//**********************************************************************************************
void CIGInfo::load(TShapeCache &shapeCache)
{
if (Loaded) return;
Loaded = true; // even if loading fails, don't try twice to load it
try
{
CIFile stream;
stream.open(Path);
printf(Path.c_str());
CSmartPtr<CInstanceGroup> ig = new CInstanceGroup;
ig->serial(stream);
IG = ig; // commit
}
catch(EStream &e)
{
nlwarning(e.what());
}
if (IG)
{
// complete cache
for(uint k = 0; k < IG->getNumInstance(); ++k)
{
std::string shapeName = standardizeShapeName(IG->getShapeName(k));
if (NLMISC::strlwr(CFile::getExtension(shapeName)) == "pacs_prim")
{
continue;
}
TShapeCache::iterator it = shapeCache.find(shapeName);
CShapeInfo si;
bool buildOK = false;
if (it == shapeCache.end())
{
CShapeStream ss;
try
{
CIFile stream;
std::string path = CPath::lookup(shapeName, false, false);
if (!path.empty())
{
stream.open(path);
ss.serial(stream);
CShapeInfo si;
si.build(*ss.getShapePointer());
delete ss.getShapePointer();
shapeCache[shapeName].swap(si);
}
}
catch (EStream &e)
{
// shape not loaded
nlwarning(e.what());
}
}
}
}
}
bool CNelExport::exportSkeleton (const char *sPath, INode* pNode, TimeValue time)
{
// Result to return
bool bRet=false;
// Build the skeleton format
CSkeletonShape *skeletonShape=new CSkeletonShape();
TInodePtrInt mapId;
_ExportNel->buildSkeletonShape (*skeletonShape, *pNode, NULL, mapId, time);
// Open a file
COFile file;
if (file.open (sPath))
{
try
{
// Create a streamable shape
CShapeStream shapeStream (skeletonShape);
// Serial the shape
shapeStream.serial (file);
// All is good
bRet=true;
}
catch (Exception &e)
{
nlwarning (e.what());
}
}
// Delete the pointer
delete skeletonShape;
return bRet;
}
int main(int argc, char *argv[])
{
uint i;
// Avoid warnings.
NLMISC::createDebug();
DebugLog->addNegativeFilter("Exception will be launched");
WarningLog->addNegativeFilter("Exception will be launched");
InfoLog->addNegativeFilter("FEHTIMER>");
InfoLog->addNegativeFilter("adding the path");
// Init serial
registerSerial3d();
if(argc<4)
{
puts("Usage: build_clod_bank path_file.cfg config_file.cfg destfile.clodbank [bakeFrameRate=20] ");
return 0;
}
try
{
// The bank to fill
CLodCharacterShapeBank lodShapeBank;
// Read the frameRate to process bake of anims
float bakeFrameRate= 20;
if(argc>=5)
{
bakeFrameRate= (float)atof(argv[4]);
if(bakeFrameRate<=1)
{
nlwarning("bad bakeFrameRate value, use a default of 20");
bakeFrameRate= 20;
}
}
// parse the path file.
//==================
// try to load the config file.
CConfigFile pathConfig;
pathConfig.load (argv[1]);
// Get the search pathes
CConfigFile::CVar &search_pathes = pathConfig.getVar ("search_pathes");
for (i = 0; i < (uint)search_pathes.size(); i++)
{
// Add to search path
CPath::addSearchPath (search_pathes.asString(i));
}
// parse the config file.
//==================
// try to load the config file.
CConfigFile config;
config.load (argv[2]);
// For all .clod to process
//==================
CConfigFile::CVar &clod_list = config.getVar ("clod_list");
uint lodId;
for (lodId = 0; lodId < (uint)clod_list.size(); lodId++)
{
string lodName= clod_list.asString(lodId);
printf("Process LOD: %s\n", lodName.c_str());
// Search the variable with this name.
try
{
CIFile iFile;
// get the anim list.
CConfigFile::CVar &clod_anim_list = config.getVar (lodName);
// Correct format?
if(clod_anim_list.size()<3)
{
nlwarning("%s skipped. Must have at least the skeleton file name, the lod file name, and one animation", lodName.c_str());
// go to next.
continue;
}
// Init lod shape process
//===========================
// The first variable is the name of the skeleton.
string skeletonName= clod_anim_list.asString(0);
CSmartPtr<CSkeletonShape> skeletonShape;
// Load it.
iFile.open(CPath::lookup(skeletonName));
CShapeStream strShape;
strShape.serial(iFile);
iFile.close();
// Get the pointer, check it's a skeleton
if(dynamic_cast<CSkeletonShape*>(strShape.getShapePointer()) == NULL)
throw Exception("%s is not a Skeleton", skeletonName.c_str());
skeletonShape= (CSkeletonShape*)strShape.getShapePointer();
// The second var is the filename of the lod.
string lodFileName= clod_anim_list.asString(1);
// Load the shape.
CLodCharacterShapeBuild lodShapeBuild;
iFile.open( CPath::lookup(lodFileName) );
iFile.serial(lodShapeBuild);
iFile.close();
// Prepare to build the lod.
CLodCharacterBuilder lodBuilder;
lodBuilder.setShape(lodName, skeletonShape, &lodShapeBuild);
// Traverse all anim in the list.
//===========================
uint animId;
for (animId = 2; animId < (uint)clod_anim_list.size(); animId++)
{
string animFileName= clod_anim_list.asString(animId);
// display.
printf("Process Anim: %d/%d\r", animId-1, clod_anim_list.size()-2);
// Try to load the animation
CAnimation *anim= new CAnimation;
// NB: continue, to list all ANIM if anim not found
try
{
iFile.open( CPath::lookup(animFileName) );
iFile.serial(*anim);
iFile.close();
// Add to the builder. NB: animation will be delete in this method.
// NB: the key name here is the entire file, with the .anim, for easier georges editing.
lodBuilder.addAnim(animFileName.c_str(), anim, bakeFrameRate);
}
catch(EPathNotFound &)
{
printf("ERROR anim not found %s\n", animFileName.c_str());
delete anim;
}
}
printf("\n");
// Add to the bank.
//===========================
uint32 shapeId= lodShapeBank.addShape();
*lodShapeBank.getShapeFullAcces(shapeId)= lodBuilder.getLodShape();
}
catch(EUnknownVar &evar)
{
nlwarning(evar.what());
// Any other exception will make the program quit.
}
}
// Save bank.
//===========================
// compile
lodShapeBank.compile();
// Save
COFile oFile(argv[3]);
oFile.serial(lodShapeBank);
oFile.close();
}
catch (Exception& except)
{
// Error message
printf ("ERROR %s.\n Aborting.\n", except.what());
}
return 0;
}
int main(int argc, char **argv)
{
// Filter addSearchPath
NLMISC::createDebug();
InfoLog->addNegativeFilter("adding the path");
createDebug();
try
{
// Init
init();
uint i, j, k;
for (i=0; i<IGs.size(); ++i)
{
// load ig associated to the zone
string igName = IGs[i]+".ig";
CIFile igStream(CPath::lookup(igName));
CInstanceGroup ig;
igStream.serial(ig);
CAABBox igBBox;
bool boxSet = false;
nlinfo("Generating BBOX for %s", igName.c_str());
// search in group for water instance
for (j=0; j<ig._InstancesInfos.size(); ++j)
{
/*
Ben: c'est degueulasse, mais c'est les coders a la 3D, y savent pas coder
Hld: ouai, mais ca marche pas ton truc, alors p'tet qu'on sait pas coder mais toi non plus :p Special Dedicace to SupaGreg!
string shapeName = ig._InstancesInfos[j].Name+".shape";
*/
string shapeName = ig._InstancesInfos[j].Name;
if (CFile::getExtension (shapeName) == "")
shapeName += ".shape";
if (NonWaterShapes.find(shapeName) != NonWaterShapes.end())
continue;
string shapeNameLookup = CPath::lookup (shapeName, false, false);
if (!shapeNameLookup.empty())
{
CIFile f;
if (f.open (shapeNameLookup))
{
CShapeStream shape;
shape.serial(f);
CWaterShape *wshape = dynamic_cast<CWaterShape *>(shape.getShapePointer());
if (wshape == NULL)
{
NonWaterShapes.insert(shapeName);
continue;
}
CMatrix matrix;
ig.getInstanceMatrix(j, matrix);
CPolygon wpoly;
wshape->getShapeInWorldSpace(wpoly);
for (k=0; k<wpoly.Vertices.size(); ++k)
{
if (boxSet)
{
igBBox.extend(matrix * wpoly.Vertices[k]);
}
else
{
igBBox.setCenter(matrix * wpoly.Vertices[k]);
boxSet = true;
}
}
}
else
{
nlwarning ("Can't load shape %s", shapeNameLookup.c_str());
}
}
else
{
NonWaterShapes.insert(shapeName);
}
}
if (boxSet)
{
Boxes.push_back(CIGBox(igName, igBBox));
nlinfo("Bbox: (%.1f,%.1f)-(%.1f,%.1f)", igBBox.getMin().x, igBBox.getMin().y, igBBox.getMax().x, igBBox.getMax().y);
}
}
COFile output(Output);
output.serialCont(Boxes);
}
catch (Exception &e)
{
fprintf (stderr,"main trapped an exception: '%s'\n", e.what ());
}
#ifndef NL_DEBUG
catch (...)
{
fprintf(stderr,"main trapped an unknown exception\n");
}
#endif // NL_DEBUG
return 0;
}
// ***************************************************************************
void CIgLighterLib::lightIg(CInstanceLighter &instanceLighter,
const CInstanceGroup &igIn, CInstanceGroup &igOut, CInstanceLighter::CLightDesc &lightDesc,
CSurfaceLightingInfo &slInfo, const char *igName)
{
sint i;
// Setup.
//=======
// Init
instanceLighter.init();
// For interiors ig, disable Sun contrib according to ig.
lightDesc.DisableSunContribution= !igIn.getRealTimeSunContribution();
// Copy it to igOut, just to keep same setup data for in and out.
igOut.enableRealTimeSunContribution(!lightDesc.DisableSunContribution);
// Add obstacles.
std::vector<CInstanceLighter::CTriangle> obstacles;
// only if Shadowing On.
if(lightDesc.Shadow)
{
// Map of shape to load
std::map<string, IShape*> shapeMap;
// For all instances of igIn.
for(i=0; i<(sint)igIn.getNumInstance();i++)
{
// progress
instanceLighter.progress("Loading Shapes obstacles", float(i)/igIn.getNumInstance());
// Skip it?? IgLighterLib use the DontCastShadowForInterior flag. See doc of this flag
if(igIn.getInstance(i).DontCastShadow || igIn.getInstance(i).DontCastShadowForInterior)
continue;
// Get the instance shape name
string name= igIn.getShapeName(i);
bool shapeFound= true;
// Try to find the shape in the UseShapeMap.
std::map<string, IShape*>::const_iterator iteMap= lightDesc.UserShapeMap.find (name);
// If not found in userShape map, try to load it from the temp loaded ShapeBank.
if( iteMap == lightDesc.UserShapeMap.end() )
{
// Add a .shape at the end ?
if (name.find('.') == std::string::npos)
name += ".shape";
// Lookup the file
string nameLookup = CPath::lookup (name, false, false);
if (!nameLookup.empty())
name = nameLookup;
// Find the shape in the bank
iteMap= shapeMap.find (name);
if (iteMap==shapeMap.end())
{
// Input file
CIFile inputFile;
if (inputFile.open (name))
{
// Load it
CShapeStream stream;
stream.serial (inputFile);
// Get the pointer
iteMap=shapeMap.insert (std::map<string, IShape*>::value_type (name, stream.getShapePointer ())).first;
}
else
{
// Error
nlwarning ("WARNING can't load shape %s\n", name.c_str());
shapeFound= false;
}
}
}
if(shapeFound)
{
CMatrix matInst;
matInst.setPos(igIn.getInstancePos(i));
matInst.setRot(igIn.getInstanceRot(i));
matInst.scale(igIn.getInstanceScale(i));
// Add triangles of this shape
CInstanceLighter::addTriangles(*iteMap->second, matInst, obstacles, i);
}
}
// Clean Up shapes.
//-----------
std::map<string, IShape*>::iterator iteMap;
iteMap= shapeMap.begin();
while(iteMap!= shapeMap.end())
{
// delte shape
delete iteMap->second;
// delete entry in map
shapeMap.erase(iteMap);
// next
iteMap= shapeMap.begin();
}
}
// Add pointLights of the IG.
for(i=0; i<(sint)igIn.getPointLightList().size();i++)
{
instanceLighter.addStaticPointLight( igIn.getPointLightList()[i], igName );
}
// Setup a CIGSurfaceLightBuild if needed.
//=======
CIGSurfaceLightBuild *igSurfaceLightBuild= NULL;
CGlobalRetriever *globalRetriever= slInfo.GlobalRetriever;
CRetrieverBank *retrieverBank= slInfo.RetrieverBank;
float cellSurfaceLightSize= slInfo.CellSurfaceLightSize;
if(retrieverBank && globalRetriever)
{
igSurfaceLightBuild= new CIGSurfaceLightBuild;
igSurfaceLightBuild->CellSize= cellSurfaceLightSize;
// col Identifier.
string colIdent= slInfo.ColIdentifierPrefix + slInfo.IgFileName + slInfo.ColIdentifierSuffix;
// For any retreiverInstance with this identifier.
//----------------
uint numInstances= (uint)globalRetriever->getInstances().size();
for(uint instanceId=0; instanceId<numInstances; instanceId++)
{
const CRetrieverInstance &instance= globalRetriever->getInstance(instanceId);
// If this instance is an interior
if ( instance.getType() == CLocalRetriever::Interior )
{
uint localRetrieverId= instance.getRetrieverId();
const CLocalRetriever &localRetriever= retrieverBank->getRetriever(localRetrieverId);
// get the identifer of this localRetriever
string retIdent= localRetriever.getIdentifier();
// Match the ident??
if( retIdent.find(colIdent)!=string::npos )
{
// check CRetrieverLightGrid not already present
CIGSurfaceLightBuild::ItRetrieverGridMap itRgm;
itRgm= igSurfaceLightBuild->RetrieverGridMap.find(localRetrieverId);
if( itRgm != igSurfaceLightBuild->RetrieverGridMap.end() )
{
nlwarning ("ERROR Found 2 different collision retriever with same identifier: '%s'. The 2nd is discared\n", retIdent.c_str());
}
else
{
// Append CRetrieverLightGrid.
itRgm= igSurfaceLightBuild->RetrieverGridMap.insert(
make_pair(localRetrieverId, CIGSurfaceLightBuild::CRetrieverLightGrid() ) ).first;
CIGSurfaceLightBuild::CRetrieverLightGrid &rlg= itRgm->second;
// Resize Grids.
uint numSurfaces= (uint)localRetriever.getSurfaces().size();
rlg.Grids.resize( numSurfaces );
// Compute the bbox for all surfaces. (NB: local to the localRetriever).
vector<CAABBox> surfaceBBoxes;
localRetriever.buildInteriorSurfaceBBoxes(surfaceBBoxes);
// For each surface, compute it.
for(uint surfaceId=0; surfaceId<numSurfaces; surfaceId++)
{
// Progress.
char stmp[256];
sprintf(stmp, "Sample surfaces of %s", retIdent.c_str());
instanceLighter.progress(stmp, surfaceId / float(numSurfaces));
// Compute surface and size of the grid.
CIGSurfaceLightBuild::CSurface &surfDst= rlg.Grids[surfaceId];
// Snap Origin on cellSize
surfDst.Origin= surfaceBBoxes[surfaceId].getMin();
surfDst.Origin.x= floorf(surfDst.Origin.x/cellSurfaceLightSize) * cellSurfaceLightSize;
surfDst.Origin.y= floorf(surfDst.Origin.y/cellSurfaceLightSize) * cellSurfaceLightSize;
// Snap Width / Height on cellSize.
float sizex= surfaceBBoxes[surfaceId].getMax().x - surfDst.Origin.x;
float sizey= surfaceBBoxes[surfaceId].getMax().y - surfDst.Origin.y;
surfDst.Width= (uint)floorf(sizex/cellSurfaceLightSize) + 2;
surfDst.Height= (uint)floorf(sizey/cellSurfaceLightSize) + 2;
// Get Zcenter.
float zCenter= surfaceBBoxes[surfaceId].getCenter().z;
// Allocate elements.
surfDst.Cells.resize(surfDst.Width * surfDst.Height);
// For all elements
for(sint yCell=0; yCell<(sint)surfDst.Height; yCell++)
{
for(sint xCell=0; xCell<(sint)surfDst.Width; xCell++)
{
// compute pos of the cell.
ULocalPosition localPos;
localPos.Estimation.x= surfDst.Origin.x + xCell*cellSurfaceLightSize;
localPos.Estimation.y= surfDst.Origin.y + yCell*cellSurfaceLightSize;
localPos.Estimation.z= zCenter;
// snap the pos to the surface.
localPos.Surface= surfaceId;
bool snapped;
localRetriever.snapToInteriorGround(localPos, snapped);
// if snapped then this point is IN the surface.
CIGSurfaceLightBuild::CCellCorner &cell=
surfDst.Cells[yCell * surfDst.Width + xCell];
cell.InSurface= snapped;
// If ok, retrieve the global (ie world) position
if(snapped)
{
// build a valid globalPosition.
UGlobalPosition globalPos;
globalPos.InstanceId= instanceId;
globalPos.LocalPosition= localPos;
// retrieve from globalRetriever.
cell.CenterPos= globalRetriever->getGlobalPosition(globalPos);
// Add a delta to simulate entity center
cell.CenterPos.z+= slInfo.CellRaytraceDeltaZ;
// OverSample
if(lightDesc.OverSampling==0)
{
// No OverSample, just add CenterPos to the samples.
cell.NumOverSamples= 1;
cell.OverSamples[0]= cell.CenterPos;
}
else
{
// OverSample.
overSampleCell(cell, lightDesc.OverSampling, localRetriever,
*globalRetriever, instanceId, localPos, cellSurfaceLightSize,
slInfo.CellRaytraceDeltaZ);
// it is possible that no samples lies in surfaces (small surface).
// In this case, just copy CenterPos into samples.
if(cell.NumOverSamples==0)
{
cell.NumOverSamples= 1;
cell.OverSamples[0]= cell.CenterPos;
}
}
}
else
{
// For debug mesh only, get an approximate pos.
cell.CenterPos= localPos.Estimation + instance.getOrigin();
cell.CenterPos.z+= slInfo.CellRaytraceDeltaZ;
}
// Init cell defaults
cell.Dilated= false;
cell.SunContribution= 0;
}
}
}
}
}
}
}
}
// Run.
//=======
instanceLighter.light(igIn, igOut, lightDesc, obstacles, NULL, igSurfaceLightBuild);
// Output a debug mesh??
if(igSurfaceLightBuild && slInfo.BuildDebugSurfaceShape && !igSurfaceLightBuild->RetrieverGridMap.empty() )
{
// Do it for the sun and point lights.
for(uint i=0;i<2;i++)
{
// compute
CMesh::CMeshBuild meshBuild;
CMeshBase::CMeshBaseBuild meshBaseBuild;
CVector deltaPos= CVector::Null;
deltaPos.z= - slInfo.CellRaytraceDeltaZ + 0.1f;
// What kind of debug?
if( i==0 )
igSurfaceLightBuild->buildSunDebugMesh(meshBuild, meshBaseBuild, deltaPos);
else
igSurfaceLightBuild->buildPLDebugMesh(meshBuild, meshBaseBuild, deltaPos, igOut);
// build
CMesh mesh;
mesh.build(meshBaseBuild, meshBuild);
// Save.
CShapeStream shapeStream;
shapeStream.setShapePointer(&mesh);
COFile file;
if( i==0 )
file.open(slInfo.DebugSunName);
else
file.open(slInfo.DebugPLName);
shapeStream.serial(file);
}
}
// Clean.
//=======
if(igSurfaceLightBuild)
delete igSurfaceLightBuild;
}
// ---------------------------------------------------------------------------
// main
// ---------------------------------------------------------------------------
int main(int nNbArg, char **ppArgs)
{
if (nNbArg <3 || nNbArg >5)
{
outString ("ERROR : Wrong number of arguments\n");
outString ("USAGE : lightmap_optimizer <path_lightmaps> <path_shapes> [path_tags] [path_flag8bit]\n");
return -1;
}
vector<string> AllShapeNames;
vector<CMeshBase*> AllShapes;
std::vector<std::string> tags;
char sLMPDir[MAX_PATH];
char sSHPDir[MAX_PATH];
GetCurrentDirectory (MAX_PATH, sExeDir);
// Get absolute directory for lightmaps
if (!SetCurrentDirectory(ppArgs[1]))
{
outString (string("ERROR : directory ") + ppArgs[1] + " do not exists\n");
return -1;
}
GetCurrentDirectory (MAX_PATH, sLMPDir);
SetCurrentDirectory (sExeDir);
// Get absolute directory for shapes
if (!SetCurrentDirectory(ppArgs[2]))
{
outString (string("ERROR : directory ") + ppArgs[2] + " do not exists\n");
return -1;
}
GetCurrentDirectory (MAX_PATH, sSHPDir);
dir ("*.shape", AllShapeNames, false);
registerSerial3d ();
for (uint32 nShp = 0; nShp < AllShapeNames.size(); ++nShp)
{
try
{
CShapeStream mesh;
NLMISC::CIFile meshfile (AllShapeNames[nShp]);
meshfile.serial( mesh );
meshfile.close();
// Add the shape to the map.
CMeshBase *pMB = dynamic_cast<CMeshBase*>(mesh.getShapePointer());
AllShapes.push_back (pMB);
}
catch (NLMISC::EPathNotFound &e)
{
outString(string("ERROR: shape not found ")+AllShapeNames[nShp]+" - "+e.what());
return -1;
}
}
if (nNbArg > 3 && ppArgs[3] && strlen(ppArgs[3]) > 0)
{
SetCurrentDirectory (sExeDir);
if (!SetCurrentDirectory(ppArgs[3]))
{
outString (string("ERROR : directory ") + ppArgs[3] + " do not exists\n");
return -1;
}
dir ("*.tag", tags, false);
for(uint k = 0; k < tags.size(); ++k)
{
std::string::size_type pos = tags[k].find('.');
if (pos != std::string::npos)
{
tags[k] = tags[k].substr(0, pos);
}
}
}
// **** Parse all mesh loaded, to flag each lightmap if 8 bit or not (NB: all layers should be same mode)
std::set<string> setLM8Bit;
for(uint i=0;i<AllShapes.size();i++)
{
CMeshBase *pMB= AllShapes[i];
if(!pMB)
continue;
uint32 nbMat= pMB->getNbMaterial();
for (uint32 m = 0; m < nbMat; ++m)
{
CMaterial& rMat = const_cast<CMaterial&>(pMB->getMaterial (m));
if (rMat.getShader() == CMaterial::LightMap)
{
// Begin with stage 0
uint8 stage = 0;
while (rMat.getLightMap(stage) != NULL)
{
ITexture *pIT = rMat.getLightMap (stage);
CTextureFile *pTF = dynamic_cast<CTextureFile*>(pIT);
if (pTF != NULL)
{
string sTexName = NLMISC::strlwr(pTF->getFileName());
if(pTF->getUploadFormat()==ITexture::Luminance)
setLM8Bit.insert(sTexName);
}
++stage;
}
}
}
}
// **** Parse all lightmaps, sorted by layer, and 8 or 16 bit mode
SetCurrentDirectory (sExeDir);
for (uint32 lmc8bitMode = 0; lmc8bitMode < 2; ++lmc8bitMode)
for (uint32 nNbLayer = 0; nNbLayer < 256; ++nNbLayer)
{
// Get all lightmaps with same number of layer == nNbLayer
// merge lightmaps only if they are in same mode (8bits or 16 bits)
vector<string> AllLightmapNames;
vector<sint> AllLightmapTags;
vector<NLMISC::CBitmap*> AllLightmaps;
sint32 i, j, k, m, n;
string sFilter;
// **** Get All Lightmaps that have this number of layer, and this mode
sFilter = "*_" + NLMISC::toString(nNbLayer) + ".tga";
SetCurrentDirectory (sLMPDir);
dir (sFilter, AllLightmapNames, false);
// filter by layer
vector<string> tmpLMs;
tmpLMs.reserve(AllLightmapNames.size());
for (i = 0; i < (sint32)AllLightmapNames.size(); ++i)
{
string sTmp2 = getBaseName (AllLightmapNames[i]);
sTmp2 += NLMISC::toString(nNbLayer+1) + ".tga";
// if not More layer than expected, ok
if (!fileExist(sTmp2))
{
tmpLMs.push_back(AllLightmapNames[i]);
}
}
AllLightmapNames= tmpLMs;
// filter by 8bit or not mode.
tmpLMs.clear();
for (i = 0; i < (sint32)AllLightmapNames.size(); ++i)
{
bool lm8Bit= setLM8Bit.find( NLMISC::strlwr(AllLightmapNames[i]) ) !=setLM8Bit.end();
// if same mode
if( lm8Bit == (lmc8bitMode==1) )
{
tmpLMs.push_back(AllLightmapNames[i]);
}
}
AllLightmapNames= tmpLMs;
// **** Build tag info
/*
for(uint k = 0; k < tags.size(); ++k)
{
nlinfo("tag %d = %s", (int) k, tags[k].c_str());
}
*/
AllLightmapTags.resize(AllLightmapNames.size());
for(uint k = 0; k < AllLightmapNames.size(); ++k)
{
nlinfo("k = %d", (int) k);
AllLightmapTags[k] = -1;
// search for longest tag that match
uint bestLength = 0;
for(uint l = 0; l < tags.size(); ++l)
{
if (AllLightmapNames[k].size() > tags[l].size())
{
if (tags[l].size() > bestLength)
{
std::string start = AllLightmapNames[k].substr(0, tags[l].size());
if (NLMISC::nlstricmp(start, tags[l]) == 0)
{
bestLength = (uint)tags[l].size();
// the tag matchs
AllLightmapTags[k] = l;
}
}
}
}
if (AllLightmapTags[k] == -1)
{
nlinfo(NLMISC::toString("Lightmap %s has no tag", AllLightmapNames[k].c_str()).c_str());
}
else
{
nlinfo(NLMISC::toString("Lightmap %s has tag %d : %s", AllLightmapNames[k].c_str(), (int) AllLightmapTags[k], tags[AllLightmapTags[k]].c_str()).c_str());
}
}
// Check if all layer of the same lightmap has the same size
if (nNbLayer > 0)
for (i = 0; i < (sint32)AllLightmapNames.size(); ++i)
{
string sTmp2;
sTmp2 = getBaseName (AllLightmapNames[i]) + "0.tga";
uint32 wRef, hRef;
try
{
NLMISC::CIFile inFile;
inFile.open(sTmp2);
CBitmap::loadSize(inFile, wRef, hRef);
}
catch (NLMISC::Exception &e)
{
outString (string("ERROR :") + e.what());
return -1;
}
bool bFound = false;
for (k = 1; k <= (sint32)nNbLayer; ++k)
{
string sTmp3 = getBaseName (AllLightmapNames[i]) + NLMISC::toString(k) + ".tga";
uint32 wCur = wRef, hCur = hRef;
try
{
NLMISC::CIFile inFile;
inFile.open(sTmp3);
CBitmap::loadSize(inFile, wCur, hCur);
}
catch (NLMISC::Exception &)
{
}
if ((wCur != wRef) || (hCur != hRef))
{
bFound = true;
break;
}
}
// Should delete all layers of this lightmap (in fact in lightmapnames list we have
// only the name of the current layer)
if (bFound)
{
sTmp2 = getBaseName (AllLightmapNames[i]);
outString(string("ERROR: lightmaps ")+sTmp2+"*.tga not all the same size\n");
for (k = 0; k < (sint32)AllLightmapNames.size(); ++k)
{
if (strnicmp(AllLightmapNames[k].c_str(), sTmp2.c_str(), sTmp2.size()) == 0)
{
for (j = k+1; j < (sint32)AllLightmapNames.size(); ++j)
{
AllLightmapNames[j-1] = AllLightmapNames[j];
AllLightmapTags[j - 1] = AllLightmapTags[j];
}
AllLightmapNames.resize (AllLightmapNames.size()-1);
AllLightmapTags.resize(AllLightmapTags.size() - 1);
k = -1;
i = -1;
}
}
}
}
if (AllLightmapNames.size() == 0)
continue;
// Load all the lightmaps
AllLightmaps.resize (AllLightmapNames.size());
for (i = 0; i < (sint32)AllLightmaps.size(); ++i)
{
try
{
NLMISC::CBitmap *pBtmp = new NLMISC::CBitmap;
NLMISC::CIFile inFile;
inFile.open(AllLightmapNames[i]);
pBtmp->load(inFile);
AllLightmaps[i] = pBtmp;
}
catch (NLMISC::Exception &e)
{
outString (string("ERROR :") + e.what());
return -1;
}
}
// Sort all lightmaps by decreasing size
for (i = 0; i < (sint32)(AllLightmaps.size()-1); ++i)
for (j = i+1; j < (sint32)AllLightmaps.size(); ++j)
{
NLMISC::CBitmap *pBI = AllLightmaps[i];
NLMISC::CBitmap *pBJ = AllLightmaps[j];
if ((pBI->getWidth()*pBI->getHeight()) < (pBJ->getWidth()*pBJ->getHeight()))
{
NLMISC::CBitmap *pBTmp = AllLightmaps[i];
AllLightmaps[i] = AllLightmaps[j];
AllLightmaps[j] = pBTmp;
string sTmp = AllLightmapNames[i];
AllLightmapNames[i] = AllLightmapNames[j];
AllLightmapNames[j] = sTmp;
sint tagTmp = AllLightmapTags[i];
AllLightmapTags[i] = AllLightmapTags[j];
AllLightmapTags[j] = tagTmp;
}
}
nlassert(AllLightmapTags.size() == AllLightmapNames.size());
for (i = 0; i < (sint32)AllLightmapNames.size(); ++i)
{
outString(NLMISC::toString("%d / %d\n", (int) i, (int) AllLightmapNames.size()));
bool bAssigned = false;
for (j = 0; j < i; ++j)
{
// Tags of both textures must match. We don't want to spread lightmap chunk in bitmap whose other part aren't used by current ig lightmaps (this wastes vram for nothing)
if (AllLightmapTags[i] != AllLightmapTags[j]) continue;
// Try to place the texture i into the texture j
// This can be done only if texture was exported from the same zone. To ensure that, check
NLMISC::CBitmap *pBI = AllLightmaps[i];
NLMISC::CBitmap *pBJ = AllLightmaps[j];
sint32 x, y;
if (tryAllPos (pBI, pBJ, x, y))
{
bAssigned = true;
if (!putIn (pBI, pBJ, x, y))
{
outString (string("ERROR : cannot put reference lightmap ")+AllLightmapNames[i]+
" in "+AllLightmapNames[j]);
return -1;
}
// Put texture i into texture j for all layers of the lightmap !
for (k = 0; k <= (sint32)nNbLayer; ++k)
{
string sTexNameI = getBaseName (AllLightmapNames[i]) + NLMISC::toString(k) + ".tga";
string sTexNameJ = getBaseName (AllLightmapNames[j]) + NLMISC::toString(k) + ".tga";
NLMISC::CBitmap BitmapI;
NLMISC::CBitmap BitmapJ;
NLMISC::CIFile inFile;
outString (NLMISC::toString("INFO : Transfering %s (tag = %d) in %s (tag = %d)",
sTexNameI.c_str(), (int) AllLightmapTags[i],
sTexNameJ.c_str(), (int) AllLightmapTags[j]) +
" at ("+NLMISC::toString(x)+","+NLMISC::toString(y)+")\n");
try
{
inFile.open (sTexNameI);
BitmapI.load (inFile);
inFile.close ();
inFile.open (sTexNameJ);
BitmapJ.load (inFile);
inFile.close ();
}
catch (NLMISC::Exception &e)
{
outString (string("ERROR :") + e.what());
return -1;
}
if (!putIn (&BitmapI, &BitmapJ, x, y))
{
outString (string("ERROR : cannot put lightmap ")+sTexNameI+" in "+sTexNameJ+"\n");
return -1;
}
// Delete File
DeleteFile (sTexNameI.c_str());
outString (string("INFO : Deleting file ")+sTexNameI+"\n");
// Save destination image
NLMISC::COFile outFile;
outFile.open (sTexNameJ);
BitmapJ.writeTGA (outFile, 32);
outString (string("INFO : Saving file ")+sTexNameJ+"\n");
}
// Change shapes uvs related and names to the lightmap
// ---------------------------------------------------
SetCurrentDirectory (sSHPDir);
for (k = 0; k < (sint32)AllShapes.size(); ++k)
{
CMeshBase *pMB = AllShapes[k];
if (!pMB)
continue;
uint nNbMat = pMB->getNbMaterial ();
vector< vector<bool> > VerticesNeedRemap;
bool bMustSave = false;
// Initialize all VerticesNeedRemap
CMesh *pMesh = dynamic_cast<CMesh*>(pMB);
CMeshMRM *pMeshMRM = dynamic_cast<CMeshMRM*>(pMB);
CMeshMultiLod *pMeshML = dynamic_cast<CMeshMultiLod*>(pMB);
if (pMesh != NULL)
{
VerticesNeedRemap.resize(1); // Only one meshgeom
vector<bool> &rVNR = VerticesNeedRemap[0];
rVNR.resize (pMesh->getMeshGeom().getVertexBuffer().getNumVertices(), false);
}
else if (pMeshMRM != NULL)
{
VerticesNeedRemap.resize(1); // Only one meshmrmgeom
vector<bool> &rVNR = VerticesNeedRemap[0];
rVNR.resize (pMeshMRM->getMeshGeom().getVertexBuffer().getNumVertices(), false);
}
else if (pMeshML != NULL)
{
sint32 nNumSlot = pMeshML->getNumSlotMesh();
VerticesNeedRemap.resize(nNumSlot);
for (m = 0; m < nNumSlot; ++m)
{
vector<bool> &rVNR = VerticesNeedRemap[m];
const CMeshGeom *pMG = dynamic_cast<const CMeshGeom*>(&pMeshML->getMeshGeom(m));
if (pMG != NULL)
rVNR.resize (pMG->getVertexBuffer().getNumVertices(), false);
else
rVNR.resize(0);
}
}
else continue; // Next mesh
// All materials must have the lightmap names changed
for (m = 0; m < (sint32)nNbMat; ++m)
{
bool bMustRemapUV = false;
CMaterial& rMat = const_cast<CMaterial&>(pMB->getMaterial (m));
if (rMat.getShader() == CMaterial::LightMap)
{
// Begin with stage 0
uint8 stage = 0;
while (rMat.getLightMap(stage) != NULL)
{
ITexture *pIT = rMat.getLightMap (stage);
CTextureFile *pTF = dynamic_cast<CTextureFile*>(pIT);
if (pTF != NULL)
{
string sTexName = NLMISC::strlwr(getBaseName(pTF->getFileName()));
string sTexNameMoved = NLMISC::strlwr(getBaseName(AllLightmapNames[i]));
if (sTexName == sTexNameMoved)
{
// We must remap the name and indicate to remap uvs
bMustRemapUV = true;
//string sNewTexName = NLMISC::strlwr(getBaseName(AllLightmapNames[j]));
//sNewTexName += NLMISC::toString(getLayerNb(pTF->getFileName())) + ".tga";
//pTF->setFileName (sNewTexName);
}
}
++stage;
}
}
// We have to remap the uvs of this mesh for this material
if (bMustRemapUV) // Flaggage of the vertices to remap
{
if (pMesh != NULL)
{
// Flag all vertices linked to face with material m
FlagVertices (const_cast<CMeshGeom&>(pMesh->getMeshGeom()), m, VerticesNeedRemap[0]);
}
else if (pMeshMRM != NULL)
{
FlagVerticesMRM (const_cast<CMeshMRMGeom&>(pMeshMRM->getMeshGeom()), m, VerticesNeedRemap[0]);
}
else if (pMeshML != NULL)
{
sint32 nNumSlot = pMeshML->getNumSlotMesh();
for (n = 0; n < nNumSlot; ++n)
{
// Get the mesh geom
CMeshGeom *pMG = const_cast<CMeshGeom*>(dynamic_cast<const CMeshGeom*>(&pMeshML->getMeshGeom(n)));
if (pMG)
{
// Flag the vertices
FlagVertices (*pMG, m, VerticesNeedRemap[n]);
}
else
{
// Get the mesh MRM geom
CMeshMRMGeom *pMMRMG = const_cast<CMeshMRMGeom*>(dynamic_cast<const CMeshMRMGeom*>(&pMeshML->getMeshGeom(n)));
if (pMMRMG)
{
// Flag the vertices
FlagVerticesMRM (*pMMRMG, m, VerticesNeedRemap[n]);
}
}
}
}
}
}
// Change lightmap names
for (m = 0; m < (sint32)nNbMat; ++m)
{
CMaterial& rMat = const_cast<CMaterial&>(pMB->getMaterial (m));
if (rMat.getShader() == CMaterial::LightMap)
{
// Begin with stage 0
uint8 stage = 0;
while (rMat.getLightMap(stage) != NULL)
{
ITexture *pIT = rMat.getLightMap (stage);
CTextureFile *pTF = dynamic_cast<CTextureFile*>(pIT);
if (pTF != NULL)
{
string sTexName = NLMISC::strlwr(getBaseName(pTF->getFileName()));
string sTexNameMoved = NLMISC::strlwr(getBaseName(AllLightmapNames[i]));
if (sTexName == sTexNameMoved)
{
string sNewTexName = NLMISC::strlwr(getBaseName(AllLightmapNames[j]));
sNewTexName += NLMISC::toString(getLayerNb(pTF->getFileName())) + ".tga";
pTF->setFileName (sNewTexName);
}
}
++stage;
}
}
}
// We have now the list of vertices to remap for all material that have been changed
// So parse this list and apply the transformation : (uv * TexSizeI + decalXY) / TexSizeJ
for (m = 0; m < (sint32)VerticesNeedRemap.size(); ++m)
{
CVertexBuffer *pVB;
if (pMesh != NULL)
{
pVB = const_cast<CVertexBuffer*>(&pMesh->getMeshGeom().getVertexBuffer());
}
else if (pMeshMRM != NULL)
{
pVB = const_cast<CVertexBuffer*>(&pMeshMRM->getMeshGeom().getVertexBuffer());
}
else if (pMeshML != NULL)
{
const CMeshGeom *pMG = dynamic_cast<const CMeshGeom*>(&pMeshML->getMeshGeom(m));
pVB = const_cast<CVertexBuffer*>(&pMG->getVertexBuffer());
}
CVertexBufferReadWrite vba;
pVB->lock (vba);
vector<bool> &rVNR = VerticesNeedRemap[m];
for (n = 0; n < (sint32)rVNR.size(); ++n)
if (rVNR[n])
{
CUV *pUV = (CUV*)vba.getTexCoordPointer (n,1);
pUV->U = (pUV->U*pBI->getWidth() + x) / pBJ->getWidth();
pUV->V = (pUV->V*pBI->getHeight() + y) / pBJ->getHeight();
bMustSave = true;
}
}
if (bMustSave)
{
try
{
if (AllShapes[k])
{
CShapeStream mesh;
mesh.setShapePointer (AllShapes[k]);
NLMISC::COFile meshfile (AllShapeNames[k]);
meshfile.serial (mesh);
meshfile.close ();
}
}
catch (NLMISC::EPathNotFound &e)
{
outString(string("ERROR: cannot save shape ")+AllShapeNames[k]+" - "+e.what());
return -1;
}
}
}
SetCurrentDirectory (sLMPDir);
// Get out of the j loop
break;
}
}
// if assigned to another bitmap -> delete the bitmap i
if (bAssigned)
{
// Delete Names && tags
for (j = i+1; j < (sint32)AllLightmapNames.size(); ++j)
{
AllLightmapNames[j-1] = AllLightmapNames[j];
AllLightmapTags[j-1] = AllLightmapTags[j];
}
AllLightmapNames.resize (AllLightmapNames.size()-1);
AllLightmapTags.resize (AllLightmapTags.size()-1);
// Delete Lightmaps
delete AllLightmaps[i];
for (j = i+1; j < (sint32)AllLightmaps.size(); ++j)
AllLightmaps[j-1] = AllLightmaps[j];
AllLightmaps.resize (AllLightmaps.size()-1);
i = i - 1;
}
}
}
// **** Additionally, output or clear a "flag file" in a dir to info if a 8bit lihgtmap or not
if (nNbArg >=5 && ppArgs[4] && strlen(ppArgs[4]) > 0)
{
SetCurrentDirectory (sExeDir);
// out a text file, with list of
FILE *out= fopen(ppArgs[4], "wt");
if(!out)
{
outString(string("ERROR: cannot save ")+ppArgs[4]);
}
set<string>::iterator it(setLM8Bit.begin()), end(setLM8Bit.end());
for(;it!=end;it++)
{
string temp= (*it);
temp+= "\n";
fputs(temp.c_str(), out);
}
fclose(out);
}
return 0;
}
int main(int argc, char* argv[])
{
// Filter addSearchPath
NLMISC::createDebug();
InfoLog->addNegativeFilter ("adding the path");
// Register 3d
registerSerial3d ();
// Good number of args ?
if (argc<5)
{
// Help message
printf ("%s [zonein.zonel] [igout.ig] [parameter_file] [dependancy_file]\n", argv[0]);
}
else
{
// Ok, read the zone
CIFile inputFile;
// Get extension
string ext=getExt (argv[1]);
string dir=getDir (argv[1]);
// Open it for reading
if (inputFile.open (argv[1]))
{
// Zone name
string zoneName=toLower (string ("zone_"+getName (argv[1])));
// Load the zone
try
{
// Read the config file
CConfigFile parameter;
// Load and parse the parameter file
parameter.load (argv[3]);
// **********
// *** Build the lighter descriptor
// **********
CInstanceLighter::CLightDesc lighterDesc;
// Light direction
CConfigFile::CVar &sun_direction = parameter.getVar ("sun_direction");
lighterDesc.LightDirection.x=sun_direction.asFloat(0);
lighterDesc.LightDirection.y=sun_direction.asFloat(1);
lighterDesc.LightDirection.z=sun_direction.asFloat(2);
lighterDesc.LightDirection.normalize ();
// Grid size
CConfigFile::CVar &quad_grid_size = parameter.getVar ("quad_grid_size");
lighterDesc.GridSize=quad_grid_size.asInt();
// Grid size
CConfigFile::CVar &quad_grid_cell_size = parameter.getVar ("quad_grid_cell_size");
lighterDesc.GridCellSize=quad_grid_cell_size.asFloat();
// Shadows enabled ?
CConfigFile::CVar &shadow = parameter.getVar ("shadow");
lighterDesc.Shadow=shadow.asInt ()!=0;
// OverSampling
CConfigFile::CVar &ig_oversampling = parameter.getVar ("ig_oversampling");
lighterDesc.OverSampling= ig_oversampling.asInt ();
// validate value: 0, 2, 4, 8, 16
lighterDesc.OverSampling= raiseToNextPowerOf2(lighterDesc.OverSampling);
clamp(lighterDesc.OverSampling, 0U, 16U);
if(lighterDesc.OverSampling<2)
lighterDesc.OverSampling= 0;
// For ig of Zones, never disable Sun contrib !!!
lighterDesc.DisableSunContribution= false;
// Get the search pathes
CConfigFile::CVar &search_pathes = parameter.getVar ("search_pathes");
uint path;
for (path = 0; path < (uint)search_pathes.size(); path++)
{
// Add to search path
CPath::addSearchPath (search_pathes.asString(path));
}
// A landscape allocated with new: it is not delete because destruction take 3 secondes more!
CLandscape *landscape=new CLandscape;
landscape->init();
// A zone lighter
CMyIgZoneLighter lighter;
lighter.init ();
// A vector of zone id
vector<uint> listZoneId;
// The zone
CZone zone;
// List of ig
std::list<CInstanceGroup*> instanceGroup;
// Load
zone.serial (inputFile);
inputFile.close();
// Load ig of the zone
string igName = getName (argv[1])+".ig";
string igNameLookup = CPath::lookup (igName, false, false);
if (!igNameLookup.empty())
igName = igNameLookup;
bool zoneIgLoaded;
// Try to open the file
CInstanceGroup *centerInstanceGroup= NULL;
if (inputFile.open (igName))
{
// load the center ig
centerInstanceGroup=new CInstanceGroup;
// Serial it
centerInstanceGroup->serial (inputFile);
inputFile.close();
// Add to the list
instanceGroup.push_back (centerInstanceGroup);
zoneIgLoaded = true;
}
else
{
// Warning
fprintf (stderr, "Warning: can't load instance group %s\n", igName.c_str());
zoneIgLoaded = false;
}
// If can't load the center instanceGroup, skip it.
if(!zoneIgLoaded)
return 0;
// Get bank path
CConfigFile::CVar &bank_name_var = parameter.getVar ("bank_name");
string bank_name = bank_name_var.asString ();
string bank_name_lookup = CPath::lookup (bank_name);
if (!bank_name_lookup.empty())
bank_name = bank_name_lookup;
// Load the bank
if (inputFile.open (bank_name))
{
try
{
// Load
landscape->TileBank.serial (inputFile);
landscape->initTileBanks();
}
catch (const Exception &e)
{
// Error
nlwarning ("ERROR error loading tile bank %s\n%s\n", bank_name.c_str(), e.what());
}
}
else
{
// Error
nlwarning ("ERROR can't load tile bank %s\n", bank_name.c_str());
}
// Add the zone
landscape->addZone (zone);
listZoneId.push_back (zone.getZoneId());
// Load instance group ?
CConfigFile::CVar &load_ig= parameter.getVar ("load_ig");
bool loadInstanceGroup = load_ig.asInt ()!=0;
// Continue to build ?
bool continu=true;
// Try to load additionnal instance group.
if (loadInstanceGroup)
{
// Additionnal instance group
try
{
CConfigFile::CVar &additionnal_ig = parameter.getVar ("additionnal_ig");
for (uint add=0; add<(uint)additionnal_ig.size(); add++)
{
// Input file
CIFile inputFile;
// Name of the instance group
string name = additionnal_ig.asString(add);
string nameLookup = CPath::lookup (name, false, false);
if (!nameLookup.empty())
name = nameLookup;
// Try to open the file
if (inputFile.open (name))
{
// New ig
CInstanceGroup *group=new CInstanceGroup;
// Serial it
group->serial (inputFile);
inputFile.close();
// Add to the list
instanceGroup.push_back (group);
}
else
{
// Error
nlwarning ("ERROR can't load instance group %s\n", name.c_str());
// Stop before build
continu=false;
}
}
}
catch (const NLMISC::EUnknownVar &)
{
nlinfo("No additionnal ig's to load");
}
}
// Shadow ?
if (lighterDesc.Shadow)
{
// Load and parse the dependency file
CConfigFile dependency;
dependency.load (argv[4]);
// *** Scan dependency file
CConfigFile::CVar &dependant_zones = dependency.getVar ("dependencies");
for (uint i=0; i<(uint)dependant_zones.size(); i++)
{
// Get zone name
string zoneName=dependant_zones.asString(i);
// Load the zone
CZone zoneBis;
// Open it for reading
if (inputFile.open (dir+zoneName+ext))
{
// Read it
zoneBis.serial (inputFile);
inputFile.close();
// Add the zone
landscape->addZone (zoneBis);
listZoneId.push_back (zoneBis.getZoneId());
}
else
{
// Error message and continue
nlwarning ("ERROR can't load zone %s\n", (dir+zoneName+ext).c_str());
}
// Try to load an instance group.
if (loadInstanceGroup)
{
string name = zoneName+".ig";
string nameLookup = CPath::lookup (name, false, false);
if (!nameLookup.empty())
name = nameLookup;
// Name of the instance group
if (inputFile.open (name))
{
// New ig
CInstanceGroup *group=new CInstanceGroup;
// Serial it
group->serial (inputFile);
inputFile.close();
// Add to the list
instanceGroup.push_back (group);
}
else
{
// Error message and continue
nlwarning ("WARNING can't load instance group %s\n", name.c_str());
}
}
}
}
// A vector of CInstanceLighter::CTriangle
vector<CInstanceLighter::CTriangle> vectorTriangle;
// **********
// *** Build triangle array
// **********
landscape->checkBinds ();
// Add triangles from landscape, for pointLight lighting.
landscape->enableAutomaticLighting (false);
lighter.addTriangles (*landscape, listZoneId, 0, vectorTriangle);
// Load and add shapes
// Map of shape
std::map<string, IShape*> shapeMap;
// For each instance group
std::list<CInstanceGroup*>::iterator ite=instanceGroup.begin();
while (ite!=instanceGroup.end())
{
// Instance group
CInstanceGroup *group=*ite;
// For each instance
for (uint instance=0; instance<group->getNumInstance(); instance++)
{
// Get the instance shape name
string name=group->getShapeName (instance);
// Skip it?? use the DontCastShadowForExterior flag. See doc of this flag
if(group->getInstance(instance).DontCastShadow || group->getInstance(instance).DontCastShadowForExterior)
continue;
// Add a .shape at the end ?
if (!name.empty())
{
if (name.find('.') == std::string::npos)
name += ".shape";
// Find the file
string nameLookup = CPath::lookup (name, false, false);
if (!nameLookup.empty())
name = nameLookup;
// Find the shape in the bank
std::map<string, IShape*>::iterator iteMap=shapeMap.find (name);
if (iteMap==shapeMap.end())
{
// Input file
CIFile inputFile;
if (inputFile.open (name))
{
// Load it
CShapeStream stream;
stream.serial (inputFile);
// Get the pointer
iteMap=shapeMap.insert (std::map<string, IShape*>::value_type (name, stream.getShapePointer ())).first;
}
else
{
// Error
nlwarning ("WARNING can't load shape %s\n", name.c_str());
}
}
// Loaded ?
if (iteMap!=shapeMap.end())
{
// Build the matrix
CMatrix scale;
scale.identity ();
scale.scale (group->getInstanceScale (instance));
CMatrix rot;
rot.identity ();
rot.setRot (group->getInstanceRot (instance));
CMatrix pos;
pos.identity ();
pos.setPos (group->getInstancePos (instance));
CMatrix mt=pos*rot*scale;
// If centerInstanceGroup, take good instanceId, to avoid selfShadowing
sint instanceId;
if(group == centerInstanceGroup)
instanceId= instance;
else
instanceId= -1;
// Add triangles
lighter.addTriangles (*iteMap->second, mt, vectorTriangle, instanceId);
}
}
}
// For each point light of the ig
const std::vector<CPointLightNamed> &pointLightList= group->getPointLightList();
for (uint plId=0; plId<pointLightList.size(); plId++)
{
// Add it to the Ig.
lighter.addStaticPointLight(pointLightList[plId], igName.c_str ());
}
// Next instance group
ite++;
}
// Continue ?
if (continu)
{
// **********
// *** Light!
// **********
// Start time
TTime time=CTime::getLocalTime ();
// Output ig
CInstanceGroup output;
// Light the zone
lighter.light (*centerInstanceGroup, output, lighterDesc, vectorTriangle, landscape);
// Compute time
printf ("\rCompute time: %d ms \r",
(uint)(CTime::getLocalTime ()-time));
// Save the zone
COFile outputFile;
// Open it
if (outputFile.open (argv[2]))
{
try
{
// Save the new ig
outputFile.serial(output);
}
catch (const Exception& except)
{
// Error message
nlwarning ("ERROR writing %s: %s\n", argv[2], except.what());
}
}
else
{
// Error can't open the file
nlwarning ("ERROR Can't open %s for writing\n", argv[2]);
}
}
else
{
// Error
nlwarning ("ERROR Abort: files are missing.\n");
}
}
catch (const Exception& except)
{
// Error message
nlwarning ("ERROR %s\n", except.what());
}
}
else
{
// Error can't open the file
nlwarning ("ERROR Can't open %s for reading\n", argv[1]);
}
}
// Landscape is not deleted, nor the instanceGroups, for faster quit.
// Must disalbe BlockMemory checks (for pointLights).
NL3D_BlockMemoryAssertOnPurge= false;
// exit.
return 0;
}
bool CNelExport::exportMesh (const char *sPath, INode& node, TimeValue time)
{
// Result to return
bool bRet=false;
// Eval the object a time
ObjectState os = node.EvalWorldState(time);
// Object exist ?
if (os.obj)
{
// Skeleton shape
CSkeletonShape *skeletonShape=NULL;
TInodePtrInt *mapIdPtr=NULL;
TInodePtrInt mapId;
// If model skinned ?
if (CExportNel::isSkin (node))
{
// Create a skeleton
INode *skeletonRoot=CExportNel::getSkeletonRootBone (node);
// Skeleton exist ?
if (skeletonRoot)
{
// Build a skeleton
skeletonShape=new CSkeletonShape();
// Add skeleton bind pos info
CExportNel::mapBoneBindPos boneBindPos;
CExportNel::addSkeletonBindPos (node, boneBindPos);
// Build the skeleton based on the bind pos information
_ExportNel->buildSkeletonShape (*skeletonShape, *skeletonRoot, &boneBindPos, mapId, time);
// Set the pointer to not NULL
mapIdPtr=&mapId;
// Erase the skeleton
if (skeletonShape)
delete skeletonShape;
}
}
DWORD t = timeGetTime();
if (InfoLog)
InfoLog->display("Beg buildShape %s \n", node.GetName());
// Export in mesh format
IShape* pShape=_ExportNel->buildShape (node, time, mapIdPtr, true);
if (InfoLog)
InfoLog->display("End buildShape in %d ms \n", timeGetTime()-t);
// Conversion success ?
if (pShape)
{
// Open a file
COFile file;
if (file.open (sPath))
{
try
{
// Create a streamable shape
CShapeStream shapeStream (pShape);
// Serial the shape
shapeStream.serial (file);
// All is good
bRet=true;
}
catch (...)
{
}
}
// Delete the pointer
delete pShape;
}
}
return bRet;
}
/*
* init()
*/
bool CPrimChecker::build(const string &primitivesPath, const string &igLandPath, const string &igVillagePath, const string &outputDirectory, bool forceRebuild)
{
if (Verbose)
nlinfo("Checking pacs.packed_prims consistency");
NLLIGO::Register();
// Init ligo
if (!LigoConfig.readPrimitiveClass ("world_editor_classes.xml", false))
{
// Should be in l:\leveldesign\world_edit_files
nlwarning ("Can't load ligo primitive config file world_editor_classes.xml");
return false;
}
uint i, j;
string outputfname = CPath::standardizePath(outputDirectory)+"pacs.packed_prims";
_Grid.clear();
vector<string> files;
CPath::getPathContent(primitivesPath, true, false, true, files);
for (i=0; i<files.size(); ++i)
{
if (CFile::getExtension(files[i]) == "primitive")
{
readFile(files[i]);
}
}
files.clear();
CPath::getPathContent(igLandPath, true, false, true, files);
CPath::getPathContent(igVillagePath, true, false, true, files);
set<string> noWaterShapes;
for (i=0; i<files.size(); ++i)
{
try
{
// load ig associated to the zone
string igname = files[i];
string ignamelookup = CPath::lookup(igname);
//nlinfo("Reading ig '%s'", ignamelookup.c_str());
CIFile igStream(ignamelookup);
CInstanceGroup ig;
igStream.serial(ig);
// search in group for water instance
for (j=0; j<ig._InstancesInfos.size(); ++j)
{
string shapeName = ig._InstancesInfos[j].Name;
if (CFile::getExtension (shapeName) == "")
shapeName += ".shape";
if (noWaterShapes.find(shapeName) != noWaterShapes.end())
continue;
string shapeNameLookup = CPath::lookup (shapeName, false, false);
if (!shapeNameLookup.empty())
{
CIFile f;
if (f.open (shapeNameLookup))
{
CShapeStream shape;
shape.serial(f);
CWaterShape *wshape = dynamic_cast<CWaterShape*>(shape.getShapePointer());
if (wshape == NULL)
{
noWaterShapes.insert(shapeName);
continue;
}
//nlinfo("Render water shape '%s'", shapeNameLookup.c_str());
CMatrix matrix;
ig.getInstanceMatrix(j, matrix);
CPolygon wpoly;
//wshape->getShapeInWorldSpace(wpoly);
CPolygon2D wpoly2d = wshape->getShape();
uint k;
for (k=0; k<wpoly2d.Vertices.size(); ++k)
{
wpoly.Vertices.push_back(matrix * wpoly2d.Vertices[k]);
}
float zwater = wpoly.Vertices[0].z - WaterThreshold;
uint16 idx = (uint16)_WaterHeight.size();
_WaterHeight.push_back(zwater);
render(wpoly, idx);
if (Verbose)
nlinfo("Rendered water shape '%s' in instance '%s'", CFile::getFilenameWithoutExtension(shapeName).c_str(), CFile::getFilenameWithoutExtension(igname).c_str());
}
else if (Verbose)
{
noWaterShapes.insert(shapeName);
nlwarning ("Can't load shape %s", shapeNameLookup.c_str());
}
}
else if (Verbose)
{
noWaterShapes.insert(shapeName);
nlwarning ("Can't find shape %s", shapeName.c_str());
}
}
}
catch (const Exception &e)
{
nlwarning("%s", e.what());
}
}
COFile f;
if (f.open(outputfname))
{
f.serial(_Grid);
f.serialCont(_WaterHeight);
}
else
{
nlwarning("Couldn't save pacs.packed_prims file '%s'", outputfname.c_str());
}
return true;
}
void CResourceManager::loadChildren(const std::string &filename)
{
string ext = CFile::getExtension(filename);
if(ext == "shape")
{
// need to get texture inside the shape
NL3D::registerSerial3d();
CShapeStream ss;
NLMISC::CIFile i(CPath::lookup(filename, false).c_str());
i.serial(ss);
i.close();
CMesh *m = (CMesh*)ss.getShapePointer();
uint nbm = m->getNbMaterial();
for(uint i = 0; i < nbm; i++)
{
CMaterial &mat = m->getMaterial(i);
for(uint j = 0; j < IDRV_MAT_MAXTEXTURES; j++)
{
ITexture *t = mat.getTexture(j);
if(t)
{
CTextureFile *tf = dynamic_cast<CTextureFile *>(t);
if(tf)
{
get(tf->getFileName());
}
else
{
CTextureMultiFile *tmf = dynamic_cast<CTextureMultiFile *>(t);
if(tmf)
{
for(uint t = 0; t < tmf->getNumFileName(); t++)
get(tmf->getFileName(t));
}
}
}
}
}
}
else if(ext == "ps")
{
// need to get texture inside the shape
NL3D::registerSerial3d();
string fn = CFile::getFilename(filename);
CShapeBank *bank = new CShapeBank;
string shapeCache("mtptShapeCache");
bank->addShapeCache(shapeCache);
bank->setShapeCacheSize(shapeCache,1024*1024);
std::vector<std::string> filelist;
filelist.push_back(filename);
CDriverUser *drv = (CDriverUser *)(&C3DTask::getInstance().driver());
bank->preLoadShapes(shapeCache,filelist,string("*.ps"),NULL,true,drv->getDriver());
bool b = bank->isShapeWaiting();
IShape *is = bank->getShape(fn);
//bank->load(filename)
CParticleSystemShape *ps = (CParticleSystemShape *)is;
uint numTexture = ps->getNumCachedTextures();
nlinfo("loadchildren(%s) : num texture = %d",filename.c_str(),numTexture);
for(uint i=0;i<numTexture;i++)
{
ITexture *tex = ps->getCachedTexture(i);
CTextureFile *utex = (CTextureFile *)tex;
nlinfo("loadchildren(%s) : texture = %s",filename.c_str(),utex->getFileName().c_str());
get(utex->getFileName());
}
bank->reset();
delete bank;
}
}
