SCT_FwdModule.cxx

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/*
  Copyright (C) 2002-2024 CERN for the benefit of the ATLAS collaboration
*/
 
// Simulation for the COMBINED TESTBEAM 2004 //
//                                           //
//       Zdenka.Broklova@matfyz.cz           //
//       Carlos.Escobar@ific.uv.es           //
//       Peter.Kodys@ific.uv.es              //
//        January 23, 2004                   //
 
#include "SCT_GeoModel/SCT_FwdModule.h"
#include "SCT_GeoModel/SCT_GeometryManager.h"
#include "SCT_GeoModel/SCT_MaterialManager.h"
 
#include "SCT_GeoModel/SCT_ForwardModuleParameters.h"
#include "SCT_GeoModel/SCT_GeneralParameters.h"
#include "SCT_GeoModel/SCT_Identifier.h"
 
#include "SCT_GeoModel/SCT_FwdModuleConnector.h"
#include "SCT_GeoModel/SCT_FwdSpine.h"
#include "SCT_GeoModel/SCT_FwdSubSpine.h"
#include "SCT_GeoModel/SCT_FwdHybrid.h"
 
#include "SCT_ReadoutGeometry/SCT_DetectorManager.h"
 
#include "GeoModelRead/ReadGeoModel.h"
#include "GeoModelKernel/GeoTrd.h"
#include "GeoModelKernel/GeoShapeShift.h"
#include "GeoModelKernel/GeoShape.h"
#include "GeoModelKernel/GeoLogVol.h"
#include "GeoModelKernel/GeoPhysVol.h"
#include "GeoModelKernel/GeoFullPhysVol.h"
#include "GeoModelKernel/GeoNameTag.h"
#include "GeoModelKernel/GeoIdentifierTag.h"
#include "GeoModelKernel/GeoTransform.h"
#include "GeoModelKernel/GeoAlignableTransform.h"
#include "GeoModelKernel/GeoMaterial.h"
#include "GeoModelKernel/GeoDefinitions.h"
#include "GaudiKernel/SystemOfUnits.h"
 
#include <cmath>
#include <sstream>
#include <utility>
 
inline double sqr(double x) {return x*x;}
 
SCT_FwdModule::SCT_FwdModule(const std::string & name, int ringType,
                             InDetDD::SCT_DetectorManager* detectorManager,
                             SCT_GeometryManager* geometryManager,
                             SCT_MaterialManager* materials,
                             GeoModelIO::ReadGeoModel* sqliteReader,
                             std::shared_ptr<std::map<std::string, GeoFullPhysVol*>>        mapFPV,
                             std::shared_ptr<std::map<std::string, GeoAlignableTransform*>> mapAX)
  : SCT_UniqueComponentFactory(name, detectorManager, geometryManager, materials, sqliteReader, std::move(mapFPV), std::move(mapAX)),
    m_ringType(ringType)
{
    getParameters();
    if(!m_sqliteReader)
    {
        m_hybrid = std::make_unique<SCT_FwdHybrid>("SCT_FwdHybrid"+intToString(ringType), m_ringType, m_detectorManager, m_geometryManager, materials);
        m_spine  = std::make_unique<SCT_FwdSpine>("SCT_FwdSpine"+intToString(ringType), m_ringType, m_detectorManager, m_geometryManager, materials);
        m_subspineL  = std::make_unique<SCT_FwdSubSpine>("SCT_FwdSubSpineL"+intToString(ringType), m_ringType, SUBSPINE_LEFT,
                                                         m_detectorManager, m_geometryManager, materials);
        m_subspineR  = std::make_unique<SCT_FwdSubSpine>("SCT_FwdSubSpineR"+intToString(ringType), m_ringType, SUBSPINE_RIGHT,
                                                         m_detectorManager, m_geometryManager, materials);
        if (m_connectorPresent) {
            m_connector = std::make_unique<SCT_FwdModuleConnector>("SCT_FwdModuleConnector"+intToString(ringType), m_ringType,
                                                                   m_detectorManager, m_geometryManager, materials);
        }
    }
    m_sensor = std::make_unique<SCT_FwdSensor>("ECSensor"+intToString(ringType), m_ringType,
    m_detectorManager, m_geometryManager, materials, m_sqliteReader, m_mapFPV, m_mapAX);
    m_logVolume = SCT_FwdModule::preBuild();
 
}
 
SCT_FwdModule::~SCT_FwdModule()
{
}
  
 
void 
SCT_FwdModule::getParameters()
{
    const SCT_ForwardModuleParameters * parameters = m_geometryManager->forwardModuleParameters();
    m_upperSide   = parameters->fwdModuleUpperSideNumber(m_ringType);
    if(!m_sqliteReader)
    {
        m_glueThickness = parameters->fwdModuleGlueThickness(m_ringType);
        m_distBtwMountPoints = parameters->fwdModuleDistBtwMountPoints(m_ringType);
        m_mountPointToCenter = parameters->fwdModuleMountPoint(m_ringType);
        m_hybridIsOnInnerEdge =  parameters->fwdHybridIsOnInnerEdge(m_ringType);
        m_stereoAngle = parameters->fwdModuleStereoAngle(m_ringType);
        m_connectorPresent = parameters->fwdModuleConnectorPresent();
        
    }
    
}
 
 
const GeoLogVol * SCT_FwdModule::preBuild()
{  
  // module volume preparing
    
  if(m_sqliteReader) return nullptr;
  
  const SCT_GeneralParameters * generalParameters = m_geometryManager->generalParameters();
  double safety = generalParameters->safety();
  double safetyTmp = safety * Gaudi::Units::cm; // For compatibility with minor bug in older version - safety already in CLHEP units;
 
  // module_length = (zhyb->hyby - zhyb->hybysh + zsmi[m_ringType].mountd2 + 0.33 ) * Gaudi::Units::cm + safety;
  // Distance from outer bybrid edge to outer spine edge.
  // FIXME: The 1.05Gaudi::Units::mm is not needed
  double moduleLength = m_hybrid->mountPointToOuterEdge() + m_mountPointToCenter + m_spine->moduleCenterToEnd() + 1.05 * Gaudi::Units::mm;
  m_length = moduleLength + safety; // We add a bit of safety for the envelope
    
  //  module_thickness = (zhyb->hybz0 * 2 + safety) * Gaudi::Units::cm;
  double sensorEnvelopeThickness = 2 * m_sensor->thickness() + m_spine->thickness() + 2 * m_glueThickness;
  m_thickness = std::max(sensorEnvelopeThickness,  m_hybrid->thickness());
 
  // module_widthInner = ((zsmo->subdq + zssp[m_ringType].ssp0l + 0.325) * 2.+ 0.7 + safety)*Gaudi::Units::cm;   // upto to NOVA_760
  // module_widthOuter = ((zsmo->subdq + zssp[m_ringType].ssp2l + 0.325) * 2.+ 0.7 + safety)*Gaudi::Units::cm;   // upto to NOVA_760
  
  //module_widthInner = ((zsmo->subdq + zssp[m_ringType].ssp0l) * 2.+ 0.7 + safety)*Gaudi::Units::cm;
  //module_widthOuter = ((zsmo->subdq + zssp[m_ringType].ssp2l) * 2.+ 0.7 + safety)*Gaudi::Units::cm;
  
  m_widthInner = (m_spine->width() + 2 * m_subspineL->innerWidth() + 0.7*Gaudi::Units::cm) + safetyTmp; 
  m_widthOuter = (m_spine->width() + 2 * m_subspineL->outerWidth() + 0.7*Gaudi::Units::cm) + safetyTmp; 
 
  if (m_ringType == 3 ) {
    //  module_widthOuter = (( zsmo->subdq + zssp[m_ringType].ssp2l + 0.325) * 2.+ 1.6 + safety)*Gaudi::Units::cm;  // upto to NOVA_760
    //  module_widthOuter = (( zsmo->subdq + zssp[m_ringType].ssp2l) * 2.+ 1.6 + safety)*Gaudi::Units::cm; 
    m_widthOuter = m_spine->width() + 2 * m_subspineL->outerWidth() + 1.6*Gaudi::Units::cm + safetyTmp; 
  }  
    
  // Calculate module shift. Distance between module physics center and center of envelope.  
  int hybridSign =  m_hybridIsOnInnerEdge ? +1: -1;
  //module_shift = (zhyb->hyby - zhyb->hybysh + zsmi[m_ringType].mountd + 0.05)*Gaudi::Units::cm;
  //module_shift = hybrid * (module_length / 2. - module_shift);
 
  double moduleCenterToHybridOuterEdge = m_hybrid->mountPointToOuterEdge() + m_mountPointToCenter + 0.5*Gaudi::Units::mm;
  //FIXME: Should be: (ie don't need the 0.5Gaudi::Units::mm)
  // double moduleCenterToHybridOuterEdge = m_hybrid->mountPointToOuterEdge() + m_mountPointToCenter ;
  m_moduleShift = hybridSign * (0.5 * m_length - moduleCenterToHybridOuterEdge);
 
  // Envelope inner/outer radius
  m_innerRadius = m_sensor->centerRadius() + m_moduleShift - 0.5*m_length;
  m_outerRadius = m_sensor->centerRadius() + m_moduleShift + 0.5*m_length;
  
  // Radial location of mount points (ignoring streo rotation)
  m_mainMountPoint = m_sensor->centerRadius() - hybridSign * m_mountPointToCenter;
  m_secMountPoint =  m_mainMountPoint +  hybridSign * m_distBtwMountPoints;
  m_endLocator =  m_sensor->centerRadius() + hybridSign * m_spine->moduleCenterToEnd();
 
  // Outer module the hybrid is on inner edge.
  // For the rest its in the outer edge.
  // TODO Check this.
  m_powerTapeStart =  m_sensor->centerRadius() - hybridSign * moduleCenterToHybridOuterEdge;
 
  
  const GeoTrd * moduleEnvelopeShape = new GeoTrd(0.5 * m_thickness, 0.5 * m_thickness,
                                                  0.5 * m_widthInner, 0.5 * m_widthOuter,  
                                                  0.5 * m_length);
  const GeoShapeShift & moduleEnvelope = (*moduleEnvelopeShape << GeoTrf::TranslateZ3D(m_moduleShift) );
  
  GeoLogVol * moduleLog =  new GeoLogVol(getName(), &moduleEnvelope, m_materials->gasMaterial());
     
  return moduleLog;
 
}
 
GeoVPhysVol * SCT_FwdModule::build(SCT_Identifier id)
{
    
    // build method for creating module parent physical volume
    // and puting all components into it
    // - relative position of component is part of its shape
    GeoFullPhysVol * module=nullptr;
    
    if(!m_sqliteReader){
        
        module= new GeoFullPhysVol(m_logVolume);
        
        if (m_connector != nullptr) module->add(m_connector->getVolume());
        module->add(m_hybrid->getVolume());
        module->add(m_spine->getVolume());
        module->add(m_subspineL->getVolume());
        module->add(m_subspineR->getVolume());
        
        
        // name tags are not final
        
        
        // Position bottom (x<0)sensor
        double positionX;
        double positionZ = m_sensor->sensorOffset(); // For truncated middle the sensor is offset.
        double rotation;
        positionX =-(0.5*m_spine->thickness() + m_glueThickness + 0.5*m_sensor->thickness());
        rotation = 0.5 * m_stereoAngle;
        GeoTrf::Translation3D vecB(positionX,0,0);
        // Rotate so that X axis goes from backside to implant side
        GeoTrf::Transform3D rotB = GeoTrf::RotateX3D(rotation)*GeoTrf::RotateZ3D(180*Gaudi::Units::degree);
        // First translate in z (only non-zero for truncated middle)
        // Then rotate and then translate in x.
        GeoAlignableTransform *bottomTransform
        = new GeoAlignableTransform(GeoTrf::Transform3D(vecB*rotB)*GeoTrf::TranslateZ3D(positionZ));
        
        int bottomSideNumber = (m_upperSide) ? 0 : 1;
        id.setSide(bottomSideNumber);
        module->add(new GeoNameTag("Sensor_Side#"+intToString(bottomSideNumber)));
        module->add(new GeoIdentifierTag(600+bottomSideNumber));
        module->add(bottomTransform);
        GeoVPhysVol * bottomSensorPV = m_sensor->build(id);
        module->add(bottomSensorPV);
        
        // Store transform
        m_detectorManager->addAlignableTransform(0, id.getWaferId(), bottomTransform, bottomSensorPV);
        
        
        if (m_ringType == 2) { // Place glass pieces in place of sensor
            module->add(new GeoTransform(GeoTrf::Transform3D(vecB*rotB)));
            module->add(m_sensor->getInactive());
        }
        
        // Position top (x>0) sensor
        positionX=-positionX;
        rotation=-rotation;
        GeoTrf::RotateX3D rotT(rotation);
        //rotT.rotateZ(180*Gaudi::Units::degree); // Rotate so that X axis goes from implant side to backside
        GeoTrf::Translation3D vecT(positionX,0,0);
        // First translate in z (only non-zero for truncated middle)
        // Then rotate and then translate in x.
        GeoAlignableTransform *topTransform
        = new GeoAlignableTransform(GeoTrf::Transform3D(vecT*rotT)*GeoTrf::TranslateZ3D(positionZ));
        
        int topSideNumber = m_upperSide;
        id.setSide(topSideNumber);
        module->add(new GeoNameTag("Sensor_Side#"+intToString(topSideNumber)));
        module->add(new GeoIdentifierTag(600+topSideNumber));
        module->add(topTransform);
        GeoVPhysVol * topSensorPV = m_sensor->build(id);
        module->add(topSensorPV);
        
        // Store transform
        m_detectorManager->addAlignableTransform(0, id.getWaferId(), topTransform, topSensorPV);
        
        if (m_ringType == 2) { // Place glass pieces in place of sensor
            module->add(new GeoTransform(GeoTrf::Transform3D(vecT*rotT)));
            module->add(m_sensor->getInactive());
        };
    }
    else{
        
        int bottomSideNumber = (m_upperSide) ? 0 : 1;
        id.setSide(bottomSideNumber);
        m_sensor->build(id);
        
        // Store transform
        std::string key="FwdSensor_Side#"+std::to_string(bottomSideNumber)+"_"+std::to_string(id.getBarrelEC())+"_"+std::to_string(id.getLayerDisk())+"_"+std::to_string(id.getEtaModule())+"_"+std::to_string(id.getPhiModule());
        m_detectorManager->addAlignableTransform(0, id.getWaferId(), (*m_mapAX)[key], (*m_mapFPV)[key]);
        
        int topSideNumber = m_upperSide;
        id.setSide(topSideNumber);
        
        m_sensor->build(id);
        
        key="FwdSensor_Side#"+std::to_string(topSideNumber)+"_"+std::to_string(id.getBarrelEC())+"_"+std::to_string(id.getLayerDisk())+"_"+std::to_string(id.getEtaModule())+"_"+std::to_string(id.getPhiModule());
        
        // Store transform
        m_detectorManager->addAlignableTransform(0, id.getWaferId(), (*m_mapAX)[key], (*m_mapFPV)[key]);
        
    }
    return module;
 
}