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#include "DataFormats/Math/interface/angle_units.h"
#include "DD4hep/DetFactoryHelper.h"
#include "DetectorDescription/DDCMS/interface/DDPlugins.h"
#include "DetectorDescription/DDCMS/interface/DDutils.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/Utilities/interface/Exception.h"
#include "Geometry/HGCalCommonData/interface/HGCalGeomTools.h"
#include "Geometry/HGCalCommonData/interface/HGCalParameters.h"
#include "Geometry/HGCalCommonData/interface/HGCalTypes.h"
//#define EDM_ML_DEBUG
#ifdef EDM_ML_DEBUG
#include <unordered_set>
#endif
using namespace angle_units::operators;
static long algorithm(dd4hep::Detector& /* description */, cms::DDParsingContext& ctxt, xml_h e) {
cms::DDNamespace ns(ctxt, e, true);
cms::DDAlgoArguments args(ctxt, e);
static constexpr double tol2 = 0.00001 * dd4hep::mm;
const auto& wafers = args.value<std::vector<std::string> >("WaferName"); // Wafers
const auto& covers = args.value<std::vector<std::string> >("CoverName"); // Insensitive layers of hexagonal size
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << wafers.size() << " wafers";
unsigned int i(0);
for (auto wafer : wafers) {
edm::LogVerbatim("HGCalGeom") << "Wafer[" << i << "] " << wafer;
++i;
}
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << covers.size() << " covers";
i = 0;
for (auto cover : covers) {
edm::LogVerbatim("HGCalGeom") << "Cover[" << i << "] " << cover;
++i;
}
#endif
const auto& materials = args.value<std::vector<std::string> >("MaterialNames"); // Materials
const auto& names = args.value<std::vector<std::string> >("VolumeNames"); // Names
const auto& thick = args.value<std::vector<double> >("Thickness"); // Thickness of the material
std::vector<int> copyNumber; // Initial copy numbers
copyNumber.resize(materials.size(), 1);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << materials.size() << " types of volumes";
for (unsigned int i = 0; i < names.size(); ++i)
edm::LogVerbatim("HGCalGeom") << "Volume [" << i << "] " << names[i] << " of thickness "
<< cms::convert2mm(thick[i]) << " filled with " << materials[i]
<< " first copy number " << copyNumber[i];
#endif
const auto& layers = args.value<std::vector<int> >("Layers"); // Number of layers in a section
const auto& layerThick = args.value<std::vector<double> >("LayerThick"); // Thickness of each section
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << layers.size() << " blocks";
for (unsigned int i = 0; i < layers.size(); ++i)
edm::LogVerbatim("HGCalGeom") << "Block [" << i << "] of thickness " << cms::convert2mm(layerThick[i]) << " with "
<< layers[i] << " layers";
#endif
const auto& layerType = args.value<std::vector<int> >("LayerType"); // Type of the layer
const auto& layerSense = args.value<std::vector<int> >("LayerSense"); // Content of a layer (sensitive?)
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << layerType.size() << " layers";
for (unsigned int i = 0; i < layerType.size(); ++i)
edm::LogVerbatim("HGCalGeom") << "Layer [" << i << "] with material type " << layerType[i] << " sensitive class "
<< layerSense[i];
#endif
const auto& zMinBlock = args.value<double>("zMinBlock"); // Starting z-value of the block
const auto& rMaxFine = args.value<double>("rMaxFine"); // Maximum r-value for fine wafer
const auto& waferW = args.value<double>("waferW"); // Width of the wafer
const auto& waferGap = args.value<double>("waferGap"); // Gap between 2 wafers
const auto& absorbW = args.value<double>("absorberW"); // Width of the absorber
const auto& absorbH = args.value<double>("absorberH"); // Height of the absorber
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: zStart " << cms::convert2mm(zMinBlock) << " rFineCoarse "
<< cms::convert2mm(rMaxFine) << " wafer width " << cms::convert2mm(waferW)
<< " gap among wafers " << cms::convert2mm(waferGap) << " absorber width "
<< cms::convert2mm(absorbW) << " absorber height " << cms::convert2mm(absorbH);
#endif
const auto& slopeB = args.value<std::vector<double> >("SlopeBottom"); // Slope at the lower R
const auto& slopeT = args.value<std::vector<double> >("SlopeTop"); // Slopes at the larger R
const auto& zFront = args.value<std::vector<double> >("ZFront"); // Starting Z values for the slopes
const auto& rMaxFront = args.value<std::vector<double> >("RMaxFront"); // Corresponding rMax's
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: Bottom slopes " << slopeB[0] << ":" << slopeB[1] << " and "
<< slopeT.size() << " slopes for top";
for (unsigned int i = 0; i < slopeT.size(); ++i)
edm::LogVerbatim("HGCalGeom") << "Block [" << i << "] Zmin " << cms::convert2mm(zFront[i]) << " Rmax "
<< cms::convert2mm(rMaxFront[i]) << " Slope " << slopeT[i];
#endif
std::string idNameSpace = static_cast<std::string>(ns.name()); // Namespace of this and ALL sub-parts
const auto& idName = args.parentName(); // Name of the "parent" volume.
#ifdef EDM_ML_DEBUG
std::unordered_set<int> copies; // List of copy #'s
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: NameSpace " << idNameSpace << " Mother " << idName;
#endif
// Mother module
dd4hep::Volume module = ns.volume(idName);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "==>> Constructing DDHGCalTBModule...";
#endif
double zi(zMinBlock);
double ww = (waferW + waferGap);
double dx = 0.5 * ww;
double dy = 3.0 * dx * tan(30._deg);
double rr = 2.0 * dx * tan(30._deg);
int laymin(0);
for (unsigned int i = 0; i < layers.size(); i++) {
double zo = zi + layerThick[i];
double routF = HGCalGeomTools::radius(zi, zFront, rMaxFront, slopeT);
int laymax = laymin + layers[i];
double zz = zi;
double thickTot(0);
for (int ly = laymin; ly < laymax; ++ly) {
int ii = layerType[ly];
int copy = copyNumber[ii];
double rinB = (layerSense[ly] == 0) ? (zo * slopeB[0]) : (zo * slopeB[1]);
zz += (0.5 * thick[ii]);
thickTot += thick[ii];
std::string name = "HGCal" + names[ii] + std::to_string(copy);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: Layer " << ly << ":" << ii << " Front " << cms::convert2mm(zi)
<< ", " << cms::convert2mm(routF) << " Back " << cms::convert2mm(zo) << ", "
<< cms::convert2mm(rinB) << " superlayer thickness "
<< cms::convert2mm(layerThick[i]);
#endif
dd4hep::Material matter = ns.material(materials[ii]);
dd4hep::Volume glog;
if (layerSense[ly] == 0) {
dd4hep::Solid solid = dd4hep::Box(absorbW, absorbH, 0.5 * thick[ii]);
ns.addSolidNS(ns.prepend(name), solid);
glog = dd4hep::Volume(solid.name(), solid, matter);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule test: " << solid.name() << " box of dimension "
<< cms::convert2mm(absorbW) << ":" << cms::convert2mm(absorbH) << ":"
<< cms::convert2mm(0.5 * thick[ii]);
#endif
} else {
dd4hep::Solid solid = dd4hep::Tube(rinB, routF, 0.5 * thick[ii], 0.0, 2._pi);
ns.addSolidNS(ns.prepend(name), solid);
glog = dd4hep::Volume(solid.name(), solid, matter);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule: " << solid.name() << " Tubs made of " << materials[ii]
<< " of dimensions " << cms::convert2mm(rinB) << ", " << cms::convert2mm(routF)
<< ", " << cms::convert2mm(0.5 * thick[ii]) << ", 0.0, 360.0";
#endif
int ncol = static_cast<int>(2.0 * routF / ww) + 1;
int nrow = static_cast<int>(routF / (ww * tan(30._deg))) + 1;
#ifdef EDM_ML_DEBUG
int incm(0), inrm(0), kount(0), ntot(0), nin(0), nfine(0), ncoarse(0);
edm::LogVerbatim("HGCalGeom") << glog.name() << " rout " << cms::convert2mm(routF) << " Row " << nrow
<< " Column " << ncol;
#endif
double xc[6], yc[6];
for (int nr = -nrow; nr <= nrow; ++nr) {
int inr = (nr >= 0) ? nr : -nr;
for (int nc = -ncol; nc <= ncol; ++nc) {
int inc = (nc >= 0) ? nc : -nc;
if (inr % 2 == inc % 2) {
double xpos = nc * dx;
double ypos = nr * dy;
xc[0] = xpos + dx;
yc[0] = ypos - 0.5 * rr;
xc[1] = xpos + dx;
yc[1] = ypos + 0.5 * rr;
xc[2] = xpos;
yc[2] = ypos + rr;
xc[3] = xpos - dx;
yc[3] = ypos + 0.5 * rr;
xc[4] = xpos + dx;
yc[4] = ypos - 0.5 * rr;
xc[5] = xpos;
yc[5] = ypos - rr;
bool cornerAll(true);
for (int k = 0; k < 6; ++k) {
double rpos = std::sqrt(xc[k] * xc[k] + yc[k] * yc[k]);
if (rpos < rinB || rpos > routF)
cornerAll = false;
}
#ifdef EDM_ML_DEBUG
++ntot;
#endif
if (cornerAll) {
dd4hep::Volume glog1;
if (layerSense[ly] == 1) {
double rpos = std::sqrt(xpos * xpos + ypos * ypos);
glog1 = (rpos < rMaxFine) ? ns.volume(wafers[0]) : ns.volume(wafers[1]);
#ifdef EDM_ML_DEBUG
++nin;
if (rpos < rMaxFine)
++nfine;
else
++ncoarse;
#endif
} else {
glog1 = ns.volume(covers[layerSense[ly] - 2]);
}
int copyL = HGCalTypes::packTypeUV(0, nc, nr);
#ifdef EDM_ML_DEBUG
if (inc > incm)
incm = inc;
if (inr > inrm)
inrm = inr;
kount++;
copies.insert(copy);
#endif
dd4hep::Position tran(xpos, ypos, 0.0);
glog.placeVolume(glog1, copyL, tran);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom")
<< "DDHGCalModule: " << glog1.name() << " number " << copyL << " positioned in " << glog.name()
<< " at (" << cms::convert2mm(xpos) << "," << cms::convert2mm(ypos) << ",0)";
#endif
}
}
}
}
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalModule: # of columns " << incm << " # of rows " << inrm << " and "
<< nin << ":" << kount << ":" << ntot << " wafers (" << nfine << ":" << ncoarse
<< ") for " << glog.name() << " R " << cms::convert2mm(rinB) << ":"
<< cms::convert2mm(routF);
#endif
}
dd4hep::Position r1(0, 0, zz);
module.placeVolume(glog, copy, r1);
++copyNumber[ii];
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DDHGCalTBModule test: " << glog.name() << " number " << copy
<< " positioned in " << module.name() << " at (0,0," << cms::convert2mm(zz) << ")";
#endif
zz += (0.5 * thick[ii]);
} // End of loop over layers in a block
zi = zo;
laymin = laymax;
if (fabs(thickTot - layerThick[i]) > tol2) {
if (thickTot > layerThick[i]) {
edm::LogError("HGCalGeom") << "Thickness of the partition " << cms::convert2mm(layerThick[i])
<< " is smaller than thickness " << cms::convert2mm(thickTot)
<< " of all its components **** ERROR ****\n";
} else {
edm::LogWarning("HGCalGeom") << "Thickness of the partition " << cms::convert2mm(layerThick[i])
<< " does not match with " << cms::convert2mm(thickTot) << " of the components\n";
}
}
} // End of loop over blocks
return cms::s_executed;
}
// first argument is the type from the xml file
DECLARE_DDCMS_DETELEMENT(DDCMS_hgcal_DDHGCalTBModule, algorithm)
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