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File indexing completed on 2021-06-27 22:37:19
0001 /** Derived from DTGeometryAnalyzer by Nicola Amapane 0002 * 0003 * \author M. Maggi - INFN Bari 0004 */ 0005 0006 #include <memory> 0007 #include <fstream> 0008 #include <FWCore/Framework/interface/Frameworkfwd.h> 0009 0010 #include <FWCore/Framework/interface/one/EDAnalyzer.h> 0011 #include <FWCore/Framework/interface/Event.h> 0012 #include <FWCore/Framework/interface/EventSetup.h> 0013 #include <FWCore/ParameterSet/interface/ParameterSet.h> 0014 0015 #include "Geometry/RPCGeometry/interface/RPCGeometry.h" 0016 #include <Geometry/Records/interface/MuonGeometryRecord.h> 0017 #include <Geometry/CommonTopologies/interface/RectangularStripTopology.h> 0018 #include <Geometry/CommonTopologies/interface/TrapezoidalStripTopology.h> 0019 0020 #include <string> 0021 #include <cmath> 0022 #include <vector> 0023 #include <iomanip> 0024 #include <set> 0025 0026 using namespace std; 0027 0028 class RPCGeometryAnalyzer : public edm::one::EDAnalyzer<> { 0029 public: 0030 RPCGeometryAnalyzer(const edm::ParameterSet& pset); 0031 0032 ~RPCGeometryAnalyzer() override; 0033 0034 void beginJob() override {} 0035 void analyze(edm::Event const& iEvent, edm::EventSetup const&) override; 0036 void endJob() override {} 0037 0038 const std::string& myName() { return myName_; } 0039 0040 private: 0041 const edm::ESGetToken<RPCGeometry, MuonGeometryRecord> tokRPC_; 0042 const int dashedLineWidth_; 0043 const std::string dashedLine_; 0044 const std::string myName_; 0045 std::ofstream ofos; 0046 }; 0047 0048 RPCGeometryAnalyzer::RPCGeometryAnalyzer(const edm::ParameterSet& /*iConfig*/) 0049 : tokRPC_{esConsumes<RPCGeometry, MuonGeometryRecord>(edm::ESInputTag{})}, 0050 dashedLineWidth_(104), 0051 dashedLine_(std::string(dashedLineWidth_, '-')), 0052 myName_("RPCGeometryAnalyzer") { 0053 ofos.open("MytestOutput.out"); 0054 std::cout << "======================== Opening output file" << std::endl; 0055 } 0056 0057 RPCGeometryAnalyzer::~RPCGeometryAnalyzer() { 0058 ofos.close(); 0059 std::cout << "======================== Closing output file" << std::endl; 0060 } 0061 0062 void RPCGeometryAnalyzer::analyze(const edm::Event& /*iEvent*/, const edm::EventSetup& iSetup) { 0063 const RPCGeometry* pDD = &iSetup.getData(tokRPC_); 0064 0065 std::cout << myName() << ": Analyzer..." << std::endl; 0066 std::cout << "start " << dashedLine_ << std::endl; 0067 0068 std::cout << " Geometry node for RPCGeom is " << &(*pDD) << std::endl; 0069 cout << " I have " << pDD->detTypes().size() << " detTypes" << endl; 0070 cout << " I have " << pDD->detUnits().size() << " detUnits" << endl; 0071 cout << " I have " << pDD->dets().size() << " dets" << endl; 0072 cout << " I have " << pDD->rolls().size() << " rolls" << endl; 0073 cout << " I have " << pDD->chambers().size() << " chambers" << endl; 0074 0075 std::cout << myName() << ": Begin iteration over geometry..." << std::endl; 0076 std::cout << "iter " << dashedLine_ << std::endl; 0077 0078 std::cout << "\n # id(hex) id(dec) " 0079 " g(x=0) g(y=0) g(z=0) g(z=-1) g(z=+1) Ns " 0080 " phi(0) phi(s1) phi(sN) dphi dphi' ds off" 0081 " uR uL lR lL" 0082 << std::endl; 0083 0084 int iRPCCHcount = 0; 0085 0086 // const double dPi = 3.14159265358; 0087 // const double radToDeg = 180. / dPi; //@@ Where to get pi from? 0088 0089 std::set<RPCDetId> sids; 0090 std::vector<LocalPoint> vlp; 0091 vlp.emplace_back(LocalPoint(-1, 0, 0)); 0092 vlp.emplace_back(LocalPoint(0, 0, 0)); 0093 vlp.emplace_back(LocalPoint(1, 0, 0)); 0094 vlp.emplace_back(LocalPoint(0, -1, 0)); 0095 vlp.emplace_back(LocalPoint(0, 0, 0)); 0096 vlp.emplace_back(LocalPoint(0, 1, 0)); 0097 vlp.emplace_back(LocalPoint(0, 0, -1)); 0098 vlp.emplace_back(LocalPoint(0, 0, 0)); 0099 vlp.emplace_back(LocalPoint(0, 0, 1)); 0100 0101 for (auto it : pDD->dets()) { 0102 // //----------------------- RPCCHAMBER TEST ------------------------------------------------------- 0103 0104 if (dynamic_cast<const RPCChamber*>(it) != nullptr) { 0105 ++iRPCCHcount; 0106 const RPCChamber* ch = dynamic_cast<const RPCChamber*>(it); 0107 0108 RPCDetId detId = ch->id(); 0109 int idRaf = detId.rawId(); 0110 // const RPCRoll* rollRaf = ch->roll(1); 0111 std::cout << "Num = " << iRPCCHcount << " " 0112 << "RPCDet = " << idRaf << " Num Rolls =" << ch->nrolls() << std::endl; 0113 // " "<<"Roll 1 = "<<(rollRaf->id()).rawId()<<std::endl; 0114 0115 std::vector<const RPCRoll*> rollsRaf = (ch->rolls()); 0116 for (auto& r : rollsRaf) { 0117 if (r->id().region() == 0) { 0118 std::cout << "RPCDetId = " << r->id().rawId() << std::endl; 0119 std::cout << "Region = " << r->id().region() << " Ring = " << r->id().ring() 0120 << " Station = " << r->id().station() << " Sector = " << r->id().sector() 0121 << " Layer = " << r->id().layer() << " Subsector = " << r->id().subsector() 0122 << " Roll = " << r->id().roll() << std::endl; 0123 } 0124 } 0125 } 0126 //_______________________________________________________________________________________________ 0127 0128 // if( dynamic_cast< RPCRoll* >( *it ) != 0 ){ 0129 // ++icount; 0130 0131 // RPCRoll* roll = dynamic_cast< RPCRoll*>( *it ); 0132 0133 // RPCDetId detId=roll->id(); 0134 // int id = detId(); // or detId.rawId() 0135 0136 // const StripTopology* top_ = dynamic_cast<const StripTopology*> 0137 // (&roll->topology()); 0138 0139 // if (sids.find(detId) != sids.end()) 0140 // std::cout<<"VERYBAD "; 0141 // // std::cout << "GeomDetUnit is of type " << detId.det() << " and raw id = " << id; 0142 0143 // int iw = std::cout.width(); // save current width 0144 // // int ip = std::cout.precision(); // save current precision 0145 0146 // std::cout << "Parameters of roll# " << 0147 // std::setw( 4 ) << icount << std::endl; 0148 // std::cout<<std::setw(12) << id << std::dec << std::setw(12) << id << std::dec 0149 // << std::setw( iw ) << detId; 0150 0151 // const BoundSurface& bSurface = roll->surface(); 0152 0153 // LocalPoint lCentre( 0., 0., 0. ); 0154 // GlobalPoint gCentre = bSurface.toGlobal( lCentre ); 0155 0156 // LocalPoint lCentre1( 0., 0., -1.); 0157 // GlobalPoint gCentre1 = bSurface.toGlobal( lCentre1 ); 0158 0159 // LocalPoint lCentre2( 0., 0., 1.); 0160 // GlobalPoint gCentre2 = bSurface.toGlobal( lCentre2 ); 0161 0162 // double gx = gCentre.x(); 0163 // double gy = gCentre.y(); 0164 // double gz = gCentre.z(); 0165 // double gz1 = gCentre1.z(); 0166 // double gz2 = gCentre2.z(); 0167 // if ( fabs( gx ) < 1.e-06 ) gx = 0.; 0168 // if ( fabs( gy ) < 1.e-06 ) gy = 0.; 0169 // if ( fabs( gz ) < 1.e-06 ) gz = 0.; 0170 // if ( fabs( gz1 ) < 1.e-06 ) gz1 = 0.; 0171 // if ( fabs( gz2 ) < 1.e-06 ) gz2 = 0.; 0172 0173 // int now = 9; 0174 // int nop = 5; 0175 // // std::cout << 0176 // // std::setw( now ) << std::setprecision( nop ) << gx << 0177 // // std::setw( now ) << std::setprecision( nop ) << gy << 0178 // // std::setw( now ) << std::setprecision( nop ) << gz << 0179 // // std::setw( now ) << std::setprecision( nop ) << gz1 << 0180 // // std::setw( now ) << std::setprecision( nop ) << gz2<<std::endl; 0181 0182 // // Global Phi of centre of RPCRoll 0183 0184 // double cphi = gCentre.phi(); 0185 // double cphiDeg = cphi * radToDeg; 0186 // if( cphiDeg < 0. ) cphiDeg = cphiDeg + 360.; 0187 0188 // if ( fabs(cphiDeg) < 1.e-06 ) cphiDeg = 0.; 0189 // // int iphiDeg = static_cast<int>( cphiDeg ); 0190 // // std::cout << "phi(0,0,0) = " << iphiDeg << " degrees" << std::endl; 0191 0192 // int nStrips = roll->nstrips(); 0193 0194 // if ( (detId.region()!=0 && detId.sector() == 1 0195 // && detId.subsector() == 1 0196 // && detId.roll() == 1 0197 // && detId.station() == 1 0198 // //&& detId.ring()==3 0199 // && roll->type().name() == "REA1") 0200 // || 0201 // (detId.region() == 0 && detId.sector() == 1 0202 // && detId.station() == 1 && detId.layer() == 1 0203 // && detId.roll() == 1 0204 // && detId.ring() == 0) 0205 // ) { 0206 // std::cout <<"======================== Writing output file"<< std::endl; 0207 // ofos<<"Forward Detector "<<roll->type().name() <<" "<<detId.region()<<" z :"<<detId<<std::endl; 0208 // for (unsigned int i=0;i<vlp.size();i++){ 0209 // ofos<< "lp="<<vlp[i]<<" gp="<<roll->toGlobal(vlp[i]) << " pitch="<<roll->localPitch(vlp[i]); 0210 // if ( (i+1)%3 == 0 ) { 0211 // ofos<<" "<<std::endl; 0212 // } 0213 // } 0214 // ofos<<" Navigating "<<std::endl; 0215 // LocalPoint edge1 = top_->localPosition(0.); 0216 // LocalPoint edge2 = top_->localPosition((float)nStrips); 0217 // float lsl1 = top_->localStripLength(edge1); 0218 // float lsl2 = top_->localStripLength(edge2); 0219 // ofos <<" Local Point edge1 = "<<edge1<<" StripLength="<<lsl1<<std::endl; 0220 // ofos <<" Local Point edge1 = "<<edge2<<" StripLength="<<lsl2<<std::endl; 0221 // float cslength = top_->localStripLength(lCentre); 0222 // LocalPoint s1(0.,-cslength/2.,0.); 0223 // LocalPoint s2(0.,cslength/2.,0.); 0224 // float base1=top_->localPitch(s1)*nStrips; 0225 // float base2=top_->localPitch(s2)*nStrips; 0226 // // LocalPoint s11(-base1/2., -cslength/2,0.); 0227 // // LocalPoint s12(base1/2., -cslength/2,0.); 0228 // // LocalPoint s21(-base2/2., cslength/2,0.); 0229 // // LocalPoint s22(base2/2., cslength/2,0.); 0230 // ofos<< " First Base = "<<base1<<" Second Base ="<<base2<<std::endl; 0231 // } 0232 // // std::cout << "\nStrips = "<<std::setw( 4 ) << nStrips<<"\n"; 0233 // for(int is=0;is<nStrips;is++){ 0234 // // std::cout <<"s="<<std::setw(3)<<is+1<<" pos=" 0235 // // <<roll->centreOfStrip(is+1); 0236 // if ((is+1)%5==0){ 0237 // float str=is; 0238 // // std::cout <<"s="<<std::setw(6)<<str<<" pos=" 0239 // // <<roll->centreOfStrip(str)<<" gpos="<< 0240 // // roll->toGlobal(roll->centreOfStrip(str)); 0241 // // std::cout <<std::endl; 0242 // } 0243 } 0244 std::cout << std::endl; 0245 0246 // // double cstrip1 = layer->centerOfStrip(1).phi(); 0247 // // double cstripN = layer->centerOfStrip(nStrips).phi(); 0248 0249 // // double phiwid = layer->geometry()->stripPhiPitch(); 0250 // // double stripwid = layer->geometry()->stripPitch(); 0251 // // double stripoff = layer->geometry()->stripOffset(); 0252 // // double phidif = fabs(cstrip1 - cstripN); 0253 0254 // // // May have one strip at 180-epsilon and other at -180+epsilon 0255 // // // If so the raw difference is 360-(phi extent of chamber) 0256 // // // Want to reset that to (phi extent of chamber): 0257 // // if ( phidif > dPi ) phidif = fabs(phidif - 2.*dPi); 0258 // // double phiwid_check = phidif/double(nStrips-1); 0259 0260 // // // Clean up some stupid floating decimal aesthetics 0261 // // cstrip1 = cstrip1 * radToDeg; 0262 // // if ( cstrip1 < 0. ) cstrip1 = cstrip1 + 360.; 0263 // // if ( fabs( cstrip1 ) < 1.e-06 ) cstrip1 = 0.; 0264 // // cstripN = cstripN * radToDeg; 0265 // // if ( cstripN < 0. ) cstripN = cstrip1 + 360.; 0266 // // if ( fabs( cstripN ) < 1.e-06 ) cstripN = 0.; 0267 0268 // // if ( fabs( stripoff ) < 1.e-06 ) stripoff = 0.; 0269 0270 // // now = 9; 0271 // // nop = 4; 0272 // // std::cout 0273 // // << std::setw( now ) << std::setprecision( nop ) << cphiDeg 0274 // // << std::setw( now ) << std::setprecision( nop ) << cstrip1 0275 // // << std::setw( now ) << std::setprecision( nop ) << cstripN 0276 // // << std::setw( now ) << std::setprecision( nop ) << phiwid 0277 // // << std::setw( now ) << std::setprecision( nop ) << phiwid_check 0278 // // << std::setw( now ) << std::setprecision( nop ) << stripwid 0279 // // << std::setw( now ) << std::setprecision( nop ) << stripoff ; 0280 // // // << std::setw(8) << (layer->getOwner())->sector() ; //@@ No sector yet! 0281 0282 // // // Layer geometry: layer corner phi's... 0283 0284 // // std::vector<float> parameters = layer->geometry()->parameters(); 0285 // // // these parameters are half-lengths, due to GEANT 0286 // // float bottomEdge = parameters[0]; 0287 // // float topEdge = parameters[1]; 0288 // // float thickness = parameters[2]; 0289 // // float apothem = parameters[3]; 0290 0291 // // // first the face nearest the interaction 0292 // // // get the other face by using positive thickness 0293 // // LocalPoint upperRightLocal(topEdge, apothem, -thickness); 0294 // // LocalPoint upperLeftLocal(-topEdge, apothem, -thickness); 0295 // // LocalPoint lowerRightLocal(bottomEdge, -apothem, -thickness); 0296 // // LocalPoint lowerLeftLocal(-bottomEdge, -apothem, -thickness); 0297 0298 // // GlobalPoint upperRightGlobal = bSurface.toGlobal(upperRightLocal); 0299 // // GlobalPoint upperLeftGlobal = bSurface.toGlobal(upperLeftLocal); 0300 // // GlobalPoint lowerRightGlobal = bSurface.toGlobal(lowerRightLocal); 0301 // // GlobalPoint lowerLeftGlobal = bSurface.toGlobal(lowerLeftLocal); 0302 0303 // // float uRGp = radToDeg * upperRightGlobal.phi(); 0304 // // float uLGp = radToDeg * upperLeftGlobal.phi(); 0305 // // float lRGp = radToDeg * lowerRightGlobal.phi(); 0306 // // float lLGp = radToDeg * lowerLeftGlobal.phi(); 0307 0308 // // now = 9; 0309 // // std::cout 0310 // // << std::setw( now ) << uRGp 0311 // // << std::setw( now ) << uLGp 0312 // // << std::setw( now ) << lRGp 0313 // // << std::setw( now ) << lLGp 0314 // // << std::endl; 0315 0316 // // // Reset the values we changed 0317 // // std::cout << std::setprecision( ip ) << std::setw( iw ); 0318 0319 // sids.insert(detId); 0320 // } 0321 // } 0322 0323 // // // for (TrackingGeometry::DetTypeContainer::const_iterator it = pDD->detTypes().begin(); it != pDD->detTypes().end(); it ++){ 0324 // // // } 0325 0326 std::cout << dashedLine_ << " end" << std::endl; 0327 } 0328 0329 //define this as a plug-in 0330 #include <FWCore/Framework/interface/MakerMacros.h> 0331 DEFINE_FWK_MODULE(RPCGeometryAnalyzer);
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