void GLRenderer::render(const Camera view) {
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
Matrix<4, float> p_matrix = view.getProjectionMatrix();
Matrix<4, float> v_matrix = view.getViewMatrix();
while (!m_jobQueue.empty()) {
RenderObject job(m_jobQueue.front());
int modelName(job.getModelID());
string shaderName(job.getShaderName());
enableShaderProgram(shaderName);
string textureName(job.getTextureName());
if (textureName.length() > 0) {
enableTexture(textureName);
}
Matrix<4, float> m_matrix = job.getModelMatrix();
setUniform<Matrix<4, float>>(shaderName, "m_matrix", m_matrix);
setUniform<Matrix<4, float>>(shaderName, "v_matrix", v_matrix);
setUniform<Matrix<4, float>>(shaderName, "p_matrix", p_matrix);
setUniform<Vector<3, float>>(shaderName, "ambientLightColour", m_ambientLightSource.getColour());
setUniform<Vector<3, float>>(shaderName, "directionalLightColour", m_directionalLightSource.getColour());
setUniform<Vector<3, float>>(shaderName, "directionalLightDirection", m_directionalLightSource.getDirection());
if (m_staticMeshes[modelName] == nullptr) {
throw std::out_of_range("Error: Cannot draw the model with that handle as it does not exist.");
} else {
m_staticMeshes[modelName]->draw();
}
m_jobQueue.pop();
}
}
/**
* Sets a letter for the header texture
*/
void LetterCube::setLetter(char letter){
this->letter = letter;
std::string textureName("");
textureName = this->letter;
this->setTopTexture(textureName);
std::string standardTexture("tile");
this->setBottomTexture(standardTexture);
this->setFrontTexture(standardTexture);
this->setBackTexture(standardTexture);
this->setLeftTexture(standardTexture);
this->setRightTexture(standardTexture);
}
static boost::shared_ptr<Font> CreateFont(const char* const filename)
{
boost::shared_ptr<Font> font(new Font());
std::vector<char> textureName(strlen(filename) + sizeof(".dds"));
sprintf(textureName.data(), "%s.dds", filename);
font->texture.Load(textureName.data(), GL_ALPHA, GL_UNSIGNED_BYTE, GL_ALPHA);
std::vector<char> metadataFilename(strlen(filename) + sizeof(".dat"));
sprintf(metadataFilename.data(), "%s.dat", filename);
FILE* file(fopen(metadataFilename.data(), "rb"));
size_t glyphCount;
fread(&glyphCount, sizeof(glyphCount), 1, file);
font->glyphs.resize(glyphCount);
fread(&font->spaceAdvance, sizeof(font->spaceAdvance), 1, file);
for (size_t i = 0; i < glyphCount; ++i)
{
GlyphMetaData metadata;
#define LOAD_GLYPH_DATA(file, member) fread(&member, sizeof(member), 1, file);
LOAD_GLYPH_DATA(file, metadata.code);
LOAD_GLYPH_DATA(file, metadata.bearing.x);
LOAD_GLYPH_DATA(file, metadata.bearing.y);
LOAD_GLYPH_DATA(file, metadata.size.y);
LOAD_GLYPH_DATA(file, metadata.size.y);
LOAD_GLYPH_DATA(file, metadata.penAdvance);
LOAD_GLYPH_DATA(file, metadata.textureLeftEdge);
LOAD_GLYPH_DATA(file, metadata.textureSize.x);
LOAD_GLYPH_DATA(file, metadata.textureSize.y);
font->glyphs[i].bearing = metadata.bearing;
font->glyphs[i].penAdvance = metadata.penAdvance;
font->glyphs[i].size = metadata.size;
font->glyphs[i].textureLeftEdge = metadata.textureLeftEdge;
font->glyphs[i].textureSize = metadata.textureSize;
font->glyphMap[metadata.code] = &font->glyphs[i];
}
fclose(file);
return font;
}
void MainWindow::Export()
{
stringstream defaultlocation;
QString defaultname = QString(lastLSTFile.c_str()).split(".").first();
defaultlocation << "./ExportedModels/" <<defaultname.toStdString();
QString path = QFileDialog::getSaveFileName(
this,
"Enter A model Name. A directory is created with this name and the models and textures exported into it",
defaultlocation.str().c_str(),
"");
path = path.split(".").first();
QString ModelName, modelDirectory;
ModelName = path.split("/").last();
modelDirectory = path;
modelDirectory.chop(modelDirectory.length()-modelDirectory.lastIndexOf("/")-1);
QDir().mkdir(QString("ExportedModels/") + ModelName);
QDir().mkdir(QString("ExportedModels/") + ModelName + "/textures");
// QDir(QString("ExportedModels")).mkdir(name);
// copy bark
QString textureName(displayWidget->currentBarkFilePath.c_str()) ;
textureName = textureName.split("/").last();
QFile().copy(QString(displayWidget->currentBarkFilePath.c_str()), path + "/textures/" + textureName);
// export the mesh
if(displaySubdivisionSurface->isChecked() == false)
displayWidget->exportCylinderModelToObj((path + "/"+ModelName +"_trunk.obj").toStdString());
else
displayWidget->exportMeshToObj((path + "/"+ ModelName +"_trunk.obj").toStdString());
// export the foliage
foliageParameters->exportFoliage(modelDirectory, ModelName);
}
bool ModelMd2::load(const char* filename, TextureDirectory& textureDirectory, const bool justData)
{
std::ifstream file(filename, std::ios::in | std::ios::binary);
if (file.fail())
{
return false;
}
int fileSize;
file.seekg(0, std::ios::end);
fileSize = file.tellg();
file.seekg(0, std::ios::beg);
char* buffer = new char[fileSize];
file.read((char*) buffer, fileSize);
file.close();
// header
Header* header = reinterpret_cast<Header*>(buffer);
if ((header->magic != MD2_MAGIC_NUM) && (header->version != 8))
{
file.close();
return false;
}
m_numTexCoords = header->numTexCoords;
m_numVertices = header->numVertices;
m_numTriangles = header->numTriangles;
int numFrames = header->numFrames;
// texcoords
TexcoordMd2* tmptex = new TexcoordMd2[m_numTexCoords];
memcpy(tmptex, &buffer[header->offsetTexCoords], m_numTexCoords * sizeof(TexcoordMd2));
m_pTexcoords = new texCoord[m_numTexCoords];
for (int i = 0; i < m_numTexCoords; i++)
{
m_pTexcoords[i].u = (float) tmptex[i].s / header->skinWidth;
m_pTexcoords[i].v = -(float) tmptex[i].t / header->skinHeight;
}
delete[] tmptex;
m_pTexcoordArray = new texCoord[m_numTriangles * 3]; // one vertex can have more texture coordinates (eg. a corner of a cube)
// triangles
m_pTriangles = new TriangleMd2[m_numTriangles];
memcpy(m_pTriangles, &buffer[header->offsetTriangles], m_numTriangles * sizeof(TriangleMd2));
// vertices
m_pVertices = new vec3[numFrames * m_numVertices];
m_pVertexArray = new vec3[m_numTriangles * 3];
// normal vectors
m_pNormals = new vec3[numFrames * m_numVertices];
m_pNormalArray = new vec3[m_numTriangles * 3];
// tangent vectors
m_pTangents = new vec3[numFrames * m_numVertices];
m_pTangentArray = new vec3[m_numTriangles * 3];
// precalculated normal vectors
float anorms[162][3] =
{
#include "anorms.h"
};
FrameMd2* frame;
std::string lastname;
std::string filteredLastname;
// animációk, vertexek kiolvasása, beállítása
for (int i = 0; i < numFrames; i++)
{
frame = (FrameMd2*) &buffer[ header->offsetFrames + i * header->frameSize ];
// az azonos nevű frameket egy animációba pakoljuk (pl. stand_1, stand_2 ...)
if (lastname == "" || strncmp(lastname.c_str(), frame->name, lastname.size()) > 0)
{
lastname = frame->name;
if (lastname[lastname.size() - 2] == '0') // eg. stand01
{
lastname.resize(lastname.size() - 2);
}
else
{
lastname.resize(lastname.size() - 1);
}
filteredLastname = lastname;
filteredLastname.resize( std::remove_if(filteredLastname.begin(), filteredLastname.end(), filter) - filteredLastname.begin() );
m_numAnims++;
m_animations[filteredLastname].start = i;
m_animations[filteredLastname].end = -1;
}
m_animations[filteredLastname].end++;
for (int j = 0; j < m_numVertices; j++)
{
m_pVertices[ i * m_numVertices + j ].x = (frame->verts[j].v[0] * frame->scale[0]) + frame->translate[0];
m_pVertices[ i * m_numVertices + j ].y = (frame->verts[j].v[1] * frame->scale[1]) + frame->translate[1];
m_pVertices[ i * m_numVertices + j ].z = (frame->verts[j].v[2] * frame->scale[2]) + frame->translate[2];
m_pVertices[ i * m_numVertices + j ] = transformVector(m_pVertices[ i * m_numVertices + j ], vec3(0.0f), vec3(90, 90, 0));
const float* normals = anorms[frame->verts[j].normalIndex];
m_pNormals[ i * m_numVertices + j ] = vec3(normals[0], normals[1], normals[2]);
}
// calculate tangent vectors
vec3 tangent, bitangent;
for (int j = 0; j < m_numTriangles; j++)
{
calculateTangent(m_pVertices[ i * m_numVertices + m_pTriangles[j].vertIdx[2] ], m_pVertices[ i * m_numVertices + m_pTriangles[j].vertIdx[1] ], m_pVertices[ i * m_numVertices + m_pTriangles[j].vertIdx[0] ],
m_pTexcoords[ m_pTriangles[j].texIdx[2] ], m_pTexcoords[ m_pTriangles[j].texIdx[1] ], m_pTexcoords[ m_pTriangles[j].texIdx[0] ],
tangent, bitangent);
m_pTangents[ i * m_numVertices + m_pTriangles[j].vertIdx[0] ] = m_pTangents[ i * m_numVertices + m_pTriangles[j].vertIdx[1] ] = m_pTangents[ i * m_numVertices + m_pTriangles[j].vertIdx[2] ] = tangent;
}
}
int v_i = 0;
for (int j = 0; j < m_numTriangles; j++)
{
m_pNormalArray[v_i] = m_pNormals[ m_pTriangles[j].vertIdx[2] ];
m_pNormalArray[v_i + 1] = m_pNormals[ m_pTriangles[j].vertIdx[1] ];
m_pNormalArray[v_i + 2] = m_pNormals[ m_pTriangles[j].vertIdx[0] ];
m_pTexcoordArray[v_i] = m_pTexcoords[ m_pTriangles[j].texIdx[2] ];
m_pTexcoordArray[v_i + 1] = m_pTexcoords[ m_pTriangles[j].texIdx[1] ];
m_pTexcoordArray[v_i + 2] = m_pTexcoords[ m_pTriangles[j].texIdx[0] ];
v_i += 3;
}
// load textures
if (!justData)
{
// the name of the texture is usually not stored n the file
char textureNameTmp[64];
memcpy(textureNameTmp, &buffer[header->offsetSkins], 64 * sizeof(char));
std::string locationtemp = utils::file::getDir(std::string(filename));
std::string textureName(textureNameTmp);
utils::toLowerCase(textureName);
std::string textemp = locationtemp + textureName;
if (textemp.length() > locationtemp.length())
{
// texture map
loadTexture((char*) textemp.c_str(), m_decalMap, textureDirectory);
// normalheight map
std::string nhtemp = locationtemp + utils::file::getFileName(textemp) + "_nh.png";
if (!loadTexture((char*) nhtemp.c_str(), m_normalHeightMap, textureDirectory))
{
// no nh texture -> use the blank texture
m_normalHeightMap = 0;
}
}
}
delete[] buffer;
return true;
}
CRosRttTexture::CRosRttTexture(unsigned width, unsigned height, Ogre::Camera * camera, bool isDepth /*= false*/ )
: m_materialName("MyRttMaterial")
, width_(width)
, height_(height)
, frame_("/map")
, m_bIsDepth( isDepth )
{
assert( height > 0 && width > 0 );
{
// Set encoding
current_image_.encoding = ROS_IMAGE_FORMAT;
// Set image size
current_image_.width = width;
current_image_.height = height;
// Set image row length in bytes (row length * 3 bytes for a color)
current_image_.step = width * BPP;
#if OGRE_ENDIAN == ENDIAN_BIG
current_image_.is_bigendian = true;
#else
current_image_.is_bigendian = false;
#endif
// Resize data
current_image_.data.resize( width_ * height_ * BPP);
}
Ogre::TextureManager & lTextureManager( Ogre::TextureManager::getSingleton() );
Ogre::String textureName("RVIZ_CamCast_Texture");
bool lGammaCorrection( false );
unsigned int lAntiAliasing( 0 );
unsigned int lNumMipmaps( 0 );
if( isDepth )
{
texture_ = lTextureManager.createManual(textureName, Ogre::ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME,
Ogre::TEX_TYPE_2D, width, height, lNumMipmaps,
OGRE_DEPTH_TEXTURE_FORMAT, Ogre::TU_RENDERTARGET, 0, lGammaCorrection, lAntiAliasing);
}
else
{
texture_ = lTextureManager.createManual(textureName, Ogre::ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME,
Ogre::TEX_TYPE_2D, width, height, lNumMipmaps,
OGRE_TEXTURE_FORMAT, Ogre::TU_RENDERTARGET, 0, lGammaCorrection, lAntiAliasing);
}
// Create render target
Ogre::RenderTexture* lRenderTarget = NULL;
Ogre::HardwarePixelBufferSharedPtr lRttBuffer = texture_->getBuffer();
lRenderTarget = lRttBuffer->getRenderTarget();
lRenderTarget->setAutoUpdated(true);
// Create and attach viewport
Ogre::Viewport* lRttViewport1 = lRenderTarget->addViewport(camera, 50, 0.00f, 0.00f, 1.0f, 1.0f);
lRttViewport1->setAutoUpdated(true);
Ogre::ColourValue lBgColor1(0.0,0.0,0.0,1.0);
lRttViewport1->setBackgroundColour(lBgColor1);
// create a material using this texture.
//Get a reference on the material manager, which is a singleton.
Ogre::MaterialManager& lMaterialManager = Ogre::MaterialManager::getSingleton();
Ogre::MaterialPtr lMaterial = lMaterialManager.create(m_materialName, Ogre::ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME);
Ogre::Technique * lTechnique = lMaterial->getTechnique(0);
Ogre::Pass* lPass = lTechnique->getPass(0);
if( isDepth )
{
lPass->setLightingEnabled(false);
}
Ogre::TextureUnitState* lTextureUnit = lPass->createTextureUnitState();
lTextureUnit->setTextureName(textureName);
lTextureUnit->setNumMipmaps(0);
lTextureUnit->setTextureFiltering(Ogre::TFO_BILINEAR);
update();
}
//~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
//
MLRTexture*
MLRTexturePool::Add(const char *tn, int instance)
{
MString textureName(tn);
int i, j, textureNameHashValue = textureName.GetHashValue();
for(i=0;i<lastHandle;i++)
{
int first = i<<instanceDepth;
bool yo = false;
for(j=first;j<first+instanceMax;j++)
{
if( textureArray[j] &&
textureArray[j]->textureNameHashValue == textureNameHashValue )
{
yo = 1;
}
}
if(yo == false)
{
continue;
}
for(j=first;j<first+instanceMax;j++)
{
if( textureArray[j] &&
textureArray[j]->instance == instance)
{
return textureArray[j];
}
}
for(j=first;j<first+instanceMax;j++)
{
if(!textureArray[j])
{
gos_PushCurrentHeap(Heap);
textureArray[j] =
new MLRTexture(
this,
textureName,
instance,
j+1
);
Register_Object(textureArray[j]);
gos_PopCurrentHeap();
storedTextures++;
unLoadedImages = true;
return textureArray[j];
}
}
STOP(("Asked for too much image instances !"));
}
int newHandle;
gos_PushCurrentHeap(Heap);
if(firstFreeHandle < lastFreeHandle)
{
newHandle = (freeHandle[firstFreeHandle&(handleMax-1)])<<instanceDepth;
textureArray[newHandle] =
new MLRTexture(
this,
textureName,
instance,
newHandle+1
);
storedTextures++;
firstFreeHandle++;
}
else
{
Verify( ((lastHandle<<instanceDepth)+1) < MLRState::TextureMask );
newHandle = lastHandle<<instanceDepth;
textureArray[newHandle] =
new MLRTexture(
this,
textureName,
instance,
newHandle+1
);
storedTextures++;
lastHandle++;
}
Register_Object(textureArray[newHandle]);
gos_PopCurrentHeap();
unLoadedImages = true;
return textureArray[newHandle];
}
Resource* WoWImporter::Import( const String& pFilename, const String& /*pParams*/ )
{
WoW::ADTFile adtFile;
WoW::ADTFileReader adtFileReader( adtFile );
adtFileReader.Read( pFilename );
WorldTile* worldTile = GD_NEW(WorldTile, this, "WoW::WorldTile");
worldTile->GetTerrainChunks().resize( 256 );
worldTile->GetVertexList().Allocate( 16*16 * (9*9 + 8*8), (VertexFormat::Component) (VertexFormat::Position3 | VertexFormat::TexCoord2 | VertexFormat::TexCoord2_2 | VertexFormat::Normal3) );
Vector3f* ptrPosition = worldTile->GetVertexList().GetPositions();
Vector3f* ptrNormal = worldTile->GetVertexList().GetNormals();
Vector2f* ptrTexCoord = worldTile->GetVertexList().GetTextureCoords();
Vector2f* ptrTexCoordAlpha = worldTile->GetVertexList().GetTextureCoords_2();
UInt32 verticesOffset = 0;
Vector3f firstChunkPos(0,0,0);//-1.0f*adtFile.mMapChunks[0].mHeader.mPosition.y, adtFile.mMapChunks[0].mHeader.mPosition.z, -1.0f*adtFile.mMapChunks[0].mHeader.mPosition.x );
for( UInt32 iChunk = 0; iChunk < 256; iChunk++ )
{
WoW::ADTFile::MapChunk* mapChunk = &adtFile.mMapChunks[iChunk];
// Append vertex data to vertex buffer
Float* ptrDataHeight = mapChunk->mHeightMap;
Char* ptrDataNormals = mapChunk->mHeightMapNormals[0];
Vector3f chunkPos( -1.0f*mapChunk->mHeader.mPosition.y, mapChunk->mHeader.mPosition.z, -1.0f*mapChunk->mHeader.mPosition.x );
Float posX = chunkPos.x - firstChunkPos.x;
Float posZ = chunkPos.z - firstChunkPos.z;
for( UInt32 z = 0; z < 9; z++ )
{
// Normal row
posX = chunkPos.x - firstChunkPos.x;
for( UInt32 x = 0; x < 9; x++ )
{
ptrPosition->x = posX;
ptrPosition->y = chunkPos.y + (*ptrDataHeight) - firstChunkPos.y;
ptrPosition->z = posZ;
(*ptrPosition) *= 0.1f;
ptrNormal->x = ((Float)ptrDataNormals[0]) / 127.0f;
ptrNormal->y = ((Float)ptrDataNormals[1]) / 127.0f;
ptrNormal->z = ((Float)ptrDataNormals[2]) / 127.0f;
ptrTexCoord->x = x / 8.0f;
ptrTexCoord->y = z / 8.0f;
ptrTexCoordAlpha->x = (x+0.125f) / 8.25f;
ptrTexCoordAlpha->y = (z+0.125f) / 8.25f;
ptrDataHeight++;
ptrDataNormals += 3;
ptrPosition++;
ptrNormal++;
ptrTexCoord++;
ptrTexCoordAlpha++;
posX += UNIT_SIZE;
}
posZ += 0.5f * UNIT_SIZE;
if( z == 8 )
break;
// Detailed row
posX = chunkPos.x + 0.5f * UNIT_SIZE - firstChunkPos.x;
for( UInt32 x = 0; x < 8; x++ )
{
ptrPosition->x = posX;
ptrPosition->y = chunkPos.y + (*ptrDataHeight) - firstChunkPos.y;
ptrPosition->z = posZ;
(*ptrPosition) *= 0.1f;
ptrNormal->x = ((Float)ptrDataNormals[0]) / 127.0f;
ptrNormal->y = ((Float)ptrDataNormals[1]) / 127.0f;
ptrNormal->z = ((Float)ptrDataNormals[2]) / 127.0f;
ptrTexCoord->x = (x+0.5f) / 8.0f;
ptrTexCoord->y = (z+0.5f) / 8.0f;
ptrTexCoordAlpha->x = (x+0.5f+0.125f) / 8.25f;
ptrTexCoordAlpha->y = (z+0.5f+0.125f) / 8.25f;
ptrDataHeight++;
ptrDataNormals += 3;
ptrPosition++;
ptrNormal++;
ptrTexCoord++;
ptrTexCoordAlpha++;
posX += UNIT_SIZE;
}
posZ += 0.5f * UNIT_SIZE;
}
WorldTile::TerrainChunk* newChunk = GD_NEW(WorldTile::TerrainChunk, this, "WoW::WorldTile::TerrainChunk");
for( UInt32 iLayer = 0; iLayer < mapChunk->mTextureLayers.size(); iLayer++ )
{
String textureName("Data/");
textureName += adtFile.mTextureNames[mapChunk->mTextureLayers[iLayer].mTextureID];
HTexture2D texture(textureName);
Texture2D* alpha = NULL;
if( iLayer != 0 )
{
alpha = Cast<Texture2D>(Texture2D::StaticClass()->AllocateNew( "AlphaMap" ));
alpha->Create( mapChunk->mAlphaMaps[iLayer-1], true );
alpha->Init();
alpha->SetWrapMode( Texture::Wrap_S, Texture::Wrap_Clamp );
alpha->SetWrapMode( Texture::Wrap_T, Texture::Wrap_Clamp );
alpha->SetMinFilter( Texture::MinFilter_Linear );
alpha->SetMagFilter( Texture::MagFilter_Linear );
}
newChunk->AddTextureLayer( texture, alpha );
}
UInt32 detailedStripSize = (16*18 + 7*2 + 8*2);
UInt32 normalStripSize = 158;
// Build index buffer
newChunk->GetHiResTriangles().Allocate( TriangleBatch::TriangleStrip, detailedStripSize );
newChunk->GetLowResTriangles().Allocate( TriangleBatch::TriangleStrip, normalStripSize );
UInt16* ptrHiIndices = newChunk->GetHiResTriangles().GetIndices();
UInt16* ptrLoIndices = newChunk->GetLowResTriangles().GetIndices();
for( int row = 0; row < 8; row++ )
{
UInt32 topRow = verticesOffset + row*(9+8);
UInt32 detailrow = verticesOffset + row*(9+8) + 9;
UInt32 nextRow = verticesOffset + (row+1)*(9+8);
if( row > 0 )
{
*ptrHiIndices++ = topRow + 0; // jump end
*ptrLoIndices++ = topRow + 0;
}
for( int col = 0; col < 8; col++ )
{
*ptrHiIndices++ = topRow + col;
*ptrHiIndices++ = detailrow + col;
*ptrLoIndices++ = topRow + col;
*ptrLoIndices++ = nextRow + col;
}
*ptrHiIndices++ = topRow + 8;
*ptrHiIndices++ = nextRow + 8;
*ptrHiIndices++ = nextRow + 8; // jump start
*ptrHiIndices++ = topRow + 0; // jump end
*ptrHiIndices++ = topRow + 0;
*ptrLoIndices++ = topRow + 8;
*ptrLoIndices++ = nextRow + 8;
for( int col = 0; col < 8; col++ )
{
*ptrHiIndices++ = nextRow + col;
*ptrHiIndices++ = detailrow + col;
}
if( row < 8 )
*ptrHiIndices++ = nextRow + 8;
if( row < 7 )
{
*ptrHiIndices++ = nextRow + 8; // jump start
*ptrLoIndices++ = nextRow + 8;
}
}
verticesOffset += 9*9 + 8*8;
worldTile->GetTerrainChunks()[iChunk] = newChunk;
}
return (Resource*)worldTile;
}
static void worldmap_draw (EntComponent comp, EntSpeech speech)
{
float
zNear = video_getZnear () - 0.001;
unsigned int
width, height;
int
i = 0,
frameMargin = 32,
sMargin = 8,
sWidth = 55,
sHeight = 34,
maxWidth,
maxHeight,
mapSize,
mapXMargin,
mapYMargin;
worldmapData
map;
const char
* type;
hexPos
position;
if (!Worldmap || !input_hasFocus (Worldmap))
return;
map = component_getData (entity_getAs (Worldmap, "worldmap"));
video_getDimensions (&width, &height);
glColor4ub (0xff, 0xff, 0xff, 0xff);
glBindTexture (GL_TEXTURE_2D, 0);
glBegin (GL_QUADS);
i = 0;
while (i <= map->worldSpan)
{
glVertex3f (
video_xMap (width - (frameMargin + sWidth)),
video_yMap (i * (sHeight + sMargin) + frameMargin),
zNear
);
glVertex3f (
video_xMap (width - (frameMargin + sWidth)),
video_yMap (i * (sHeight + sMargin) + sHeight + frameMargin),
zNear
);
glVertex3f (
video_xMap (width - frameMargin),
video_yMap (i * (sHeight + sMargin) + sHeight + frameMargin),
zNear
);
glVertex3f (
video_xMap (width - frameMargin),
video_yMap (i * (sHeight + sMargin) + frameMargin),
zNear
);
i++;
}
glColor3ub (0xff, 0x00, 0x99);
if (map->spanTypeFocus == FOCUS_SPAN)
{
glVertex3f (video_xMap (width - (frameMargin - 8)), video_yMap ((map->worldSpan - map->spanFocus) * (sHeight + sMargin) + frameMargin + (sHeight / 2.0) + 8), zNear);
glVertex3f (video_xMap (width - (frameMargin - 8)), video_yMap ((map->worldSpan - map->spanFocus) * (sHeight + sMargin) + frameMargin + (sHeight / 2.0) - 8), zNear);
glVertex3f (video_xMap (width - (frameMargin + 8)), video_yMap ((map->worldSpan - map->spanFocus) * (sHeight + sMargin) + frameMargin + (sHeight / 2.0) - 8), zNear);
glVertex3f (video_xMap (width - (frameMargin + 8)), video_yMap ((map->worldSpan - map->spanFocus) * (sHeight + sMargin) + frameMargin + (sHeight / 2.0) + 8), zNear);
}
else
{
int
fh = fontLineHeight ();
glVertex3f (video_xMap (frameMargin - 8), video_yMap (frameMargin + (map->typeFocus + 1) * fh + ((fh - 16) / 2) + 8), zNear);
glVertex3f (video_xMap (frameMargin + 8), video_yMap (frameMargin + (map->typeFocus + 1) * fh + ((fh - 16) / 2) + 8), zNear);
glVertex3f (video_xMap (frameMargin + 8), video_yMap (frameMargin + (map->typeFocus + 1) * fh + ((fh - 16) / 2) - 8), zNear);
glVertex3f (video_xMap (frameMargin - 8), video_yMap (frameMargin + (map->typeFocus + 1) * fh + ((fh - 16) / 2) - 8), zNear);
}
glEnd ();
position = position_get (entity_getByName ("PLAYER"));
if (map->types != NULL)
{
i = 0;
fontPrintAlign (ALIGN_LEFT);
while ((type = *(const char **)dynarr_at (map->types, i++)))
{
if (i - 1 == map->typeFocus)
glColor4ub (0xff, 0xff, 0xff, 0xff);
else
glColor4ub (0xaf, 0xaf, 0xaf, 0xff);
fontPrint (type, frameMargin, frameMargin + fontLineHeight () * (i - 1));
}
}
if (map->spanTextures[map->spanFocus] == NULL)
{
printf ("generating map texture for span %d using pos %p\n", map->spanFocus, position);
if (map->types)
map->spanTextures[map->spanFocus] = mapGenerateMapTexture (position, map->spanFocus, 0, *(const char **)dynarr_at (map->types, map->typeFocus));
else
map->spanTextures[map->spanFocus] = mapGenerateMapTexture (position, map->spanFocus, 0, NULL);
}
glBindTexture (GL_TEXTURE_2D, textureName (map->spanTextures[map->spanFocus]));
glColor4ub (0xff, 0xff, 0xff, 0xff);
maxWidth = width - (frameMargin * 2 + sWidth + sMargin);
maxHeight = height - (frameMargin * 2);
mapSize = maxWidth < maxHeight ? maxWidth : maxHeight;
mapXMargin = (width - mapSize) / 2;
mapYMargin = (height - mapSize) / 2;
glBegin (GL_QUADS);
glTexCoord2f (0.00, 0.00);
glVertex3f (video_xMap (mapXMargin), video_yMap (mapYMargin), zNear);
glTexCoord2f (0.00, 1.00);
glVertex3f (video_xMap (mapXMargin), video_yMap (mapYMargin + mapSize), zNear);
glTexCoord2f (1.00, 1.00);
glVertex3f (video_xMap (mapXMargin + mapSize), video_yMap (mapYMargin + mapSize), zNear);
glTexCoord2f (1.00, 0.00);
glVertex3f (video_xMap (mapXMargin + mapSize), video_yMap (mapYMargin), zNear);
glEnd ();
glBindTexture (GL_TEXTURE_2D, 0);
}
bool CMayaAsciiWriter::Write()
{
OBJ_ASSERT(m_pMayaFile);
if(!m_pMayaFile)
return false;
std::string fileName(m_fileName.string()); // Extract native file path string
// Verify here that we have something to actually write
OBJ_ASSERT(m_pMayaFile->GetMeshVector().size() > 0);
// Write Maya Ascii file version 6.0
OBJ_ASSERT(CheckStr(fileName));
if(!CheckStr(fileName))
return false;
m_ofs.open(fileName.c_str());
MSG_INFO("Writing Maya Ascii file (.MA) : '" << fileName << "'.");
if( !m_ofs.is_open() )
{
MSG_ERROR("Couldn't write to Maya file '" << fileName << "'");
return false;
}
std::string fileNameOnly(fileName);
if(m_fileName.has_leaf())
{
fileNameOnly = m_fileName.leaf();
}
// Write the Maya file header
m_ofs << "//Maya ASCII 6.0 scene" << std::endl;
m_ofs << "//Name: " << fileNameOnly << std::endl;
// Windows System Time // TODO : abstract date&time to have it multiplatform
{
SYSTEMTIME st;
GetSystemTime(&st);
m_ofs << "//Last modified: " << st.wMonth << "/" << st.wDay << "/" << st.wYear << " " <<
st.wHour << ":" << st.wMinute << ":" << st.wSecond << std::endl;
}
// File information
m_ofs << "requires maya \"7.0\";" << std::endl;
m_ofs << "currentUnit -l centimeter -a degree -t film;" << std::endl;
m_ofs << "fileInfo \"application\" \"ZConverter v1.0\";" << std::endl;
m_ofs << "fileInfo \"product\" \"Maya Unlimited 7.0\";" << std::endl;
m_ofs << "fileInfo \"version\" \"7.0\";" << std::endl;
m_ofs << "fileInfo \"cutIdentifier\" \"200404092210-618567\";" << std::endl;
m_ofs << "fileInfo \"osv\" \"Microsoft Windows XP Professional Service Pack 2 (Build 2600)\\n\";" << std::endl;
/*
// Read the maya_viewport file and write it
{
std::ifstream ifs("maya_viewport.txt");
if( !ifs )
{
MSG_ERROR("Couldn't read the maya_viewport.txt file'");
return false;
}
const int maxline = 1000;
char line[maxline];
while(ifs)
{
ifs.getline( line, maxline ); // get the curent line pointer
m_ofs << line << std::endl;
}
}
*/
// Retreive the group vector
CMayaFile::MeshVector& meshes = m_pMayaFile->GetMeshVector();
CMayaFile::MeshVector::iterator meshIt;
CMayaFile::MeshVector::const_iterator meshEnd = meshes.end();
StringVector validNodeVector;
// for every groups
for(meshIt = meshes.begin(); meshIt != meshEnd; ++meshIt) // For each Maya mesh
{
std::string meshName(meshIt->GetMeshName());
// verify that it is a valid node
if(meshIt->GetPolyFaceVector().size() <= 0 )
continue;
validNodeVector.push_back(meshName);
// Create the transform node
{
m_ofs << "createNode transform -n \"" << meshName << "\";" << std::endl;
}
// Create the shape node
{
m_ofs << "createNode mesh -n \"" << meshName << "Shape\" -p \"" << meshName << "\";" << std::endl;
m_ofs << "\tsetAttr -k off \".v\";" << std::endl;
// what is that ?
//m_ofs << "\tsetAttr \".vir\" yes;" << std::endl;
//m_ofs << "\tsetAttr \".vif\" yes;" << std::endl;
}
// Texture coordinates
{
Vector3DVector& textureCoords = meshIt->GetTextureCoordVector();
Vector3DVector::iterator textureCoordIt;
Vector3DVector::const_iterator textureCoordEnd = textureCoords.end();
if(textureCoords.size() > 0)
{
uint lastFaceIndex = meshIt->GetPolyFaceVector().size() - 1;
// Connection on the shading groups : instObjectGroups
m_ofs << "\tsetAttr -s 2 \".iog[0].og\";" << std::endl; // I think the 2 is for the initialShadingGroup + assigned shadingGroup
m_ofs << "\tsetAttr \".iog[0].og[0].gcl\" -type \"componentList\" 0;" << std::endl;
m_ofs << "\tsetAttr \".iog[0].og[1].gcl\" -type \"componentList\" 1 \"f[0:" << lastFaceIndex << "]\";" << std::endl;
// Texture coordinates
m_ofs << "\tsetAttr \".uvst[0].uvsn\" -type \"string\" \"map1\";" << std::endl;
// for a cube : 30 : 60
m_ofs << "\tsetAttr -s " << textureCoords.size() << " \".uvst[0].uvsp[0:" << textureCoords.size()-1 << "]\" -type \"float2\" ";
int i = 0;
for(textureCoordIt = textureCoords.begin(); textureCoordIt != textureCoordEnd; ++textureCoordIt) // for each UV coord
{
m_ofs << (*textureCoordIt)[0] << " " << (*textureCoordIt)[1] << " ";
if(!(i++%6))
m_ofs << std::endl << "\t\t";
}
m_ofs << ";" << std::endl;
m_ofs << "\tsetAttr \".cuvs\" -type \"string\" \"map1\";" << std::endl;
m_ofs << "\tsetAttr \".dcc\" -type \"string\" \"Ambient+Diffuse\";" << std::endl;
}
}
//m_ofs.setf(std::ios::showpoint);
//m_ofs.precision(6);
// Vertex positions
{
Vector3DVector& vertices = meshIt->GetVertexPositionVector();
Vector3DVector::iterator vertexIt;
Vector3DVector::const_iterator vertexEnd = vertices.end();
OBJ_ASSERT(vertices.size() > 0);
if(vertices.size() > 0) // if vertex vector is not empty
{
m_ofs << "\tsetAttr -s " << vertices.size() << " \".vt[0:" << vertices.size()-1 << "]\" ";
int i = 0;
for(vertexIt = vertices.begin(); vertexIt != vertexEnd; ++vertexIt) // for each vertex position
{
m_ofs << (*vertexIt)[0] << " " << (*vertexIt)[1] << " " << (*vertexIt)[2] << " ";
if(!(i++%2))
m_ofs << std::endl << "\t\t";
}
m_ofs << ";" << std::endl;
}
}
// Edges
{
Vector3DVector& edgeVector = meshIt->GetEdgeVector();
Vector3DVector::iterator edgeIt;
Vector3DVector::const_iterator edgeEnd = edgeVector.end();
OBJ_ASSERT(edgeVector.size() > 0);
if(edgeVector.size() > 0) // if edge vector is not empty
{
m_ofs << "\tsetAttr -s " << edgeVector.size() << " \".ed[0:" << edgeVector.size()-1 << "]\" ";
int i = 0;
for(edgeIt = edgeVector.begin(); edgeIt != edgeEnd; ++edgeIt) // for each edge (2 index to vertex)
{
m_ofs << (*edgeIt)[0] << " " << (*edgeIt)[1] << " " << (*edgeIt)[2] << " ";
if(!(i++%6))
m_ofs << std::endl << "\t\t";
}
m_ofs << ";" << std::endl;
}
}
// Normals (4 per face - 1 per vertex per face)
{
Vector3DVector& normals = meshIt->GetNormalVector();
Vector3DVector::iterator normalIt;
Vector3DVector::const_iterator normalEnd = normals.end();
if(normals.size() > 0)
{
m_ofs << "\tsetAttr -s " << normals.size() << " \".n[0:" << normals.size()-1 << "]\" -type \"float3\" " << std::endl;
int i = 0;
for(normalIt = normals.begin(); normalIt != normalEnd; ++normalIt) // for each normal
{
m_ofs << (*normalIt)[0] << " " << (*normalIt)[1] << " " << (*normalIt)[2] << " ";
if(!(i++%6))
m_ofs << std::endl << "\t\t";
}
m_ofs << ";" << std::endl;
}
}
// Faces
{
CMayaFile::CMesh::PolyFaceVector& polyFaces = meshIt->GetPolyFaceVector();
CMayaFile::CMesh::PolyFaceVector::iterator polyFaceIt;
CMayaFile::CMesh::PolyFaceVector::const_iterator polyFaceEnd = polyFaces.end();
OBJ_ASSERT(polyFaces.size() > 0);
m_ofs << "\tsetAttr -s " << polyFaces.size() << " \".fc[0:" << polyFaces.size()-1 << "]\" -type \"polyFaces\" " << std::endl;
for(polyFaceIt = polyFaces.begin(); polyFaceIt != polyFaceEnd; ++polyFaceIt) // for each face
{
CMayaFile::CMesh::CPolyFace::CFace face = polyFaceIt->GetFace();
CMayaFile::CMesh::CPolyFace::CMu mu = polyFaceIt->GetMu();
uint edgeCount = face.EdgeCount();
uint uvCount = mu.UvCount();
// Face
std::vector<int>& edgeVector = face.GetEdgeVector();
std::vector<int>::iterator edgeIt;
std::vector<int>::const_iterator edgeEnd = edgeVector.end();
// Mu
std::vector<uint>& uvVector = mu.GetUvVector();
std::vector<uint>::iterator uvIt;
std::vector<uint>::const_iterator uvEnd = uvVector.end();
// if edge vector not empty
if(edgeVector.size() > 0)
{
m_ofs << "\t\tf " << edgeCount;
for(edgeIt = edgeVector.begin(); edgeIt != edgeEnd; ++edgeIt ) // for each indexed edge
{
m_ofs << " " << (*edgeIt);
}
if(polyFaceIt+1 == polyFaceEnd && uvVector.size() == 0) // last face and no "mu"
m_ofs << " ;" << std::endl;
else
m_ofs << std::endl;
}
// if uv vector not empty
if(uvVector.size() > 0)
{
m_ofs << "\t\tmu " << "0 " << uvCount;
for(uvIt = uvVector.begin(); uvIt != uvEnd; ++uvIt ) // for each indexed UV coord
{
m_ofs << " " << (*uvIt);
}
if(polyFaceIt+1 == polyFaceEnd) // last face and no "mu"
m_ofs << " ;" << std::endl;
else
m_ofs << std::endl;
}
}
}
}
// Add shading groups / material / texture here
CMtlFile* pMtlFile = m_pMayaFile->GetMaterialFile();
OBJ_ASSERT(pMtlFile);
if(!pMtlFile)
return true;
CMtlFile::MaterialMap& materials = pMtlFile->GetMaterialMap();
CMtlFile::MaterialMap::iterator materialIt;
CMtlFile::MaterialMap::const_iterator materialEnd = materials.end();
uint materialCount = materials.size();
uint textureCount = 0;
uint materialID = 0;
m_ofs << "createNode lightLinker -n \"lightLinker1\";" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount + 2 << " \".lnk\";" << std::endl; // number of shading group + initialShadingGroup + initialParticleSE
m_ofs << "createNode displayLayerManager -n \"layerManager\";" << std::endl;
m_ofs << "createNode displayLayer -n \"defaultLayer\";" << std::endl;
m_ofs << "createNode renderLayerManager -n \"renderLayerManager\";" << std::endl;
m_ofs << "createNode renderLayer -n \"defaultRenderLayer\";" << std::endl;
m_ofs << "createNode renderLayer -s -n \"globalRender\";" << std::endl;
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each material : Retreive materials
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
OBJ_ASSERT(materialIt->first == pMaterial->GetMaterialName());
//MayaStringCheck(materialName);
// TODO : look if we already created this material
std::stringstream materialIDSS;
materialIDSS << materialID;
// Create the shading group
m_ofs << "createNode shadingEngine -n \"" << shadingGroupName << "\";" << std::endl;
m_ofs << "\tsetAttr \".ihi\" 0;" << std::endl;
m_ofs << "\tsetAttr \".ro\" yes;" << std::endl;
// MaterialInfo, 1 per material (shading group)
materialIDSS.str("");
materialIDSS << (materialID+1); // starts at 1, the first one is reserved ?
m_ofs << "createNode materialInfo -n \"materialInfo" << materialIDSS.str() << "\";" << std::endl;
// what is that ? 2 groupID per mesh
materialIDSS.str("");
materialIDSS << (materialID*3+2); // starts at 2
m_ofs << "createNode groupId -n \"groupId" << materialIDSS.str() << "\";" << std::endl;
m_ofs << "\tsetAttr \".ihi\" 0;" << std::endl;
materialIDSS.str("");
materialIDSS << (materialID*3+3);
m_ofs << "createNode groupId -n \"groupId" << materialIDSS.str() << "\";" << std::endl;
m_ofs << "\tsetAttr \".ihi\" 0;" << std::endl;
int number = 1; // TODO : increment
std::string materialName(shadingGroupName + "1");
// TODO : support more type of material : phong, blinn, etc
// Create the material
m_ofs << "createNode phong -n \"" << materialName << "\";" << std::endl; // Phong by default
m_ofs << "\tsetAttr \".cp\" 2.059999942779541;" << std::endl; // what is this number ?
// Texture Map
if(pMaterial->HasTexMap())
{
// Create the texture file
std::string textureName(materialName + "F");
m_ofs << "createNode file -n \"" << textureName << "\";" << std::endl;
m_ofs << "\tsetAttr \".ftn\" -type \"string\" \"" << pMaterial->GetTexMap() << "\";" << std::endl;
// Create the place2dTexture placement
std::string place2dTextureName(materialName + "P2D");
m_ofs << "createNode place2dTexture -n \"" << place2dTextureName << "\";" << std::endl;
++textureCount;
}
++materialID;
}
m_ofs << "select -ne :time1;" << std::endl;
m_ofs << "\tsetAttr \".o\" 1;" << std::endl;
m_ofs << "select -ne :renderPartition;" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount + 2 << " \".st\";" << std::endl; // number of shading group + initialShadingGroup + initialParticleSE
m_ofs << "select -ne :renderGlobalsList1;" << std::endl;
m_ofs << "select -ne :defaultShaderList1;" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount + 2 << " \".s\";" << std::endl; // number of shading group + initialShadingGroup + initialParticleSE
m_ofs << "select -ne :postProcessList1;" << std::endl;
m_ofs << "\tsetAttr -s 2 \".p\";" << std::endl;
m_ofs << "select -ne :defaultRenderUtilityList1;" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount << " \".u\";" << std::endl; // not sure about that : groups
m_ofs << "select -ne :lightList1;" << std::endl;
m_ofs << "select -ne :defaultTextureList1;" << std::endl;
m_ofs << "\tsetAttr -s " << textureCount << " \".tx\";" << std::endl; // number of texture file
m_ofs << "select -ne :initialShadingGroup;" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount << " \".dsm\";" << std::endl;
m_ofs << "\tsetAttr \".ro\" yes;" << std::endl;
m_ofs << "\tsetAttr -s " << materialCount << " \".gn\";" << std::endl;
m_ofs << "select -ne :initialParticleSE;" << std::endl;
m_ofs << "\tsetAttr \".ro\" yes;" << std::endl;
m_ofs << "select -ne :hardwareRenderGlobals;" << std::endl;
m_ofs << "\taddAttr -ci true -sn \"ani\" -ln \"animation\" -bt \"ANIM\" -min 0 -max 1 -at \"bool\";" << std::endl;
m_ofs << "\tsetAttr \".fn\" -type \"string\" \"%s.%e\";" << std::endl;
m_ofs << "\tsetAttr \".ctrs\" 256;" << std::endl;
m_ofs << "\tsetAttr \".btrs\" 512;" << std::endl;
m_ofs << "\tsetAttr -k on \".ani\";" << std::endl;
m_ofs << "select -ne :defaultHardwareRenderGlobals;" << std::endl;
m_ofs << "\tsetAttr \".fn\" -type \"string\" \"im\";" << std::endl;
m_ofs << "\tsetAttr \".res\" -type \"string\" \"ntsc_4d 646 485 1.333\";" << std::endl;
// Useless commands :
//m_ofs << "select -ne :ikSystem;" << std::endl;
//m_ofs << "\tsetAttr -s 3 \".sol\";" << std::endl;
//connectAttr "myMaterial.mwc" "swordShape.iog.og[1].gco"; // wireframe color
StringVector vecShadingGroup;
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each material : Retreive materials
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
// hack : Assuming 1 shading group per mesh
vecShadingGroup.push_back(shadingGroupName);
}
StringVector::iterator nodeIt;
StringVector::const_iterator nodeEnd = validNodeVector.end();
StringVector vecMeshName;
// for every groups
for(meshIt = meshes.begin(); meshIt != meshEnd; ++meshIt) // for each mesh
{
std::string meshName(meshIt->GetMeshName());
vecMeshName.push_back(meshName);
}
StringVector::iterator meshNameIt;
StringVector::const_iterator meshNameEnd = vecMeshName.end();
uint groupID = 2;
for(nodeIt = validNodeVector.begin(); nodeIt != nodeEnd; ++nodeIt)
{
uint sgIndex = nodeIt - validNodeVector.begin();
if(sgIndex > vecShadingGroup.size()-1)
continue;
std::string shadingGroupName = vecShadingGroup[sgIndex];
// 3 groupID per mesh
std::stringstream groupIDss;
groupIDss << groupID+1;
m_ofs << "connectAttr \"groupId" << groupIDss.str() << ".id\" \"" << (*nodeIt) << "Shape.iog.og[1].gid\";" << std::endl;
groupIDss.str("");
groupIDss << groupID;
m_ofs << "connectAttr \"groupId" << groupIDss.str() << ".id\" \"" << (*nodeIt) << "Shape.ciog.cog[0].cgid\";" << std::endl;
groupID += 3; // the first one is always hidden
}
m_ofs << "connectAttr \":defaultLightSet.msg\" \"lightLinker1.lnk[0].llnk\";" << std::endl;
m_ofs << "connectAttr \":initialShadingGroup.msg\" \"lightLinker1.lnk[0].olnk\";" << std::endl;
m_ofs << "connectAttr \":defaultLightSet.msg\" \"lightLinker1.lnk[1].llnk\";" << std::endl;
m_ofs << "connectAttr \":initialParticleSE.msg\" \"lightLinker1.lnk[1].olnk\";" << std::endl;
uint lightLinkerIndex = 2;
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each shading group
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
std::stringstream ssLightLinkerIndex;
ssLightLinkerIndex << lightLinkerIndex;
m_ofs << "connectAttr \":defaultLightSet.msg\" \"lightLinker1.lnk[" << ssLightLinkerIndex.str() << "].llnk\";" << std::endl;
m_ofs << "connectAttr \"" << shadingGroupName << ".msg\" \"lightLinker1.lnk[" << ssLightLinkerIndex.str() << "].olnk\";" << std::endl;
lightLinkerIndex++;
}
m_ofs << "connectAttr \"layerManager.dli[0]\" \"defaultLayer.id\";" << std::endl;
m_ofs << "connectAttr \"renderLayerManager.rlmi[0]\" \"defaultRenderLayer.rlid\";" << std::endl;
uint sgIndex = 0; // shading group index
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each material : Retreive materials
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
//MayaStringCheck(materialName);
std::string materialName(shadingGroupName + "1");
// Connection Material.outColor -> ShadingGroup.ss
m_ofs << "connectAttr \"" << materialName << ".oc\" \"" << shadingGroupName << ".ss\";" << std::endl;
std::stringstream ssSgIndex;
ssSgIndex << sgIndex*3+3;
m_ofs << "connectAttr \"groupId" << ssSgIndex.str() << ".msg\" \"" << shadingGroupName << ".gn\" -na;" << std::endl;
// Assign Shading group to the Mesh first
m_ofs << "connectAttr \"" << vecMeshName[sgIndex] << "Shape.iog.og[1]\" \"" << shadingGroupName << ".dsm\" -na;" << std::endl;
// Material information
ssSgIndex.str("");
ssSgIndex << (sgIndex+1); // starts at 1
m_ofs << "connectAttr \"" << shadingGroupName << ".msg\" \"materialInfo" << ssSgIndex.str() << ".sg\";" << std::endl;
m_ofs << "connectAttr \"" << materialName << ".msg\" \"materialInfo" << ssSgIndex.str() << ".m\";" << std::endl;
if(pMaterial->HasTexMap())
{
// Connect texture
std::string textureName(materialName + "F");
m_ofs << "connectAttr \"" << textureName << ".msg\" \"materialInfo" << ssSgIndex.str() << ".t\" -na;" << std::endl;
m_ofs << "connectAttr \"" << textureName << ".oc\" \"" << materialName << ".c\";" << std::endl;
// Connect place2D texture
std::string place2dTextureName(materialName + "P2D");
m_ofs << "connectAttr \"" << place2dTextureName << ".c\" \"" << textureName << ".c\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".tf\" \"" << textureName << ".tf\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".rf\" \"" << textureName << ".rf\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".s\" \"" << textureName << ".s\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".wu\" \"" << textureName << ".wu\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".wv\" \"" << textureName << ".wv\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".re\" \"" << textureName << ".re\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".of\" \"" << textureName << ".of\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".r\" \"" << textureName << ".ro\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".o\" \"" << textureName << ".uv\";" << std::endl;
m_ofs << "connectAttr \"" << place2dTextureName << ".ofs\" \"" << textureName << ".fs\";" << std::endl;
}
++sgIndex;
}
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each shading group
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
m_ofs << "connectAttr \"" << shadingGroupName << ".pa\" \":renderPartition.st\" -na;" << std::endl;
}
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each shading group
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
m_ofs << "connectAttr \"" << shadingGroupName << ".msg\" \":defaultShaderList1.s\" -na;" << std::endl;
}
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for place texture 2d
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
std::string place2dTextureName(shadingGroupName + "1P2D" ); // find a better way
if(pMaterial->HasTexMap())
m_ofs << "connectAttr \"" << place2dTextureName << ".msg\" \":defaultRenderUtilityList1.u\" -na;" << std::endl;
}
// Light linker
m_ofs << "connectAttr \"lightLinker1.msg\" \":lightList1.ln\" -na;" << std::endl;
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each textures
{
std::string shadingGroupName(materialIt->first);
CMtlFile::CMaterial* pMaterial = &materialIt->second;
std::string textureName(shadingGroupName + "1F" ); // find a better way
if(pMaterial->HasTexMap())
m_ofs << "connectAttr \"" << textureName << ".msg\" \":defaultTextureList1.tx\" -na;" << std::endl;
}
for(meshNameIt = vecMeshName.begin(); meshNameIt != meshNameEnd; ++meshNameIt) // mesh -> initial shading group
{
// Assign Initial shading group to the Mesh second
m_ofs << "connectAttr \"" << (*meshNameIt) << "Shape.ciog.cog[0]\" \":initialShadingGroup.dsm\" -na;" << std::endl;
}
groupID = 2;
for(materialIt = materials.begin(); materialIt != materialEnd; ++materialIt) // for each SG : group ID 2,5,8,...
{
std::stringstream groupIDss;
groupIDss << groupID;
m_ofs << "connectAttr \"groupId" << groupIDss.str() << ".msg\" \":initialShadingGroup.gn\" -na;" << std::endl;
groupID += 3;
}
m_ofs << "// End of " << fileNameOnly;
m_ofs.close();
MSG_DEBUG("Done.");
return true;
}
bool Object3D::load(const std::string& path)
{
if (loaded)
{
std::cerr << "Object already loaded" << std::endl;
return false;
}
objLoader objData;
if (!objData.load(const_cast<char*>(path.c_str())))
{
std::cerr << "Object cannot be loaded" << std::endl;
return false;
}
subObjects.clear();
subObjects.assign(objData.materialCount,SubObject());
for (int i = 0; i < objData.faceCount; ++i)
{
const obj_face& face = *objData.faceList[i];
if (face.material_index >= 0)
subObjects[face.material_index].nbVertices += 3;
}
for (size_t i = 0; i < subObjects.size(); ++i)
{
if (subObjects[i].nbVertices == 0)
continue;
subObjects[i].vertices = new float[subObjects[i].nbVertices * 3];
subObjects[i].normals = new float[subObjects[i].nbVertices * 3];
subObjects[i].texCoords = new float[subObjects[i].nbVertices * 2];
}
size_t* currentVertexIndex = new size_t[subObjects.size()];
for (size_t i = 0; i < subObjects.size(); ++i)
currentVertexIndex[i] = 0;
for (int i = 0; i < objData.faceCount; ++i)
{
const obj_face& face = *objData.faceList[i];
int currentObj = face.material_index;
if (currentObj < 0)
continue;
for (size_t j = 0; j < 3; ++j)
{
int index = face.vertex_index[j];
if (index >= 0)
{
subObjects[currentObj].vertices[currentVertexIndex[currentObj] * 3 + 0] = static_cast<float>(objData.vertexList[index]->e[0]);
subObjects[currentObj].vertices[currentVertexIndex[currentObj] * 3 + 1] = static_cast<float>(objData.vertexList[index]->e[1]);
subObjects[currentObj].vertices[currentVertexIndex[currentObj] * 3 + 2] = static_cast<float>(objData.vertexList[index]->e[2]);
}
index = face.normal_index[j];
if (index >= 0)
{
subObjects[currentObj].normals[currentVertexIndex[currentObj] * 3 + 0] = static_cast<float>(objData.normalList[index]->e[0]);
subObjects[currentObj].normals[currentVertexIndex[currentObj] * 3 + 1] = static_cast<float>(objData.normalList[index]->e[1]);
subObjects[currentObj].normals[currentVertexIndex[currentObj] * 3 + 2] = static_cast<float>(objData.normalList[index]->e[2]);
}
index = face.texture_index[j];
if (index >= 0)
{
subObjects[currentObj].texCoords[currentVertexIndex[currentObj] * 2 + 0] = static_cast<float>(objData.textureList[index]->e[0]);
subObjects[currentObj].texCoords[currentVertexIndex[currentObj] * 2 + 1] = static_cast<float>(objData.textureList[index]->e[1]);
}
++currentVertexIndex[currentObj];
}
}
delete[] currentVertexIndex;
for (size_t i = 0; i < subObjects.size(); ++i)
{
const obj_material& mat = *objData.materialList[i];
std::string textureName(mat.texture_filename);
int pos = textureName.find(".bmp") + 4;
loadTexture(subObjects[i].textureID,textureName.substr(0,pos).c_str(),GL_RGB,GL_CLAMP,true);
}
std::cout << "Object sucessfully loaded from " << path << std::endl;
std::cout << "Nb of sub-objects : " << subObjects.size() << std::endl;
for (size_t i = 0; i < subObjects.size(); ++i)
std::cout << "Nb of faces of sub-object " << i << " : " << subObjects[i].nbVertices / 3 << std::endl;
std::cout << "DONE" << std::endl;
loaded = true;
return true;
}
