#include "DDRec/DetectorData.h" #include <boost/io/ios_state.hpp> namespace dd4hep { namespace rec { std::ostream& operator<<( std::ostream& io , const FixedPadSizeTPCData& d ){ boost::io::ios_base_all_saver ifs(io); io << " --FixedPadSizeTPCData: " << std::scientific << std::endl ; io << " zHalf : " << d.zHalf << std::endl ; io << " rMin : " << d.rMin << std::endl ; io << " rMax : " << d.rMax << std::endl ; io << " driftLength : " << d.driftLength << std::endl ; io << " zMinReadout : " << d.zMinReadout << std::endl ; io << " rMinReadout : " << d.rMinReadout << std::endl ; io << " rMaxReadout : " << d.rMaxReadout << std::endl ; io << " innerWallThickness : " << d.innerWallThickness << std::endl ; io << " outerWallThickness : " << d.outerWallThickness << std::endl ; io << " padHeight : " << d.padHeight << std::endl ; io << " padWidth : " << d.padWidth << std::endl ; io << " maxRow : " << d.maxRow << std::endl ; io << " padGap : " << d.padGap << std::endl ; // io << " : " << d. << std::endl ; return io ; } std::ostream& operator<<( std::ostream& io , const ZPlanarData& d ) { boost::io::ios_base_all_saver ifs(io); io << " -- ZPlanarData: " << std::scientific << std::endl ; io << " zHalfShell : " << d.zHalfShell << std::endl ; io << " gapShell : " << d.gapShell << std::endl ; io << " rInnerShell : " << d.rInnerShell << std::endl ; io << " rOuterShell : " << d.rOuterShell << std::endl ; io << " widthStrip : " << d.widthStrip << std::endl ; io << " lengthStrip : " << d.lengthStrip << std::endl ; io << " pitchStrip : " << d.pitchStrip << std::endl ; io << " angleStrip : " << d.angleStrip << std::endl ; std::vector<ZPlanarData::LayerLayout> layers = d.layers ; io << " Layers : " << std::endl << " nLadder phi0 nSensors lengthSensor distSupport thickSupport offsetSupport widthSupport zHalfSupport distSense thickSense offsetSense widthSense zHalfSense" << std::endl ; //"ladderNumber phi0 sensorsPerLadder lengthSensor distanceSupport thicknessSupport offsetSupport widthSupport zHalfSupport distanceSensitive thicknessSensitive offsetSensitive widthSensitive zHalfSensitive" << std::endl ; for(unsigned i=0,N=layers.size() ; i<N ; ++i){ ZPlanarData::LayerLayout l = layers[i] ; io << " " << l.ladderNumber << " " << l.phi0 << " " << l.sensorsPerLadder << " " << l.lengthSensor << " " << l.distanceSupport << " " << l.thicknessSupport << " " << l.offsetSupport << " " << l.widthSupport << " " << l.zHalfSupport << " " << l.distanceSensitive << " " << l.thicknessSensitive << " " << l.offsetSensitive << " " << l.widthSensitive << " " << l.zHalfSensitive << std::endl ; } return io ; } std::ostream& operator<<( std::ostream& io , const ZDiskPetalsData& d ) { boost::io::ios_base_all_saver ifs(io); io << " -- ZDiskPetalsData: " << std::scientific << std::endl ; io << " widthStrip : " << d.widthStrip << std::endl ; io << " lengthStrip : " << d.lengthStrip << std::endl ; io << " pitchStrip : " << d.pitchStrip << std::endl ; io << " angleStrip : " << d.angleStrip << std::endl ; std::vector<ZDiskPetalsData::LayerLayout> layers = d.layers ; io << " Layers : " << std::endl << " petHalfAngle alphaPetal zPosition nP n d p phi0 zOffsetSup distSupport thickSupport widthInSup widthOutSup lengthSup zOffsetSense distSense thickSense widthInSense widthOutSense lenSense" << std::endl ; //"petalHalfAngle alphaPetal zPosition petalNumber sensorsPerPetal DoubleSided Pixel phi0 zOffsetSupport distanceSupport thicknessSupport widthInnerSupport widthOuterSupport lengthSupport zOffsetSensitive distanceSensitive thicknessSensitive widthInnerSensitive widthOuterSensitive lengthSensitive" << std::endl ; for(unsigned i=0,N=layers.size() ; i<N ; ++i){ ZDiskPetalsData::LayerLayout l = layers[i] ; io << " " << l.petalHalfAngle << " " << l.alphaPetal << " " << l.zPosition << " " << l.petalNumber << " " << l.sensorsPerPetal << " " << l.typeFlags[ ZDiskPetalsData::SensorType::DoubleSided ] << " " << l.typeFlags[ ZDiskPetalsData::SensorType::Pixel ] << " " << l.phi0 << " " << l.zOffsetSupport << " " << l.distanceSupport << " " << l.thicknessSupport << " " << l.widthInnerSupport << " " << l.widthOuterSupport << " " << l.lengthSupport << " " << l.zOffsetSensitive << " " << l.distanceSensitive << " " << l.thicknessSensitive << " " << l.widthInnerSensitive << " " << l.widthOuterSensitive << " " << l.lengthSensitive << std::endl ; } io << " nP:petalNumber n:sensorsPerPetal d:DoubleSided p: Pixel " << std::endl ; return io ; } std::ostream& operator<<( std::ostream& io , const ConicalSupportData& d ) { boost::io::ios_base_all_saver ifs(io); io << " -- ConicalSupportData : " << std::scientific << std::endl ; io << " isSymmetricInZ : " << d.isSymmetricInZ << std::endl ; std::vector<ConicalSupportData::Section> layers = d.sections ; io << " Sections : " << std::endl << "rInner rOuter zPos " << std::endl ; for(unsigned i=0,N=layers.size() ; i<N ; ++i){ ConicalSupportData::Section l = layers[i] ; io << " " << l.rInner << " " << l.rOuter << " " << l.zPos << std::endl ; } return io ; } std::ostream& operator<<( std::ostream& io , const LayeredCalorimeterData& d ) { boost::io::ios_base_all_saver ifs(io); io << " -- LayeredCalorimeterData : " << std::scientific << std::endl ; switch (d.layoutType){ case LayeredCalorimeterStruct::BarrelLayout: { io << " LayoutType : BarrelLayout " << std::endl ; io << " extent[ rmin, rmax, zmin, zmax ] : " << d.extent[0] << " " << d.extent[1] << " " << d.extent[2] << " " << d.extent[3] << std::endl ; break; } case LayeredCalorimeterStruct::EndcapLayout: { io << " LayoutType : EndcapLayout " << std::endl ; io << " extent[ rmin, rmax, zmin, zmax ] : " << d.extent[0] << " " << d.extent[1] << " " << d.extent[2] << " " << d.extent[3] << std::endl ; break; } case LayeredCalorimeterStruct::ConicalLayout: { io << " LayoutType : ConicalLayout " << std::endl ; io << " extent[ rmin, rmax, zmin, zmax, rEndMin, rEndMax ] : " << d.extent[0] << " " << d.extent[1] << " " << d.extent[2] << " " << d.extent[3] << " " << d.extent[4] << " " << d.extent[5] << std::endl ; break;} } io << " outer_symmetry : " << d.outer_symmetry << std::endl ; io << " inner_symmetry : " << d.inner_symmetry << std::endl ; io << " outer_phi0 : " << d.outer_phi0 << std::endl ; io << " inner_phi0 : " << d.inner_phi0 << std::endl ; io << " gap1 : " << d.gap1 << std::endl ; io << " gap2 : " << d.gap2 << std::endl ; std::vector<LayeredCalorimeterData::Layer> layers = d.layers ; io << " Layers : " << std::endl << " distance inner_nX0 outer_nX0 inner_nInt outer_nInt inner_thick outer_thick sense_thick cellSize0 cellSize1" << std::endl ; for(unsigned i=0,N=layers.size() ; i<N ; ++i){ LayeredCalorimeterData::Layer l = layers[i] ; io << " " << l.distance << " " << l.inner_nRadiationLengths << " " << l.outer_nRadiationLengths << " " << l.inner_nInteractionLengths << " " << l.outer_nInteractionLengths << " " << l.inner_thickness << " " << l.outer_thickness << " " << l.sensitive_thickness << " " << l.cellSize0 << " " << l.cellSize1 << std::endl ; } return io ; } std::ostream& operator<<( std::ostream& io , const NeighbourSurfacesData& d ){ boost::io::ios_base_all_saver ifs(io); io << " --NeighbourSurfacesData: " << std::scientific << std::endl ; io << " sameLayer.size() : " << d.sameLayer.size() << std::endl ; return io ; } } // namespace }