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//==========================================================================
// LongCrystalBarBarrelCalorimeter32Polygon_v01 implementation
//--------------------------------------------------------------------------
// Author: Song Weizheng, IHEP
//--------------------------------------------------------------------------
// Data: 2024.4.16
//==========================================================================
#include "DD4hep/DetFactoryHelper.h"
#include "XML/Layering.h"
#include "XML/Utilities.h"
#include "DDRec/DetectorData.h"
#include "DDSegmentation/Segmentation.h"
#define MYDEBUG(x) std::cout << __FILE__ << ":" << __LINE__ << ": " << x << std::endl;
#define MYDEBUGVAL(x) std::cout << __FILE__ << ":" << __LINE__ << ": " << #x << ": " << x << std::endl;
using dd4hep::rec::LayeredCalorimeterData;
using namespace dd4hep;
using namespace std;
static dd4hep::Ref_t create_detector(dd4hep::Detector& theDetector,
xml_h e,
dd4hep::SensitiveDetector sens) {
xml_det_t x_det = e;
std::string det_name = x_det.nameStr();
std::string det_type = x_det.typeStr();
MYDEBUGVAL(det_name);
MYDEBUGVAL(det_type);
int detid = x_det.id();
// ######################################
// ### detector description parameter ###
// ######################################
double radius_inner = theDetector.constant<double>("ecalbarrel_inner_radius");
double radius_outer = theDetector.constant<double>("ecalbarrel_outer_radius");
double length_z = theDetector.constant<double>("ecalbarrel_zlength");
int Nlayers = theDetector.constant<double>("ecalbarrel_layer");
int n_module = theDetector.constant<double>("ecalbarrel_phimodule_number");
int Nblock_z = theDetector.constant<double>("ecalbarrel_Zmodule_number");
double rotation_angle = theDetector.constant<double>("ecalbarrel_module_ratation");
double width_crystal = theDetector.constant<double>("ecalbarrel_width_crystal");
double crystal_wrapping = theDetector.constant<double>("ecalbarrel_crystal_wrapping");
double photoelectronic = theDetector.constant<double>("ecalbarrel_length_photoelectronic");
double photoelectronic_width = theDetector.constant<double>("ecalbarrel_width_photoelectronic");
double dead_material = theDetector.constant<double>("ecalbarrel_length_carbon");
double cable = theDetector.constant<double>("ecalbarrel_length_cable");
double pcb = theDetector.constant<double>("ecalbarrel_length_pcb");
double asic = theDetector.constant<double>("ecalbarrel_length_asic");
double cooling = theDetector.constant<double>("ecalbarrel_length_cooling");
double back_plate = theDetector.constant<double>("ecalbarrel_length_back");
// ###########################
// ### general measurement ###
// ###########################
// Z direction
double pZ = length_z/Nblock_z; // length of module in z
double length_crystal_z = pZ - 2*dead_material - 2*cable - 2*pcb - 2*asic - 2*cooling; // length of crystal wrap sipm in z
int Nbar_phi = floor(length_crystal_z/width_crystal); // number of crystal in phi
// R - phi direction
double angle = 360./n_module*degree;
double trap_depth = radius_outer*cos(angle/2.) - radius_inner;
double trap_line = trap_depth/cos(angle/2.);
double alice_angle = 0.5*angle + rotation_angle; // angle of "|/" in inner<outer trapozoid (positive梯形)
double alice_1 = 0.5*trap_depth/tan(90*degree-alice_angle);
double alice_2 = 0.5*trap_line*sin(angle/2.);
double deviation_positive = alice_1 - alice_2;
double bob_angle = 90*degree - angle;
double deviation_bob = tan(bob_angle)/(tan(alice_angle)+tan(bob_angle))*deviation_positive;
double deviation_negative = deviation_bob/cos(angle);
double height_layer1 = deviation_bob*tan(angle);
double deviation_layer1 = height_layer1*tan(alice_angle);
double copper_angle = 180*degree - alice_angle - bob_angle;
//Half-length of the trapezoid
double dim_x1 = radius_inner*tan(angle/2.)-deviation_positive+deviation_layer1;
double dim_x3 = radius_inner*tan(angle/2.)+deviation_negative;
double m_bottom_length = dim_x1;
double m_tan_a = tan(alice_angle);
double m_bottom_height = radius_inner + height_layer1;
double m_a = m_tan_a*m_tan_a + 1;
double m_b = 2*m_bottom_length*m_tan_a + 2*m_bottom_height;
double m_c = m_bottom_length*m_bottom_length + m_bottom_height*m_bottom_height - radius_outer*radius_outer;
double m_delta = m_b*m_b - 4*m_a*m_c;
double m_x1 = (-m_b + sqrt(m_delta))/(2*m_a);
double m_x2 = (-m_b - sqrt(m_delta))/(2*m_a);
double m_bottom_length1 = dim_x3;
double m_tan_a1 = 1./tan(copper_angle);
double m_bottom_height1 = radius_inner;
double m_a1 = m_tan_a1*m_tan_a1 + 1;
double m_b1 = 2*m_bottom_height1 - 2*m_bottom_length1*m_tan_a1;
double m_c1 = m_bottom_length1*m_bottom_length1 + m_bottom_height1*m_bottom_height1 - radius_outer*radius_outer;
double m_delta1 = m_b1*m_b1 - 4*m_a1*m_c1;
double m_x3 = (-m_b1 + sqrt(m_delta1))/(2*m_a1);
double m_x4 = (-m_b1 - sqrt(m_delta1))/(2*m_a1);
// Thickness of the trapezoid
double depth_longitudinal_p = m_x1;
double depth_longitudinal_n = m_x3;
double plus = depth_longitudinal_p*tan(alice_angle);
double minus = depth_longitudinal_n/tan(copper_angle);
double dim_x2 = dim_x1+plus;
double dim_x4 = dim_x3-minus;
double dim_z_p = depth_longitudinal_p/2.;
double dim_z_n = depth_longitudinal_n/2.;
double size_crystal = (depth_longitudinal_n-back_plate)/Nlayers;
double size_posi_crystal = (depth_longitudinal_p-back_plate)/Nlayers; //Crystal thickness in positive trapezoid
// ####################
// ### World Volume ###
// ####################
dd4hep::DetElement ECAL(det_name, detid);
dd4hep::Volume motherVol = theDetector.pickMotherVolume(ECAL);
dd4hep::PolyhedraRegular envelope(n_module, angle/2., radius_inner, radius_outer, length_z);
dd4hep::Material air(theDetector.material("Air"));
dd4hep::Material vacuum(theDetector.material("Vacuum"));
dd4hep::Volume envelopeVol(det_name, envelope, air);
dd4hep::PlacedVolume envelopePlv = motherVol.placeVolume(envelopeVol, Position(0,0,0));
envelopePlv.addPhysVolID("system",x_det.id());
envelopeVol.setVisAttributes(theDetector, "SeeThrough" );
ECAL.setPlacement(envelopePlv);
dd4hep::Material mat_BGO(theDetector.material("G4_BGO"));
dd4hep::Material mat_CF(theDetector.material("CarbonFiber"));
dd4hep::Material mat_Cu(theDetector.material("G4_Cu"));
dd4hep::Material mat_ESR(theDetector.material("G4_ESR"));
dd4hep::Material mat_Si(theDetector.material("G4_Si"));
dd4hep::Material mat_PCB(theDetector.material("PCB"));
dd4hep::Trapezoid trap_positive(dim_x1, dim_x2, length_z/2, length_z/2, dim_z_p);
dd4hep::Volume trap_positive_vol("trap_positive_vol", trap_positive, air);
trap_positive_vol.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Trapezoid trap_negative(dim_x3, dim_x4, length_z/2, length_z/2, dim_z_n);
dd4hep::Volume trap_negative_vol("trap_negative_vol", trap_negative, air);
trap_negative_vol.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Trapezoid subtrap_positive(dim_x1, dim_x2, length_z/2/Nblock_z, length_z/2/Nblock_z, dim_z_p);
dd4hep::Volume subtrap_positive_vol("subtrap_positive_vol", subtrap_positive, air);
subtrap_positive_vol.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Trapezoid subtrap_negative(dim_x3, dim_x4, length_z/2/Nblock_z, length_z/2/Nblock_z, dim_z_n);
dd4hep::Volume subtrap_negative_vol("subtrap_negative_vol", subtrap_negative, air);
subtrap_negative_vol.setVisAttributes(theDetector, "SeeThrough");
dd4hep::DetElement stavedet(ECAL, "trap",detid);
zhangyang98@ihep.ac.cn
committed
// Create extension objects for reconstruction
LayeredCalorimeterData* caloData = new LayeredCalorimeterData ;
caloData->layoutType = LayeredCalorimeterData::BarrelLayout ;
caloData->inner_symmetry = n_module;
caloData->outer_symmetry = n_module;
caloData->phi0 = 0 ; // hardcoded
// extent of the calorimeter in the r-z-plane [ rmin, rmax, zmin, zmax ] in mm.
caloData->extent[0] = radius_inner;
caloData->extent[1] = radius_outer;
caloData->extent[2] = 0.;
caloData->extent[3] = length_z;
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// ##################################
// ### SiPM PCB ASIC Cable Carbon ###
// ##################################
double electronics = cable + pcb + asic + cooling; // + photoelectronic
double dead_material_p = dead_material/cos(alice_angle);
double dead_material_n = dead_material/sin(copper_angle);
double dead_material_l = dead_material_p + electronics;
double dead_material_r = dead_material_n + electronics;
double dead_material_z = dead_material + electronics;
dd4hep::Trap left_trap(pZ, size_posi_crystal, dead_material_p + size_posi_crystal*tan(alice_angle), (dead_material_p));
dd4hep::Volume left("left_vol", left_trap, mat_CF);
left.setVisAttributes(theDetector, "GrayVis");
dd4hep::Trap left_trap2(pZ, size_posi_crystal, dead_material_p + 2*size_posi_crystal*tan(alice_angle), dead_material_p + size_posi_crystal*tan(alice_angle));
dd4hep::Volume left2("left_vol2", left_trap2, mat_CF);
left2.setVisAttributes(theDetector, "GrayVis");
dd4hep::Trap right_trap(pZ, size_crystal, (dead_material_n + size_crystal/tan(copper_angle)), dead_material_n); //Dead material in each layer in positive trapezoid
dd4hep::Volume right("right_vol", right_trap, mat_CF);
right.setVisAttributes(theDetector, "GrayVis");
dd4hep::Trap right_trap2(pZ, size_crystal, (dead_material_n + 2*size_crystal/tan(copper_angle)), dead_material_n + size_crystal/tan(copper_angle)); //Dead material in negative trapezoid
dd4hep::Volume right2("right_vol2", right_trap2, mat_CF);
right2.setVisAttributes(theDetector, "GrayVis");
// ####################
// ### Print Volume ###
// ####################
//std::cout << "dim_x1" << " : " << dim_x1*2 << std::endl;
//std::cout << "dim_x2" << " : " << dim_x2*2 << std::endl;
//std::cout << "dim_x3" << " : " << dim_x3*2 << std::endl;
//std::cout << "dim_x4" << " : " << dim_x4*2 << std::endl;
//std::cout << "depth_longitudinal_p" << " : " << depth_longitudinal_p << std::endl;
//std::cout << "depth_longitudinal_n" << " : " << depth_longitudinal_n << std::endl;
//std::cout << "radius outer" << " : " << sqrt((radius_inner+depth_longitudinal_n)*(radius_inner+depth_longitudinal_n)+dim_x4*dim_x4) << std::endl;
//std::cout << "radius outer" << " : " << sqrt((radius_inner+height_layer1+depth_longitudinal_p)*(radius_inner+height_layer1+depth_longitudinal_p)+dim_x2*dim_x2) << std::endl;
//std::cout << "size_crystal" << " : " << size_crystal << std::endl;
//std::cout << "size_posi_crystal" << " : " << size_posi_crystal << std::endl;
//std::cout << "dead_material_p" << " : " << dead_material_p << std::endl;
//std::cout << "dead_material_plus" << " : " << size_posi_crystal*tan(alice_angle) << std::endl;
//std::cout << "dead_material_n" << " : " << dead_material_n << std::endl;
//std::cout << "dead_material_minus" << " : " << size_crystal/tan(copper_angle) << std::endl;
//std::cout << "area_1" << " : " << dead_material_p*2*size_posi_crystal << std::endl;
//std::cout << "area_2" << " : " << (dead_material_p+dead_material_p+size_posi_crystal*tan(alice_angle))*size_posi_crystal << std::endl;
//std::cout << "area_3" << " : " << (dead_material_p+dead_material_p+2*size_posi_crystal*tan(alice_angle))*size_posi_crystal << std::endl;
//std::cout << "area_4" << " : " << dead_material_n*2*size_crystal << std::endl;
//std::cout << "area_5" << " : " << (dead_material_n+dead_material_n+size_crystal/tan(copper_angle))*size_crystal << std::endl;
//std::cout << "area_6" << " : " << (dead_material_n+dead_material_n+2*size_crystal/tan(copper_angle))*size_crystal << std::endl;
double area_posi = (2*dim_x1+2*dim_x2)*depth_longitudinal_p/2;
double area_nega = (2*dim_x3+2*dim_x4)*depth_longitudinal_n/2;
double area_1 = dead_material_p*2*size_posi_crystal;
double area_2 = (dead_material_p+dead_material_p+size_posi_crystal*tan(alice_angle))*size_posi_crystal;
double area_3 = (dead_material_p+dead_material_p+2*size_posi_crystal*tan(alice_angle))*size_posi_crystal;
double area_4 = dead_material_n*2*size_crystal;
double area_5 = (dead_material_n+dead_material_n+size_crystal/tan(copper_angle))*size_crystal;
double area_6 = (dead_material_n+dead_material_n+2*size_crystal/tan(copper_angle))*size_crystal;
//std::cout << "area_1_ratio" << " : " << (area_1+area_4)*2*14/(area_posi+area_nega) << std::endl;
//std::cout << "area_2_ratio" << " : " << (area_2+area_5)*2*14/(area_posi+area_nega) << std::endl;
//std::cout << "area_3_ratio" << " : " << (area_3+area_6)*2*14/(area_posi+area_nega) << std::endl;
//std::cout << "pZ" << " : " << pZ << std::endl;
//std::cout << "Nbar_phi" << " : " << Nbar_phi << std::endl;
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// ####################################
// ### placement of all the volumes ###
// ####################################
double length_posi; // bottom lenght
double length_nega; //
double length_posi_1; //
double length_nega_1; //
int Nbar_z;
double last_bar; //
double last_bar_z;
int Tot_Z = 0;
int Tot_Phi = 0;
double Tot_length_Z_posi = 0;
double Tot_length_Z_nega = 0;
double Tot_length_Phi_posi = 0;
double Tot_length_Phi_nega = 0;
// ##########################
// ### positive trapezoid ###
// ##########################
dd4hep::Volume backPlate("back_plate", dd4hep::Box(back_plate*15, back_plate*15, back_plate*0.5), mat_PCB);
backPlate.setVisAttributes(theDetector, "GrayVis");
std::string blockname = "back_plate_positive";
dd4hep::DetElement sd(stavedet, blockname, detid);
dd4hep::PlacedVolume plv = subtrap_positive_vol.placeVolume(backPlate, Position(0, 0, dim_z_p-back_plate*0.5));
sd.setPlacement(plv);
for(int ilayer=0; ilayer<Nlayers; ilayer=ilayer+1){
// Break size
if(ilayer%2 ==0){
length_posi = dim_x1 - dead_material_l + ilayer*size_posi_crystal*tan(alice_angle);
length_posi_1 = dim_x1 - dead_material_l + (ilayer+1)*size_posi_crystal*tan(alice_angle);
}
else{
length_posi = dim_x1 - dead_material_l + (ilayer-1)*size_posi_crystal*tan(alice_angle);
length_posi_1 = dim_x1 - dead_material_l + ilayer*size_posi_crystal*tan(alice_angle);
}
//Trapezoid in layer
dd4hep::Volume block("block", dd4hep::Trapezoid( dim_x1+ilayer*size_posi_crystal*tan(alice_angle), dim_x1+(ilayer+1)*size_posi_crystal*tan(alice_angle), pZ/2, pZ/2, size_posi_crystal/2), air);
block.setVisAttributes(theDetector, "SeeThrough");
std::string blockname = "Block_positive_"+std::to_string(ilayer+1);
dd4hep::DetElement sd(stavedet, blockname, detid);
//Carbon fiber supporting
dd4hep::Volume CarbonFiber0("CarbonFiber0", dd4hep::Box(length_posi+electronics, dead_material*0.5, size_posi_crystal*0.5), mat_CF); //phi
CarbonFiber0.setVisAttributes(theDetector, "GrayVis");
dd4hep::PlacedVolume plv_cf0 = block.placeVolume(CarbonFiber0, Position(0, pZ/2-dead_material/2, 0));
std::string cfname0 = "Deadzone_s4_"+std::to_string(ilayer+1);
dd4hep::DetElement cfdet0(sd, cfname0, detid);
cfdet0.setPlacement(plv_cf0);
dd4hep::PlacedVolume plv_cf1 = block.placeVolume(CarbonFiber0, Position(0, -pZ/2+dead_material/2, 0));
std::string cfname1 = "Deadzone_s5_"+std::to_string(ilayer+1);
dd4hep::DetElement cfdet1(sd, cfname1, detid);
cfdet1.setPlacement(plv_cf1);
if(ilayer%2 ==0){
dd4hep::Transform3D transform(dd4hep::RotationZ(180*degree)*dd4hep::RotationX(-90*degree), dd4hep::Position(-length_posi-electronics-(dead_material_p)/2-(((dead_material_p) + size_posi_crystal*tan(alice_angle))/2-(dead_material_p)/2)/2, 0., 0.));
dd4hep::PlacedVolume plv_bar2 = block.placeVolume(left, transform);
std::string barname2 = "Deadzone_s2_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet2(sd, barname2, detid);
bardet2.setPlacement(plv_bar2);
dd4hep::Transform3D transform2(dd4hep::RotationX(-90*degree), dd4hep::Position(length_posi+electronics+(dead_material_p)/2+(((dead_material_p) + size_posi_crystal*tan(alice_angle))/2-(dead_material_p)/2)/2, 0., 0.));
dd4hep::PlacedVolume plv_bar3= block.placeVolume(left, transform2);
std::string barname3 = "Deadzone_s3_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet3(sd, barname3, detid);
bardet3.setPlacement(plv_bar3);
}
else{
dd4hep::Transform3D transform(dd4hep::RotationZ(180*degree)*dd4hep::RotationX(-90*degree), dd4hep::Position(-length_posi-electronics-(dead_material_p+size_posi_crystal*tan(alice_angle))/2-(((dead_material_p) + 2*size_posi_crystal*tan(alice_angle))/2-(dead_material_p+size_posi_crystal*tan(alice_angle))/2)/2, 0., 0.));
dd4hep::PlacedVolume plv_bar2 = block.placeVolume(left2, transform);
std::string barname2 = "Deadzone_s2_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet2(sd, barname2, detid);
bardet2.setPlacement(plv_bar2);
dd4hep::Transform3D transform2(dd4hep::RotationX(-90*degree), dd4hep::Position(length_posi+electronics+(dead_material_p+size_posi_crystal*tan(alice_angle))/2+(((dead_material_p) + 2*size_posi_crystal*tan(alice_angle))/2-(dead_material_p+size_posi_crystal*tan(alice_angle))/2)/2, 0., 0.));
dd4hep::PlacedVolume plv_bar3= block.placeVolume(left2, transform2);
std::string barname3 = "Deadzone_s3_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet3(sd, barname3, detid);
bardet3.setPlacement(plv_bar3);
}
// Electronics
dd4hep::Volume electronics_phi0("electronics_phi0", dd4hep::Box(length_posi+electronics, (electronics-cooling)*0.5, size_posi_crystal*0.5), mat_PCB); //phi
electronics_phi0.setVisAttributes(theDetector, "YellowVis");
dd4hep::PlacedVolume plv_elec0 = block.placeVolume(electronics_phi0, Position(0, -length_crystal_z/2-(electronics-cooling)/2, 0));
std::string elecname0 = "electronics_positive_phi_u_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet0(sd, elecname0, detid);
elecdet0.setPlacement(plv_elec0);
dd4hep::PlacedVolume plv_elec1 = block.placeVolume(electronics_phi0, Position(0, length_crystal_z/2+(electronics-cooling)/2, 0));
std::string elecname1 = "electronics_positive_phi_d_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet1(sd, elecname1, detid);
elecdet1.setPlacement(plv_elec1);
dd4hep::Volume electronics_phi_l("electronics_phi_l", dd4hep::Box((electronics-cooling)/2, length_crystal_z/2, size_posi_crystal*0.5), mat_PCB); //phi
electronics_phi_l.setVisAttributes(theDetector, "YellowVis");
dd4hep::PlacedVolume plv_elec2 = block.placeVolume(electronics_phi_l, Position(-length_posi-(electronics-cooling)/2, 0, 0));
std::string elecname2 = "electronics_positive_phi_l_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet2(sd, elecname2, detid);
elecdet2.setPlacement(plv_elec2);
dd4hep::PlacedVolume plv_elec3 = block.placeVolume(electronics_phi_l, Position(length_posi+(electronics-cooling)/2, 0, 0));
std::string elecname3 = "electronics_positive_phi_r_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet3(sd, elecname3, detid);
elecdet3.setPlacement(plv_elec3);
//Cooling copper
dd4hep::Volume copper_phi0("copper_phi0", dd4hep::Box(length_posi+electronics, cooling*0.5, size_posi_crystal*0.5), mat_Cu); //phi
copper_phi0.setVisAttributes(theDetector, "RedVis");
dd4hep::PlacedVolume plv_copper0 = block.placeVolume(copper_phi0, Position(0, -length_crystal_z/2-electronics+cooling/2, 0));
std::string coppername0 = "copper_positive_phi_u_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet0(sd, coppername0, detid);
copperdet0.setPlacement(plv_copper0);
dd4hep::PlacedVolume plv_copper1 = block.placeVolume(copper_phi0, Position(0, length_crystal_z/2+electronics-cooling/2, 0));
std::string coppername1 = "copper_positive_phi_d_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet1(sd, coppername1, detid);
copperdet1.setPlacement(plv_copper1);
dd4hep::Volume copper_phi_l("copper_phi_l", dd4hep::Box(cooling/2, length_crystal_z/2, size_posi_crystal*0.5), mat_Cu); //phi
copper_phi_l.setVisAttributes(theDetector, "RedVis");
dd4hep::PlacedVolume plv_copper2 = block.placeVolume(copper_phi_l, Position(-length_posi-electronics+cooling/2, 0, 0));
std::string coppername2 = "copper_positive_phi_l_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet2(sd, coppername2, detid);
copperdet2.setPlacement(plv_copper2);
dd4hep::PlacedVolume plv_copper3 = block.placeVolume(copper_phi_l, Position(length_posi+electronics-cooling/2, 0, 0));
std::string coppername3 = "copper_positive_phi_r_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet3(sd, coppername3, detid);
copperdet3.setPlacement(plv_copper3);
// ###################################
// ####### Phi direction place #######
// ###################################
if(ilayer%2==0){
Tot_Phi = Tot_Phi + Nbar_phi;
Tot_length_Phi_posi = Tot_length_Phi_posi + (length_posi-photoelectronic-crystal_wrapping)*2*(size_posi_crystal*0.5-crystal_wrapping)*2*(length_crystal_z-crystal_wrapping*2*Nbar_phi);
//cout<<"length_crystal_phi "<<(dim_x1 - dead_material_l-photoelectronic-crystal_wrapping)*2 <<" "<<size_posi_crystal*tan(alice_angle)*2<<endl;
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dd4hep::Volume sipm_s0("sipm_s0", dd4hep::Box(photoelectronic/2, photoelectronic_width/2, photoelectronic_width/2), mat_Si);
sipm_s0.setVisAttributes(theDetector, "BlueVis");
dd4hep::Volume sipm_s1("sipm_s1", dd4hep::Box(crystal_wrapping/2, photoelectronic_width/2, photoelectronic_width/2), mat_Si);
sipm_s1.setVisAttributes(theDetector, "BlueVis");
last_bar_z = length_crystal_z - (Nbar_phi-1)*width_crystal;
dd4hep::Volume bar_s0("bar_s0", dd4hep::Box(length_posi-photoelectronic-crystal_wrapping, width_crystal*0.5-crystal_wrapping, size_posi_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s0.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s0.setSensitiveDetector(sens);
dd4hep::Volume bar_s1("bar_s1", dd4hep::Box(length_posi-photoelectronic-crystal_wrapping, last_bar_z*0.5-crystal_wrapping, size_posi_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s1.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s1.setSensitiveDetector(sens);
for(int ibar0=0;ibar0<Nbar_phi;ibar0++){
if(ibar0 == Nbar_phi-1){
dd4hep::Volume hardware_s1("hardware_s1", dd4hep::Box(length_posi, last_bar_z*0.5, size_posi_crystal*0.5), air);
hardware_s1.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s1("crystal_s1", dd4hep::Box(length_posi-photoelectronic, last_bar_z*0.5, size_posi_crystal*0.5), mat_ESR);
crystal_s1.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s1.placeVolume(bar_s1, Position(0, 0, 0));
std::string barname0 = "CrystalBar_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s1.placeVolume(sipm_s1, Position(-length_posi+photoelectronic+crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_positive_s8_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s1.placeVolume(sipm_s1, Position(length_posi-photoelectronic-crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname5 = "SiPM_positive_s9_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s1.placeVolume(sipm_s1, Position(-length_posi+photoelectronic+crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname6 = "SiPM_positive_s10_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s1.placeVolume(sipm_s1, Position(length_posi-photoelectronic-crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_positive_s11_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s1.placeVolume(sipm_s0, Position(-length_posi+photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s1.placeVolume(sipm_s0, Position(length_posi-photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname1 = "SiPM_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s1.placeVolume(sipm_s0, Position(-length_posi+photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname2 = "SiPM_positive_s2_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s1.placeVolume(sipm_s0, Position(length_posi-photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_positive_s3_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s1.placeVolume(crystal_s1, Position(0, 0, 0));
std::string cryname0 = "Crystal_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement crydet0(sd, cryname0, detid);
crydet0.setPlacement(plv_cry0);
dd4hep::PlacedVolume plv_hard0 = block.placeVolume(hardware_s1, Position(0, -length_crystal_z/2+last_bar_z*0.5, 0));
plv_hard0.addPhysVolID("slayer",0).addPhysVolID("bar",ibar0);
std::string hardname0 = "Hardware_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement harddet0(sd, hardname0, detid);
harddet0.setPlacement(plv_hard0);
}
else{
dd4hep::Volume hardware_s0("hardware_s0", dd4hep::Box(length_posi, width_crystal*0.5, size_posi_crystal*0.5), air);
hardware_s0.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s0("crystal_s0", dd4hep::Box(length_posi-photoelectronic, width_crystal*0.5, size_posi_crystal*0.5), mat_ESR);
crystal_s0.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s0.placeVolume(bar_s0, Position(0, 0, 0));
std::string barname0 = "CrystalBar_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s0.placeVolume(sipm_s1, Position(-length_posi+photoelectronic+crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_positive_s8_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s0.placeVolume(sipm_s1, Position(length_posi-photoelectronic-crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname5 = "SiPM_positive_s9_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s0.placeVolume(sipm_s1, Position(-length_posi+photoelectronic+crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname6 = "SiPM_positive_s10_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s0.placeVolume(sipm_s1, Position(length_posi-photoelectronic-crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_positive_s11_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s0.placeVolume(sipm_s0, Position(-length_posi+photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s0.placeVolume(sipm_s0, Position(length_posi-photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname1 = "SiPM_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s0.placeVolume(sipm_s0, Position(-length_posi+photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname2 = "SiPM_positive_s2_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s0.placeVolume(sipm_s0, Position(length_posi-photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_positive_s3_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s0.placeVolume(crystal_s0, Position(0, 0, 0));
std::string cryname0 = "Crystal_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement crydet0(sd, cryname0, detid);
crydet0.setPlacement(plv_cry0);
dd4hep::PlacedVolume plv_hard0 = block.placeVolume(hardware_s0, Position(0, length_crystal_z/2-(2*ibar0+1)*width_crystal/2, 0));
std::string hardname0 = "Hardware_positive_s0_"+std::to_string(ibar0);
dd4hep::DetElement harddet0(sd, hardname0, detid);
plv_hard0.addPhysVolID("slayer",0).addPhysVolID("bar",ibar0);
harddet0.setPlacement(plv_hard0);
}
}
}
// #################################
// ####### Z direction place #######
// #################################
else{
Nbar_z = int((length_posi-0.5*width_crystal)/width_crystal);
last_bar = length_posi-0.5*width_crystal - (Nbar_z-1)*width_crystal;
Tot_Z = Tot_Z + 2*Nbar_z+1;
Tot_length_Z_posi = Tot_length_Z_posi + (2*length_posi-(2*Nbar_z+1)*crystal_wrapping*2)*(length_crystal_z/2-photoelectronic-crystal_wrapping)*2*(size_posi_crystal*0.5-crystal_wrapping)*2;
//cout<<"layer: "<< ilayer+1 <<" Nbar_z: "<< 2*Nbar_z+1 <<endl;
//cout<<"length_crystal_z "<<(length_crystal_z/2-photoelectronic-crystal_wrapping)*2 <<endl;
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dd4hep::Volume sipm_s0("sipm_s0", dd4hep::Box(photoelectronic_width/2, photoelectronic/2, photoelectronic_width/2), mat_Si);
sipm_s0.setVisAttributes(theDetector, "BlueVis");
dd4hep::Volume sipm_s1("sipm_s1", dd4hep::Box(photoelectronic_width/2, crystal_wrapping/2, photoelectronic_width/2), mat_Si);
sipm_s1.setVisAttributes(theDetector, "BlueVis");
dd4hep::Volume bar_s0("bar_s0", dd4hep::Box(width_crystal*0.5-crystal_wrapping, length_crystal_z/2-photoelectronic-crystal_wrapping, size_posi_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s0.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s0.setSensitiveDetector(sens);
dd4hep::Volume bar_s1("bar_s1", dd4hep::Box(last_bar*0.5-crystal_wrapping, length_crystal_z/2-photoelectronic-crystal_wrapping, size_posi_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s1.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s1.setSensitiveDetector(sens);
for(int ibar0=0;ibar0<2*Nbar_z+1;ibar0++){
if( (ibar0 == 0) || (ibar0 == 2*Nbar_z)){
dd4hep::Volume hardware_s1("hardware_s1", dd4hep::Box(last_bar*0.5, length_crystal_z/2, size_posi_crystal*0.5), air);
hardware_s1.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s1("crystal_s1", dd4hep::Box(last_bar*0.5, length_crystal_z/2-photoelectronic, size_posi_crystal*0.5), mat_ESR);
crystal_s1.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s1.placeVolume(bar_s1, Position(0, 0, 0));
std::string barname0 = "CrystalBar_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s1.placeVolume(sipm_s1, Position(0, -length_crystal_z/2+photoelectronic+crystal_wrapping/2, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_positive_s12_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s1.placeVolume(sipm_s1, Position(0, length_crystal_z/2-photoelectronic-crystal_wrapping/2, photoelectronic_width/2));
std::string sipmname5 = "SiPM_positive_s13_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s1.placeVolume(sipm_s1, Position(0, -length_crystal_z/2+photoelectronic+crystal_wrapping/2, photoelectronic_width/2));
std::string sipmname6 = "SiPM_positive_s14_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s1.placeVolume(sipm_s1, Position(0, length_crystal_z/2-photoelectronic-crystal_wrapping/2, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_positive_s15_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s1.placeVolume(sipm_s0, Position(0, -length_crystal_z/2+photoelectronic/2, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_positive_s4_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s1.placeVolume(sipm_s0, Position(0, length_crystal_z/2-photoelectronic/2, photoelectronic_width/2));
std::string sipmname1 = "SiPM_positive_s5_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s1.placeVolume(sipm_s0, Position(0, -length_crystal_z/2+photoelectronic/2, photoelectronic_width/2));
std::string sipmname2 = "SiPM_positive_s6_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s1.placeVolume(sipm_s0, Position(0, length_crystal_z/2-photoelectronic/2, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_positive_s7_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s1.placeVolume(crystal_s1, Position(0, 0, 0));
std::string cryname0 = "Crystal_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement crydet0(sd, cryname0, detid);
crydet0.setPlacement(plv_cry0);
dd4hep::PlacedVolume plv_hard0;
if(ibar0==0){
plv_hard0 = block.placeVolume(hardware_s1, Position(0.5*width_crystal + (Nbar_z-1)*width_crystal + 0.5*last_bar, 0, 0));
}
else{
plv_hard0 = block.placeVolume(hardware_s1, Position(-0.5*width_crystal - (Nbar_z-1)*width_crystal - 0.5*last_bar, 0, 0));
}
plv_hard0.addPhysVolID("slayer",1).addPhysVolID("bar",ibar0);
std::string hardname0 = "Hardware_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement harddet0(sd, hardname0, detid);
harddet0.setPlacement(plv_hard0);
}
else{
dd4hep::Volume hardware_s0("hardware_s0", dd4hep::Box(width_crystal*0.5, length_crystal_z/2, size_posi_crystal*0.5), air);
hardware_s0.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s0("crystal_s0", dd4hep::Box(width_crystal*0.5, length_crystal_z/2-photoelectronic, size_posi_crystal*0.5), mat_ESR);
crystal_s0.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s0.placeVolume(bar_s0, Position(0, 0, 0));
std::string barname0 = "CrystalBar_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s0.placeVolume(sipm_s1, Position(0, -length_crystal_z/2+photoelectronic+crystal_wrapping/2, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_positive_s12_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s0.placeVolume(sipm_s1, Position(0, length_crystal_z/2-photoelectronic-crystal_wrapping/2, photoelectronic_width/2));
std::string sipmname5 = "SiPM_positive_s13_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s0.placeVolume(sipm_s1, Position(0, -length_crystal_z/2+photoelectronic+crystal_wrapping/2, photoelectronic_width/2));
std::string sipmname6 = "SiPM_positive_s14_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s0.placeVolume(sipm_s1, Position(0, length_crystal_z/2-photoelectronic-crystal_wrapping/2, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_positive_s15_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s0.placeVolume(sipm_s0, Position(0, -length_crystal_z/2+photoelectronic/2, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_positive_s4_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s0.placeVolume(sipm_s0, Position(0, length_crystal_z/2-photoelectronic/2, photoelectronic_width/2));
std::string sipmname1 = "SiPM_positive_s5_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s0.placeVolume(sipm_s0, Position(0, -length_crystal_z/2+photoelectronic/2, photoelectronic_width/2));
std::string sipmname2 = "SiPM_positive_s6_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s0.placeVolume(sipm_s0, Position(0, length_crystal_z/2-photoelectronic/2, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_positive_s7_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s0.placeVolume(crystal_s0, Position(0, 0, 0));
std::string cryname0 = "Crystal_positive_s1_"+std::to_string(ibar0);
dd4hep::DetElement crydet0(sd, cryname0, detid);
crydet0.setPlacement(plv_cry0);
dd4hep::PlacedVolume plv_hard0 = block.placeVolume(hardware_s0, Position(length_posi - last_bar - (ibar0-1)*width_crystal - width_crystal/2, 0, 0));
std::string hardname0 = "Hardware_positive_s1_"+std::to_string(ibar0);
plv_hard0.addPhysVolID("slayer",1).addPhysVolID("bar",ibar0);
dd4hep::DetElement harddet0(sd, hardname0, detid);
harddet0.setPlacement(plv_hard0);
}
}
}
dd4hep::PlacedVolume plv = subtrap_positive_vol.placeVolume(block, Position(0, 0, 0.5*size_posi_crystal+ilayer*size_posi_crystal-dim_z_p));
plv.addPhysVolID("dlayer", floor(ilayer/2+1));
//cout<<"*****layer: "<<floor(ilayer/2+1)<<endl;
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sd.setPlacement(plv);
}
// ##########################
// ### negative trapezoid ###
// ##########################
dd4hep::Volume backPlate1("back_plate_negative", dd4hep::Box(back_plate*15, back_plate*15, back_plate*0.5), mat_PCB);
backPlate1.setVisAttributes(theDetector, "GrayVis");
std::string blockname1 = "back_plate_negative";
dd4hep::DetElement sd1(stavedet, blockname1, detid);
dd4hep::PlacedVolume plv1 = subtrap_negative_vol.placeVolume(backPlate1, Position(0, 0, dim_z_n-back_plate*0.5));
sd1.setPlacement(plv1);
for(int ilayer=0; ilayer<Nlayers; ilayer=ilayer+1){
// Break size
if(ilayer%2 == 0){
length_nega = dim_x3 - dead_material_r - (ilayer+2)*size_crystal/tan(copper_angle);
length_nega_1 = dim_x3 - dead_material_r - (ilayer+1)*size_crystal/tan(copper_angle);
}
else{
length_nega = dim_x3 - dead_material_r - (ilayer+1)*size_crystal/tan(copper_angle);
length_nega_1 = dim_x3 - dead_material_r - ilayer*size_crystal/tan(copper_angle);
}
//Trapezoid in layer
dd4hep::Volume block("block", dd4hep::Trapezoid( dim_x3-ilayer*size_crystal/tan(copper_angle), dim_x3-(ilayer+1)*size_crystal/tan(copper_angle), pZ/2, pZ/2, size_crystal*0.5), air);
block.setVisAttributes(theDetector, "SeeThrough");
std::string blockname = "Block_nagative_"+std::to_string(ilayer+1);
dd4hep::DetElement sd(stavedet, blockname, detid);
//Carbon fiber supporting
dd4hep::Volume CarbonFiber0("CarbonFiber0", dd4hep::Box(length_nega+electronics, dead_material*0.5, size_crystal*0.5), mat_CF); //phi
CarbonFiber0.setVisAttributes(theDetector, "GrayVis");
dd4hep::PlacedVolume plv_cf0 = block.placeVolume(CarbonFiber0, Position(0, pZ/2-dead_material/2, 0));
std::string cfname0 = "Deadzone_s4_"+std::to_string(ilayer+1);
dd4hep::DetElement cfdet0(sd, cfname0, detid);
cfdet0.setPlacement(plv_cf0);
dd4hep::PlacedVolume plv_cf1 = block.placeVolume(CarbonFiber0, Position(0, -pZ/2+dead_material/2, 0));
std::string cfname1 = "Deadzone_s5_"+std::to_string(ilayer+1);
dd4hep::DetElement cfdet1(sd, cfname1, detid);
cfdet1.setPlacement(plv_cf1);
if(ilayer%2 != 0)
{
dd4hep::Transform3D transform(dd4hep::RotationX(-90*degree)*dd4hep::RotationZ(180*degree), dd4hep::Position(-length_nega-electronics-dead_material_n/2-((dead_material_n + size_crystal/tan(copper_angle))/2-dead_material_n/2)/2, 0., 0.) );
dd4hep::PlacedVolume plv_bar2 = block.placeVolume(right, transform);
std::string barname2 = "Deadzone_s2_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet2(sd, barname2, detid);
bardet2.setPlacement(plv_bar2);
dd4hep::Transform3D transform2(dd4hep::RotationX(90*degree), dd4hep::Position(length_nega+electronics+dead_material_n/2+((dead_material_n + size_crystal/tan(copper_angle))/2-dead_material_n/2)/2, 0., 0.) );
dd4hep::PlacedVolume plv_bar3= block.placeVolume(right, transform2);
std::string barname3 = "Deadzone_s3_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet3(sd, barname3, detid);
bardet3.setPlacement(plv_bar3);
}
else{
dd4hep::Transform3D transform(dd4hep::RotationX(-90*degree)*dd4hep::RotationZ(180*degree), dd4hep::Position(-length_nega-electronics-(dead_material_n+size_crystal/tan(copper_angle))/2-((dead_material_n + 2*size_crystal/tan(copper_angle))/2-(dead_material_n+size_crystal/tan(copper_angle))/2)/2, 0., 0.) );
dd4hep::PlacedVolume plv_bar2 = block.placeVolume(right2, transform);
std::string barname2 = "Deadzone_s2_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet2(sd, barname2, detid);
bardet2.setPlacement(plv_bar2);
dd4hep::Transform3D transform2(dd4hep::RotationX(90*degree), dd4hep::Position(length_nega+electronics+(dead_material_n+size_crystal/tan(copper_angle))/2+((dead_material_n + 2*size_crystal/tan(copper_angle))/2-(dead_material_n+size_crystal/tan(copper_angle))/2)/2, 0., 0.) );
dd4hep::PlacedVolume plv_bar3= block.placeVolume(right2, transform2);
std::string barname3 = "Deadzone_s3_"+std::to_string(ilayer+1);
dd4hep::DetElement bardet3(sd, barname3, detid);
bardet3.setPlacement(plv_bar3);
}
//Electronics
dd4hep::Volume electronics_phi0("electronics_phi0", dd4hep::Box(length_nega+electronics, (electronics-cooling)*0.5, size_crystal*0.5), mat_PCB); //phi
electronics_phi0.setVisAttributes(theDetector, "YellowVis");
dd4hep::PlacedVolume plv_elec0 = block.placeVolume(electronics_phi0, Position(0, -length_crystal_z/2-(electronics-cooling)/2, 0));
std::string elecname0 = "electronics_nega_phi_u_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet0(sd, elecname0, detid);
elecdet0.setPlacement(plv_elec0);
dd4hep::PlacedVolume plv_elec1 = block.placeVolume(electronics_phi0, Position(0, length_crystal_z/2+(electronics-cooling)/2, 0));
std::string elecname1 = "electronics_nega_phi_d_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet1(sd, elecname1, detid);
elecdet1.setPlacement(plv_elec1);
dd4hep::Volume electronics_phi_l("electronics_phi_l", dd4hep::Box((electronics-cooling)/2, length_crystal_z/2, size_crystal*0.5), mat_PCB); //phi
electronics_phi_l.setVisAttributes(theDetector, "YellowVis");
dd4hep::PlacedVolume plv_elec2 = block.placeVolume(electronics_phi_l, Position(-length_nega-(electronics-cooling)/2, 0, 0));
std::string elecname2 = "electronics_nega_phi_l_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet2(sd, elecname2, detid);
elecdet2.setPlacement(plv_elec2);
dd4hep::PlacedVolume plv_elec3 = block.placeVolume(electronics_phi_l, Position(length_nega+(electronics-cooling)/2, 0, 0));
std::string elecname3 = "electronics_nega_phi_r_"+std::to_string(ilayer+1);
dd4hep::DetElement elecdet3(sd, elecname3, detid);
elecdet3.setPlacement(plv_elec3);
//Cooling copper
dd4hep::Volume copper_phi0("copper_phi0", dd4hep::Box(length_nega+electronics, cooling*0.5, size_crystal*0.5), mat_Cu); //phi
copper_phi0.setVisAttributes(theDetector, "RedVis");
dd4hep::PlacedVolume plv_copper0 = block.placeVolume(copper_phi0, Position(0, -length_crystal_z/2-electronics+cooling/2, 0));
std::string coppername0 = "cooling_nega_phi_u_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet0(sd, coppername0, detid);
copperdet0.setPlacement(plv_copper0);
dd4hep::PlacedVolume plv_copper1 = block.placeVolume(copper_phi0, Position(0, length_crystal_z/2+electronics-cooling/2, 0));
std::string coppername1 = "cooling_nega_phi_d_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet1(sd, coppername1, detid);
copperdet1.setPlacement(plv_copper1);
dd4hep::Volume copper_phi_l("copper_phi_l", dd4hep::Box(cooling*0.5, length_crystal_z/2, size_crystal*0.5), mat_Cu); //phi
copper_phi_l.setVisAttributes(theDetector, "RedVis");
dd4hep::PlacedVolume plv_copper2 = block.placeVolume(copper_phi_l, Position(-length_nega-electronics+cooling/2, 0, 0));
std::string coppername2 = "cooling_nega_phi_l_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet2(sd, coppername2, detid);
copperdet2.setPlacement(plv_copper2);
dd4hep::PlacedVolume plv_copper3 = block.placeVolume(copper_phi_l, Position(length_nega+electronics-cooling/2, 0, 0));
std::string coppername3 = "cooling_nega_phi_r_"+std::to_string(ilayer+1);
dd4hep::DetElement copperdet3(sd, coppername3, detid);
copperdet3.setPlacement(plv_copper3);
// ###################################
// ####### Phi direction place #######
// ###################################
if(ilayer%2==0){
Tot_Phi = Tot_Phi + Nbar_phi;
Tot_length_Phi_nega = Tot_length_Phi_nega + (length_nega-photoelectronic-crystal_wrapping)*2*(length_crystal_z-Nbar_phi*crystal_wrapping*2)*(size_crystal*0.5-crystal_wrapping)*2;
//cout<<"length_crystal_phi "<<(dim_x3 - dead_material_r-photoelectronic-crystal_wrapping)*2 <<" "<<size_crystal/tan(copper_angle)*2<<endl;
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dd4hep::Volume sipm_s0("sipm_s0", dd4hep::Box(photoelectronic/2, photoelectronic_width/2, photoelectronic_width/2), mat_Si);
sipm_s0.setVisAttributes(theDetector, "BlueVis");
dd4hep::Volume sipm_s1("sipm_s1", dd4hep::Box(crystal_wrapping/2, photoelectronic_width/2, photoelectronic_width/2), mat_Si);
sipm_s1.setVisAttributes(theDetector, "BlueVis");
last_bar_z = length_crystal_z - (Nbar_phi-1)*width_crystal;
dd4hep::Volume bar_s0("bar_s0", dd4hep::Box(length_nega-photoelectronic-crystal_wrapping, width_crystal*0.5-crystal_wrapping, size_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s0.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s0.setSensitiveDetector(sens);
dd4hep::Volume bar_s1("bar_s1", dd4hep::Box(length_nega-photoelectronic-crystal_wrapping, last_bar_z*0.5-crystal_wrapping, size_crystal*0.5-crystal_wrapping), mat_BGO);
bar_s1.setVisAttributes(theDetector, "EcalBarrelVis");
bar_s1.setSensitiveDetector(sens);
for(int ibar0=0;ibar0<Nbar_phi;ibar0++){
if(ibar0 == (Nbar_phi-1)){
dd4hep::Volume hardware_s1("hardware_s1", dd4hep::Box(length_nega, last_bar_z*0.5, size_crystal*0.5), air);
hardware_s1.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s1("crystal_s1", dd4hep::Box(length_nega-photoelectronic, last_bar_z*0.5, size_crystal*0.5), mat_ESR);
crystal_s1.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s1.placeVolume(bar_s1, Position(0, 0, 0));
std::string barname0 = "CrystalBar_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s1.placeVolume(sipm_s1, Position(-length_nega+photoelectronic+crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_negative_s8_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s1.placeVolume(sipm_s1, Position(length_nega-photoelectronic-crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname5 = "SiPM_negative_s9_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s1.placeVolume(sipm_s1, Position(-length_nega+photoelectronic+crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname6 = "SiPM_negative_s10_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s1.placeVolume(sipm_s1, Position(length_nega-photoelectronic-crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_negative_s11_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s1.placeVolume(sipm_s0, Position(-length_nega+photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s1.placeVolume(sipm_s0, Position(length_nega-photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname1 = "SiPM_negative_s1_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s1.placeVolume(sipm_s0, Position(-length_nega+photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname2 = "SiPM_negative_s2_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s1.placeVolume(sipm_s0, Position(length_nega-photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_negative_s3_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s1.placeVolume(crystal_s1, Position(0, 0, 0));
std::string cryname0 = "Crystal_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement crydet0(sd, cryname0, detid);
crydet0.setPlacement(plv_cry0);
dd4hep::PlacedVolume plv_hard0 = block.placeVolume(hardware_s1, Position(0, -length_crystal_z/2+last_bar_z*0.5, 0));
plv_hard0.addPhysVolID("slayer",0).addPhysVolID("bar",ibar0);
std::string hardname0 = "Hardware_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement harddet0(sd, hardname0, detid);
harddet0.setPlacement(plv_hard0);
}
else{
dd4hep::Volume hardware_s0("hardware_s0", dd4hep::Box(length_nega, width_crystal*0.5, size_crystal*0.5), air);
hardware_s0.setVisAttributes(theDetector, "SeeThrough");
dd4hep::Volume crystal_s0("crystal_s0", dd4hep::Box(length_nega-photoelectronic, width_crystal*0.5, size_crystal*0.5), mat_ESR);
crystal_s0.setVisAttributes(theDetector, "CyanVis");
dd4hep::PlacedVolume plv_bar0 = crystal_s0.placeVolume(bar_s0, Position(0, 0, 0));
std::string barname0 = "CrystalBar_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement bardet0(sd, barname0, detid);
bardet0.setPlacement(plv_bar0);
dd4hep::PlacedVolume plv_sipm4 = crystal_s0.placeVolume(sipm_s1, Position(-length_nega+photoelectronic+crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname4 = "SiPM_negative_s8_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet4(sd, sipmname4, detid);
sipmdet4.setPlacement(plv_sipm4);
dd4hep::PlacedVolume plv_sipm5 = crystal_s0.placeVolume(sipm_s1, Position(length_nega-photoelectronic-crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname5 = "SiPM_negative_s9_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet5(sd, sipmname5, detid);
sipmdet5.setPlacement(plv_sipm5);
dd4hep::PlacedVolume plv_sipm6 = crystal_s0.placeVolume(sipm_s1, Position(-length_nega+photoelectronic+crystal_wrapping/2, 0, photoelectronic_width/2));
std::string sipmname6 = "SiPM_negative_s10_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet6(sd, sipmname6, detid);
sipmdet6.setPlacement(plv_sipm6);
dd4hep::PlacedVolume plv_sipm7 = crystal_s0.placeVolume(sipm_s1, Position(length_nega-photoelectronic-crystal_wrapping/2, 0, -photoelectronic_width/2));
std::string sipmname7 = "SiPM_negative_s11_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet7(sd, sipmname7, detid);
sipmdet7.setPlacement(plv_sipm7);
dd4hep::PlacedVolume plv_sipm0 = hardware_s0.placeVolume(sipm_s0, Position(-length_nega+photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname0 = "SiPM_negative_s0_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet0(sd, sipmname0, detid);
sipmdet0.setPlacement(plv_sipm0);
dd4hep::PlacedVolume plv_sipm1 = hardware_s0.placeVolume(sipm_s0, Position(length_nega-photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname1 = "SiPM_negative_s1_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet1(sd, sipmname1, detid);
sipmdet1.setPlacement(plv_sipm1);
dd4hep::PlacedVolume plv_sipm2 = hardware_s0.placeVolume(sipm_s0, Position(-length_nega+photoelectronic/2, 0, photoelectronic_width/2));
std::string sipmname2 = "SiPM_negative_s2_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet2(sd, sipmname2, detid);
sipmdet2.setPlacement(plv_sipm2);
dd4hep::PlacedVolume plv_sipm3 = hardware_s0.placeVolume(sipm_s0, Position(length_nega-photoelectronic/2, 0, -photoelectronic_width/2));
std::string sipmname3 = "SiPM_negative_s3_"+std::to_string(ibar0);
dd4hep::DetElement sipmdet3(sd, sipmname3, detid);
sipmdet3.setPlacement(plv_sipm3);
dd4hep::PlacedVolume plv_cry0 = hardware_s0.placeVolume(crystal_s0, Position(0, 0, 0));
std::string cryname0 = "Crystal_negative_s0_"+std::to_string(ibar0);