static void OnReconstructMainMeshCallBack (NewtonBody* const body, NewtonFracturedCompoundMeshPart* const mainMesh, const NewtonCollision* const fracturedCompoundCollision)
{
DemoEntity* const entity = (DemoEntity*)NewtonBodyGetUserData(body);
DemoMesh* const visualMesh = (DemoMesh*)entity->GetMesh();
dAssert (visualMesh->IsType(DemoMesh::GetRttiType()));
dAssert (NewtonCollisionGetType(fracturedCompoundCollision) == SERIALIZE_ID_FRACTURED_COMPOUND);
DemoEntityManager* const scene = (DemoEntityManager*)NewtonWorldGetUserData(NewtonBodyGetWorld(body));
dAssert (scene);
visualMesh->RemoveAll();
for (void* segment = NewtonFracturedCompoundMeshPartGetFirstSegment(mainMesh); segment; segment = NewtonFracturedCompoundMeshPartGetNextSegment (segment)) {
DemoSubMesh* const subMesh = visualMesh->AddSubMesh();
int material = NewtonFracturedCompoundMeshPartGetMaterial (segment);
int indexCount = NewtonFracturedCompoundMeshPartGetIndexCount (segment);
subMesh->m_textureHandle = AddTextureRef ((GLuint)material);
subMesh->m_shader = scene->GetShaderCache().m_diffuseEffect;
subMesh->AllocIndexData (indexCount);
subMesh->m_indexCount = NewtonFracturedCompoundMeshPartGetIndexStream (fracturedCompoundCollision, mainMesh, segment, (int*)subMesh->m_indexes);
}
visualMesh->OptimizeForRender();
}
DemoMesh::DemoMesh(const DemoMesh& mesh)
:DemoMeshInterface()
,dList<DemoSubMesh>()
,m_uv(NULL)
,m_vertex(NULL)
,m_normal(NULL)
,m_optimizedOpaqueDiplayList(0)
,m_optimizedTransparentDiplayList(0)
{
AllocVertexData(mesh.m_vertexCount);
memcpy (m_vertex, mesh.m_vertex, 3 * m_vertexCount * sizeof (dFloat));
memcpy (m_normal, mesh.m_normal, 3 * m_vertexCount * sizeof (dFloat));
memcpy (m_uv, mesh.m_uv, 2 * m_vertexCount * sizeof (dFloat));
for (dListNode* nodes = mesh.GetFirst(); nodes; nodes = nodes->GetNext()) {
DemoSubMesh* const segment = AddSubMesh();
DemoSubMesh& srcSegment = nodes->GetInfo();
segment->AllocIndexData (srcSegment.m_indexCount);
memcpy (segment->m_indexes, srcSegment.m_indexes, srcSegment.m_indexCount * sizeof (unsigned));
segment->m_shiness = srcSegment.m_shiness;
segment->m_ambient = srcSegment.m_ambient;
segment->m_diffuse = srcSegment.m_diffuse;
segment->m_specular = srcSegment.m_specular;
segment->m_textureHandle = srcSegment.m_textureHandle;
segment->m_textureName = srcSegment.m_textureName;
if (segment->m_textureHandle) {
AddTextureRef (srcSegment.m_textureHandle);
}
}
// see if this mesh can be optimized
OptimizeForRender ();
}
DTexture* GManager::TextureAcquire( SFullName Filename, bool bAddRef, bool bMipGenerate )
{
if( Filename.Name==NONE ) {
return NULL;
}
SString str = (const char*)*Filename.Name;
str = str.LowerCase();
Filename.Name = SName( (const char*)str );
DTexture *pTexture;
dword dwIndex=0;
if( (dwIndex=FindTextureFileName( Filename ))==0 )
{ // neo creation
DFile *pFile = DStdFileCreate();
if( !pFile->Open( Filename ))
{
DLogWriteSystem( "XBaseResourceAcquire::TEXTURE can't found [%s] file", (lpctstr)(*Filename) );
pFile->Close();
DStdFileRelease( pFile );
return NULL;
}
pTexture = CreateTexture( &dwIndex );
m_Texture.SetObjectName( dwIndex, Filename );
if( !pTexture->Load( pFile, bMipGenerate ) )
{
DLogWriteSystem( "XBaseResourceAcquire::TEXTURE can't load [%s] file", (lpctstr)(*Filename) );
pFile->Close();
DStdFileRelease( pFile );
return NULL;
}
pFile->Close();
DStdFileRelease( pFile );
}
else
{ // just get pointer and return
pTexture = GetTexture( dwIndex );
if( bAddRef ) AddTextureRef( dwIndex );
}
return pTexture;
}
DTexture* GManager::TextureAcquire( SString strFilename, bool bAddRef, bool bMipGenerate )
{
if( strFilename.IsEmpty() ) {
return NULL;
}
strFilename = strFilename.LowerCase();
DTexture *pTexture;
dword dwIndex=0;
if( (dwIndex=FindTextureName( DCutPath(strFilename) ))==0 )
{ // neo creation
DFile File;
if(!File.Open(strFilename))
{
SString strFileOnly = DCutPath( strFilename );
strFilename = DGetParentDir( strFilename, 2 );
strFilename += "png\\";
strFilename += strFileOnly;
}
if( !File.Open( strFilename ))
{
File.Close();
return NULL;
}
pTexture = CreateTexture();
pTexture->SetName( DCutPath(strFilename) );
if( !pTexture->Load( &File, bMipGenerate ) )
{
DLogWriteSystem( "XBaseResourceAcquire::TEXTURE can't load [%s] file", strFilename );
File.Close();
return NULL;
}
File.Close();
}
else
{ // just get pointer and return
pTexture = GetTexture( dwIndex );
if( bAddRef ) AddTextureRef( dwIndex );
}
//DLogWriteSystem( "Out(1) XBaseResourceAcquire" );
return pTexture;
}
void DemoMesh::SpliteSegment(dListNode* const node, int maxIndexCount)
{
const DemoSubMesh& segment = node->GetInfo();
if (segment.m_indexCount > maxIndexCount) {
dVector minBox (1.0e10f, 1.0e10f, 1.0e10f, 0.0f);
dVector maxBox (-1.0e10f, -1.0e10f, -1.0e10f, 0.0f);
for (int i = 0; i < segment.m_indexCount; i ++) {
int index = segment.m_indexes[i];
for (int j = 0; j < 3; j ++) {
minBox[j] = (m_vertex[index * 3 + j] < minBox[j]) ? m_vertex[index * 3 + j] : minBox[j];
maxBox[j] = (m_vertex[index * 3 + j] > maxBox[j]) ? m_vertex[index * 3 + j] : maxBox[j];
}
}
int index = 0;
dFloat maxExtend = -1.0e10f;
for (int j = 0; j < 3; j ++) {
dFloat ext = maxBox[j] - minBox[j];
if (ext > maxExtend ) {
index = j;
maxExtend = ext;
}
}
int leftCount = 0;
int rightCount = 0;
dFloat spliteDist = (maxBox[index ] + minBox[index]) * 0.5f;
for (int i = 0; i < segment.m_indexCount; i += 3) {
bool isleft = true;
for (int j = 0; j < 3; j ++) {
int vertexIndex = segment.m_indexes[i + j];
isleft &= (m_vertex[vertexIndex * 3 + index] < spliteDist);
}
if (isleft) {
leftCount += 3;
} else {
rightCount += 3;
}
}
dAssert (leftCount);
dAssert (rightCount);
dListNode* const leftNode = Append();
dListNode* const rightNode = Append();
DemoSubMesh* const leftSubMesh = &leftNode->GetInfo();
DemoSubMesh* const rightSubMesh = &rightNode->GetInfo();
leftSubMesh->AllocIndexData (leftCount);
rightSubMesh->AllocIndexData (rightCount);
leftSubMesh->m_textureHandle = AddTextureRef (segment.m_textureHandle);
rightSubMesh->m_textureHandle = AddTextureRef (segment.m_textureHandle);
leftSubMesh->m_textureName = segment.m_textureName;
rightSubMesh->m_textureName = segment.m_textureName;
leftCount = 0;
rightCount = 0;
for (int i = 0; i < segment.m_indexCount; i += 3) {
bool isleft = true;
for (int j = 0; j < 3; j ++) {
int vertexIndex = segment.m_indexes[i + j];
isleft &= (m_vertex[vertexIndex * 3 + index] < spliteDist);
}
if (isleft) {
leftSubMesh->m_indexes[leftCount + 0] = segment.m_indexes[i + 0];
leftSubMesh->m_indexes[leftCount + 1] = segment.m_indexes[i + 1];
leftSubMesh->m_indexes[leftCount + 2] = segment.m_indexes[i + 2];
leftCount += 3;
} else {
rightSubMesh->m_indexes[rightCount + 0] = segment.m_indexes[i + 0];
rightSubMesh->m_indexes[rightCount + 1] = segment.m_indexes[i + 1];
rightSubMesh->m_indexes[rightCount + 2] = segment.m_indexes[i + 2];
rightCount += 3;
}
}
SpliteSegment(leftNode, maxIndexCount);
SpliteSegment(rightNode, maxIndexCount);
Remove(node);
}
}