void ClipMapBlenderCache::setInterestCenter( const Point2I &origin )
{
AssertFatal(mClipMapSize != -1, "ClipMapBlenderCache::setInterestCenter - no one set mClipMapSize!");
if (mOpacitySources.size() == 0)
{
Con::errorf("ClipMapBlenderCache::setInterestCenter() - tried to set the interest center without any opacity sources");
return;
}
// For each source, scale origin, which is in texels at the
// most detailed clipmap level, to be in texels at the most detailed
// level of each source.
for (U32 i = 0; i < mOpacitySources.size(); i++)
{
Point2I opacityOrigin = origin;
if( mOpacitySources[i]->getMipLevelCount() != ( getBinLog2( mOwningClipMap->mTextureSize ) + 1 ) )
{
S32 scaleDelta = mOpacitySources[i]->getMipLevelCount() - 1 - getBinLog2(mOwningClipMap->mTextureSize);
if(scaleDelta > 0)
{
opacityOrigin.x <<= scaleDelta;
opacityOrigin.y <<= scaleDelta;
}
else
{
opacityOrigin.x >>= -scaleDelta;
opacityOrigin.y >>= -scaleDelta;
}
}
mOpacitySources[i]->setInterestCenter(opacityOrigin, mClipMapSize * 2);
}
bool AtlasClipMapImageSource::isDataAvailable( const U32 mipLevel, const RectI& inRegion ) const
{
// We need to convert from a mip level to a level in our TOC, potentially scaling.
U32 baseMips = getBinLog2(mTOC->getTextureChunkSize());
U32 tocLevel = -1;
if(mipLevel >= baseMips)
{
// In an inner or leaf tile.
tocLevel = mipLevel - baseMips;
}
else
{
// It's in our base tile.
tocLevel = 0;
}
// We don't scale beyond the depth of the TOC, so simply assert in that
// case.
AssertFatal(tocLevel < mTOC->getTreeDepth(), "AtlasClipMapImageSource::isDataAvailable - went beyond depth of tree.");
// Check all the chunks of all the stubs in the appropriate region...
RectI r;
convertToTOCRect(tocLevel, inRegion, r);
const S32 xStart = mClamp(r.point.x, 0, BIT(tocLevel));
const S32 xEnd = mClamp(r.point.x + r.extent.x, 0, BIT(tocLevel));
const S32 yStart = mClamp(r.point.y, 0, BIT(tocLevel));
const S32 yEnd = mClamp(r.point.y + r.extent.y, 0, BIT(tocLevel));
for(S32 x=xStart; x<xEnd; x++)
{
for(S32 y=yStart; y<yEnd; y++)
{
AtlasResourceTexStub *arts = mTOC->getResourceStub(mTOC->getStub(tocLevel, Point2I(x,y)));
if(!arts->hasResource())
return false;
}
}
return true;
}
void AbstractClassRep::initialize()
{
AssertFatal(!initialized, "Duplicate call to AbstractClassRep::initialize()!");
Vector<AbstractClassRep *> dynamicTable(__FILE__, __LINE__);
AbstractClassRep *walk;
// Initialize namespace references...
for (walk = classLinkList; walk; walk = walk->nextClass)
{
walk->mNamespace = Con::lookupNamespace(StringTable->insert(walk->getClassName()));
walk->mNamespace->mUsage = walk->getDocString();
walk->mNamespace->mClassRep = walk;
}
// Initialize field lists... (and perform other console registration).
for (walk = classLinkList; walk; walk = walk->nextClass)
{
// sg_tempFieldList is used as a staging area for field lists
// (see addField, addGroup, etc.)
sg_tempFieldList.setSize(0);
walk->init();
// So if we have things in it, copy it over...
if (sg_tempFieldList.size() != 0)
walk->mFieldList = sg_tempFieldList;
// And of course delete it every round.
sg_tempFieldList.clear();
}
// Calculate counts and bit sizes for the various NetClasses.
for (U32 group = 0; group < NetClassGroupsCount; group++)
{
U32 groupMask = 1 << group;
// Specifically, for each NetClass of each NetGroup...
for(U32 type = 0; type < NetClassTypesCount; type++)
{
// Go through all the classes and find matches...
for (walk = classLinkList; walk; walk = walk->nextClass)
{
if(walk->mClassType == type && walk->mClassGroupMask & groupMask)
dynamicTable.push_back(walk);
}
// Set the count for this NetGroup and NetClass
NetClassCount[group][type] = dynamicTable.size();
if(!NetClassCount[group][type])
continue; // If no classes matched, skip to next.
// Sort by type and then by name.
dQsort((void *) &dynamicTable[0], dynamicTable.size(), sizeof(AbstractClassRep *), ACRCompare);
// Allocate storage in the classTable
classTable[group][type] = new AbstractClassRep*[NetClassCount[group][type]];
// Fill this in and assign class ids for this group.
for(U32 i = 0; i < NetClassCount[group][type];i++)
{
classTable[group][type][i] = dynamicTable[i];
dynamicTable[i]->mClassId[group] = i;
}
// And calculate the size of bitfields for this group and type.
NetClassBitSize[group][type] =
getBinLog2(getNextPow2(NetClassCount[group][type] + 1));
AssertFatal(NetClassCount[group][type] < (1 << NetClassBitSize[group][type]), "NetClassBitSize too small!");
dynamicTable.clear();
}
}
// Ok, we're golden!
initialized = true;
}
const U32 AtlasClipMapImageSource::getMipLevelCount() const
{
// We need to return log2(total toc texture size).
//[rene, 08/06/2008] Plus one! as this is the count, not the max index
return getBinLog2(mTOC->getTextureChunkSize()) + mTOC->getTreeDepth();
}
U32 ClipMap::getMipLevel( F32 scale )
{
return getBinLog2( scale ) + getBinLog2( mClipMapSize );
}
void ClipMap::initClipStack()
{
PROFILE_START(ClipMap_initClipStack);
// Clear out all the levels.
while(mLevels.size())
{
mLevels.last().mDebugTex = NULL;
mLevels.last().mTex = NULL;
mLevels.pop_back();
}
// What texture profile are we going to be using?
AssertFatal(mImageCache, "ClipMap::initClipStack - must have image cache by this point.");
GTextureProfile *texProfile = mImageCache->isRenderToTargetCache()
? &ClipMapTextureRTProfile : &ClipMapTextureProfile;
// Figure out how many clipstack textures we'll have.
mClipStackDepth = getBinLog2(mTextureSize) - getBinLog2(mClipMapSize) + 1;
mLevels.setSize(mClipStackDepth);
// Print a little report on our allocation.
Con::printf("Allocating a %d px clipmap for a %dpx source texture.", mClipMapSize, mTextureSize);
Con::printf(" - %d base clipstack entries, + 1 cap.", mClipStackDepth - 1);
U32 baseTexSize = (mClipMapSize * mClipMapSize * 4);
Con::printf(" - Using approximately %fMB of texture memory.",
(F32(baseTexSize * mClipStackDepth) * 1.33) / (1024.0*1024.0));
// First do our base textures - they are not mipped.
// We rely on auto-mipmapping, but if the device/card doesn't support it, we should just not ask for it.
U32 numMips = GRAPHIC->getCardProfiler()->queryProfile("autoMipMapLevel", true) ? 0 : 1;
for(S32 i=0; i<mClipStackDepth; i++)
{
mLevels[i].mScale = (F32)BIT(mClipStackDepth - (1 + i));
mLevels[i].mTex.set(mClipMapSize, mClipMapSize, GFormatR8G8B8X8, texProfile, avar("%s() - mLevels[%d].mTex (line %d)", __FUNCTION__, i, __LINE__), numMips);
}
// Some stuff can get skipped once we're set up.
if(mTexCallbackHandle != -1)
return;
// Don't forget to allocate our debug textures...
for(S32 i=0; i<mClipStackDepth; i++)
mLevels[i].initDebugTexture(i);
GAtlasVert2* vert = NULL;
if (GRAPHIC->getPixelShaderVersion() > 0)
{
// Do shader lookup for 2,3,4 level shaders.
for(S32 i=2; i<5; i++)
{
// Init materials
const String matname = String::ToString("AtlasMaterial%d", i);
const U32 arrayOffset = i-1;
mClipmapMat[arrayOffset] = MaterialManager::get()->createMatInstance(matname, (GVertexFlags)getGVertFlags(vert));
if (!mClipmapMat[arrayOffset])
{
Con::errorf("Could not find material: %s", matname.c_str());
continue;
}
else
{
if (mMapInfoConst.getElementSize() == 0)
mMapInfoConst.setCapacity(4, mClipmapMat[arrayOffset]->getMaterialParameters()->getAlignmentValue(GSCT_Float4));
}
BaseMatInstance* matParams = mClipmapMat[arrayOffset];
mMorphTSC[arrayOffset] = matParams->getMaterialParameterHandle("$morphT");
mMapInfoTC[arrayOffset] = matParams->getMaterialParameterHandle("$mapInfo");
mDiffuseMap0TC[arrayOffset] = matParams->getMaterialParameterHandle("$diffuseMap0");
mDiffuseMap1TC[arrayOffset] = matParams->getMaterialParameterHandle("$diffuseMap1");
mDiffuseMap2TC[arrayOffset] = matParams->getMaterialParameterHandle("$diffuseMap2");
mDiffuseMap3TC[arrayOffset] = matParams->getMaterialParameterHandle("$diffuseMap3");
}
} else {
mClipmapMatBasePassFF = MaterialManager::get()->createMatInstance("AtlasMaterialFFBasePass", (GVertexFlags)getGVertFlags(vert));
mClipmapMatAddPassFF = MaterialManager::get()->createMatInstance("AtlasMaterialFFAddPass", (GVertexFlags)getGVertFlags(vert));
}
// Grab a callback from the texture manager to deal with zombification.
GRAPHIC->getTextureManager()->registerTexCallback(texCB, this, mTexCallbackHandle);
// Ok, everything is ready to go.
PROFILE_END();
}
}
return true;
}
};
ConsoleFunction(atlasGenerateGeometryFromHeightfield, void, 6, 6,
"(atlasOutFile, inHeightfield, hfSize, gridSpacing, patchSize) - generate terrain geometry "
"to atlasOutFile based on the heightfield.")
{
const U32 hfSize = dAtoi(argv[3]);
const F32 gridSpacing = dAtof(argv[4]);
const U32 tileSize = dAtoi(argv[5]);
// Caculate treeDepth...
const S32 treeDepth = getBinLog2(hfSize/tileSize)+1;
Con::errorf("***************************************************************");
Con::errorf("");
Con::errorf("BE AWARE - THIS FUNCTION IS STILL IN DEVELOPMENT AND WILL NOT GIVE USEFUL RESULTS.");
Con::errorf("PLEASE USE THE atlasOldGenerateChunkFileFromRaw16 method AND importOldAtlasCHU");
Con::errorf("TO GENERATE GEOMETRY FOR NOW.");
Con::errorf("");
Con::errorf("Now generating geometry...");
Con::errorf("");
Con::errorf("***************************************************************");
Con::printf("atlasGenerateGeometryFromHeightfield - Preparing...");
// Ok, we now have a live atlas file.
AtlasFile af;
//-----------------------------------------------------------------------------
// Verve
// Copyright (C) - Violent Tulip
//-----------------------------------------------------------------------------
#include "VPathNode.h"
#include "VPath.h"
#include "core/stream/bitStream.h"
#include "core/strings/stringUnit.h"
#include "sim/netConnection.h"
//-----------------------------------------------------------------------------
static U32 gOrientationTypeBits = getBinLog2( getNextPow2( VPathNode::k_OrientationTypeSize ) );
//-----------------------------------------------------------------------------
VPathNode::VPathNode( void ) :
mPath( NULL ),
mLocalPosition( Point3F( 0.f, 0.f, 0.f ) ),
mLocalRotation( QuatF( 0.f, 0.f, 0.f, 1.f ) ),
mWorldPosition( Point3F( 0.f, 0.f, 0.f ) ),
mWorldRotation( QuatF( 0.f, 0.f, 0.f, 1.f ) ),
mWeight( 10.f ),
mLength( 0.f )
{
// Init.
mOrientationMode.Type = k_OrientationFree;
mOrientationMode.Point = Point3F::Zero;
void ProcessedShaderMaterial::_setShaderConstants(SceneRenderState * state, const SceneData &sgData, U32 pass)
{
PROFILE_SCOPE( ProcessedShaderMaterial_SetShaderConstants );
GFXShaderConstBuffer* shaderConsts = _getShaderConstBuffer(pass);
ShaderConstHandles* handles = _getShaderConstHandles(pass);
U32 stageNum = getStageFromPass(pass);
// First we do all the constants which are not
// controlled via the material... we have to
// set these all the time as they could change.
if ( handles->mFogDataSC->isValid() )
{
Point3F fogData;
fogData.x = sgData.fogDensity;
fogData.y = sgData.fogDensityOffset;
fogData.z = sgData.fogHeightFalloff;
shaderConsts->set( handles->mFogDataSC, fogData );
}
shaderConsts->setSafe(handles->mFogColorSC, sgData.fogColor);
if( handles->mOneOverFarplane->isValid() )
{
const F32 &invfp = 1.0f / state->getFarPlane();
Point4F oneOverFP(invfp, invfp, invfp, invfp);
shaderConsts->set( handles->mOneOverFarplane, oneOverFP );
}
shaderConsts->setSafe( handles->mAccumTimeSC, MATMGR->getTotalTime() );
// If the shader constants have not been lost then
// they contain the content from a previous render pass.
//
// In this case we can skip updating the material constants
// which do not change frame to frame.
//
// NOTE: This assumes we're not animating material parameters
// in a way that doesn't cause a shader reload... this isn't
// being done now, but it could change in the future.
//
if ( !shaderConsts->wasLost() )
return;
shaderConsts->setSafe(handles->mSpecularColorSC, mMaterial->mSpecular[stageNum]);
shaderConsts->setSafe(handles->mSpecularPowerSC, mMaterial->mSpecularPower[stageNum]);
shaderConsts->setSafe(handles->mParallaxInfoSC, mMaterial->mParallaxScale[stageNum]);
shaderConsts->setSafe(handles->mMinnaertConstantSC, mMaterial->mMinnaertConstant[stageNum]);
if ( handles->mSubSurfaceParamsSC->isValid() )
{
Point4F subSurfParams;
dMemcpy( &subSurfParams, &mMaterial->mSubSurfaceColor[stageNum], sizeof(ColorF) );
subSurfParams.w = mMaterial->mSubSurfaceRolloff[stageNum];
shaderConsts->set(handles->mSubSurfaceParamsSC, subSurfParams);
}
if ( handles->mRTSizeSC->isValid() )
{
const Point2I &resolution = GFX->getActiveRenderTarget()->getSize();
Point2F pixelShaderConstantData;
pixelShaderConstantData.x = resolution.x;
pixelShaderConstantData.y = resolution.y;
shaderConsts->set( handles->mRTSizeSC, pixelShaderConstantData );
}
if ( handles->mOneOverRTSizeSC->isValid() )
{
const Point2I &resolution = GFX->getActiveRenderTarget()->getSize();
Point2F oneOverTargetSize( 1.0f / (F32)resolution.x, 1.0f / (F32)resolution.y );
shaderConsts->set( handles->mOneOverRTSizeSC, oneOverTargetSize );
}
// set detail scale
shaderConsts->setSafe(handles->mDetailScaleSC, mMaterial->mDetailScale[stageNum]);
shaderConsts->setSafe(handles->mDetailBumpStrength, mMaterial->mDetailNormalMapStrength[stageNum]);
// MFT_ImposterVert
if ( handles->mImposterUVs->isValid() )
{
U32 uvCount = getMin( mMaterial->mImposterUVs.size(), 64 ); // See imposter.hlsl
AlignedArray<Point4F> imposterUVs( uvCount, sizeof( Point4F ), (U8*)mMaterial->mImposterUVs.address(), false );
shaderConsts->set( handles->mImposterUVs, imposterUVs );
}
shaderConsts->setSafe( handles->mImposterLimits, mMaterial->mImposterLimits );
// Diffuse
shaderConsts->setSafe(handles->mDiffuseColorSC, mMaterial->mDiffuse[stageNum]);
shaderConsts->setSafe( handles->mAlphaTestValueSC, mClampF( (F32)mMaterial->mAlphaRef / 255.0f, 0.0f, 1.0f ) );
if(handles->mDiffuseAtlasParamsSC)
{
Point4F atlasParams(1.0f / mMaterial->mCellLayout[stageNum].x, // 1 / num_horizontal
1.0f / mMaterial->mCellLayout[stageNum].y, // 1 / num_vertical
mMaterial->mCellSize[stageNum], // tile size in pixels
getBinLog2(mMaterial->mCellSize[stageNum]) ); // pow of 2 of tile size in pixels 2^9 = 512, 2^10=1024 etc
shaderConsts->setSafe(handles->mDiffuseAtlasParamsSC, atlasParams);
}
if(handles->mBumpAtlasParamsSC)
{
Point4F atlasParams(1.0f / mMaterial->mCellLayout[stageNum].x, // 1 / num_horizontal
1.0f / mMaterial->mCellLayout[stageNum].y, // 1 / num_vertical
mMaterial->mCellSize[stageNum], // tile size in pixels
getBinLog2(mMaterial->mCellSize[stageNum]) ); // pow of 2 of tile size in pixels 2^9 = 512, 2^10=1024 etc
shaderConsts->setSafe(handles->mBumpAtlasParamsSC, atlasParams);
}
if(handles->mDiffuseAtlasTileSC)
{
// Sanity check the wrap flags
//AssertWarn(mMaterial->mTextureAddressModeU == mMaterial->mTextureAddressModeV, "Addresing mode mismatch, texture atlasing will be confused");
Point4F atlasTileParams( mMaterial->mCellIndex[stageNum].x, // Tile co-ordinate, ie: [0, 3]
mMaterial->mCellIndex[stageNum].y,
0.0f, 0.0f ); // TODO: Wrap mode flags?
shaderConsts->setSafe(handles->mDiffuseAtlasTileSC, atlasTileParams);
}
if(handles->mBumpAtlasTileSC)
{
// Sanity check the wrap flags
//AssertWarn(mMaterial->mTextureAddressModeU == mMaterial->mTextureAddressModeV, "Addresing mode mismatch, texture atlasing will be confused");
Point4F atlasTileParams( mMaterial->mCellIndex[stageNum].x, // Tile co-ordinate, ie: [0, 3]
mMaterial->mCellIndex[stageNum].y,
0.0f, 0.0f ); // TODO: Wrap mode flags?
shaderConsts->setSafe(handles->mBumpAtlasTileSC, atlasTileParams);
}
}
// Copyright (C) GarageGames.com, Inc.
//-----------------------------------------------------------------------------
#include "core/strings/stringFunctions.h"
#include "atlas/resource/atlasResourceTexTOC.h"
ConsoleFunction(atlasGenerateTextureTOCFromTiles, void, 5, 5, "(leafCount, tileMask, outFile, outFormat) - "
"Generate a texture TOC from a set of tiles. leafCount is the size of the grid "
"of tiles on a side. tileMask is the path for the tiles (no extension) with %d "
"for x and y, ie, 'demo/alpha/Alpha1_x%dy%d'. outFile is the file to output a "
"new .atlas file to.")
{
U32 leafSize = dAtoi(argv[1]);
U32 treeDepth = getBinLog2(leafSize) + 1;
const char *tileMask = argv[2];
const char *filePath = argv[3];
U32 outFormat = dAtoi(argv[4]);
if(!isPow2(leafSize))
{
Con::errorf("atlasGenerateTextureTOCFromTiles - leafSize is not a power of 2!");
return;
}
Con::printf("atlasGenerateTextureTOCFromTiles - Initializing atlas file '%s'...", filePath );
// Allocate a new AtlasFile.
AtlasFile af;