void viewStarGeometry( const Char_t *tag="y2011", const Char_t *addons="",
const Char_t *TOP="HALL",
const Char_t *NODE="CAVE_1"
)
{
cacheGeometry(tag, addons);
// Load using TEveManager
TEveManager::Create();
// Get the default viewe
viewer = gEve->GetDefaultGLViewer(); // Default
// Register geometry
gEve -> RegisterGeometryAlias("Default", Form("%s.root",tag));
gGeoManager = gEve->GetDefaultGeometry();
// Get the specified top volume and node to draw
TGeoNode *CAVE = gGeoManager->FindVolumeFast(TOP)->FindNode(NODE);
TEveGeoTopNode *cave = new TEveGeoTopNode( gGeoManager, CAVE );
gEve -> AddGlobalElement(cave);
// Draw the scene
gEve->Redraw3D(kTRUE);
if ( viewall ) {
addDetectorTab( "TPCE_1", "TPC" );
addDetectorTab( "CALB_1", "BEMC" );
{
addDetectorTab( "CPHI_1", "BEMC module", "CHLV" );
}
addDetectorTab( "ECAL_1", "EEMC" );
addDetectorTab( "FBOX_1", "FPD" );
addDetectorTab( "FBO1_3", "FMS N" );
addDetectorTab( "FBO2_4", "FMS S" );
addDetectorTab( "IDSM_1", "IDSM" );
{
addDetectorTab( "FGTM_1", "FGT", "IDSM" );
}
addDetectorTab( "BBCM_1", "BBC" );
addDetectorTab( "MUTD_1", "MTD" );
addDetectorTab( "BTOF_1", "TOF", "CAVE", 10 );
{
addDetectorTab("BTRA_1","TOF tray", "BSEC", 10);
}
addDetectorTab( "FTPC_1", "FTPC" );
addDetectorTab( "FTPC_1", "FTPC", "SVTT" );
addDetectorTab( "FTRO_1", "FTPC readout" );
addDetectorTab( "SVTT_1", "SVTT" );
addDetectorTab( "SCON_1", "SCON" );
addDetectorTab( "SCON_1", "SCON", "SVTT" );
addDetectorTab( "FSCE_1", "FSCE" );
addDetectorTab( "ETTV_1", "EIDD" );
addDetectorTab( "PIPE_1", "pipe" );
addDetectorTab( "MAGP_1", "magnet" );
}//viewall
const Char_t *path = ".:./StarVMC/Geometry/macros/:$STAR/StarVMC/Geometry/macros/";
Char_t *file = gSystem->Which(path,"applyColorScheme.C",kReadPermission);
// gROOT->ProcessLine(".L applyColorScheme.C+");
// gROOT->ProcessLine(Form(".L %s+",file));
gSystem->CompileMacro( file, "k-", "libApplyColorScheme", "/tmp" );
applyColorScheme("CAVE");
}
//-----------------------------------------------------------------------
void BspSceneManager::renderStaticGeometry(void)
{
// Check we should be rendering
if (!isRenderQueueToBeProcessed(mWorldGeometryRenderQueue))
return;
// Cache vertex/face data first
vector<StaticFaceGroup*>::type::const_iterator faceGrpi;
static RenderOperation patchOp;
// no world transform required
mDestRenderSystem->_setWorldMatrix(Matrix4::IDENTITY);
// Set view / proj
setViewMatrix(mCachedViewMatrix);
mDestRenderSystem->_setProjectionMatrix(mCameraInProgress->getProjectionMatrixRS());
// For each material in turn, cache rendering data & render
MaterialFaceGroupMap::const_iterator mati;
for (mati = mMatFaceGroupMap.begin(); mati != mMatFaceGroupMap.end(); ++mati)
{
// Get Material
Material* thisMaterial = mati->first;
// Empty existing cache
mRenderOp.indexData->indexCount = 0;
// lock index buffer ready to receive data
unsigned int* pIdx = static_cast<unsigned int*>(
mRenderOp.indexData->indexBuffer->lock(HardwareBuffer::HBL_DISCARD));
for (faceGrpi = mati->second.begin(); faceGrpi != mati->second.end(); ++faceGrpi)
{
// Cache each
unsigned int numelems = cacheGeometry(pIdx, *faceGrpi);
mRenderOp.indexData->indexCount += numelems;
pIdx += numelems;
}
// Unlock the buffer
mRenderOp.indexData->indexBuffer->unlock();
// Skip if no faces to process (we're not doing flare types yet)
if (mRenderOp.indexData->indexCount == 0)
continue;
Technique::PassIterator pit = thisMaterial->getTechnique(0)->getPassIterator();
while (pit.hasMoreElements())
{
_setPass(pit.getNext());
mDestRenderSystem->_render(mRenderOp);
}
} // for each material
/*
if (mShowNodeAABs)
{
mDestRenderSystem->_render(mAABGeometry);
}
*/
}
