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HGCalDDDConstants.cc
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HGCalDDDConstants.cc
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#include "Geometry/HGCalCommonData/interface/HGCalDDDConstants.h"
#include "DataFormats/Math/interface/GeantUnits.h"
#include "DataFormats/ForwardDetId/interface/HFNoseDetId.h"
#include "DataFormats/ForwardDetId/interface/HGCScintillatorDetId.h"
#include "DataFormats/ForwardDetId/interface/HGCSiliconDetId.h"
#include "DataFormats/ForwardDetId/interface/HGCalDetId.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/Utilities/interface/Exception.h"
#include "Geometry/HGCalCommonData/interface/HGCalGeomParameters.h"
#include "Geometry/HGCalCommonData/interface/HGCalGeomTools.h"
#include "Geometry/HGCalCommonData/interface/HGCalGeometryMode.h"
#include "Geometry/HGCalCommonData/interface/HGCalTypes.h"
#include "Geometry/HGCalCommonData/interface/HGCalWaferIndex.h"
#include "Geometry/HGCalCommonData/interface/HGCalWaferMask.h"
#include "Geometry/HGCalCommonData/interface/HGCalWaferType.h"
#include <algorithm>
#include <bitset>
#include <iterator>
#include <functional>
#include <numeric>
//#define EDM_ML_DEBUG
using namespace geant_units::operators;
HGCalDDDConstants::HGCalDDDConstants(const HGCalParameters* hp, const std::string& name)
: hgpar_(hp),
sqrt3_(std::sqrt(3.0)),
mode_(hgpar_->mode_),
fullAndPart_(((mode_ == HGCalGeometryMode::Hexagon8File) || (mode_ == HGCalGeometryMode::Hexagon8Module))) {
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "Mode " << mode_ << " FullAndPart " << fullAndPart_;
#endif
if (waferHexagon6() || waferHexagon8()) {
rmax_ = (HGCalParameters::k_ScaleFromDDD * (hgpar_->waferR_) * std::cos(30._deg));
rmaxT_ = rmax_ + 0.5 * hgpar_->sensorSeparation_;
hexside_ = 2.0 * rmax_ * tan30deg_;
hexsideT_ = 2.0 * rmaxT_ * tan30deg_;
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "rmax_ " << rmax_ << ":" << rmaxT_ << ":" << hexside_ << ":" << hexsideT_
<< " CellSize " << 0.5 * HGCalParameters::k_ScaleFromDDD * hgpar_->cellSize_[0] << ":"
<< 0.5 * HGCalParameters::k_ScaleFromDDD * hgpar_->cellSize_[1];
#endif
}
// init maps and constants
modHalf_ = 0;
maxWafersPerLayer_ = 0;
for (int simreco = 0; simreco < 2; ++simreco) {
tot_layers_[simreco] = layersInit((bool)simreco);
max_modules_layer_[simreco].resize(tot_layers_[simreco] + 1);
for (unsigned int layer = 1; layer <= tot_layers_[simreco]; ++layer) {
max_modules_layer_[simreco][layer] = modulesInit(layer, (bool)simreco);
if (simreco == 1) {
modHalf_ += max_modules_layer_[simreco][layer];
maxWafersPerLayer_ = std::max(maxWafersPerLayer_, max_modules_layer_[simreco][layer]);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "Layer " << layer << " with " << max_modules_layer_[simreco][layer] << ":"
<< modHalf_ << " modules in RECO";
} else {
edm::LogVerbatim("HGCalGeom") << "Layer " << layer << " with " << max_modules_layer_[simreco][layer]
<< " modules in SIM";
#endif
}
}
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "SimReco " << simreco << " with " << tot_layers_[simreco] << " Layers";
#endif
}
tot_wafers_ = wafers();
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants initialized for " << name << " with " << layers(false) << ":"
<< layers(true) << " layers, " << wafers() << ":" << 2 * modHalf_
<< " wafers with maximum " << maxWafersPerLayer_ << " per layer and "
<< "maximum of " << maxCells(false) << ":" << maxCells(true) << " cells";
#endif
if (waferHexagon6() || waferHexagon8()) {
int wminT(9999999), wmaxT(-9999999), kount1(0), kount2(0);
for (unsigned int i = 0; i < getTrFormN(); ++i) {
int lay0 = getTrForm(i).lay;
int wmin(9999999), wmax(-9999999), kount(0);
for (int wafer = 0; wafer < sectors(); ++wafer) {
bool waferIn = waferInLayer(wafer, lay0, true);
if (waferHexagon8()) {
int kndx = HGCalWaferIndex::waferIndex(lay0,
HGCalWaferIndex::waferU(hgpar_->waferCopy_[wafer]),
HGCalWaferIndex::waferV(hgpar_->waferCopy_[wafer]));
waferIn_[kndx] = waferIn;
}
if (waferIn) {
int waferU = ((waferHexagon6()) ? wafer : HGCalWaferIndex::waferU(hgpar_->waferCopy_[wafer]));
if (waferU < wmin)
wmin = waferU;
if (waferU > wmax)
wmax = waferU;
++kount;
}
}
if (wminT > wmin)
wminT = wmin;
if (wmaxT < wmax)
wmaxT = wmax;
if (kount1 < kount)
kount1 = kount;
kount2 += kount;
#ifdef EDM_ML_DEBUG
int lay1 = getIndex(lay0, true).first;
edm::LogVerbatim("HGCalGeom") << "Index " << i << " Layer " << lay0 << ":" << lay1 << " Wafer " << wmin << ":"
<< wmax << ":" << kount;
#endif
HGCWaferParam a1{{wmin, wmax, kount}};
waferLayer_[lay0] = a1;
}
waferMax_ = std::array<int, 4>{{wminT, wmaxT, kount1, kount2}};
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "Overall wafer statistics: " << wminT << ":" << wmaxT << ":" << kount1 << ":"
<< kount2;
#endif
}
}
HGCalDDDConstants::~HGCalDDDConstants() {}
std::pair<int, int> HGCalDDDConstants::assignCell(float x, float y, int lay, int subSec, bool reco) const {
const auto& index = getIndex(lay, reco);
if (index.first < 0)
return std::make_pair(-1, -1);
if (waferHexagon6()) {
float xx = (reco) ? x : HGCalParameters::k_ScaleFromDDD * x;
float yy = (reco) ? y : HGCalParameters::k_ScaleFromDDD * y;
// First the wafer
int wafer = cellHex(xx, yy, rmax_, hgpar_->waferPosX_, hgpar_->waferPosY_);
if (wafer < 0 || wafer >= (int)(hgpar_->waferTypeT_.size())) {
edm::LogWarning("HGCalGeom") << "Wafer no. out of bound for " << wafer << ":" << (hgpar_->waferTypeT_).size()
<< ":" << (hgpar_->waferPosX_).size() << ":" << (hgpar_->waferPosY_).size()
<< " ***** ERROR *****";
return std::make_pair(-1, -1);
} else {
// Now the cell
xx -= hgpar_->waferPosX_[wafer];
yy -= hgpar_->waferPosY_[wafer];
if (hgpar_->waferTypeT_[wafer] == 1)
return std::make_pair(wafer,
cellHex(xx,
yy,
0.5 * HGCalParameters::k_ScaleFromDDD * hgpar_->cellSize_[0],
hgpar_->cellFineX_,
hgpar_->cellFineY_));
else
return std::make_pair(wafer,
cellHex(xx,
yy,
0.5 * HGCalParameters::k_ScaleFromDDD * hgpar_->cellSize_[1],
hgpar_->cellCoarseX_,
hgpar_->cellCoarseY_));
}
} else {
return std::make_pair(-1, -1);
}
}
std::array<int, 5> HGCalDDDConstants::assignCellHex(
float x, float y, int lay, bool reco, bool extend, bool debug) const {
int waferU(0), waferV(0), waferType(-1), cellU(0), cellV(0);
if (waferHexagon8()) {
double xx = (reco) ? HGCalParameters::k_ScaleToDDD * x : x;
double yy = (reco) ? HGCalParameters::k_ScaleToDDD * y : y;
double wt(1.0);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "assignCellHex x " << x << ":" << xx << " y " << y << ":" << yy << " Lay " << lay;
#endif
waferFromPosition(xx, yy, lay, waferU, waferV, cellU, cellV, waferType, wt, extend, debug);
}
return std::array<int, 5>{{waferU, waferV, waferType, cellU, cellV}};
}
std::array<int, 3> HGCalDDDConstants::assignCellTrap(float x, float y, float z, int layer, bool reco) const {
int irad(-1), iphi(-1), type(-1);
const auto& indx = getIndex(layer, reco);
if (indx.first < 0)
return std::array<int, 3>{{irad, iphi, type}};
double xx = (z > 0) ? x : -x;
double r = (reco ? std::sqrt(x * x + y * y) : HGCalParameters::k_ScaleFromDDD * std::sqrt(x * x + y * y));
double phi = (r == 0. ? 0. : std::atan2(y, xx));
if (phi < 0)
phi += (2.0 * M_PI);
type = hgpar_->scintType(layer);
auto ir = std::lower_bound(hgpar_->radiusLayer_[type].begin(), hgpar_->radiusLayer_[type].end(), r);
irad = (int)(ir - hgpar_->radiusLayer_[type].begin());
irad = std::clamp(irad, hgpar_->iradMinBH_[indx.first], hgpar_->iradMaxBH_[indx.first]);
iphi = 1 + (int)(phi / indx.second);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "assignCellTrap Input " << x << ":" << y << ":" << z << ":" << layer << ":" << reco
<< " x|r " << xx << ":" << r << " phi " << phi << " o/p " << irad << ":" << iphi << ":"
<< type;
#endif
return std::array<int, 3>{{irad, iphi, type}};
}
std::pair<double, double> HGCalDDDConstants::cellEtaPhiTrap(int type, int irad) const {
double dr(0), df(0);
if (tileTrapezoid()) {
double r = 0.5 * ((hgpar_->radiusLayer_[type][irad - 1] + hgpar_->radiusLayer_[type][irad]));
dr = (hgpar_->radiusLayer_[type][irad] - hgpar_->radiusLayer_[type][irad - 1]);
df = r * hgpar_->cellSize_[type];
}
return std::make_pair(dr, df);
}
bool HGCalDDDConstants::cellInLayer(int waferU, int waferV, int cellU, int cellV, int lay, bool reco) const {
const auto& indx = getIndex(lay, true);
if (indx.first >= 0) {
if (waferHexagon8() || waferHexagon6()) {
const auto& xy = ((waferHexagon8()) ? locateCell(lay, waferU, waferV, cellU, cellV, reco, true, false, false)
: locateCell(cellU, lay, waferU, reco));
double rpos = sqrt(xy.first * xy.first + xy.second * xy.second);
return ((rpos >= hgpar_->rMinLayHex_[indx.first]) && (rpos <= hgpar_->rMaxLayHex_[indx.first]));
} else {
return true;
}
} else {
return false;
}
}
double HGCalDDDConstants::cellThickness(int layer, int waferU, int waferV) const {
double thick(-1);
int type = waferType(layer, waferU, waferV, false);
if (type >= 0) {
if (waferHexagon8()) {
thick = 10000.0 * hgpar_->cellThickness_[type]; // cm to micron
} else if (waferHexagon6()) {
thick = 100.0 * (type + 1); // type = 1,2,3 for 100,200,300 micron
}
}
return thick;
}
double HGCalDDDConstants::cellSizeHex(int type) const {
int indx = ((waferHexagon8()) ? ((type >= 1) ? 1 : 0) : ((type == 1) ? 1 : 0));
double cell = (tileTrapezoid() ? 0.5 * hgpar_->cellSize_[indx]
: 0.5 * HGCalParameters::k_ScaleFromDDD * hgpar_->cellSize_[indx]);
return cell;
}
HGCalTypes::CellType HGCalDDDConstants::cellType(int type, int cellU, int cellV) const {
// type=0: in the middle; 1..6: the edges clocwise from bottom left;
// =11..16: the corners clockwise from bottom
int N = (type == 0) ? hgpar_->nCellsFine_ : hgpar_->nCellsCoarse_;
if (cellU == 0) {
if (cellV == 0)
return HGCalTypes::CellType::BottomLeftCorner;
else if (cellV - cellU == N - 1)
return HGCalTypes::CellType::BottomCorner;
else
return HGCalTypes::CellType::BottomLeftEdge;
} else if (cellV == 0) {
if (cellU - cellV == N)
return HGCalTypes::CellType::TopLeftCorner;
else
return HGCalTypes::CellType::LeftEdge;
} else if (cellU - cellV == N) {
if (cellU == 2 * N - 1)
return HGCalTypes::CellType::TopCorner;
else
return HGCalTypes::CellType::TopLeftEdge;
} else if (cellU == 2 * N - 1) {
if (cellV == 2 * N - 1)
return HGCalTypes::CellType::TopRightCorner;
else
return HGCalTypes::CellType::TopRightEdge;
} else if (cellV == 2 * N - 1) {
if (cellV - cellU == N - 1)
return HGCalTypes::CellType::BottomRightCorner;
else
return HGCalTypes::CellType::RightEdge;
} else if (cellV - cellU == N - 1) {
return HGCalTypes::CellType::BottomRightEdge;
} else if ((cellU > 2 * N - 1) || (cellV > 2 * N - 1) || (cellV >= (cellU + N)) || (cellU > (cellV + N))) {
return HGCalTypes::CellType::UndefinedType;
} else {
return HGCalTypes::CellType::CentralType;
}
}
double HGCalDDDConstants::distFromEdgeHex(double x, double y, double z) const {
// Assming the point is within a hexagonal plane of the wafer, calculate
// the shortest distance from the edge
if (z < 0)
x = -x;
double dist(0);
// Input x, y in Geant4 unit and transformed to CMSSW standard
double xx = HGCalParameters::k_ScaleFromDDD * x;
double yy = HGCalParameters::k_ScaleFromDDD * y;
if (waferHexagon8()) {
int ll = layerIndex(getLayer(z, false), false);
xx -= hgpar_->xLayerHex_[ll];
yy -= hgpar_->yLayerHex_[ll];
}
int sizew = (int)(hgpar_->waferPosX_.size());
int wafer = sizew;
// Transform to the local coordinate frame of the wafer first
for (int k = 0; k < sizew; ++k) {
double dx = std::abs(xx - hgpar_->waferPosX_[k]);
double dy = std::abs(yy - hgpar_->waferPosY_[k]);
if ((dx <= rmax_) && (dy <= hexside_) && ((dy <= 0.5 * hexside_) || (dx * tan30deg_ <= (hexside_ - dy)))) {
wafer = k;
xx -= hgpar_->waferPosX_[k];
yy -= hgpar_->waferPosY_[k];
break;
}
}
// Look at only one quarter (both x,y are positive)
if (wafer < sizew) {
if (std::abs(yy) < 0.5 * hexside_) {
dist = rmax_ - std::abs(xx);
} else {
dist = 0.5 * ((rmax_ - std::abs(xx)) - sqrt3_ * (std::abs(yy) - 0.5 * hexside_));
}
} else {
dist = 0;
}
dist *= HGCalParameters::k_ScaleToDDD;
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DistFromEdgeHex: Local " << xx << ":" << yy << " wafer " << wafer << " flag "
<< (wafer < sizew) << " Distance " << rmax_ << ":" << (rmax_ - std::abs(xx)) << ":"
<< (std::abs(yy) - 0.5 * hexside_) << ":" << 0.5 * hexside_ << ":" << dist;
#endif
return dist;
}
double HGCalDDDConstants::distFromEdgeTrap(double x, double y, double z) const {
// Assming the point is within the eta-phi plane of the scintillator tile,
// calculate the shortest distance from the edge
int lay = getLayer(z, false);
double xx = (z < 0) ? -x : x;
int indx = layerIndex(lay, false);
double r = HGCalParameters::k_ScaleFromDDD * std::sqrt(x * x + y * y);
double phi = (r == 0. ? 0. : std::atan2(y, xx));
if (phi < 0)
phi += (2.0 * M_PI);
int type = hgpar_->scintType(lay);
double cell = hgpar_->scintCellSize(lay);
// Compare with the center of the tile find distances along R and also phi
// Take the smaller value
auto ir = std::lower_bound(hgpar_->radiusLayer_[type].begin(), hgpar_->radiusLayer_[type].end(), r);
int irad = (int)(ir - hgpar_->radiusLayer_[type].begin());
irad = std::clamp(irad, hgpar_->iradMinBH_[indx], hgpar_->iradMaxBH_[indx]);
int iphi = 1 + (int)(phi / cell);
double dphi = std::max(0.0, (0.5 * cell - std::abs(phi - (iphi - 0.5) * cell)));
double dist = std::min((r - hgpar_->radiusLayer_[type][irad - 1]), (hgpar_->radiusLayer_[type][irad] - r));
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "DistFromEdgeTrap: Global " << x << ":" << y << ":" << z << " Layer " << lay
<< " Index " << indx << ":" << type << " xx " << xx << " R " << r << ":" << irad << ":"
<< hgpar_->radiusLayer_[type][irad - 1] << ":" << hgpar_->radiusLayer_[type][irad]
<< " Phi " << phi << ":" << iphi << ":" << (iphi - 0.5) * cell << " cell " << cell
<< " Dphi " << dphi << " Dist " << dist << ":" << r * dphi;
#endif
return HGCalParameters::k_ScaleToDDD * std::min(r * dphi, dist);
}
int HGCalDDDConstants::getLayer(double z, bool reco) const {
// Get the layer # from the gloabl z coordinate
unsigned int k = 0;
double zz = (reco ? std::abs(z) : HGCalParameters::k_ScaleFromDDD * std::abs(z));
const auto& zLayerHex = hgpar_->zLayerHex_;
auto itr = std::find_if(zLayerHex.begin() + 1, zLayerHex.end(), [&k, &zz, &zLayerHex](double zLayer) {
++k;
return zz < 0.5 * (zLayerHex[k - 1] + zLayerHex[k]);
});
int lay = (itr == zLayerHex.end()) ? static_cast<int>(zLayerHex.size()) : k;
if (waferHexagon6() && reco) {
int indx = layerIndex(lay, false);
if (indx >= 0)
lay = hgpar_->layerGroupO_[indx];
} else {
lay += (hgpar_->firstLayer_ - 1);
}
return lay;
}
HGCalParameters::hgtrap HGCalDDDConstants::getModule(unsigned int indx, bool hexType, bool reco) const {
HGCalParameters::hgtrap mytr;
if (hexType) {
if (indx >= hgpar_->waferTypeL_.size())
edm::LogWarning("HGCalGeom") << "Wafer no. out bound for index " << indx << ":" << (hgpar_->waferTypeL_).size()
<< ":" << (hgpar_->waferPosX_).size() << ":" << (hgpar_->waferPosY_).size()
<< " ***** ERROR *****";
unsigned int type =
((indx < hgpar_->waferTypeL_.size()) ? hgpar_->waferTypeL_[indx] - 1 : HGCSiliconDetId::HGCalCoarseThick);
mytr = hgpar_->getModule(type, reco);
} else {
mytr = hgpar_->getModule(indx, reco);
}
return mytr;
}
std::vector<HGCalParameters::hgtrap> HGCalDDDConstants::getModules() const {
std::vector<HGCalParameters::hgtrap> mytrs;
for (unsigned int k = 0; k < hgpar_->moduleLayR_.size(); ++k)
mytrs.emplace_back(hgpar_->getModule(k, true));
return mytrs;
}
int HGCalDDDConstants::getPhiBins(int lay) const { return (tileTrapezoid() ? hgpar_->scintCells(lay) : 0); }
std::pair<int, int> HGCalDDDConstants::getREtaRange(int lay) const {
int irmin(0), irmax(0);
if (tileTrapezoid()) {
int indx = layerIndex(lay, false);
if ((indx >= 0) && (indx < static_cast<int>(hgpar_->iradMinBH_.size()))) {
irmin = hgpar_->iradMinBH_[indx];
irmax = hgpar_->iradMaxBH_[indx];
}
}
return std::make_pair(irmin, irmax);
}
std::vector<HGCalParameters::hgtrform> HGCalDDDConstants::getTrForms() const {
std::vector<HGCalParameters::hgtrform> mytrs;
for (unsigned int k = 0; k < hgpar_->trformIndex_.size(); ++k)
mytrs.emplace_back(hgpar_->getTrForm(k));
return mytrs;
}
int HGCalDDDConstants::getTypeTrap(int layer) const {
// Get the module type for scinitllator
if (tileTrapezoid()) {
return hgpar_->scintType(layer);
} else {
return -1;
}
}
int HGCalDDDConstants::getTypeHex(int layer, int waferU, int waferV) const {
// Get the module type for a silicon wafer
if (waferHexagon8()) {
auto itr = hgpar_->typesInLayers_.find(HGCalWaferIndex::waferIndex(layer, waferU, waferV));
return ((itr == hgpar_->typesInLayers_.end() ? 2 : hgpar_->waferTypeL_[itr->second]));
} else {
return -1;
}
}
std::pair<double, double> HGCalDDDConstants::getXY(int layer, double x, double y, bool forwd) const {
int ll = layer - hgpar_->firstLayer_;
double x0(x), y0(y);
if ((!hgpar_->layerType_.empty()) && (ll < static_cast<int>(hgpar_->layerRotV_.size()))) {
if (forwd) {
x0 = x * hgpar_->layerRotV_[ll].first + y * hgpar_->layerRotV_[ll].second;
y0 = y * hgpar_->layerRotV_[ll].first - x * hgpar_->layerRotV_[ll].second;
} else {
x0 = x * hgpar_->layerRotV_[ll].first - y * hgpar_->layerRotV_[ll].second;
y0 = y * hgpar_->layerRotV_[ll].first + x * hgpar_->layerRotV_[ll].second;
}
}
#ifdef EDM_ML_DEBUG
double x1(x0), y1(y0);
if (ll < static_cast<int>(hgpar_->layerRotV_.size())) {
if (forwd) {
x1 = x0 * hgpar_->layerRotV_[ll].first - y0 * hgpar_->layerRotV_[ll].second;
y1 = y0 * hgpar_->layerRotV_[ll].first + x0 * hgpar_->layerRotV_[ll].second;
} else {
x1 = x0 * hgpar_->layerRotV_[ll].first + y0 * hgpar_->layerRotV_[ll].second;
y1 = y0 * hgpar_->layerRotV_[ll].first - x0 * hgpar_->layerRotV_[ll].second;
}
}
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants: Layer " << layer << ":" << ll << " mode " << forwd << " x " << x
<< ":" << x0 << ":" << x1 << " y " << y << ":" << y0 << ":" << y1;
#endif
return std::make_pair(x0, y0);
}
bool HGCalDDDConstants::isHalfCell(int waferType, int cell) const {
if (waferType < 1 || cell < 0)
return false;
return waferType == 2 ? hgpar_->cellCoarseHalf_[cell] : hgpar_->cellFineHalf_[cell];
}
bool HGCalDDDConstants::isValidHex(int lay, int mod, int cell, bool reco) const {
// Check validity for a layer|wafer|cell of pre-TDR version
bool result(false), resultMod(false);
int cellmax(0);
if (waferHexagon6()) {
int32_t copyNumber = hgpar_->waferCopy_[mod];
result = ((lay > 0 && lay <= (int)(layers(reco))));
if (result) {
const int32_t lay_idx = reco ? (lay - 1) * 3 + 1 : lay;
const auto& the_modules = hgpar_->copiesInLayers_[lay_idx];
auto moditr = the_modules.find(copyNumber);
result = resultMod = (moditr != the_modules.end());
#ifdef EDM_ML_DEBUG
if (!result)
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants: Layer " << lay << ":" << lay_idx << " Copy " << copyNumber
<< ":" << mod << " Flag " << result;
#endif
if (result) {
if (moditr->second >= 0) {
if (mod >= (int)(hgpar_->waferTypeT_.size()))
edm::LogWarning("HGCalGeom") << "Module no. out of bound for " << mod << " to be compared with "
<< (hgpar_->waferTypeT_).size() << " ***** ERROR *****";
cellmax = ((hgpar_->waferTypeT_[mod] - 1 == HGCSiliconDetId::HGCalFine) ? (int)(hgpar_->cellFineX_.size())
: (int)(hgpar_->cellCoarseX_.size()));
result = (cell >= 0 && cell <= cellmax);
} else {
result = isValidCell(lay_idx, mod, cell);
}
}
}
}
#ifdef EDM_ML_DEBUG
if (!result)
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants: Layer " << lay << ":"
<< (lay > 0 && (lay <= (int)(layers(reco)))) << " Module " << mod << ":" << resultMod
<< " Cell " << cell << ":" << cellmax << ":" << (cell >= 0 && cell <= cellmax) << ":"
<< maxCells(reco);
#endif
return result;
}
bool HGCalDDDConstants::isValidHex8(int layer, int modU, int modV, bool fullAndPart) const {
// Check validity for a layer|wafer|cell of post-TDR version
int indx = HGCalWaferIndex::waferIndex(layer, modU, modV);
auto itr = hgpar_->typesInLayers_.find(indx);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants::isValidHex8:WaferType " << layer << ":" << modU << ":" << modV
<< ":" << indx << " Test " << (itr != hgpar_->typesInLayers_.end());
#endif
if (itr == hgpar_->typesInLayers_.end())
return false;
if (fullAndPart_) {
auto ktr = hgpar_->waferInfoMap_.find(indx);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants::isValidHex8:WaferInfoMap " << layer << ":" << modU << ":"
<< modV << ":" << indx << " Test " << (ktr != hgpar_->waferInfoMap_.end());
#endif
if (ktr == hgpar_->waferInfoMap_.end())
return false;
} else {
auto jtr = waferIn_.find(indx);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants::isValidHex8:WaferIn " << jtr->first << ":" << jtr->second;
#endif
if (!(jtr->second))
return false;
}
if (fullAndPart || fullAndPart_) {
auto ktr = hgpar_->waferTypes_.find(indx);
if (ktr != hgpar_->waferTypes_.end()) {
if (hgpar_->waferMaskMode_ > 0) {
if (ktr->second.first == HGCalTypes::WaferOut)
return false;
} else {
if (ktr->second.first < HGCalTypes::WaferCornerMin)
return false;
}
}
}
return true;
}
bool HGCalDDDConstants::isValidHex8(int layer, int modU, int modV, int cellU, int cellV, bool fullAndPart) const {
// First check validity for a layer|wafer| of post TDR version
if (!isValidHex8(layer, modU, modV, fullAndPart))
return false;
int indx = HGCalWaferIndex::waferIndex(layer, modU, modV);
auto itr = hgpar_->typesInLayers_.find(indx);
int type = hgpar_->waferTypeL_[itr->second];
int N = ((hgpar_->waferTypeL_[itr->second] == 0) ? hgpar_->nCellsFine_ : hgpar_->nCellsCoarse_);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "HGCalDDDConstants::isValidHex8:Cell " << cellU << ":" << cellV << ":" << N
<< " Tests " << (cellU >= 0) << ":" << (cellU < 2 * N) << ":" << (cellV >= 0) << ":"
<< (cellV < 2 * N) << ":" << ((cellV - cellU) < N) << ":" << ((cellU - cellV) <= N);
#endif
if ((cellU < 0) || (cellU >= 2 * N) || (cellV < 0) || (cellV >= 2 * N))
return false;
if (((cellV - cellU) >= N) || ((cellU - cellV) > N))
return false;
return isValidCell8(layer, modU, modV, cellU, cellV, type);
}
bool HGCalDDDConstants::isValidTrap(int layer, int irad, int iphi) const {
// Check validity for a layer|eta|phi of scintillator
const auto& indx = getIndex(layer, true);
if (indx.first < 0)
return false;
return ((irad >= hgpar_->iradMinBH_[indx.first]) && (irad <= (hgpar_->iradMaxBH_[indx.first] + 1)) && (iphi > 0) &&
(iphi <= hgpar_->scintCells(layer)));
}
int HGCalDDDConstants::lastLayer(bool reco) const { return (hgpar_->firstLayer_ + tot_layers_[(int)reco] - 1); }
unsigned int HGCalDDDConstants::layers(bool reco) const { return tot_layers_[(int)reco]; }
int HGCalDDDConstants::layerIndex(int lay, bool reco) const {
int ll = lay - hgpar_->firstLayer_;
if (ll < 0 || ll >= (int)(hgpar_->layerIndex_.size()))
return -1;
if (waferHexagon6()) {
if (reco && ll >= (int)(hgpar_->depthIndex_.size()))
return -1;
return (reco ? hgpar_->depthLayerF_[ll] : hgpar_->layerIndex_[ll]);
} else {
return (hgpar_->layerIndex_[ll]);
}
}
unsigned int HGCalDDDConstants::layersInit(bool reco) const {
return (reco ? hgpar_->depthIndex_.size() : hgpar_->layerIndex_.size());
}
std::pair<float, float> HGCalDDDConstants::localToGlobal8(
int lay, int waferU, int waferV, double localX, double localY, bool reco, bool debug) const {
double x(localX), y(localY);
bool rotx =
((!hgpar_->layerType_.empty()) && (hgpar_->layerType_[lay - hgpar_->firstLayer_] == HGCalTypes::WaferCenterR));
if (debug)
edm::LogVerbatim("HGCalGeom") << "LocalToGlobal8 " << lay << ":" << (lay - hgpar_->firstLayer_) << ":" << rotx
<< " Local (" << x << ":" << y << ") Reco " << reco;
if (!reco) {
x *= HGCalParameters::k_ScaleToDDD;
y *= HGCalParameters::k_ScaleToDDD;
}
const auto& xy = waferPositionNoRot(lay, waferU, waferV, reco, debug);
x += xy.first;
y += xy.second;
if (debug)
edm::LogVerbatim("HGCalGeom") << "With wafer " << x << ":" << y << " by adding " << xy.first << ":" << xy.second;
return (rotx ? getXY(lay, x, y, false) : std::make_pair(x, y));
}
std::pair<float, float> HGCalDDDConstants::locateCell(int cell, int lay, int type, bool reco) const {
// type refers to wafer # for hexagon cell
float x(999999.), y(999999.);
const auto& index = getIndex(lay, reco);
int i = index.first;
if (i < 0)
return std::make_pair(x, y);
if (waferHexagon6()) {
x = hgpar_->waferPosX_[type];
y = hgpar_->waferPosY_[type];
#ifdef EDM_ML_DEBUG
float x0(x), y0(y);
#endif
if (hgpar_->waferTypeT_[type] - 1 == HGCSiliconDetId::HGCalFine) {
x += hgpar_->cellFineX_[cell];
y += hgpar_->cellFineY_[cell];
} else {
x += hgpar_->cellCoarseX_[cell];
y += hgpar_->cellCoarseY_[cell];
}
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "LocateCell (Wafer) " << x0 << ":" << y0 << " Final " << x << ":" << y;
#endif
if (!reco) {
x *= HGCalParameters::k_ScaleToDDD;
y *= HGCalParameters::k_ScaleToDDD;
}
}
return std::make_pair(x, y);
}
std::pair<float, float> HGCalDDDConstants::locateCell(
int lay, int waferU, int waferV, int cellU, int cellV, bool reco, bool all, bool norot, bool debug) const {
double x(0), y(0);
int indx = HGCalWaferIndex::waferIndex(lay, waferU, waferV);
auto itr = hgpar_->typesInLayers_.find(indx);
int type = ((itr == hgpar_->typesInLayers_.end()) ? 2 : hgpar_->waferTypeL_[itr->second]);
bool rotx = (norot) ? false
: ((!hgpar_->layerType_.empty()) &&
(hgpar_->layerType_[lay - hgpar_->firstLayer_] == HGCalTypes::WaferCenterR));
if (debug) {
edm::LogVerbatim("HGCalGeom") << "LocateCell " << lay << ":" << (lay - hgpar_->firstLayer_) << ":" << rotx << ":"
<< waferU << ":" << waferV << ":" << indx << ":"
<< (itr == hgpar_->typesInLayers_.end()) << ":" << type << " Flags " << reco << ":"
<< all;
}
int kndx = cellV * 100 + cellU;
if (type == 0) {
auto ktr = hgpar_->cellFineIndex_.find(kndx);
if (ktr != hgpar_->cellFineIndex_.end()) {
x = hgpar_->cellFineX_[ktr->second];
y = hgpar_->cellFineY_[ktr->second];
}
if (debug)
edm::LogVerbatim("HGCalGeom") << "Fine " << cellU << ":" << cellV << ":" << kndx << ":" << x << ":" << y << ":"
<< (ktr != hgpar_->cellFineIndex_.end());
} else {
auto ktr = hgpar_->cellCoarseIndex_.find(kndx);
if (ktr != hgpar_->cellCoarseIndex_.end()) {
x = hgpar_->cellCoarseX_[ktr->second];
y = hgpar_->cellCoarseY_[ktr->second];
}
if (debug)
edm::LogVerbatim("HGCalGeom") << "Coarse " << cellU << ":" << cellV << ":" << kndx << ":" << x << ":" << y << ":"
<< (ktr != hgpar_->cellCoarseIndex_.end());
}
if (!reco) {
x *= HGCalParameters::k_ScaleToDDD;
y *= HGCalParameters::k_ScaleToDDD;
}
if (all) {
const auto& xy = waferPositionNoRot(lay, waferU, waferV, reco, debug);
x += xy.first;
y += xy.second;
if (debug)
edm::LogVerbatim("HGCalGeom") << "With wafer " << x << ":" << y << " by adding " << xy.first << ":" << xy.second;
}
return (rotx ? getXY(lay, x, y, false) : std::make_pair(x, y));
}
std::pair<float, float> HGCalDDDConstants::locateCell(const HGCSiliconDetId& id, bool debug) const {
int lay(id.layer());
double r = 0.5 * (hgpar_->waferSize_ + hgpar_->sensorSeparation_);
double R = 2.0 * r / sqrt3_;
int ncells = (id.type() == 0) ? hgpar_->nCellsFine_ : hgpar_->nCellsCoarse_;
int n2 = ncells / 2;
auto xyoff = geomTools_.shiftXY(hgpar_->layerCenter_[lay - 1], (2.0 * r));
double xpos = xyoff.first + ((-2 * id.waferU() + id.waferV()) * r);
double ypos = xyoff.second + (1.5 * id.waferV() * R);
#ifdef EDM_ML_DEBUG
if (debug)
edm::LogVerbatim("HGCalGeom") << "LocateCell " << id << " Lay " << lay << " r:R " << r << ":" << R << " N "
<< ncells << ":" << n2 << " Off " << xyoff.first << ":" << xyoff.second << " Pos "
<< xpos << ":" << ypos;
#endif
double R1 = hgpar_->waferSize_ / (3.0 * ncells);
double r1 = 0.5 * R1 * sqrt3_;
xpos += ((1.5 * (id.cellV() - ncells) + 1.0) * R1);
ypos += ((id.cellU() - 0.5 * id.cellV() - n2) * 2 * r1);
#ifdef EDM_ML_DEBUG
if (debug)
edm::LogVerbatim("HGCalGeom") << "LocateCell r1:R1 " << r1 << ":" << R1 << " dx:dy "
<< ((1.5 * (id.cellV() - ncells) + 1.0) * R1) << ":"
<< ((id.cellU() - 0.5 * id.cellV() - n2) * 2 * r1) << " Pos " << xpos << ":" << ypos;
#endif
std::pair<double, double> xy = getXY(id.layer(), xpos, ypos, true);
return std::make_pair(xy.first * id.zside(), xy.second);
}
std::pair<float, float> HGCalDDDConstants::locateCell(const HGCScintillatorDetId& id, bool debug) const {
int lay(id.layer()), iphi(id.iphi()), ir(id.iradiusAbs());
double phi = (iphi - 0.5) * hgpar_->scintCellSize(lay);
int type = (id.type() > 0) ? 1 : 0;
double r = (((ir + 1) < static_cast<int>(hgpar_->radiusLayer_[type].size()))
? (0.5 * (hgpar_->radiusLayer_[type][ir] + hgpar_->radiusLayer_[type][ir - 1]))
: (1.5 * hgpar_->radiusLayer_[type][ir] - 0.5 * hgpar_->radiusLayer_[type][ir - 1]));
#ifdef EDM_ML_DEBUG
if (debug)
edm::LogVerbatim("HGCalGeom") << "LocateCell lay:ir:iphi:type " << lay << ":" << ir << ":" << iphi << ":" << type
<< " r:phi " << r << ":" << convertRadToDeg(phi) << " x:y "
<< (r * cos(phi) * id.zside()) << ":" << (r * sin(phi));
#endif
return std::make_pair(r * cos(phi) * id.zside(), r * sin(phi));
}
std::pair<float, float> HGCalDDDConstants::locateCellHex(int cell, int wafer, bool reco) const {
float x(0), y(0);
if (hgpar_->waferTypeT_[wafer] - 1 == HGCSiliconDetId::HGCalFine) {
x = hgpar_->cellFineX_[cell];
y = hgpar_->cellFineY_[cell];
} else {
x = hgpar_->cellCoarseX_[cell];
y = hgpar_->cellCoarseY_[cell];
}
if (!reco) {
x *= HGCalParameters::k_ScaleToDDD;
y *= HGCalParameters::k_ScaleToDDD;
}
return std::make_pair(x, y);
}
std::pair<float, float> HGCalDDDConstants::locateCellTrap(int lay, int irad, int iphi, bool reco) const {
float x(0), y(0);
const auto& indx = getIndex(lay, reco);
if (indx.first >= 0) {
int ir = std::abs(irad);
int type = hgpar_->scintType(lay);
double phi = (iphi - 0.5) * indx.second;
double z = hgpar_->zLayerHex_[indx.first];
double r = 0.5 * (hgpar_->radiusLayer_[type][ir - 1] + hgpar_->radiusLayer_[type][ir]);
std::pair<double, double> range = rangeR(z, true);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "locateCellTrap:: Input " << lay << ":" << irad << ":" << iphi << ":" << reco
<< " IR " << ir << ":" << hgpar_->iradMinBH_[indx.first] << ":"
<< hgpar_->iradMaxBH_[indx.first] << " Type " << type << " Z " << indx.first << ":"
<< z << " phi " << phi << " R " << r << ":" << range.first << ":" << range.second;
#endif
if ((mode_ != HGCalGeometryMode::TrapezoidFile) && (mode_ != HGCalGeometryMode::TrapezoidModule))
r = std::max(range.first, std::min(r, range.second));
x = r * std::cos(phi);
y = r * std::sin(phi);
if (irad < 0)
x = -x;
}
if (!reco) {
x *= HGCalParameters::k_ScaleToDDD;
y *= HGCalParameters::k_ScaleToDDD;
}
return std::make_pair(x, y);
}
bool HGCalDDDConstants::maskCell(const DetId& detId, int corners) const {
bool mask(false);
if (corners > 2 && corners <= (int)(HGCalParameters::k_CornerSize)) {
if (waferHexagon8()) {
int N(0), layer(0), waferU(0), waferV(0), u(0), v(0);
if (detId.det() == DetId::Forward) {
HFNoseDetId id(detId);
N = getUVMax(id.type());
layer = id.layer();
waferU = id.waferU();
waferV = id.waferV();
u = id.cellU();
v = id.cellV();
} else {
HGCSiliconDetId id(detId);
N = getUVMax(id.type());
layer = id.layer();
waferU = id.waferU();
waferV = id.waferV();
u = id.cellU();
v = id.cellV();
}
int wl = HGCalWaferIndex::waferIndex(layer, waferU, waferV);
auto itr = hgpar_->waferTypes_.find(wl);
#ifdef EDM_ML_DEBUG
edm::LogVerbatim("HGCalGeom") << "MaskCell: Layer " << layer << " Wafer " << waferU << ":" << waferV << " Index "
<< wl << ":" << (itr != hgpar_->waferTypes_.end());
#endif
if (itr != hgpar_->waferTypes_.end()) {
if ((itr->second).second <= HGCalWaferMask::k_OffsetRotation)
mask = HGCalWaferMask::maskCell(u, v, N, (itr->second).first, (itr->second).second, corners);
else
mask = !(HGCalWaferMask::goodCell(
u, v, N, (itr->second).first, ((itr->second).second - HGCalWaferMask::k_OffsetRotation)));
}
}
}
return mask;
}
int HGCalDDDConstants::maxCells(bool reco) const {
int cells(0);
for (unsigned int i = 0; i < layers(reco); ++i) {
int lay = reco ? hgpar_->depth_[i] : hgpar_->layer_[i];
if (cells < maxCells(lay, reco))
cells = maxCells(lay, reco);
}
return cells;
}
int HGCalDDDConstants::maxCells(int lay, bool reco) const {
const auto& index = getIndex(lay, reco);
if (index.first < 0)
return 0;
if (waferHexagon6()) {
unsigned int cells(0);
for (unsigned int k = 0; k < hgpar_->waferTypeT_.size(); ++k) {
if (waferInLayerTest(k, index.first, hgpar_->defineFull_)) {
unsigned int cell = (hgpar_->waferTypeT_[k] - 1 == HGCSiliconDetId::HGCalFine) ? (hgpar_->cellFineX_.size())
: (hgpar_->cellCoarseX_.size());
if (cell > cells)
cells = cell;
}
}
return (int)(cells);
} else if (waferHexagon8()) {
int cells(0);
for (unsigned int k = 0; k < hgpar_->waferCopy_.size(); ++k) {
if (waferInLayerTest(k, index.first, hgpar_->defineFull_)) {
auto itr = hgpar_->typesInLayers_.find(HGCalWaferIndex::waferIndex(
lay, HGCalWaferIndex::waferU(hgpar_->waferCopy_[k]), HGCalWaferIndex::waferV(hgpar_->waferCopy_[k])));
int type = ((itr == hgpar_->typesInLayers_.end()) ? HGCSiliconDetId::HGCalCoarseThick
: hgpar_->waferTypeL_[itr->second]);
int N = (type == HGCSiliconDetId::HGCalFine) ? hgpar_->nCellsFine_ : hgpar_->nCellsCoarse_;
cells = std::max(cells, 3 * N * N);
}
}
return cells;
} else if (tileTrapezoid()) {
return hgpar_->scintCells(index.first + hgpar_->firstLayer_);
} else {
return 0;
}
}
int HGCalDDDConstants::maxRows(int lay, bool reco) const {
int kymax(0);
const auto& index = getIndex(lay, reco);
int i = index.first;
if (i < 0)
return kymax;
if (waferHexagon6()) {
for (unsigned int k = 0; k < hgpar_->waferCopy_.size(); ++k) {
if (waferInLayerTest(k, i, hgpar_->defineFull_)) {
int ky = ((hgpar_->waferCopy_[k]) / 100) % 100;
if (ky > kymax)
kymax = ky;
}
}
} else if (waferHexagon8()) {
kymax = 1 + 2 * hgpar_->waferUVMaxLayer_[index.first];
}
return kymax;
}
int HGCalDDDConstants::modifyUV(int uv, int type1, int type2) const {
// Modify u/v for transition of type1 to type2
return (((type1 == type2) || (type1 * type2 != 0)) ? uv : ((type1 == 0) ? (2 * uv + 1) / 3 : (3 * uv) / 2));
}
int HGCalDDDConstants::modules(int lay, bool reco) const {
if (getIndex(lay, reco).first < 0)
return 0;
else
return max_modules_layer_[(int)reco][lay];
}
int HGCalDDDConstants::modulesInit(int lay, bool reco) const {
int nmod(0);
const auto& index = getIndex(lay, reco);
if (index.first < 0)
return nmod;
if (!tileTrapezoid()) {
for (unsigned int k = 0; k < hgpar_->waferPosX_.size(); ++k) {
if (waferInLayerTest(k, index.first, hgpar_->defineFull_))
++nmod;
}
} else {
nmod = 1 + hgpar_->lastModule_[index.first] - hgpar_->firstModule_[index.first];
}
return nmod;
}
double HGCalDDDConstants::mouseBite(bool reco) const {
return (reco ? hgpar_->mouseBite_ : HGCalParameters::k_ScaleToDDD * hgpar_->mouseBite_);
}
int HGCalDDDConstants::numberCells(bool reco) const {
int cells =
(tileTrapezoid() && (hgpar_->waferMaskMode_ == HGCalGeomParameters::scintillatorFile)) ? tileCount(0, -1) : 0;
if (cells == 0) {
unsigned int nlayer = (reco) ? hgpar_->depth_.size() : hgpar_->layer_.size();
for (unsigned k = 0; k < nlayer; ++k) {
std::vector<int> ncells = numberCells(((reco) ? hgpar_->depth_[k] : hgpar_->layer_[k]), reco);
cells = std::accumulate(ncells.begin(), ncells.end(), cells);
}
}
return cells;
}
std::vector<int> HGCalDDDConstants::numberCells(int lay, bool reco) const {
const auto& index = getIndex(lay, reco);
int i = index.first;
std::vector<int> ncell;
if (i >= 0) {
if (waferHexagon6()) {
for (unsigned int k = 0; k < hgpar_->waferTypeT_.size(); ++k) {
if (waferInLayerTest(k, i, hgpar_->defineFull_)) {
unsigned int cell = (hgpar_->waferTypeT_[k] - 1 == HGCSiliconDetId::HGCalFine)
? (hgpar_->cellFineX_.size())
: (hgpar_->cellCoarseX_.size());
ncell.emplace_back((int)(cell));
}
}
} else if (tileTrapezoid()) {
int nphi = hgpar_->scintCells(lay);
for (int k = hgpar_->firstModule_[i]; k <= hgpar_->lastModule_[i]; ++k)
ncell.emplace_back(nphi);
} else {
for (unsigned int k = 0; k < hgpar_->waferCopy_.size(); ++k) {
if (waferInLayerTest(k, index.first, hgpar_->defineFull_)) {
int cell = numberCellsHexagon(lay,
HGCalWaferIndex::waferU(hgpar_->waferCopy_[k]),
HGCalWaferIndex::waferV(hgpar_->waferCopy_[k]),
true);
ncell.emplace_back(cell);
}
}
}
}
return ncell;
}
int HGCalDDDConstants::numberCellsHexagon(int wafer) const {
if (wafer >= 0 && wafer < (int)(hgpar_->waferTypeT_.size())) {
if (hgpar_->waferTypeT_[wafer] - 1 == HGCSiliconDetId::HGCalFine)
return (int)(hgpar_->cellFineX_.size());
else
return (int)(hgpar_->cellCoarseX_.size());
} else {
return 0;
}