void CFieldMap::load (File::Load::CLoadField &fin, std::vector<CBaseItems> &temps)
{
hurdle = fin.loadHurdle ();
substratum = fin.loadSubstratum ();
if ( substratum )
{
int ID;
Engine::CSprite::KIND kind;
fin.loadNumberTexture (kind, ID);
ground = new Engine::CSprite( findTexture (temps, kind, ID));
fin.loadRect (ground->rectSprite);
}
if ( hurdle )
{
Engine::CSprite::KIND kind;
int ID;
fin.loadNumberTexture (kind, ID);
obstancle = new Engine::CSprite(findTexture (temps, kind, ID));
fin.loadRect (obstancle->rectSprite);
}
}
//! loads a Texture
ITexture* CNullDriver::getTexture(const path& filename)
{
// Identify textures by their absolute filenames if possible.
const path absolutePath = FileSystem->getAbsolutePath(filename);
ITexture* texture = findTexture(absolutePath);
if (texture)
return texture;
// Then try the raw filename, which might be in an Archive
texture = findTexture(filename);
if (texture)
return texture;
// Now try to open the file using the complete path.
IReadFile* file = FileSystem->createAndOpenFile(absolutePath);
if (!file)
{
// Try to open it using the raw filename.
file = FileSystem->createAndOpenFile(filename);
}
if (file)
{
// Re-check name for actual archive names
texture = findTexture(file->getFileName());
if (texture)
{
file->releaseRef();
return texture;
}
texture = loadTextureFromFile(file);
file->releaseRef();
if (texture)
{
addTexture(texture);
texture->releaseRef(); // drop it because we created it, one grab too much
}
else
Printer::log("Could not load texture", filename, ELL_ERROR);
return texture;
}
else
{
Printer::log("Could not open file of texture", filename, ELL_WARNING);
return 0;
}
}
// -----------------------------------------------------------------
// Name : findTexture
// -----------------------------------------------------------------
Texture * TextureEngine::findTexture(string sFilename)
{
if (sFilename == "") {
return NULL;
}
for (u16 i = 0; i < m_AllTextures.size(); i++) {
if (m_AllTextures[i]->m_sFilename == sFilename) {
return m_AllTextures[i];
}
}
// Not found => might be a virtual texture that we need to create from master texture
if (sFilename.find(":") != string::npos) {
size_t pos = sFilename.find_first_of(':', 0);
string rootFile = sFilename.substr(0, pos);
string title = sFilename.substr(pos+1);
Texture * pMaster = findTexture(rootFile);
if (pMaster != NULL) {
VirtualTexture * vTex = VirtualTexture::build(pMaster, sFilename, title);
if (vTex != NULL) {
m_AllTextures.push_back(vTex);
return vTex;
}
}
_debug->error(string("Texture not found: ") + sFilename);
}
return NULL;
}
int TextureManager::LoadExternTexture(const char* filename, bool complain, bool mipmap, bool grayscale) {
Texture *t = NULL;
if (gl_quick_texture_reload.getBool()) {
t = findTexture(filename);
if (t != NULL)
return t->textureId;
}
t = LoadFile(filename, complain);
if (!t)
return 0;
if (!t->hasData()) {
delete t;
return 0;
}
t->mipmap = mipmap;
t->bytesPerPixel = 4;
t->grayscale = grayscale;
t = LoadTexture(t);
return t->textureId;
}
//! loads a Texture
ITexture* CNullDriver::getTexture(IReadFile* file)
{
ITexture* texture = 0;
if (file)
{
texture = findTexture(file->getFileName());
if (texture)
return texture;
texture = loadTextureFromFile(file);
if (texture)
{
addTexture(texture);
texture->releaseRef(); // drop it because we created it, one grab too much
}
if (!texture)
Printer::log("Could not load texture", file->getFileName(), ELL_WARNING);
}
return texture;
}
render::render(const char *textName, int texX1, int texX2, int texY1, int texY2,
float sizX, float sizY, int red_, int green_, int blue_, int alpha_, float rotRad)
: comptexture(findTexture(textName)), textX1(texX1), textX2(texX2), textY1(texY1), textY2(texY2),
textXSize(sizX), textYSize(sizY),
red(red_), green(green_), blue(blue_), alpha(alpha_), rot(rotRad)
{
}
void Sprite::loadIndex(PFPChunk *chunk)
/*!\brief Laden des Sprite-Index
*
* \desc
* Diese Funktion wird intern verwendet, um den INDX-Chunk der Sprite-Datei einzulesen.
* Sie darf erst nach Aufruf von Sprite::LoadTexture verwendet werden.
*
* \param[in] chunk Pointer auf den INDX-Chunk
* \returns Konnte der Index erfolgreich eingelesen und alle Texturen zugeordnet werden,
* liefert die Funktion true (1) zurück, andernfalls false (0).
*/
{
char *buffer=(char*)chunk->data();
int num=Peek32(buffer); // Anzahl Einträge in der Tabelle
char *p=buffer+4;
SpriteIndexItem item;
for (int i=0;i<num;i++) {
item.id=Peek32(p+0);
item.surface=findTexture(Peek16(p+4));
item.r.x1=Peek16(p+6+0);
item.r.y1=Peek16(p+6+2);
item.r.x2=Peek16(p+6+4)+1;
item.r.y2=Peek16(p+6+6)+1;
item.Pivot.x=Peek16(p+14+0);
item.Pivot.y=Peek16(p+14+2);
item.Offset.x=Peek16(p+18+0);
item.Offset.y=Peek16(p+18+2);
/*
PrintDebug("Id: %i, (%i/%i)-(%i/%i)\n",
item->id,item->r.left,item->r.top,item->r.right,item->r.bottom);
*/
SpriteList.add(item.id,item);
p+=22;
}
}
bool SceneLoader::aplicaTextures(Object * o, Texture * tex)
{
Texture * tex2;
if(o->tex_id=="null")
o->tex=tex;
else if(o->tex_id=="clear")
o->tex=this->no_tex;
else
{
tex2=findTexture(o->tex_id);
if(tex2==NULL)
return false;
o->tex=tex2;
}
if(o->type=="compound")
{
for(unsigned int i=0; i<o->getObjs()->size(); i++)
{
if(!aplicaTextures(o->getObjs()->at(i), o->tex))
return false;
}
}
return true;
}
ITexture*
TextureMgr::loadTexture (const std::string& filename,
Ctr::PixelFormat format)
{
if (filename.length() == 0)
return nullptr;
LOG ("Attempting to load texture " << filename);
ITexture* texture = findTexture (filename);
if (!texture)
{
std::vector<std::string> filenames;
filenames.push_back(filename);
TextureParameters resource =
TextureParameters(filenames, loadImages(filenames),Ctr::TwoD);
if (texture = _deviceInterface->createTexture(&resource))
{
_textures.insert (std::make_pair(std::string(filename),
texture));
LOG ("Loaded texture " << filename);
}
else
{
LOG ("Failed " << filename);
}
}
return texture;
}
TexturePtr
TextureManager::getTexture(const std::string & theTextureId) const{
TexturePtr myTexture = findTexture(theTextureId);
if (!myTexture) {
throw TextureManagerException(std::string("Request for texture '") + theTextureId + "' failed.", PLUS_FILE_LINE);
}
return myTexture;
}
// FIXME: should we check that image have appropriate size as bindFromImage do?
void TextureManager::bindTexture(const QString& name, QGLWidget* cxt)
{
Create();
Q_ASSERT( "Must be called only with valid GL context" && cxt );
CacheIter it = findTexture( name );
if( it != m_p->m_textures.constEnd() )
bindImage( *it, cxt );
}
const QImage& TextureManager::getImage(const QString& name)
{
Create();
if(name.isEmpty())
return emptyImage;
CacheIter it = findTexture( name );
if( it != m_p->m_textures.constEnd() ) {
return *it;
} else {
return emptyImage;
}
}
kinc_g4_texture_unit_t kinc_g4_pipeline_get_texture_unit(kinc_g4_pipeline_t *state, const char *name) {
int index = findTexture(state, name);
if (index < 0) {
int location = glGetUniformLocation(state->impl.programId, name);
glCheckErrors();
index = state->impl.textureCount;
state->impl.textureValues[index] = location;
strcpy(state->impl.textures[index], name);
++state->impl.textureCount;
}
kinc_g4_texture_unit_t unit;
unit.impl.unit = index;
return unit;
}
// -------------------------------------------------
// load texture
// -------------------------------------------------
int loadTexture(const char* name) {
LOGC("assets") << "load texture: " << name;
int idx = findTexture(name);
if (idx != -1) {
LOGC("assets") << "found already existing texture - returning " << idx;
return idx;
}
TextureAsset asset;
char fileName[256];
sprintf(fileName, "content\\%s.png", name);
LOGC("assets") << "loading texture from file: " << fileName;
HRESULT result = D3DX11CreateShaderResourceViewFromFile(ctx->device, fileName, NULL, NULL, &asset.texture, NULL);
if (FAILED(result)) {
return -1;
}
assetCtx->textures.push_back(asset);
return assetCtx->textures.size() - 1;
}
// -----------------------------------------------------------------
// Name : loadTexture
// -----------------------------------------------------------------
Texture * TextureEngine::loadTexture(string sFilename, bool bComposed, bool bMipmap, int ustart, int uend, int vstart, int vend)
{
if (sFilename == "") {
return NULL;
}
Texture * pTex = findTexture(sFilename);
if (pTex != NULL) { // Texture already loaded
return pTex;
}
pTex = new Texture(sFilename, bComposed, bMipmap);
m_AllTextures.push_back(pTex);
if (!pTex->load()) {
return pTex;
} else {
textureLoaded(pTex);
}
pTex->m_bIsLoadedInVideo = true;
// Set u/v coords
if (ustart >= 0)
{
pTex->m_fU0 = (GLfloat)ustart / (GLfloat)pTex->getWidth();
pTex->m_fU1 = (GLfloat)uend / (GLfloat)pTex->getWidth();
}
else
{
pTex->m_fU0 = 0.0f;
pTex->m_fU1 = 1.0f;
}
if (vstart >= 0)
{
pTex->m_fV0 = (GLfloat)vstart / (GLfloat)pTex->getHeight();
pTex->m_fV1 = (GLfloat)vend / (GLfloat)pTex->getHeight();
}
else
{
pTex->m_fV0 = 0.0f;
pTex->m_fV1 = 1.0f;
}
return pTex;
}
ITexture*
TextureMgr::loadTextureSet (const std::string& key,
const std::vector<std::string> & filenames)
{
ITexture* texture = findTexture (key);
if (!texture)
{
TextureParameters resource = TextureParameters(filenames, loadImages(filenames), Ctr::TwoD);
if (texture = _deviceInterface->createTexture(&resource))
{
_textures.insert (std::make_pair(std::string(key),
texture));
LOG ("Loaded texture array from: ")
for (size_t i = 0;i < filenames.size(); i++)
{
LOG (" " << filenames[i].c_str());
}
}
Texture *TextureManager::LoadTexture(Texture *texture) {
// See if the texture has already been loaded
texture->calculateHash();
Texture *found = findTexture(texture);
if (found != NULL) {
if (found->isMissMatch(texture)) {
Con_DPrintf("GL_LoadTexture: cache mismatch\n");
removeTexture(found);
delete found;
} else {
delete texture;
return found;
}
}
if (!isDedicated) {
texture->upload();
}
checkGLError("Loading texture");
addTexture(texture);
return texture;
}
bool SceneLoader::loadScene()
{
sgxElement = doc.FirstChildElement( "sgx" );
globalsElement = sgxElement->FirstChildElement( "globals" );
viewElement = sgxElement->FirstChildElement( "view" );
illuminationElement = sgxElement->FirstChildElement("illumination");
texturesElement = sgxElement->FirstChildElement("textures");
objectsElement = sgxElement->FirstChildElement("objects");
materialsElement = sgxElement->FirstChildElement("materials");
Material * mat;
Texture * tex;
// Inicialização
// Um exemplo de um conjunto de nós bem conhecidos e obrigatórios
if(sgxElement == NULL) {
cout << "Bloco sgx nao encontrado\n";
system("pause");
return false;
}
if(globalsElement != NULL)
{
if(!loadGlobals())
return false;
}
else
{
cout<<"Bloco globals nao encontrado\n";
system("pause");
return false;
}
if (viewElement != NULL)
{
if(!loadView())
return false;
}
else
{
cout << "Bloco view nao encontrado\n";
system("pause");
return false;
}
if(illuminationElement != NULL)
{
if(!loadIllumination())
return false;
}
else
{
cout<<"Bloco illumination nao econtrado\n";
system("pause");
return false;
}
if(texturesElement != NULL)
{
if(!loadTextures())
return false;
}
else
{
cout<<"Bloco textures nao econtrado\n";
system("pause");
return false;
}
if(materialsElement != NULL)
{
if(!loadMaterials())
return false;
}
else
{
cout<<"Bloco materials nao econtrado\n";
system("pause");
return false;
}
if(objectsElement!=NULL)
{
if(!loadObjects())
return false;
if(!loadCompound())
return false;
root_object=findObject(global.root);
if(root_object==NULL)
return false;
if(root_object->mat_id=="null")
mat=this->mat_base;
else
{
mat=findMaterial(root_object->mat_id);
if(mat==NULL)
return false;
}
if(!aplicaMaterials(root_object, mat))
return false;
if(root_object->tex_id=="null"||root_object->tex_id=="clear")
tex=this->no_tex;
else
{
tex=findTexture(root_object->tex_id);
if(tex==NULL)
return false;
}
if(!aplicaTextures(root_object, tex))
return false;
}
else
{
cout<<"Bloco objects nao econtrado\n";
system("pause");
return false;
}
return true;
}
int defuse(const char *fileName)
{
numtextures = 0;
int fd;
fd = _open(fileName, O_RDONLY | O_BINARY);
if (fd <= 0)
{
fprintf(stderr, "could not open %s for reading\n", fileName);
return -1;
}
//fprintf(stderr,"converting %s\n",argv[filenum]);
struct stat statbuf;
fstat(fd, &statbuf);
size = statbuf.st_size;
buf = new char[size + 1000];
buf2 = new char[size + 100000];
readpos = buf;
writepos = buf2;
memset(buf, 0, size + 1000);
if ((buf2 == NULL) || (buf == NULL))
{
fprintf(stderr, "out of memory\n");
return -1;
}
_read(fd, buf, size);
int numref = 0;
numtextures = 0;
while (findTexture())
{
texture *currentTex = getTexture(currentTexturename, currentEnvironment, currentBlendMode);
if (currentTex)
{
// already defined texture
sprintf(writepos, " USE %s \n", currentTex->defName);
writepos += strlen(writepos);
numref++;
}
else
{
// new texture
currentTex = new texture(currentTexturename, currentEnvironment, currentBlendMode);
//fprintf(stderr,"currentEnvironment %d\n" , currentEnvironment);
addTexture(currentTex);
sprintf(writepos, " DEF %s ImageTexture{ url \"%s\"\n", currentTex->defName, currentTex->name);
writepos += strlen(writepos);
if (currentTex->env)
{
sprintf(writepos, " environment TRUE\n");
writepos += strlen(writepos);
}
if (currentTex->blendMode > 0)
{
sprintf(writepos, " blendMode %d\n", currentTex->blendMode);
writepos += strlen(writepos);
}
sprintf(writepos, "}\n");
writepos += strlen(writepos);
}
}
_close(fd);
//fprintf(stderr,"found %d textures, %d references\n",numtextures, numref);
if (numref == 0)
{
//fprintf(stderr,"%s unchanged\n",argv[filenum]);
}
else
{
fd = _open(fileName, O_WRONLY | O_CREAT | O_BINARY | O_TRUNC, 0777);
if (fd <= 0)
{
fprintf(stderr, "could not open %s for writing\n", fileName);
return -1;
}
_write(fd, buf2, (int)(writepos - buf2));
_close(fd);
}
delete[] buf;
delete[] buf2;
return 0;
}
void generateRoomGeometry(room_s* r)
{
if(!r)return;
if(r->vertexBuffer)linearFree(r->vertexBuffer);
if(r->numIndices)linearFree(r->numIndices);
if(r->indexBufferTextures)linearFree(r->indexBufferTextures);
if(r->indexBuffers)
{
int i; for(i=0; i<r->numIndexBuffers; i++)linearFree(r->indexBuffers[i]);
free(r->indexBuffers);
}
r->vertexBuffer=NULL;
r->numIndices=NULL;
r->indexBufferTextures=NULL;
r->indexBuffers=NULL;
r->numIndexBuffers=0;
rectangleVertex_s* tmpVertex=malloc(sizeof(rectangleVertex_s)*r->rectangles.num*4);
if(!tmpVertex)return;
{
texture_s** tmpTextures=calloc(TEXTURES_NUM, sizeof(texture_s*));
int* tmpNumIndices=calloc(TEXTURES_NUM, sizeof(int));
r->numIndexBuffers=0;
listCell_s* l=r->rectangles.first;
while(l)
{
if(l->data.hide){l=l->next; continue;}
texture_s* t=getRectangleTexture(&l->data);
int i=findTexture(t, tmpTextures, r->numIndexBuffers);
if(i<0)tmpTextures[i=(r->numIndexBuffers++)]=t;
tmpNumIndices[i]++;
l=l->next;
}
r->indexBuffers=calloc(r->numIndexBuffers, sizeof(u16*));
r->numIndices=calloc(r->numIndexBuffers, sizeof(int));
r->indexBufferTextures=calloc(r->numIndexBuffers, sizeof(texture_s*));
int i; for(i=0; i<r->numIndexBuffers; i++)r->indexBuffers[i]=linearAlloc(sizeof(u16)*6*tmpNumIndices[i]);
free(tmpTextures);
free(tmpNumIndices);
}
{
r->numIndexBuffers=0;
r->vertexBuffer=tmpVertex;
r->numVertices=0;
listCell_s* l=r->rectangles.first;
while(l)
{
if(l->data.hide){l=l->next; continue;}
texture_s* t=getRectangleTexture(&l->data);
int b=findTexture(t, r->indexBufferTextures, r->numIndexBuffers);
if(b<0)
{
r->indexBufferTextures[b=r->numIndexBuffers++]=t;
}
vect3Di_s texCoords[4];
getMaterialTextureCoord(&l->data, texCoords);
generateRectangleGeometry(&l->data, texCoords, r->vertexBuffer, &r->numVertices, r->indexBuffers[b], &r->numIndices[b]);
l=l->next;
}
}
r->vertexBuffer=linearAlloc(sizeof(rectangleVertex_s)*r->numVertices);
memcpy(r->vertexBuffer, tmpVertex, sizeof(rectangleVertex_s)*r->numVertices);
free(tmpVertex);
}
//--------------------------------------------------------------------
// read a brick set for the world
void ChunkWorld::readBrickSet(
BrickSetFile& brickSetFile)
{
m_brickSet = new BrickSet();
// assign index to each texture used
m_nextTextureId = 0;
m_textureIds.removeAll();
// add an entry for air
BrickDefn* desc = new BrickDefn();
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = true;
desc->m_trans[BRICK_FACE_YMAX] = true;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
m_brickSet->m_defns[0] = desc;
m_brickSet->m_defns[0]->m_subDefns[0] = new BrickSubDefn();
// for each brick type
for (int i = 0; i < brickSetFile.m_brickTags.length(); i++)
{
BrickTag* brick = (BrickTag*) brickSetFile.m_brickTags[i];
// get existing defn, if any, for this major code
desc = m_brickSet->m_defns[brick->m_majorCode];
if (desc == NULL)
{
desc = new BrickDefn();
m_brickSet->m_defns[brick->m_majorCode] = desc;
}
// get entry for minor code
if (brick->m_minorCode < 0 || brick->m_minorCode >= SUBDEFN_COUNT)
throw new mgException("Invalid brick defn minor code %02x%02x",
brick->m_majorCode, brick->m_minorCode);
// don't allow duplicates
BrickSubDefn* subDefn = desc->m_subDefns[brick->m_minorCode];
if (subDefn != NULL)
throw new mgException("Duplicate brick defn code %02x%02x",
brick->m_majorCode, brick->m_minorCode);
// create new subdefinition
subDefn = new BrickSubDefn();
desc->m_subDefns[brick->m_minorCode] = subDefn;
int shape;
if (brick->m_shape.equalsIgnoreCase("slab"))
shape = SHAPE_SLAB;
else if (brick->m_shape.equalsIgnoreCase("column"))
shape = SHAPE_COLUMN;
else if (brick->m_shape.equalsIgnoreCase("cap"))
shape = SHAPE_CAP;
else if (brick->m_shape.equalsIgnoreCase("stair"))
shape = SHAPE_STAIR;
else if (brick->m_shape.equalsIgnoreCase("cube"))
shape = SHAPE_CUBE;
else shape = SHAPE_DEFN;
// minor code 0 sets shape and transparency of brick
if (brick->m_minorCode == 0)
{
desc->m_shape = shape;
switch (desc->m_shape)
{
case SHAPE_CUBE:
desc->m_trans[BRICK_FACE_XMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_XMAX] = brick->m_transparent;
desc->m_trans[BRICK_FACE_YMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_YMAX] = brick->m_transparent;
desc->m_trans[BRICK_FACE_ZMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_ZMAX] = brick->m_transparent;
break;
case SHAPE_SLAB:
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_YMAX] = brick->m_transparent;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
break;
case SHAPE_CAP:
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_YMAX] = brick->m_transparent;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
break;
case SHAPE_STAIR:
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = brick->m_transparent;
desc->m_trans[BRICK_FACE_YMAX] = true;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
break;
case SHAPE_COLUMN:
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = true;
desc->m_trans[BRICK_FACE_YMAX] = true;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
break;
case SHAPE_DEFN:
desc->m_trans[BRICK_FACE_XMIN] = true;
desc->m_trans[BRICK_FACE_XMAX] = true;
desc->m_trans[BRICK_FACE_YMIN] = true;
desc->m_trans[BRICK_FACE_YMAX] = true;
desc->m_trans[BRICK_FACE_ZMIN] = true;
desc->m_trans[BRICK_FACE_ZMAX] = true;
break;
}
// set summary flags
desc->m_hasTransparent = false;
desc->m_hasOpaque = false;
for (int j = 0; j < 6; j++)
{
if (desc->m_trans[j])
desc->m_hasTransparent = true;
else desc->m_hasOpaque = true;
}
}
// find all the textures specified
if (!brick->m_xminTexture.isEmpty())
subDefn->m_xmin = findTexture(brick->m_xminTexture);
if (!brick->m_xmaxTexture.isEmpty())
subDefn->m_xmax = findTexture(brick->m_xmaxTexture);
if (!brick->m_yminTexture.isEmpty())
subDefn->m_ymin = findTexture(brick->m_yminTexture);
if (!brick->m_ymaxTexture.isEmpty())
subDefn->m_ymax = findTexture(brick->m_ymaxTexture);
if (!brick->m_zminTexture.isEmpty())
subDefn->m_zmin = findTexture(brick->m_zminTexture);
if (!brick->m_zmaxTexture.isEmpty())
subDefn->m_zmax = findTexture(brick->m_zmaxTexture);
if (brick->m_dir < 0 || brick->m_dir >= DIRECTION_COUNT)
throw new mgException("Invalid direction on brick defn code %02x%02x",
brick->m_majorCode, brick->m_minorCode);
if (shape == SHAPE_DEFN)
subDefn->m_shapeDefn = readShape(brick->m_shape);
subDefn->m_dir = brick->m_dir;
subDefn->m_light = brick->m_light;
if (brick->m_light)
mgDebug("light on brick code %02x%02x", brick->m_majorCode, brick->m_minorCode);
}
// combine minor and major definitions, check for missing info
checkBrickSet();
}
void load3ds(Lib3dsFile *f)
{
int i,j,meshV,meshT,meshNum;
Lib3dsMesh *m;
Lib3dsMaterial *mat;
//First thing need to count all the vertices and triangles;
nVertices=0;
nTriangles=0;
nSubmeshes=0;
printf("Loading 3ds File\n");
extractMaterialData(f);
for (m=f->meshes; m; m=m->next)
{
nVertices+=m->points;
nTriangles+=m->faces;
for(i=1;i<m->faces;i++)
if(strcmp(m->faceL[i-1].material,m->faceL[i].material)!=0)
nSubmeshes++;
nSubmeshes++;
}
printf("Vertices: %d Triangles: %d Submeshes: %d\n",nVertices,nTriangles,nSubmeshes);
dVertices=new ModelVertex[nVertices];
dTriangles=new uint16[nTriangles*3];
dSubmeshes=new ModelGeoset[nSubmeshes];
nTextureUnits=nSubmeshes;
dTextureUnits=new ModelTexUnit[nTextureUnits];
//Load initial vertex & triangle data
meshV=0;
meshT=0;
meshNum=0;
Matrix meshMat;
for (m=f->meshes; m; m=m->next)
{
printf("Processing Mesh %d\n",meshNum);
//This mesh must have something in it
dSubmeshes[meshNum].id=0;
dSubmeshes[meshNum].vstart=meshV;
dSubmeshes[meshNum].vcount=m->points;
dSubmeshes[meshNum].istart=meshT*3;
dSubmeshes[meshNum].icount=m->faces*3;
dSubmeshes[meshNum].d2=0;
dSubmeshes[meshNum].d3=1;
dSubmeshes[meshNum].d4=0;
dSubmeshes[meshNum].d5=1;
dSubmeshes[meshNum].d6=0;
dSubmeshes[meshNum].v.x=0.001168764;
dSubmeshes[meshNum].v.y=5.960465E-9;
dSubmeshes[meshNum].v.z=0.6214849;
//For now we are going to fake the texture unit data
int matNum=materialNumber(m->faceL[0].material,f);
dTextureUnits[meshNum].flags=0;
dTextureUnits[meshNum].order=0;
dTextureUnits[meshNum].op=meshNum;
dTextureUnits[meshNum].op2=meshNum;
dTextureUnits[meshNum].colorIndex=matNum;
dTextureUnits[meshNum].flagsIndex=matNum;
dTextureUnits[meshNum].texunit=0;
dTextureUnits[meshNum].textureid=findTexture(m->faceL[0].material,f);
dTextureUnits[meshNum].texunit2=0;
dTextureUnits[meshNum].transid=matNum;
dTextureUnits[meshNum].texanimid=0;
dTextureUnits[meshNum].d4=1;
meshNum++;
for(i=0;i<m->points;i++)
{
dVertices[i+meshV].pos=Vec3D(m->pointL[i].pos[0],m->pointL[i].pos[1],m->pointL[i].pos[2])*0.01*.33*Scale;
dVertices[i+meshV].texcoords=Vec2D(m->texelL[i][0],m->texelL[i][1]);
dVertices[i+meshV].texcoords[1]=1-dVertices[i+meshV].texcoords[1];
for(j=0;j<4;j++)
{
dVertices[i+meshV].bones[j]=0;
dVertices[i+meshV].weights[j]=0;
}
dVertices[i+meshV].weights[0]=255;
dVertices[i+meshV].unk1=0;
dVertices[i+meshV].unk2=0;
//Calculate Normal
Vec3D Normal;
Normal=Vec3D(0,0,0);
for(j=0;j<m->faces;j++)
{
if((m->faceL[j].points[0]==i)||(m->faceL[j].points[2]==i)||(m->faceL[j].points[2]==i))
Normal+=Vec3D(m->faceL[j].normal[0],m->faceL[j].normal[1],m->faceL[j].normal[2]);
}
Normal.normalize();
dVertices[i+meshV].normal=Normal;
}
for(i=0;i<m->faces;i++)
{
if(i!=0)
{
if(strcmp(m->faceL[i-1].material,m->faceL[i].material)!=0)
{
//This mesh must have something in it
dSubmeshes[meshNum].id=0;
dSubmeshes[meshNum].vstart=meshV;
dSubmeshes[meshNum].vcount=m->points;
dSubmeshes[meshNum].istart=meshT*3+i*3;
//Change count numbers
dSubmeshes[meshNum-1].icount-=m->faces*3-i*3;
dSubmeshes[meshNum].icount=m->faces*3-i*3;
dSubmeshes[meshNum].d2=0;
dSubmeshes[meshNum].d3=1;
dSubmeshes[meshNum].d4=0;
dSubmeshes[meshNum].d5=1;
dSubmeshes[meshNum].d6=0;
dSubmeshes[meshNum].v.x=0.001168764;
dSubmeshes[meshNum].v.y=5.960465E-9;
dSubmeshes[meshNum].v.z=0.6214849;
//For now we are going to fake the texture unit data
dTextureUnits[meshNum].flags=0;
dTextureUnits[meshNum].colorIndex=0;
dTextureUnits[meshNum].order=0;
dTextureUnits[meshNum].op=meshNum;
dTextureUnits[meshNum].op2=meshNum;
dTextureUnits[meshNum].colorIndex=0;
dTextureUnits[meshNum].flagsIndex=0;
dTextureUnits[meshNum].texunit=0;
dTextureUnits[meshNum].textureid=findTexture(m->faceL[i].material,f);
dTextureUnits[meshNum].texunit2=0;
dTextureUnits[meshNum].transid=0;
dTextureUnits[meshNum].texanimid=0;
dTextureUnits[meshNum].d4=1;
meshNum++;
}
}
dTriangles[(i+meshT)*3]=(uint16)m->faceL[i].points[0]+meshV;
dTriangles[(i+meshT)*3+1]=(uint16)m->faceL[i].points[1]+meshV;
dTriangles[(i+meshT)*3+2]=(uint16)m->faceL[i].points[2]+meshV;
}
meshV+=m->points;
meshT+=m->faces;
}
}
//after each object is converter, including collision object, create a graphics object (and bind them)
virtual void createGraphicsObject(_bObj* tmpObject, class btCollisionObject* bulletObject)
{
btRigidBody* body = btRigidBody::upcast(bulletObject);
btRenderMesh* mesh = 0;
if (tmpObject->data.mesh && tmpObject->data.mesh->vert_count && tmpObject->data.mesh->face_count)
{
if (tmpObject->data.mesh->vert_count> 16300)
{
printf("tmpObject->data.mesh->vert_count = %d\n",tmpObject->data.mesh->vert_count);
}
mesh = new btRenderMesh();
mesh->m_bulletObject = bulletObject;
btAlignedObjectArray<btVector3> originalVertices;
originalVertices.resize(tmpObject->data.mesh->vert_count);
for (int v=0;v<tmpObject->data.mesh->vert_count;v++)
{
float* vt3 = tmpObject->data.mesh->vert[v].xyz;
originalVertices[v].setValue( IRR_X_M*vt3[IRR_X],IRR_Y_M*vt3[IRR_Y],IRR_Z_M*vt3[IRR_Z]);
}
int numVertices = 0;
int numTriangles=0;
int currentIndex=0;
btTexVert* texVert = 0;
for (int t=0;t<tmpObject->data.mesh->face_count;t++)
{
int originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_0_X];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_X][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_X][1];
numVertices++;
currentIndex++;
originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_0_Y];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_Y][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_Y][1];
numVertices++;
currentIndex++;
originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_0_Z];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_Z][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_0_Z][1];
numVertices++;
currentIndex++;
numTriangles++;
if (tmpObject->data.mesh->face[t].v[3])
{
originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_1_X];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_X][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_X][1];
numVertices++;
currentIndex++;
originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_1_Y];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_Y][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_Y][1];
numVertices++;
currentIndex++;
originalIndex = tmpObject->data.mesh->face[t].v[IRR_TRI_1_Z];
mesh->m_indices.push_back(currentIndex);
texVert = &mesh->m_vertices.expand();
texVert->m_localxyz = originalVertices[originalIndex];
texVert->m_uv1[0] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_Z][0];
texVert->m_uv1[1] = tmpObject->data.mesh->face[t].uv[IRR_TRI_1_Z][1];
numVertices++;
numTriangles++;
currentIndex++;
}
}
if (numTriangles>0)
{
m_renderMeshes.push_back(mesh);
printf("numTris = %d\n",numTriangles);
//scene::ISceneNode* node = createMeshNode(mesh->m_vertices,numVertices,indices,numIndices,numTriangles,bulletObject,tmpObject);
//if (newMotionState && node)
// newMotionState->addIrrlichtNode(node);
}
}
if (tmpObject->data.mesh->face[0].m_image)
{
const char* fileName = tmpObject->data.mesh->face[0].m_image->m_imagePathName;
BasicTexture* texture0 = findTexture(fileName);
if (!texture0)
{
void* jpgData = tmpObject->data.mesh->face[0].m_image->m_packedImagePtr;
int jpgSize = tmpObject->data.mesh->face[0].m_image->m_sizePackedImage;
if (jpgSize)
{
texture0 = new BasicTexture((unsigned char*)jpgData,jpgSize);
printf("texture filename=%s\n",fileName);
texture0->loadTextureMemory(fileName);
m_textures.insert(fileName,texture0);
}
}
if (texture0 && mesh)
{
mesh->m_texture = texture0;
}
}
}
