridDimY - 1)
|
|
toY = info.x1_ySubdivs + (CFluidPlaneRender::numSubdivisionsInTile - 2);
|
|
else
|
|
toY = info.x1_ySubdivs;
|
|
|
|
bool noRipples = UpdatePatch(mgr.GetFluidPlaneManager()->GetUVT(), info, lc_heights, lc_flags,
|
|
areaCenter, rippleManager, fromX, toX, fromY, toY);
|
|
RenderPatch(info, lc_heights, lc_flags, noRipples, renderFlags == 1, m_verts, m_pVerts);
|
|
}
|
|
}
|
|
curX += ripplePitch.x();
|
|
tileX += CFluidPlaneRender::numTilesInHField;
|
|
}
|
|
curY += ripplePitch.y();
|
|
tileY += CFluidPlaneRender::numTilesInHField;
|
|
}
|
|
|
|
m_shader->loadVerts(m_verts, m_pVerts);
|
|
m_shader->doneDrawing();
|
|
}
|
|
|
|
}
|