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MTDModuleNumbering.cc
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MTDModuleNumbering.cc
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// -*- C++ -*-
//
/*
Description: <one line class summary>
Implementation:
<Notes on implementation>
*/
//
// Original Author: Riccardo Ranieri
// Created: Tue Feb 27 22:22:22 CEST 2007
//
//
// system include files
#include <memory>
// user include files
#include "FWCore/Framework/interface/Frameworkfwd.h"
#include "FWCore/Framework/interface/one/EDAnalyzer.h"
#include "FWCore/Framework/interface/Event.h"
#include "FWCore/Framework/interface/EventSetup.h"
#include "FWCore/Framework/interface/ESHandle.h"
#include "FWCore/Framework/interface/MakerMacros.h"
#include "FWCore/ParameterSet/interface/ParameterSet.h"
#include "Geometry/CommonDetUnit/interface/TrackingGeometry.h"
#include "Geometry/Records/interface/TrackerDigiGeometryRecord.h"
#include "Geometry/TrackerNumberingBuilder/interface/GeometricDet.h"
#include "Geometry/CommonTopologies/interface/PixelTopology.h"
#include "Geometry/CommonTopologies/interface/StripTopology.h"
#include "Geometry/TrackerGeometryBuilder/interface/PixelGeomDetType.h"
#include "Geometry/TrackerGeometryBuilder/interface/StripGeomDetType.h"
#include "Geometry/TrackerGeometryBuilder/interface/PixelGeomDetUnit.h"
#include "DataFormats/GeometrySurface/interface/BoundSurface.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "Geometry/TrackerNumberingBuilder/interface/CmsTrackerDebugNavigator.h"
#include "DataFormats/SiStripDetId/interface/StripSubdetector.h"
#include "DataFormats/TrackerCommon/interface/TrackerTopology.h"
#include "Geometry/Records/interface/IdealGeometryRecord.h"
#include "Geometry/Records/interface/TrackerTopologyRcd.h"
#include "Geometry/TrackerNumberingBuilder/interface/CmsTrackerStringToEnum.h"
#include "Geometry/TrackerGeometryBuilder/interface/TrackerGeometry.h"
#include "DetectorDescription/Core/interface/DDRoot.h"
#include "DetectorDescription/Core/interface/DDExpandedView.h"
#include "DetectorDescription/Core/interface/DDFilter.h"
#include "DetectorDescription/Core/interface/DDFilteredView.h"
#include "DetectorDescription/Core/interface/DDCompactView.h"
#include "DetectorDescription/Core/interface/DDMaterial.h"
// output
#include <iostream>
#include <fstream>
#include <iomanip>
#include <cmath>
#include <bitset>
//
//
// class decleration
//
//double PI = 3.141592654;
class MTDModuleNumbering : public edm::one::EDAnalyzer<> {
public:
explicit MTDModuleNumbering( const edm::ParameterSet& );
~MTDModuleNumbering() override;
void beginJob() override {}
void analyze(edm::Event const& iEvent, edm::EventSetup const&) override;
void endJob() override {}
private:
// ----------member data ---------------------------
void fillModuleVariables(const GeometricDet* module, double& polarRadius, double& phiRad, double& z);
double changePhiRange_From_ZeroTwoPi_To_MinusPiPlusPi(double phiRad);
double changePhiRange_From_MinusPiPlusPi_To_MinusTwoPiZero(double phiRad);
double changePhiRange_From_MinusPiPlusPi_To_ZeroTwoPi(double phiRad);
//
// counters
unsigned int iOK;
unsigned int iERROR;
//
};
//
// constants, enums and typedefs
//
//
// static data member definitions
//
static const double tolerance_space = 1.000; // 1.000 mm
static const double tolerance_angle = 0.001; // 0.001 rad
//
// constructors and destructor
//
MTDModuleNumbering::MTDModuleNumbering( const edm::ParameterSet& iConfig )
{
//now do what ever initialization is needed
}
MTDModuleNumbering::~MTDModuleNumbering()
{
// do anything here that needs to be done at desctruction time
// (e.g. close files, deallocate resources etc.)
}
//
// member functions
//
void MTDModuleNumbering::fillModuleVariables(const GeometricDet* module, double& polarRadius, double& phiRad, double& z) {
// module variables
polarRadius = std::sqrt(module->translation().X()*module->translation().X()+module->translation().Y()*module->translation().Y());
phiRad = atan2(module->translation().Y(),module->translation().X());
// tolerance near phi=0
if(fabs(phiRad) < tolerance_angle) phiRad=0.0;
// negative phi: from [-PI,+PI) to [0,2PI)
if(phiRad < 0) phiRad+=2*M_PI;
//
z = module->translation().Z();
//
}
double MTDModuleNumbering::changePhiRange_From_ZeroTwoPi_To_MinusPiPlusPi(double phiRad) {
double new_phiRad = phiRad;
// tolerance near phi=PI
if(fabs(new_phiRad-M_PI) < tolerance_angle) new_phiRad=M_PI;
// phi greater than PI: from [0,2PI) to [-PI,+PI)
if(new_phiRad > M_PI) new_phiRad-=2*M_PI;
//
return new_phiRad;
}
double MTDModuleNumbering::changePhiRange_From_MinusPiPlusPi_To_MinusTwoPiZero(double phiRad) {
double new_phiRad = phiRad;
// tolerance near phi=PI
if(fabs(fabs(new_phiRad)-M_PI) < tolerance_angle) new_phiRad=M_PI;
// phi greater than PI: from [-PI,+PI) to [0,2PI)
if(new_phiRad > 0) new_phiRad-=2*M_PI;
//
return new_phiRad;
}
double MTDModuleNumbering::changePhiRange_From_MinusPiPlusPi_To_ZeroTwoPi(double phiRad) {
double new_phiRad = phiRad;
// tolerance near phi=PI
if(fabs(fabs(new_phiRad)-M_PI) < tolerance_angle) new_phiRad=M_PI;
// phi greater than PI: from [-PI,+PI) to [0,2PI)
if(new_phiRad < 0) new_phiRad+=2*M_PI;
//
return new_phiRad;
}
// ------------ method called to produce the data ------------
void
MTDModuleNumbering::analyze( const edm::Event& iEvent, const edm::EventSetup& iSetup )
{
//Retrieve tracker topology from geometry
edm::ESHandle<TrackerTopology> tTopoHandle;
iSetup.get<TrackerTopologyRcd>().get(tTopoHandle);
const TrackerTopology* const tTopo = tTopoHandle.product();
edm::LogInfo("MTDModuleNumbering") << "begins";
// output file
std::ofstream Output("MTDModuleNumbering.log",std::ios::out);
//
// reset counters
iOK = 0;
iERROR = 0;
//
//
// get the GeometricDet
//
edm::ESHandle<GeometricDet> rDD;
edm::ESHandle<std::vector<GeometricDetExtra> > rDDE;
iSetup.get<IdealGeometryRecord>().get( rDD );
iSetup.get<IdealGeometryRecord>().get( rDDE );
edm::LogInfo("MTDModuleNumbering") << " Top node is " << rDD.product() << " " << rDD.product()->name().name() << std::endl;
edm::LogInfo("MTDModuleNumbering") << " And Contains Daughters: " << rDD.product()->deepComponents().size() << std::endl;
CmsTrackerDebugNavigator nav(*rDDE.product());
nav.dump(*rDD.product(), *rDDE.product());
//
//first instance tracking geometry
edm::ESHandle<TrackerGeometry> pDD;
iSetup.get<TrackerDigiGeometryRecord> ().get (pDD);
//
std::vector<const GeometricDet*> modules = (*rDD).deepComponents();
std::map< uint32_t , const GeometricDet* > mapDetIdToGeometricDet;
for(auto & module : modules){
mapDetIdToGeometricDet[module->geographicalID().rawId()] = module;
}
// Debug variables
//
uint32_t myDetId = 0;
unsigned int iDetector = 1;
unsigned int nSubDetectors = 6;
//
double polarRadius = 0.0;
double phiRad = 0.0;
double z = 0.0;
//
Output << "************************ List of modules with positions ************************" << std::endl;
Output << std::fixed << std::setprecision(4); // set as default 4 decimal digits (0.1 um or 0.1 rad)
for(unsigned int iSubDetector = 1; iSubDetector <= nSubDetectors; iSubDetector++) {
// modules
switch (iSubDetector) {
// PXB
case 1:
{
break;
}
// PXF
case 2:
{
break;
}
// TIB
case 3:
{
// TIB loop
unsigned int string_int_ext_TIB[8] = { 26 , 30 , 34 , 38 , 44 , 46 , 52 , 56 }; // number of strings per layer 1/4 int/ext
unsigned int mod_type_TIB[8] = { 1 , 2 , 1 , 2 , 0 , 0 , 0 , 0 }; // first and last type for module type loop
unsigned int nLayers = 4;
unsigned int nModules = 3;
// debug variables
double layer_R = 0.0;
double layer_R_previous = 0.0;
double side_z = 0.0;
double side_z_previous = -10000.0;
double part_R = 0.0;
double part_R_previous = 0.0;
double string_phi = 0.0;
double string_phi_previous = 0.0;
double module_z = 0.0;
double module_z_previous = 0.0;
//
for(unsigned int iLayer = 1; iLayer <= nLayers; iLayer++) { // Layer: 1,...,nLayers
for(unsigned int iSide = 1; iSide <= 2; iSide++){ // Side: 1:- 2:+
for(unsigned int iPart = 1; iPart <= 2; iPart++){ // Part: 1:int 2:ext
unsigned int jString = ( 2 * ( iLayer - 1 ) ) + ( iPart - 1 );
for(unsigned int iString = 1; iString <= string_int_ext_TIB[jString] ; iString++) { // String: 1,...,nStrings
for(unsigned int iModule = 1; iModule <= nModules ; iModule++) { // Module: 1,...,nModules
for(unsigned int iType = mod_type_TIB[2*(iLayer-1)]; iType <= mod_type_TIB[2*(iLayer-1)+1] ; iType++) { // Module Type: 0 (ss) 1-2 (ds stereo and rphi)
myDetId = 0;
// detector
myDetId <<= 4;
myDetId |= iDetector;
// subdetector
myDetId <<= 3;
myDetId |= iSubDetector;
// not used
myDetId <<= 8;
myDetId |= 0;
// layer
myDetId <<= 3;
myDetId |= iLayer;
// side
myDetId <<= 2;
myDetId |= iSide;
// part
myDetId <<= 2;
myDetId |= iPart;
// string number
myDetId <<= 6;
myDetId |= iString;
// module number
myDetId <<= 2;
myDetId |= iModule;
// module type
myDetId <<= 2;
myDetId |= iType;
//
std::bitset<32> binary_myDetId(myDetId);
Output << std::endl << std::endl;
Output << " ******** myDet Id = " << myDetId << " (" << binary_myDetId << ")" << std::endl;
//
unsigned int rawid = mapDetIdToGeometricDet[myDetId]->geographicalID().rawId();
std::bitset<32> binary_detid(rawid);
GeometricDet::nav_type detNavType = mapDetIdToGeometricDet[myDetId]->navType();
//
Output << " raw Id = " << rawid << " (" << binary_detid << ")"
<< "\t nav type = " << printNavType(&detNavType.front(),detNavType.size()) << std::endl;
// variables
fillModuleVariables(mapDetIdToGeometricDet[myDetId], polarRadius, phiRad, z);
layer_R = polarRadius;
side_z = z;
part_R = polarRadius;
string_phi = phiRad;
module_z = z;
//
Output << "\t R = " << polarRadius << "\t phi = " << phiRad << "\t z = " << z << std::endl;
// Module Info
std::string name = mapDetIdToGeometricDet[myDetId]->name().name();
unsigned int theLayer = tTopo->tibLayer(rawid);
std::vector<unsigned int> theString = tTopo->tibStringInfo(rawid);
unsigned int theModule = tTopo->tibModule(rawid);
std::string side;
std::string part;
side = (theString[0] == 1 ) ? "-" : "+";
part = (theString[1] == 1 ) ? "int" : "ext";
Output << " TIB" << side << "\t" << "Layer " << theLayer << " " << part
<< "\t" << "string " << theString[2] << "\t" << " module " << theModule << " " << name << std::endl;
//
// module: |z| check
Output << "\t # ";
if( ( fabs(module_z) - fabs(module_z_previous) ) < (0 + tolerance_space) ) {
Output << "\t ERROR |z| ordering not respected in module ";
iERROR++;
} else {
Output << "\t OK" << " |z| ordering in module ";
iOK++;
}
Output << iModule-1 << " to " << iModule << " (" << module_z_previous << " --> " << module_z << ")" << std::endl;
//
} // type loop
//
module_z_previous = module_z;
//
} // module loop
// string: phi check
Output << "\t ## ";
if( ( string_phi - string_phi_previous ) < (0 - tolerance_angle) ) {
Output << "\t ERROR phi ordering not respected in string ";
iERROR++;
} else {
Output << "\t OK" << " phi ordering in string ";
iOK++;
}
Output << iString-1 << " to " << iString << " (" << string_phi_previous << " --> " << string_phi << ")" << std::endl;
//
string_phi_previous = string_phi;
module_z_previous = 0.0;
//
} // string loop
// part: R check
Output << "\t ### ";
if( ( part_R - part_R_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR R ordering (part int/ext) not respected in layer ";
iERROR++;
} else {
Output << "\t OK" << " R ordering (part int/ext) in layer ";
iOK++;
}
Output << iLayer << " part " << iPart-1 << " to " << iPart << " (" << part_R_previous << " --> " << part_R << ")" << std::endl;
//
part_R_previous = part_R;
string_phi_previous = 0.0;
module_z_previous = 0.0;
//
} // part loop
// side: z check
Output << "\t #### ";
if( ( side_z - side_z_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR z ordering (side -/+) not respected in layer ";
iERROR++;
} else {
Output << "\t OK" << " z ordering (side -/+) in layer ";
iOK++;
}
Output << iLayer << " side " << iSide-1 << " to " << iSide << " (" << side_z_previous << " --> " << side_z << ")" << std::endl;
//
side_z_previous = side_z;
part_R_previous = 0.0;
string_phi_previous = 0.0;
module_z_previous = 0.0;
//
} // side loop
// layer: R check
Output << "\t ##### ";
if( ( layer_R - layer_R_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR R ordering not respected from layer ";
iERROR++;
} else {
Output << "\t OK" << " R ordering in layer ";
iOK++;
}
Output << iLayer-1 << " to " << iLayer << " (" << layer_R_previous << " --> " << layer_R << ")" << std::endl;
//
layer_R_previous = layer_R;
side_z_previous = -10000.0;
part_R_previous = 0.0;
string_phi_previous = 0.0;
module_z_previous = 0.0;
//
} // layer loop
break;
}
// TID
case 4:
{
// TID loop
unsigned int modules_TID[3] = { 12 , 12 , 20 }; // number of modules per disk
unsigned int mod_type_TID[8] = { 1 , 2 , 1 , 2 , 0 , 0 , 0 , 0 }; // first and last type for module type loop
unsigned int nDisks = 3;
unsigned int nRings = 3;
// debug variables
double side_z = 0.0;
double side_z_previous = 10000.0;
double disk_z = 0.0;
double disk_z_previous = 0.0;
double ring_R = 0.0;
double ring_R_previous = 0.0;
double part_z = 0.0;
double part_z_previous = 0.0;
double module_phi = 0.0;
double module_phi_previous = -M_PI;
//
for(unsigned int iSide = 2; iSide >= 1; iSide--){ // Side: 1:- 2:+
for(unsigned int iDisk = 1; iDisk <= nDisks; iDisk++) { // Disk: 1,...,nDisks
for(unsigned int iRing = 1; iRing <= nRings; iRing++){ // Ring: 1,...,nRings
for(int iPart = 2; iPart >= 1; iPart--){ // Part: 1:back 2:front
for(unsigned int iModule = 1; iModule <= modules_TID[iRing-1] ; iModule++) { // Module: 1,...,modules in ring
for(unsigned int iType = mod_type_TID[2*(iRing-1)]; iType <= mod_type_TID[2*(iRing-1)+1] ; iType++) { // Module Type: 0 (ss) 1-2 (ds stereo and rphi)
myDetId = 0;
// detector
myDetId <<= 4;
myDetId |= iDetector;
// subdetector
myDetId <<= 3;
myDetId |= iSubDetector;
// not used
myDetId <<= 10;
myDetId |= 0;
// side
myDetId <<= 2;
myDetId |= iSide;
// disk number
myDetId <<= 2;
myDetId |= iDisk;
// ring number
myDetId <<= 2;
myDetId |= iRing;
// part
myDetId <<= 2;
myDetId |= iPart;
// module number
myDetId <<= 5;
myDetId |= iModule;
// module type
myDetId <<= 2;
myDetId |= iType;
//
std::bitset<32> binary_myDetId(myDetId);
Output << std::endl << std::endl;
Output << " ******** myDet Id = " << myDetId << " (" << binary_myDetId << ")" << std::endl;
//
unsigned int rawid = mapDetIdToGeometricDet[myDetId]->geographicalID().rawId();
std::bitset<32> binary_detid(rawid);
GeometricDet::nav_type detNavType = mapDetIdToGeometricDet[myDetId]->navType();
//
Output << " raw Id = " << rawid << " (" << binary_detid << ")"
<< "\t nav type = " << printNavType(&detNavType.front(),detNavType.size()) << std::endl;
// variables
fillModuleVariables(mapDetIdToGeometricDet[myDetId], polarRadius, phiRad, z);
side_z = z;
disk_z = z;
ring_R = polarRadius;
part_z = z;
module_phi = phiRad;
//
Output << "\t R = " << polarRadius << "\t phi = " << phiRad << "\t z = " << z << std::endl;
// Module Info
std::string name = mapDetIdToGeometricDet[myDetId]->name().name();
unsigned int theDisk = tTopo->tidWheel(rawid);
unsigned int theRing = tTopo->tidRing(rawid);
std::vector<unsigned int> theModule = tTopo->tidModuleInfo(rawid);
std::string side;
std::string part;
side = (tTopo->tidSide(rawid) == 1 ) ? "-" : "+";
part = (theModule[0] == 1 ) ? "back" : "front";
Output << " TID" << side << "\t" << "Disk " << theDisk << " Ring " << theRing << " " << part
<< "\t" << " module " << theModule[1] << "\t" << name << std::endl;
//
// module: phi check
Output << "\t # ";
if( ( module_phi - module_phi_previous ) < (0 - tolerance_angle) ) {
Output << "\t ERROR phi ordering not respected in module ";
iERROR++;
} else {
Output << "\t OK" << " phi ordering in module ";
iOK++;
}
Output << iModule-1 << " to " << iModule << " (" << module_phi_previous << " --> " << module_phi << ")" << std::endl;
//
} // type loop
//
module_phi_previous = module_phi;
//
} // module loop
// part: |z| check
Output << "\t ## ";
if( ( fabs(part_z) - fabs(part_z_previous) ) < (0 + tolerance_space) ) {
Output << "\t ERROR |z| ordering (front/back) not respected in ring ";
iERROR++;
} else {
Output << "\t OK" << " |z| ordering (front/back) in ring ";
iOK++;
}
Output << iRing << " part " << iPart+1 << " to " << iPart << " (" << part_z_previous << " --> " << part_z << ")" << std::endl;
//
part_z_previous = part_z;
module_phi_previous = -M_PI;
//
} // part loop
// ring: R check
Output << "\t ### ";
if( ( ring_R - ring_R_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR R ordering not respected in disk ";
iERROR++;
} else {
Output << "\t OK" << " R ordering in disk ";
iOK++;
}
Output << iDisk << " ring " << iRing-1 << " to " << iRing << " (" << ring_R_previous << " --> " << ring_R << ")" << std::endl;
//
ring_R_previous = ring_R;
part_z_previous = 0.0;
module_phi_previous = -M_PI;
//
} // ring loop
// disk: |z| check
Output << "\t #### ";
if( ( fabs(disk_z) - fabs(disk_z_previous) ) < (0 + tolerance_space) ) {
Output << "\t ERROR |z| ordering not respected in disk ";
iERROR++;
} else {
Output << "\t OK" << " |z| ordering in disk ";
iOK++;
}
Output << iDisk-1 << " to " << iDisk << " (" << disk_z_previous << " --> " << disk_z << ")" << std::endl;
//
disk_z_previous = disk_z;
ring_R_previous = 0.0;
part_z_previous = 0.0;
module_phi_previous = -M_PI;
//
} // disk loop
// side: z check
Output << "\t ##### ";
if( ( side_z - side_z_previous ) > (0 + tolerance_space) ) {
Output << "\t ERROR z ordering (side -/+) not respected in TID side ";
iERROR++;
} else {
Output << "\t OK" << " z ordering (side -/+) in TID side ";
iOK++;
}
Output << iSide+1 << " to " << iSide << " (" << side_z_previous << " --> " << side_z << ")" << std::endl;
//
side_z_previous = side_z;
disk_z_previous = 0.0;
ring_R_previous = 0.0;
part_z_previous = 0.0;
module_phi_previous = -M_PI;
//
} // side loop
break;
}
// TOB
case 5:
{
// TOB loop
unsigned int rod_TOB[8] = { 42 , 48 , 54 , 60 , 66, 74 }; // number of rods per layer 1/6
unsigned int mod_type_TOB[12] = { 1 , 2 , 1 , 2 , 0 , 0 , 0 , 0 , 0 , 0 , 0 , 0 }; // first and last type for module type loop
unsigned int nLayers = 6;
unsigned int nModules = 6;
// debug variables
double layer_R = 0.0;
double layer_R_previous = 0.0;
double side_z = 0.0;
double side_z_previous = -10000.0;
double rod_phi = 0.0;
double rod_phi_previous = 0.0;
double module_z = 0.0;
double module_z_previous = 0.0;
//
for(unsigned int iLayer = 1; iLayer <= nLayers; iLayer++) { // Layer: 1,...,nLayers
for(unsigned int iSide = 1; iSide <= 2; iSide++){ // Side: 1:- 2:+
for(unsigned int iRod = 1; iRod <= rod_TOB[iLayer-1] ; iRod++) { // Rod: 1,...,nRods
for(unsigned int iModule = 1; iModule <= nModules ; iModule++) { // Module: 1,...,nModules
for(unsigned int iType = mod_type_TOB[2*(iLayer-1)]; iType <= mod_type_TOB[2*(iLayer-1)+1] ; iType++) { // Module Type: 0 (ss) 1-2 (ds stereo and rphi)
myDetId = 0;
// detector
myDetId <<= 4;
myDetId |= iDetector;
// subdetector
myDetId <<= 3;
myDetId |= iSubDetector;
// not used
myDetId <<= 8;
myDetId |= 0;
// layer
myDetId <<= 3;
myDetId |= iLayer;
// side
myDetId <<= 2;
myDetId |= iSide;
// rod number
myDetId <<= 7;
myDetId |= iRod;
// module number
myDetId <<= 3;
myDetId |= iModule;
// module type
myDetId <<= 2;
myDetId |= iType;
//
std::bitset<32> binary_myDetId(myDetId);
Output << std::endl << std::endl;
Output << " ******** myDet Id = " << myDetId << " (" << binary_myDetId << ")" << std::endl;
//
unsigned int rawid = mapDetIdToGeometricDet[myDetId]->geographicalID().rawId();
std::bitset<32> binary_detid(rawid);
GeometricDet::nav_type detNavType = mapDetIdToGeometricDet[myDetId]->navType();
//
Output << " raw Id = " << rawid << " (" << binary_detid << ")"
<< "\t nav type = " << printNavType(&detNavType.front(),detNavType.size()) << std::endl;
// variables
fillModuleVariables(mapDetIdToGeometricDet[myDetId], polarRadius, phiRad, z);
layer_R = polarRadius;
side_z = z;
rod_phi = phiRad;
module_z = z;
//
Output << "\t R = " << polarRadius << "\t phi = " << phiRad << "\t z = " << z << std::endl;
// Module Info
std::string name = mapDetIdToGeometricDet[myDetId]->name().name();
unsigned int theLayer = tTopo->tobLayer(rawid);
std::vector<unsigned int> theRod = tTopo->tobRodInfo(rawid);
unsigned int theModule = tTopo->tobModule(rawid);
std::string side;
std::string part;
side = (theRod[0] == 1 ) ? "-" : "+";
Output << " TOB" << side << "\t" << "Layer " << theLayer
<< "\t" << "rod " << theRod[1] << " module " << theModule << "\t" << name << std::endl;
//
// module: |z| check
Output << "\t # ";
if( ( fabs(module_z) - fabs(module_z_previous) ) < (0 + tolerance_space) ) {
Output << "\t ERROR |z| ordering not respected in module ";
iERROR++;
} else {
Output << "\t OK" << " |z| ordering in module ";
iOK++;
}
Output << iModule-1 << " to " << iModule << " (" << module_z_previous << " --> " << module_z << ")" << std::endl;
//
} // type loop
//
module_z_previous = module_z;
//
} // module loop
// rod: phi check
Output << "\t ## ";
if( ( rod_phi - rod_phi_previous ) < (0 - tolerance_angle) ) {
Output << "\t ERROR phi ordering not respected in rod ";
iERROR++;
} else {
Output << "\t OK" << " phi ordering in rod ";
iOK++;
}
Output << iRod-1 << " to " << iRod << " (" << rod_phi_previous << " --> " << rod_phi << ")" << std::endl;
//
rod_phi_previous = rod_phi;
module_z_previous = 0.0;
//
} // rod loop
// side: z check
Output << "\t ### ";
if( ( side_z - side_z_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR z ordering (side -/+) not respected in layer ";
iERROR++;
} else {
Output << "\t OK" << " z ordering (side -/+) in layer ";
iOK++;
}
Output << iLayer << " side " << iSide-1 << " to " << iSide << " (" << side_z_previous << " --> " << side_z << ")" << std::endl;
//
side_z_previous = side_z;
rod_phi_previous = 0.0;
module_z_previous = 0.0;
//
} // side loop
// layer: R check
Output << "\t #### ";
if( ( layer_R - layer_R_previous ) < (0 + tolerance_space) ) {
Output << "\t ERROR R ordering not respected from layer ";
iERROR++;
} else {
Output << "\t OK" << " R ordering in layer ";
iOK++;
}
Output << iLayer-1 << " to " << iLayer << " (" << layer_R_previous << " --> " << layer_R << ")" << std::endl;
//
layer_R_previous = layer_R;
side_z_previous = -10000.0;
rod_phi_previous = 0.0;
module_z_previous = 0.0;
//
} // layer loop
break;
}
// TEC
case 6:
{
// TEC loop
unsigned int nWheels = 9;
unsigned int nPetals = 8;
unsigned int nRings = 7;
unsigned int first_ring_TEC[9] = { 1 , 1 , 1 , 2 , 2 , 2 , 3 , 3 , 4 }; // first ring of the wheel
unsigned int modules_ring_TEC[14] = { 1 , 2 , 1 , 2 , 2 , 3 , 3 , 4 , 3 , 2 , 3 , 4 , 5 , 5 }; // number of modules ring=1,...,nRings back/front
unsigned int mod_type_TEC[14] = { 1 , 2 , 1 , 2 , 0 , 0 , 0 , 0 , 1 , 2 , 0 , 0 , 0 , 0 }; // first and last type for module type loop (per ring)
// debug variables
double side_z = 0.0;
double side_z_previous = 10000.0;
double wheel_z = 0.0;
double wheel_z_previous = 0.0;
double part_z = 0.0;
double part_z_previous = 0.0;
double petal_phi = 0.0;
double petal_phi_previous = 0.0;
double ring_R = 0.0;
double ring_R_previous = 0.0;
double module_phi = 0.0;
double module_phi_previous = -M_PI;
//
for(unsigned int iSide = 2; iSide >= 1; iSide--){ // Side: 1:- 2:+
switch (iSide) {
// TEC+
case 2:
{
side_z = 0.0;
side_z_previous = 10000.0;
wheel_z = 0.0;
wheel_z_previous = 0.0;
part_z = 0.0;
part_z_previous = 0.0;
petal_phi = 0.0;
petal_phi_previous = 0.0;
ring_R = 0.0;
ring_R_previous = 0.0;
module_phi = 0.0;
module_phi_previous = -M_PI;
break;
}
// TEC-
case 1:
{
wheel_z = 0.0;
wheel_z_previous = 0.0;
part_z = 0.0;
part_z_previous = 0.0;
petal_phi = 0.0;
petal_phi_previous = 0.0;
ring_R = 0.0;
ring_R_previous = 0.0;
module_phi = 0.0;
module_phi_previous = 2*M_PI;
break;
}
default:
{
// do nothing
}
}
//
for(unsigned int iWheel = 1; iWheel <= nWheels; iWheel++) { // Wheel: 1,...,nWheels
for(int iPart = 2; iPart >= 1; iPart--){ // Part: 1:back 2:front
for(unsigned int iPetal = 1; iPetal <= nPetals; iPetal++) { // Petal: 1,...,nPetals
for(unsigned int iRing = first_ring_TEC[iWheel-1]; iRing <= nRings; iRing++){ // Ring: first,...,nRings
unsigned int nModules = modules_ring_TEC[2*(iRing-1)+(iPart-1)];
for(unsigned int iModule = 1; iModule <= nModules; iModule++) { // Module: 1,...,modules in ring of petal
for(unsigned int iType = mod_type_TEC[2*(iRing-1)]; iType <= mod_type_TEC[2*(iRing-1)+1] ; iType++) { // Module Type: 0 (ss) 1-2 (ds stereo and rphi)
myDetId = 0;
// detector
myDetId <<= 4;
myDetId |= iDetector;
// subdetector
myDetId <<= 3;
myDetId |= iSubDetector;
// not used
myDetId <<= 5;
myDetId |= 0;
// side
myDetId <<= 2;
myDetId |= iSide;
// wheel number
myDetId <<= 4;
myDetId |= iWheel;
// part
myDetId <<= 2;
myDetId |= iPart;
// petal number
myDetId <<= 4;
myDetId |= iPetal;
// ring number
myDetId <<= 3;
myDetId |= iRing;
// module number
myDetId <<= 3;
myDetId |= iModule;
// module type
myDetId <<= 2;
myDetId |= iType;
//
std::bitset<32> binary_myDetId(myDetId);
Output << std::endl << std::endl;
Output << " ******** myDet Id = " << myDetId << " (" << binary_myDetId << ")" << std::endl;
//
unsigned int rawid = mapDetIdToGeometricDet[myDetId]->geographicalID().rawId();
std::bitset<32> binary_detid(rawid);
GeometricDet::nav_type detNavType = mapDetIdToGeometricDet[myDetId]->navType();
//
Output << " raw Id = " << rawid << " (" << binary_detid << ")"
<< "\t nav type = " << printNavType(&detNavType.front(),detNavType.size()) << std::endl;
// variables
fillModuleVariables(mapDetIdToGeometricDet[myDetId], polarRadius, phiRad, z);
side_z = z;
wheel_z = z;
part_z = z;
switch (iSide) {
// TEC+
case 2:
{
phiRad = phiRad;
break;
}
// TEC-
case 1:
{
phiRad = changePhiRange_From_ZeroTwoPi_To_MinusPiPlusPi(phiRad);
break;
}
default:
{
// do nothing
}
}
// petal must be ordered inside [0,2PI) for TEC+, [PI,-PI) for TEC-, take the phi of the central module in a ring with (2n+1) modules
if( ( nModules%2 ) && ( iModule==(int)(nModules/2)+(nModules%2) ) ) {
switch (iSide) {
// TEC+
case 2:
{
petal_phi = phiRad;
break;
}
// TEC-
case 1:
{
petal_phi = changePhiRange_From_MinusPiPlusPi_To_ZeroTwoPi(phiRad);
break;
}
default:
{
// do nothing
}
}
}
ring_R = polarRadius;
//
// modules must be ordered inside petals [0,2PI)-->[-PI,PI) if the petal is near phi~0 TEC+ (petal number 1)
// modules must be ordered inside petals [PI,-PI)-->[2PI,0) if the petal is near phi~PI TEC- (petal number 5)
switch (iSide) {
// TEC+
case 2:
{
if( iPetal == 1 ) { // it is the request of the petal at phi = 0, always the first
module_phi = changePhiRange_From_ZeroTwoPi_To_MinusPiPlusPi(phiRad);
} else {
module_phi = phiRad;
}
break;
}
// TEC-
case 1:
{
if( iPetal == 5 ) { // it is the request of the petal at phi = PI, always the fifth
module_phi = changePhiRange_From_MinusPiPlusPi_To_MinusTwoPiZero(phiRad);
} else {
module_phi = phiRad;
}
break;
}
default:
{
// do nothing
}
}
//
Output << "\t R = " << polarRadius << "\t phi = " << phiRad << "\t z = " << z << std::endl;
// Module Info
std::string name = mapDetIdToGeometricDet[myDetId]->name().name();
unsigned int theWheel = tTopo->tecWheel(rawid);
unsigned int theModule = tTopo->tecModule(rawid);
std::vector<unsigned int> thePetal = tTopo->tecPetalInfo(rawid);
unsigned int theRing = tTopo->tecRing(rawid);
std::string side;
std::string petal;
side = (tTopo->tecSide(rawid) == 1 ) ? "-" : "+";
petal = (thePetal[0] == 1 ) ? "back" : "front";
Output << " TEC" << side << "\t" << "Wheel " << theWheel << " Petal " << thePetal[1] << " " << petal << " Ring " << theRing << "\t"
<< "\t" << " module " << theModule << "\t" << name << std::endl;
//
// module: phi check
Output << "\t # ";
switch (iSide) {
// TEC+
case 2:
{
if( ( module_phi - module_phi_previous ) < (0 - tolerance_angle) ) {
Output << "\t ERROR phi ordering not respected in module ";
iERROR++;
} else {
Output << "\t OK" << " phi ordering in module ";
iOK++;
}
Output << iModule-1 << " to " << iModule << " (" << module_phi_previous << " --> " << module_phi << ")" << std::endl;
break;
}
// TEC-
case 1:
{
if( ( module_phi - module_phi_previous ) > (0 + tolerance_angle) ) {