L1TMuonPhase2/interface/SAMuon.h

0001 #ifndef DataFormatsL1TMuonPhase2_SAMuon_h
0002 #define DataFormatsL1TMuonPhase2_SAMuon_h
0003
0004 #include "DataFormats/L1Trigger/interface/L1Candidate.h"
0005 #include "DataFormats/L1Trigger/interface/Muon.h"
0006 #include "DataFormats/Common/interface/Ref.h"
0007 #include "DataFormats/Common/interface/Ptr.h"
0008 #include "DataFormats/L1TMuon/interface/RegionalMuonCand.h"
0009 #include "DataFormats/L1TMuon/interface/RegionalMuonCandFwd.h"
0010 #include "DataFormats/L1TMuonPhase2/interface/Constants.h"
0011 #include "DataFormats/L1TMuonPhase2/interface/MuonStub.h"
0012
0013 namespace l1t {
0014
0015   class SAMuon;
0016
0017   typedef std::vector<SAMuon> SAMuonCollection;
0018   typedef edm::Ref<SAMuonCollection> SAMuonRef;
0019   typedef std::vector<edm::Ref<SAMuonCollection> > SAMuonRefVector;
0020
0021   class SAMuon : public L1Candidate {
0022   public:
0023     SAMuon();
0024
0025     SAMuon(const l1t::Muon& mu, bool charge, uint pt, int eta, int phi, int z0, int d0, uint quality);
0026
0027     ~SAMuon() override;
0028
0029     const bool hwCharge() const { return hwCharge_; }
0030     const int hwZ0() const { return hwZ0_; }
0031     const int hwD0() const { return hwD0_; }
0032     const uint hwBeta() const { return hwBeta_; }
0033     void setBeta(uint beta) { hwBeta_ = beta; }
0034     void setTF(tftype tf) { tf_ = tf; }
0035     unsigned int trackID() const { return trackID_; }
0036
0037     void setTrackID(unsigned int ID) { trackID_ = ID; }
0038
0039     const tftype tfType() const { return tf_; }
0040     // For GT, returning ap_ type
0041     const Phase2L1GMT::valid_sa_t apValid() const { return Phase2L1GMT::valid_sa_t(hwPt() > 0); };
0042     const Phase2L1GMT::pt_sa_t apPt() const { return Phase2L1GMT::pt_sa_t(hwPt()); };
0043     const Phase2L1GMT::phi_sa_t apPhi() const { return Phase2L1GMT::phi_sa_t(hwPhi()); };
0044     const Phase2L1GMT::eta_sa_t apEta() const { return Phase2L1GMT::eta_sa_t(hwEta()); };
0045     const Phase2L1GMT::z0_sa_t apZ0() const { return Phase2L1GMT::z0_sa_t(hwZ0()); };
0046     const Phase2L1GMT::d0_sa_t apD0() const { return Phase2L1GMT::d0_sa_t(hwD0()); };
0047     const Phase2L1GMT::q_sa_t apCharge() const { return Phase2L1GMT::q_sa_t(hwCharge()); };
0048     const Phase2L1GMT::qual_sa_t apQualFlags() const { return Phase2L1GMT::qual_sa_t(hwQual()); };
0049
0050     // For HLT
0051     const double phZ0() const { return Phase2L1GMT::LSBSAz0 * hwZ0(); }
0052     const double phD0() const { return Phase2L1GMT::LSBSAd0 * hwD0(); }
0053     const double phPt() const { return Phase2L1GMT::LSBpt * hwPt(); }
0054     const double phEta() const { return Phase2L1GMT::LSBeta * hwEta(); }
0055     const double phPhi() const { return Phase2L1GMT::LSBphi * hwPhi(); }
0056     const int phCharge() const { return pow(-1, hwCharge()); }
0057
0058     const uint64_t word() const { return word_; }
0059     void setWord(uint64_t word) { word_ = word; }
0060     void print() const;
0061
0062     bool operator<(const SAMuon& other) const {
0063       if (hwPt() == other.hwPt())
0064         return (hwEta() < other.hwEta());
0065       else
0066         return (hwPt() < other.hwPt());
0067     }
0068     bool operator>(const SAMuon& other) const {
0069       if (hwPt() == other.hwPt())
0070         return (hwEta() > other.hwEta());
0071       else
0072         return (hwPt() > other.hwPt());
0073     }
0074
0075     void addStub(const MuonStubRef& stub) { stubs_.push_back(stub); }
0076     void setStubs(const MuonStubRefVector& stubs) { stubs_ = stubs; }
0077     const MuonStubRefVector stubs() const { return stubs_; }
0078
0079   private:
0080     bool hwCharge_;
0081     int hwZ0_;
0082     int hwD0_;
0083     uint hwBeta_;
0084     uint64_t word_;
0085     MuonStubRefVector stubs_;
0086     unsigned int trackID_;
0087     tftype tf_;
0088   };
0089 }  // namespace l1t
0090
0091 #endif