// helper method to get the closest daughter DetElement to the position starting from the given DetElement
DetElement IDDecoder::getClosestDaughter(const DetElement& det, const Position& position) {
DetElement result;
// check if we have a shape and see if we are inside
if (det.volume().isValid() and det.volume().solid().isValid()) {
double globalPosition[3] = { position.x(), position.y(), position.z() };
double localPosition[3] = { 0., 0., 0. };
det.worldTransformation().MasterToLocal(globalPosition, localPosition);
if (det.volume().solid()->Contains(localPosition)) {
result = det;
} else {
// assuming that any daughter shape would be inside this shape
return DetElement();
}
}
const DetElement::Children& children = det.children();
DetElement::Children::const_iterator it = children.begin();
while (it != children.end()) {
DetElement daughterDet = getClosestDaughter(it->second, position);
if (daughterDet.isValid()) {
result = daughterDet;
break;
}
++it;
}
return result;
}
static long createGearForILD(Detector& description, int /*argc*/, char** /*argv*/) {
std::cout << " **** running plugin createGearForILD ! " << std::endl ;
// ===========================================================================================
// global parameters:
double crossing_angle(0.) ;
try{ crossing_angle = description.constant<double>("ILC_Main_Crossing_Angle") ; } catch(std::runtime_error&e) {std::cerr << " >>>> " << e.what() << std::endl ;}
//========= TPC ==============================================================================
try{
DetElement tpcDE = description.detector("TPC") ;
FixedPadSizeTPCData* tpc = tpcDE.extension<FixedPadSizeTPCData>() ;
gear::TPCParametersImpl* gearTPC = new gear::TPCParametersImpl( tpc->driftLength /dd4hep::mm , gear::PadRowLayout2D::POLAR ) ;
gearTPC->setPadLayout( new gear::FixedPadSizeDiskLayout( tpc->rMinReadout/dd4hep::mm , tpc->rMaxReadout/dd4hep::mm, tpc->padHeight/dd4hep::mm,
tpc->padWidth/dd4hep::mm , tpc->maxRow, tpc->padGap /dd4hep::mm ) ) ;
gearTPC->setDoubleVal("tpcInnerRadius", tpc->rMin/dd4hep::mm ) ; // inner r of support tube
gearTPC->setDoubleVal("tpcOuterRadius", tpc->rMax/dd4hep::mm ) ; // outer radius of TPC
gearTPC->setDoubleVal("tpcInnerWallThickness", tpc->innerWallThickness/dd4hep::mm ) ; // thickness of inner shell
gearTPC->setDoubleVal("tpcOuterWallThickness", tpc->outerWallThickness/dd4hep::mm ) ; // thickness of outer shell
tpcDE.addExtension< GearHandle >( new GearHandle( gearTPC, "TPCParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//========= VXD ==============================================================================
try{
DetElement vxdDE = description.detector("VXD") ;
ZPlanarData* vxd = vxdDE.extension<ZPlanarData>() ;
// ZPlanarParametersImpl (int type, double shellInnerRadius, double shellOuterRadius, double shellHalfLength, double shellGap, double shellRadLength)
int vxdType = gear::ZPlanarParameters::CMOS ;
gear::ZPlanarParametersImpl* gearVXD = new gear::ZPlanarParametersImpl( vxdType, vxd->rInnerShell/dd4hep::mm, vxd->rOuterShell/dd4hep::mm,
vxd->zHalfShell/dd4hep::mm , vxd->gapShell/dd4hep::mm , 0. ) ;
for(unsigned i=0,n=vxd->layers.size() ; i<n; ++i){
const rec::ZPlanarData::LayerLayout& l = vxd->layers[i] ;
// FIXME set rad lengths to 0 -> need to get from dd4hep ....
gearVXD->addLayer( l.ladderNumber, l.phi0,
l.distanceSupport/dd4hep::mm, l.offsetSupport/dd4hep::mm, l.thicknessSupport/dd4hep::mm, l.zHalfSupport/dd4hep::mm, l.widthSupport/dd4hep::mm, 0. ,
l.distanceSensitive/dd4hep::mm, l.offsetSensitive/dd4hep::mm, l.thicknessSensitive/dd4hep::mm, l.zHalfSensitive/dd4hep::mm, l.widthSensitive/dd4hep::mm, 0. ) ;
}
GearHandle* handle = new GearHandle( gearVXD, "VXDParameters" ) ;
// quick hack for now: add the one material that is needed by KalDet :
// handle->addMaterial( "VXDSupportMaterial", 2.075865162e+01, 1.039383117e+01, 2.765900000e+02, 1.014262421e+03, 3.341388059e+03) ;
// -------- better: get right averaged material from first ladder: ------------------
MaterialManager matMgr( Detector::getInstance().world().volume() ) ;
const rec::ZPlanarData::LayerLayout& l = vxd->layers[0] ;
Vector3D a( l.distanceSupport , l.phi0 , 0. , Vector3D::cylindrical ) ;
Vector3D b( l.distanceSupport + l.thicknessSupport , l.phi0 , 0. , Vector3D::cylindrical ) ;
const MaterialVec& materials = matMgr.materialsBetween( a , b ) ;
MaterialData mat = ( materials.size() > 1 ? matMgr.createAveragedMaterial( materials ) : materials[0].first ) ;
// std::cout << " ####### found materials between points : " << a << " and " << b << " : " ;
// for( unsigned i=0,n=materials.size();i<n;++i){
// std::cout << materials[i].first.name() << "[" << materials[i].second << "], " ;
// }
// std::cout << std::endl ;
// std::cout << " averaged material : " << mat << std::endl ;
handle->addMaterial( "VXDSupportMaterial", mat.A(), mat.Z() , mat.density()/(dd4hep::kg/(dd4hep::g*dd4hep::m3)) , mat.radiationLength()/dd4hep::mm , mat.interactionLength()/dd4hep::mm ) ;
vxdDE.addExtension< GearHandle >( handle ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//========= SIT ==============================================================================
try{
DetElement sitDE = description.detector("SIT") ;
ZPlanarData* sit = sitDE.extension<ZPlanarData>() ;
// ZPlanarParametersImpl (int type, double shellInnerRadius, double shellOuterRadius, double shellHalfLength, double shellGap, double shellRadLength)
int sitType = gear::ZPlanarParameters::CCD ;
gear::ZPlanarParametersImpl* gearSIT = new gear::ZPlanarParametersImpl( sitType, sit->rInnerShell/dd4hep::mm, sit->rOuterShell/dd4hep::mm,
sit->zHalfShell/dd4hep::mm , sit->gapShell/dd4hep::mm , 0. ) ;
std::vector<int> n_sensors_per_ladder ;
for(unsigned i=0,n=sit->layers.size() ; i<n; ++i){
const rec::ZPlanarData::LayerLayout& l = sit->layers[i] ;
// FIXME set rad lengths to 0 -> need to get from dd4hep ....
gearSIT->addLayer( l.ladderNumber, l.phi0,
l.distanceSupport/dd4hep::mm, l.offsetSupport/dd4hep::mm, l. thicknessSupport/dd4hep::mm, l.zHalfSupport/dd4hep::mm, l.widthSupport/dd4hep::mm, 0. ,
l.distanceSensitive/dd4hep::mm, l.offsetSensitive/dd4hep::mm, l. thicknessSensitive/dd4hep::mm, l.zHalfSensitive/dd4hep::mm, l.widthSensitive/dd4hep::mm, 0. ) ;
n_sensors_per_ladder.push_back( l.sensorsPerLadder);
}
gearSIT->setDoubleVal("strip_width_mm" , sit->widthStrip / dd4hep::mm ) ;
gearSIT->setDoubleVal("strip_length_mm" , sit->lengthStrip/ dd4hep::mm ) ;
gearSIT->setDoubleVal("strip_pitch_mm" , sit->pitchStrip / dd4hep::mm ) ;
gearSIT->setDoubleVal("strip_angle_deg" , sit->angleStrip / dd4hep::deg ) ;
gearSIT->setIntVals("n_sensors_per_ladder",n_sensors_per_ladder);
sitDE.addExtension< GearHandle >( new GearHandle( gearSIT, "SITParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//============================================================================================
try {
DetElement setDE = description.detector("SET") ;
ZPlanarData* set = setDE.extension<ZPlanarData>() ;
// ZPlanarParametersImpl (int type, double shellInnerRadius, double shellOuterRadius, double shellHalfLength, double shellGap, double shellRadLength)
int setType = gear::ZPlanarParameters::CCD ;
gear::ZPlanarParametersImpl* gearSET = new gear::ZPlanarParametersImpl( setType, set->rInnerShell/dd4hep::mm, set->rOuterShell/dd4hep::mm,
set->zHalfShell/dd4hep::mm , set->gapShell/dd4hep::mm , 0. ) ;
std::vector<int> n_sensors_per_ladder ;
//n_sensors_per_ladder.clear() ;
for(unsigned i=0,n=set->layers.size() ; i<n; ++i){
const rec::ZPlanarData::LayerLayout& l = set->layers[i] ;
// FIXME set rad lengths to 0 -> need to get from dd4hep ....
gearSET->addLayer( l.ladderNumber, l.phi0,
l.distanceSupport/dd4hep::mm, l.offsetSupport/dd4hep::mm, l. thicknessSupport/dd4hep::mm, l.zHalfSupport/dd4hep::mm, l.widthSupport/dd4hep::mm, 0. ,
l.distanceSensitive/dd4hep::mm, l.offsetSensitive/dd4hep::mm, l. thicknessSensitive/dd4hep::mm, l.zHalfSensitive/dd4hep::mm, l.widthSensitive/dd4hep::mm, 0. ) ;
n_sensors_per_ladder.push_back( l.sensorsPerLadder);
}
gearSET->setDoubleVal("strip_width_mm" , set->widthStrip / dd4hep::mm ) ;
gearSET->setDoubleVal("strip_length_mm" , set->lengthStrip/ dd4hep::mm ) ;
gearSET->setDoubleVal("strip_pitch_mm" , set->pitchStrip / dd4hep::mm ) ;
gearSET->setDoubleVal("strip_angle_deg" , set->angleStrip / dd4hep::deg ) ;
gearSET->setIntVals("n_sensors_per_ladder",n_sensors_per_ladder);
setDE.addExtension< GearHandle >( new GearHandle( gearSET, "SETParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//============================================================================================
try {
DetElement ftdDE = description.detector("FTD") ;
ZDiskPetalsData* ftd = ftdDE.extension<ZDiskPetalsData>() ;
gear::FTDParametersImpl* gearFTD = new gear::FTDParametersImpl();
for(unsigned i=0,n=ftd->layers.size() ; i<n; ++i){
const rec::ZDiskPetalsData::LayerLayout& l = ftd->layers[i] ;
bool isDoubleSided = l.typeFlags[ rec::ZDiskPetalsStruct::SensorType::DoubleSided ] ;
// avoid 'undefined reference' at link time ( if built w/o optimization ):
static const int PIXEL = gear::FTDParameters::PIXEL ;
static const int STRIP = gear::FTDParameters::STRIP ;
int sensorType = ( l.typeFlags[ rec::ZDiskPetalsStruct::SensorType::Pixel ] ? PIXEL : STRIP ) ;
// gear::FTDParameters::PIXEL : gear::FTDParameters::STRIP ) ;
double zoffset = fabs( l.zOffsetSupport ) ;
double signoffset = l.zOffsetSupport > 0 ? 1. : -1 ;
gearFTD->addLayer( l.petalNumber, l.sensorsPerPetal,
isDoubleSided, sensorType,
l.petalHalfAngle, l.phi0, l.alphaPetal,
l.zPosition/dd4hep::mm, zoffset/dd4hep::mm, signoffset,
l.distanceSupport/dd4hep::mm, l.thicknessSupport/dd4hep::mm,
l.widthInnerSupport/dd4hep::mm, l.widthOuterSupport/dd4hep::mm,
l.lengthSupport/dd4hep::mm,
0.,
l.distanceSensitive/dd4hep::mm, l.thicknessSensitive/dd4hep::mm,
l.widthInnerSensitive/dd4hep::mm, l.widthOuterSensitive/dd4hep::mm,
l.lengthSensitive/dd4hep::mm,
0. ) ;
// FIXME set rad lengths to 0 -> need to get from dd4hep ....
}
gearFTD->setDoubleVal("strip_width_mm" , ftd->widthStrip / dd4hep::mm ) ;
gearFTD->setDoubleVal("strip_length_mm" , ftd->lengthStrip/ dd4hep::mm ) ;
gearFTD->setDoubleVal("strip_pitch_mm" , ftd->pitchStrip / dd4hep::mm ) ;
gearFTD->setDoubleVal("strip_angle_deg" , ftd->angleStrip / dd4hep::deg ) ;
ftdDE.addExtension< GearHandle >( new GearHandle( gearFTD, "FTDParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//============================================================================================
try {
DetElement coilDE = description.detector("Coil") ;
gear::GearParametersImpl* gearCOIL = new gear::GearParametersImpl();
Tube coilTube = Tube( coilDE.volume().solid() ) ;
gearCOIL->setDoubleVal("Coil_cryostat_inner_radius" , coilTube->GetRmin()/ dd4hep::mm ) ;
gearCOIL->setDoubleVal("Coil_cryostat_outer_radius" , coilTube->GetRmax()/ dd4hep::mm ) ;
gearCOIL->setDoubleVal("Coil_cryostat_half_z" , coilTube->GetDZ()/ dd4hep::mm ) ;
coilDE.addExtension< GearHandle >( new GearHandle( gearCOIL, "CoilParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//============================================================================================
try {
DetElement tubeDE = description.detector("Tube") ;
ConicalSupportData* tube = tubeDE.extension<ConicalSupportData>() ;
gear::GearParametersImpl* gearTUBE = new gear::GearParametersImpl();
tube->isSymmetricInZ = true ;
unsigned n = tube->sections.size() ;
std::vector<double> rInner(n) ;
std::vector<double> rOuter(n) ;
std::vector<double> zStart(n) ;
for(unsigned i=0 ; i<n ; ++i){
const ConicalSupportData::Section& s = tube->sections[i] ;
rInner[i] = s.rInner/ dd4hep::mm ;
rOuter[i] = s.rOuter/ dd4hep::mm ;
zStart[i] = s.zPos / dd4hep::mm ;
// FIXME set rad lengths to 0 -> need to get from dd4hep ....
}
gearTUBE->setDoubleVals("RInner" , rInner ) ;
gearTUBE->setDoubleVals("ROuter" , rOuter ) ;
gearTUBE->setDoubleVals("Z" , zStart ) ;
tubeDE.addExtension< GearHandle >( new GearHandle( gearTUBE, "BeamPipe" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//========= CALO ==============================================================================
//**********************************************************
//* gear interface w/ LayeredCalorimeterData extension
//**********************************************************
std::map< std::string, std::string > caloMap ;
caloMap["HcalBarrel"] = "HcalBarrelParameters" ;
caloMap["EcalBarrel"] = "EcalBarrelParameters" ;
caloMap["EcalEndcap"] = "EcalEndcapParameters" ;
caloMap["EcalPlug"] = "EcalPlugParameters" ;
caloMap["YokeBarrel"] = "YokeBarrelParameters" ;
caloMap["YokeEndcap"] = "YokeEndcapParameters" ;
caloMap["YokePlug"] = "YokePlugParameters" ;
caloMap["HcalBarrel"] = "HcalBarrelParameters" ;
caloMap["HcalEndcap"] = "HcalEndcapParameters" ;
caloMap["HcalRing"] = "HcalRingParameters" ;
caloMap["Lcal"] = "LcalParameters" ;
caloMap["LHcal"] = "LHcalParameters" ;
caloMap["BeamCal"] = "BeamCalParameters" ;
for( std::map< std::string, std::string >::const_iterator it = caloMap.begin() ; it != caloMap.end() ; ++it ){
try {
DetElement caloDE = description.detector( it->first ) ;
LayeredCalorimeterData* calo = caloDE.extension<LayeredCalorimeterData>() ;
gear::CalorimeterParametersImpl* gearCalo =
( calo->layoutType == LayeredCalorimeterData::BarrelLayout ?
new gear::CalorimeterParametersImpl( calo->extent[0]/dd4hep::mm, calo->extent[3]/dd4hep::mm, calo->inner_symmetry, calo->phi0 ) :
//CalorimeterParametersImpl (double rMin, double zMax, int symOrder=8, double phi0=0.0) - C'tor for a cylindrical (octagonal) BARREL calorimeter.
new gear::CalorimeterParametersImpl( calo->extent[0]/dd4hep::mm, calo->extent[1]/dd4hep::mm, calo->extent[2]/dd4hep::mm, calo->outer_symmetry, calo->phi0 ) ) ;
//CalorimeterParametersImpl (double rMin, double rMax, double zMin, int symOrder=2, double phi0=0.0) - C'tor for a cylindrical (octagonal) ENDCAP calorimeter.
for( unsigned i=0, nL = calo->layers.size() ; i <nL ; ++i ){
LayeredCalorimeterData::Layer& l = calo->layers[i] ;
//Do some arithmetic to get thicknesses and (approximate) absorber thickneses from "new" rec structures
//The positioning should come out right, but the absorber thickness should be overestimated due to the presence of
//other less dense material
if( i == 0 ) {
gearCalo->layerLayout().positionLayer( l.distance/dd4hep::mm,
(l.inner_thickness+l.sensitive_thickness/2.)/dd4hep::mm ,
l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm,
(l.inner_thickness-l.sensitive_thickness/2.)/dd4hep::mm ) ;
}else{
gearCalo->layerLayout().addLayer( (l.inner_thickness+l.sensitive_thickness/2.+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2. ) / dd4hep::mm ,
l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, (l.inner_thickness-l.sensitive_thickness/2.+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2.)/dd4hep::mm) ;
}
// if( i == 0 ) {
// gearCalo->layerLayout().positionLayer( l.distance/dd4hep::mm, l.thickness/dd4hep::mm ,
// l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, l.absorberThickness/dd4hep::mm ) ;
// }else{
// gearCalo->layerLayout().addLayer( l.thickness/dd4hep::mm ,
// l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, l.absorberThickness/dd4hep::mm ) ;
// }
}
if( it->first == "HcalBarrel" ){
// additional parameters needed by MarlinPandora
gearCalo->setIntVal("Hcal_outer_polygon_order" , calo->outer_symmetry ) ;
gearCalo->setDoubleVal("Hcal_outer_polygon_phi0" , calo->phi0 ) ;
}
if( it->first == "BeamCal" ){
try{
// additional parameters needed by BCalReco
SensitiveDetector sD = description.sensitiveDetector( it->first ) ;
Readout readOut = sD.readout() ;
Segmentation seg = readOut.segmentation() ;
// DDSegmentation::DoubleVecParameter rPar = dynamic_cast<DDSegmentation::DoubleVecParameter>( seg.parameter("grid_r_values"));
DDSegmentation::DoubleVecParameter pPar = dynamic_cast<DDSegmentation::DoubleVecParameter>( seg.parameter("grid_phi_values"));
DDSegmentation::DoubleParameter oPPar= dynamic_cast<DDSegmentation::DoubleParameter>( seg.parameter("offset_phi"));
//offset_phi="-180*degree+(360*degree-BCal_SpanningPhi)*0.5"
double offsetPhi = oPPar->typedValue() ;
double spanningPhi = 360.*dd4hep::deg - 2.*( offsetPhi + 180.*dd4hep::deg ) ;
gearCalo->setDoubleVals( "phi_segmentation" , pPar->typedValue() );
gearCalo->setDoubleVal( "cylinder_starting_phi", offsetPhi );
gearCalo->setDoubleVal( "cylinder_spanning_phi", spanningPhi );
gearCalo->setDoubleVal( "beam_crossing_angle" , crossing_angle );
//fixme: don't know how to get these parameters at this stage ...
// probably need a named parameter object at every DetElement ....
gearCalo->setDoubleVal( "dead_area_outer_r" , 0 );
gearCalo->setDoubleVal( "pairsMonitorZ" , 0. );
gearCalo->setDoubleVal( "FIXME_dead_area_outer_r" , -1. );
gearCalo->setDoubleVal( "FIXME_pairsMonitorZ" , -1. );
} catch( std::runtime_error& e ){
std::cerr << " >>>> BeamCal: " << e.what() << std::endl ;
}
}
if( it->first == "Lcal" || it->first == "LHcal" ){
gearCalo->setDoubleVal( "beam_crossing_angle" , crossing_angle );
}
caloDE.addExtension< GearHandle >( new GearHandle( gearCalo, it->second ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
} // calo loop
//**********************************************************
//* test gear interface w/ LayeredExtensionImpl extension
//**********************************************************
// DetElement calo2DE = description.detector("EcalBarrel") ;
// Calorimeter calo2( calo2DE ) ;
// gear::CalorimeterParametersImpl* gearCalo2 =
// ( calo2.isBarrel() ?
// new gear::CalorimeterParametersImpl( calo2.getRMin()/dd4hep::mm, calo2.getZMax()/dd4hep::mm, calo2.getNSides(), 0. ) : // fixme: phi 0 is not defined ??
// new gear::CalorimeterParametersImpl( calo2.getRMin()/dd4hep::mm, calo2.getRMax()/dd4hep::mm, calo2.getZMin()/dd4hep::mm, calo2.getNSides(), 0. )
// ) ;
// for( unsigned i=0, nL = calo2.numberOfLayers() ; i <nL ; ++i ){
// if( i == 0 ) {
// gearCalo2->layerLayout().positionLayer( calo2.getRMin()/dd4hep::mm, calo2.thickness(i)/dd4hep::mm , 0. /dd4hep::mm, 0. /dd4hep::mm, calo2.absorberThickness(i)/dd4hep::mm ) ;
// }else{ // fixme: cell sizes not in API !?
// gearCalo2->layerLayout().addLayer( calo2.thickness(i)/dd4hep::mm , 0. /dd4hep::mm, 0. /dd4hep::mm, calo2.absorberThickness(i)/dd4hep::mm ) ;
// }
// }
// calo2DE.addExtension< GearHandle >( new GearHandle( gearCalo2, "EcalBarrelParameters" ) ) ;
//============================================================================================
// --- Detector::apply() expects return code 1 if all went well ! ----
return 1;
}
static long createGearForSiD(Detector& description, int /*argc*/, char** /*argv*/) {
std::cout << " **** running plugin createGearForSiD ! " << std::endl ;
try {
DetElement coilDE = description.detector("Solenoid") ;
gear::GearParametersImpl* gearCOIL = new gear::GearParametersImpl();
Tube coilTube = Tube( coilDE.volume().solid() ) ;
gearCOIL->setDoubleVal("Coil_cryostat_inner_radius" , coilTube->GetRmin()/ dd4hep::mm ) ;
gearCOIL->setDoubleVal("Coil_cryostat_outer_radius" , coilTube->GetRmax()/ dd4hep::mm ) ;
gearCOIL->setDoubleVal("Coil_cryostat_half_z" , coilTube->GetDZ()/ dd4hep::mm ) ;
coilDE.addExtension< GearHandle >( new GearHandle( gearCOIL, "CoilParameters" ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
//========= CALO ONLY ==============================================================
//**********************************************************
//* gear interface w/ LayeredCalorimeterData extension
//**********************************************************
std::map< std::string, std::string > caloMap ;
caloMap["HCalBarrel"] = "HcalBarrelParameters" ;
caloMap["HCalEndcap"] = "HcalEndcapParameters" ;
caloMap["ECalBarrel"] = "EcalBarrelParameters" ;
caloMap["ECalEndcap"] = "EcalEndcapParameters" ;
caloMap["MuonBarrel"] = "YokeBarrelParameters" ;
caloMap["MuonEndcap"] = "YokeEndcapParameters" ;
caloMap["LumiCal"] = "LcalParameters" ;
caloMap["BeamCal"] = "BeamCalParameters" ;
for( std::map< std::string, std::string >::const_iterator it = caloMap.begin() ; it != caloMap.end() ; ++it ){
try {
DetElement caloDE = description.detector( it->first ) ;
LayeredCalorimeterData* calo = caloDE.extension<LayeredCalorimeterData>() ;
gear::CalorimeterParametersImpl* gearCalo =
( calo->layoutType == LayeredCalorimeterData::BarrelLayout ?
new gear::CalorimeterParametersImpl( calo->extent[0]/dd4hep::mm, calo->extent[3]/dd4hep::mm, calo->inner_symmetry, calo->inner_phi0 ) :
//CalorimeterParametersImpl (double rMin, double zMax, int symOrder=8, double phi0=0.0) - C'tor for a cylindrical (octagonal) BARREL calorimeter.
new gear::CalorimeterParametersImpl( calo->extent[0]/dd4hep::mm, calo->extent[1]/dd4hep::mm, calo->extent[2]/dd4hep::mm, calo->outer_symmetry, calo->outer_phi0 ) ) ;
//CalorimeterParametersImpl (double rMin, double rMax, double zMin, int symOrder=2, double phi0=0.0) - C'tor for a cylindrical (octagonal) ENDCAP calorimeter.
for( unsigned i=0, nL = calo->layers.size() ; i <nL ; ++i ){
LayeredCalorimeterData::Layer& l = calo->layers[i] ;
//Do some arithmetic to get thicknesses and (approximate) absorber thickneses from "new" rec structures
//The positioning should come out right, but the absorber thickness should be overestimated due to the presence of
//other less dense material
if( i == 0 ) {
//First layer is positioned with only its inner thickness taken into account
gearCalo->layerLayout().positionLayer( l.distance/dd4hep::mm, (l.inner_thickness+l.sensitive_thickness/2.)/dd4hep::mm ,
l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, (l.inner_thickness-l.sensitive_thickness/2.)/dd4hep::mm ) ;
} else if ( i == nL -1 ) {
//Need to handle outermost layer differently; add its outer thickness
//This gives the right extent, but the "wrong" distance for the last layer
gearCalo->layerLayout().addLayer((l.inner_thickness+l.outer_thickness+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2.)/dd4hep::mm ,
l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, (l.inner_thickness+l.outer_thickness-l.sensitive_thickness+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2.)/dd4hep::mm) ;
} else {
//All other layers need to be added taking into account the previous layer outer thicknesses
gearCalo->layerLayout().addLayer((l.inner_thickness+l.sensitive_thickness/2.+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2.)/dd4hep::mm ,
l.cellSize0/dd4hep::mm, l.cellSize1/dd4hep::mm, (l.inner_thickness-l.sensitive_thickness/2.+calo->layers[i-1].outer_thickness-calo->layers[i-1].sensitive_thickness/2.)/dd4hep::mm) ;
}
}
if( it->first == "HCalBarrel" ){
// additional parameters needed by MarlinPandora
gearCalo->setIntVal("Hcal_outer_polygon_order" , calo->outer_symmetry ) ;
gearCalo->setDoubleVal("Hcal_outer_polygon_phi0" , calo->outer_phi0 ) ;
}
caloDE.addExtension< GearHandle >( new GearHandle( gearCalo, it->second ) ) ;
} catch( std::runtime_error& e ){
std::cerr << " >>>> " << e.what() << std::endl ;
}
} // calo loop
// --- Detector::apply() expects return code 1 if all went well ! ----
return 1;
}