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#ifndef DataFormats_L1TParticleFlow_layer1_objs_h
#define DataFormats_L1TParticleFlow_layer1_objs_h
#include "DataFormats/L1TParticleFlow/interface/datatypes.h"
#include "DataFormats/L1TParticleFlow/interface/bit_encoding.h"
namespace l1ct {
struct HadCaloObj {
pt_t hwPt;
eta_t hwEta; // relative to the region center, at calo
phi_t hwPhi; // relative to the region center, at calo
pt_t hwEmPt;
emid_t hwEmID;
srrtot_t hwSrrTot;
meanz_t hwMeanZ;
hoe_t hwHoe;
inline bool operator==(const HadCaloObj &other) const {
return hwPt == other.hwPt && hwEta == other.hwEta && hwPhi == other.hwPhi && hwEmPt == other.hwEmPt &&
hwEmID == other.hwEmID && hwSrrTot == other.hwSrrTot && hwMeanZ == other.hwMeanZ && hwHoe == other.hwHoe;
}
inline bool operator>(const HadCaloObj &other) const { return hwPt > other.hwPt; }
inline bool operator<(const HadCaloObj &other) const { return hwPt < other.hwPt; }
inline void clear() {
hwPt = 0;
hwEta = 0;
hwPhi = 0;
hwEmPt = 0;
hwEmID = 0;
hwSrrTot = 0;
hwMeanZ = 0;
hwHoe = 0;
}
int intPt() const { return Scales::intPt(hwPt); }
int intEmPt() const { return Scales::intPt(hwEmPt); }
int intEta() const { return hwEta.to_int(); }
int intPhi() const { return hwPhi.to_int(); }
float floatPt() const { return Scales::floatPt(hwPt); }
float floatEmPt() const { return Scales::floatPt(hwEmPt); }
float floatEta() const { return Scales::floatEta(hwEta); }
float floatPhi() const { return Scales::floatPhi(hwPhi); }
float floatSrrTot() const { return Scales::floatSrrTot(hwSrrTot); };
float floatMeanZ() const { return Scales::floatMeanZ(hwMeanZ); };
float floatHoe() const { return Scales::floatHoe(hwHoe); };
bool hwIsEM() const { return hwEmID != 0; }
static const int BITWIDTH_SLIM = pt_t::width + eta_t::width + phi_t::width + pt_t::width + emid_t::width;
static const int BITWIDTH = BITWIDTH_SLIM + srrtot_t::width + meanz_t::width + hoe_t::width;
inline ap_uint<BITWIDTH> pack() const {
ap_uint<BITWIDTH> ret;
unsigned int start = 0;
pack_into_bits(ret, start, hwPt);
pack_into_bits(ret, start, hwEta);
pack_into_bits(ret, start, hwPhi);
pack_into_bits(ret, start, hwEmPt);
pack_into_bits(ret, start, hwEmID);
pack_into_bits(ret, start, hwSrrTot);
pack_into_bits(ret, start, hwMeanZ);
pack_into_bits(ret, start, hwHoe);
return ret;
}
inline static HadCaloObj unpack(const ap_uint<BITWIDTH> &src) {
HadCaloObj ret;
unsigned int start = 0;
unpack_from_bits(src, start, ret.hwPt);
unpack_from_bits(src, start, ret.hwEta);
unpack_from_bits(src, start, ret.hwPhi);
unpack_from_bits(src, start, ret.hwEmPt);
unpack_from_bits(src, start, ret.hwEmID);
unpack_from_bits(src, start, ret.hwSrrTot);
unpack_from_bits(src, start, ret.hwMeanZ);
unpack_from_bits(src, start, ret.hwHoe);
return ret;
}
inline ap_uint<BITWIDTH_SLIM> pack_slim() const { return pack()(BITWIDTH_SLIM - 1, 0); }
};
inline void clear(HadCaloObj &c) { c.clear(); }
struct EmCaloObj {
pt_t hwPt, hwPtErr;
eta_t hwEta; // relative to the region center, at calo
phi_t hwPhi; // relative to the region center, at calo
emid_t hwEmID;
srrtot_t hwSrrTot;
meanz_t hwMeanZ;
hoe_t hwHoe;
inline bool operator==(const EmCaloObj &other) const {
return hwPt == other.hwPt && hwEta == other.hwEta && hwPhi == other.hwPhi && hwPtErr == other.hwPtErr &&
hwEmID == other.hwEmID && hwSrrTot == other.hwSrrTot && hwMeanZ == other.hwMeanZ && hwHoe == other.hwHoe;
}
inline bool operator>(const EmCaloObj &other) const { return hwPt > other.hwPt; }
inline bool operator<(const EmCaloObj &other) const { return hwPt < other.hwPt; }
inline void clear() {
hwPt = 0;
hwPtErr = 0;
hwEta = 0;
hwPhi = 0;
hwEmID = 0;
hwSrrTot = 0;
hwMeanZ = 0;
hwHoe = 0;
}
int intPt() const { return Scales::intPt(hwPt); }
int intPtErr() const { return Scales::intPt(hwPtErr); }
int intEta() const { return hwEta.to_int(); }
int intPhi() const { return hwPhi.to_int(); }
float floatPt() const { return Scales::floatPt(hwPt); }
float floatPtErr() const { return Scales::floatPt(hwPtErr); }
float floatEta() const { return Scales::floatEta(hwEta); }
float floatPhi() const { return Scales::floatPhi(hwPhi); }
float floatSrrTot() const { return Scales::floatSrrTot(hwSrrTot); };
float floatMeanZ() const { return Scales::floatMeanZ(hwMeanZ); };
float floatHoe() const { return Scales::floatHoe(hwHoe); };
static const int BITWIDTH_SLIM = pt_t::width + eta_t::width + phi_t::width + pt_t::width + emid_t::width;
static const int BITWIDTH = BITWIDTH_SLIM + srrtot_t::width + meanz_t::width + hoe_t::width;
inline ap_uint<BITWIDTH> pack() const {
ap_uint<BITWIDTH> ret;
unsigned int start = 0;
pack_into_bits(ret, start, hwPt);
pack_into_bits(ret, start, hwEta);
pack_into_bits(ret, start, hwPhi);
pack_into_bits(ret, start, hwPtErr);
pack_into_bits(ret, start, hwEmID);
pack_into_bits(ret, start, hwSrrTot);
pack_into_bits(ret, start, hwMeanZ);
pack_into_bits(ret, start, hwHoe);
return ret;
}
inline static EmCaloObj unpack(const ap_uint<BITWIDTH> &src) {
EmCaloObj ret;
unsigned int start = 0;
unpack_from_bits(src, start, ret.hwPt);
unpack_from_bits(src, start, ret.hwEta);
unpack_from_bits(src, start, ret.hwPhi);
unpack_from_bits(src, start, ret.hwPtErr);
unpack_from_bits(src, start, ret.hwEmID);
unpack_from_bits(src, start, ret.hwSrrTot);
unpack_from_bits(src, start, ret.hwMeanZ);
unpack_from_bits(src, start, ret.hwHoe);
return ret;
}
inline ap_uint<BITWIDTH_SLIM> pack_slim() const { return pack()(BITWIDTH_SLIM - 1, 0); }
};
inline void clear(EmCaloObj &c) { c.clear(); }
struct TkObj {
pt_t hwPt;
eta_t hwEta; // relative to the region center, at calo
phi_t hwPhi; // relative to the region center, at calo
tkdeta_t hwDEta; // vtx - calo
tkdphi_t hwDPhi; // |vtx - calo| (sign is derived by the charge)
bool hwCharge; // 1 = positive, 0 = negative
z0_t hwZ0;
dxy_t hwDxy;
tkquality_t hwQuality;
stub_t hwStubs;
redChi2Bin_t hwRedChi2RZ; // 4 bits
redChi2Bin_t hwRedChi2RPhi; // 4 bits
//FIXME: 3 bits would be enough
redChi2Bin_t hwRedChi2Bend; // 4 bits
enum TkQuality { PFLOOSE = 1, PFTIGHT = 2 };
bool isPFLoose() const { return hwQuality[0]; }
bool isPFTight() const { return hwQuality[1]; }
phi_t hwVtxPhi() const { return hwCharge ? hwPhi + hwDPhi : hwPhi - hwDPhi; }
eta_t hwVtxEta() const { return hwEta + hwDEta; }
inline bool operator==(const TkObj &other) const {
return hwPt == other.hwPt && hwEta == other.hwEta && hwPhi == other.hwPhi && hwDEta == other.hwDEta &&
hwDPhi == other.hwDPhi && hwZ0 == other.hwZ0 && hwDxy == other.hwDxy && hwCharge == other.hwCharge &&
hwQuality == other.hwQuality && hwStubs == other.hwStubs && hwRedChi2RZ == other.hwRedChi2RZ &&
hwRedChi2RPhi == other.hwRedChi2RPhi && hwRedChi2Bend == other.hwRedChi2Bend;
}
inline bool operator>(const TkObj &other) const { return hwPt > other.hwPt; }
inline bool operator<(const TkObj &other) const { return hwPt < other.hwPt; }
inline void clear() {
hwPt = 0;
hwEta = 0;
hwPhi = 0;
hwDEta = 0;
hwDPhi = 0;
hwZ0 = 0;
hwDxy = 0;
hwCharge = false;
hwQuality = 0;
hwStubs = 0;
hwRedChi2RZ = 0;
hwRedChi2RPhi = 0;
hwRedChi2Bend = 0;
}
int intPt() const { return Scales::intPt(hwPt); }
int intEta() const { return hwEta.to_int(); }
int intPhi() const { return hwPhi.to_int(); }
int intVtxEta() const { return hwVtxEta().to_int(); }
int intVtxPhi() const { return hwVtxPhi().to_int(); }
int intCharge() const { return hwCharge ? +1 : -1; }
float floatPt() const { return Scales::floatPt(hwPt); }
float floatEta() const { return Scales::floatEta(hwEta); }
float floatPhi() const { return Scales::floatPhi(hwPhi); }
float floatDEta() const { return Scales::floatEta(hwDEta); }
float floatDPhi() const { return Scales::floatPhi(hwDPhi); }
float floatVtxEta() const { return Scales::floatEta(hwVtxEta()); }
float floatVtxPhi() const { return Scales::floatPhi(hwVtxPhi()); }
float floatZ0() const { return Scales::floatZ0(hwZ0); }
float floatDxy() const { return Scales::floatDxy(hwDxy); }
static const int BITWIDTH_SLIM = pt_t::width + eta_t::width + phi_t::width + tkdeta_t::width + tkdphi_t::width + 1 +
z0_t::width + dxy_t::width + tkquality_t::width;
static const int BITWIDTH =
BITWIDTH_SLIM + stub_t::width + redChi2Bin_t::width + redChi2Bin_t::width + redChi2Bin_t::width;
inline ap_uint<BITWIDTH> pack() const {
ap_uint<BITWIDTH> ret;
unsigned int start = 0;
pack_into_bits(ret, start, hwPt);
pack_into_bits(ret, start, hwEta);
pack_into_bits(ret, start, hwPhi);
pack_into_bits(ret, start, hwDEta);
pack_into_bits(ret, start, hwDPhi);
pack_bool_into_bits(ret, start, hwCharge);
pack_into_bits(ret, start, hwZ0);
pack_into_bits(ret, start, hwDxy);
pack_into_bits(ret, start, hwQuality);
pack_into_bits(ret, start, hwStubs);
pack_into_bits(ret, start, hwRedChi2RZ);
pack_into_bits(ret, start, hwRedChi2RPhi);
pack_into_bits(ret, start, hwRedChi2Bend);
return ret;
}
inline static TkObj unpack(const ap_uint<BITWIDTH> &src) {
TkObj ret;
unsigned int start = 0;
unpack_from_bits(src, start, ret.hwPt);
unpack_from_bits(src, start, ret.hwEta);
unpack_from_bits(src, start, ret.hwPhi);
unpack_from_bits(src, start, ret.hwDEta);
unpack_from_bits(src, start, ret.hwDPhi);
unpack_bool_from_bits(src, start, ret.hwCharge);
unpack_from_bits(src, start, ret.hwZ0);
unpack_from_bits(src, start, ret.hwDxy);
unpack_from_bits(src, start, ret.hwQuality);
unpack_from_bits(src, start, ret.hwStubs);
unpack_from_bits(src, start, ret.hwRedChi2RZ);
unpack_from_bits(src, start, ret.hwRedChi2RPhi);
unpack_from_bits(src, start, ret.hwRedChi2Bend);
return ret;
}
inline ap_uint<BITWIDTH_SLIM> pack_slim() const { return pack()(BITWIDTH_SLIM - 1, 0); }
};
inline void clear(TkObj &c) { c.clear(); }
struct MuObj {
pt_t hwPt;
glbeta_t hwEta; // relative to the region center, at calo
glbphi_t hwPhi; // relative to the region center, at calo
tkdeta_t hwDEta; // vtx - calo
tkdphi_t hwDPhi; // |vtx - calo| (sign is derived by the charge)
bool hwCharge; // 1 = positive, 0 = negative
z0_t hwZ0;
dxy_t hwDxy;
ap_uint<3> hwQuality;
glbphi_t hwVtxPhi() const { return hwCharge ? hwPhi + hwDPhi : hwPhi - hwDPhi; }
glbeta_t hwVtxEta() const { return hwEta + hwDEta; }
inline bool operator==(const MuObj &other) const {
return hwPt == other.hwPt && hwEta == other.hwEta && hwPhi == other.hwPhi && hwDEta == other.hwDEta &&
hwDPhi == other.hwDPhi && hwZ0 == other.hwZ0 && hwDxy == other.hwDxy && hwCharge == other.hwCharge &&
hwQuality == other.hwQuality;
}
inline bool operator>(const MuObj &other) const { return hwPt > other.hwPt; }
inline bool operator<(const MuObj &other) const { return hwPt < other.hwPt; }
inline void clear() {
hwPt = 0;
hwEta = 0;
hwPhi = 0;
hwDEta = 0;
hwDPhi = 0;
hwZ0 = 0;
hwDxy = 0;
hwCharge = false;
hwQuality = 0;
}
int intPt() const { return Scales::intPt(hwPt); }
int intEta() const { return hwEta.to_int(); }
int intPhi() const { return hwPhi.to_int(); }
int intVtxEta() const { return hwVtxEta().to_int(); }
int intVtxPhi() const { return hwVtxPhi().to_int(); }
int intCharge() const { return hwCharge ? +1 : -1; }
float floatPt() const { return Scales::floatPt(hwPt); }
float floatEta() const { return Scales::floatEta(hwEta); }
float floatPhi() const { return Scales::floatPhi(hwPhi); }
float floatDEta() const { return Scales::floatEta(hwDEta); }
float floatDPhi() const { return Scales::floatPhi(hwDPhi); }
float floatVtxEta() const { return Scales::floatEta(hwVtxEta()); }
float floatVtxPhi() const { return Scales::floatPhi(hwVtxPhi()); }
float floatZ0() const { return Scales::floatZ0(hwZ0); }
float floatDxy() const { return Scales::floatDxy(hwDxy); }
static const int BITWIDTH = pt_t::width + glbeta_t::width + glbphi_t::width + tkdeta_t::width + tkdphi_t::width +
1 + z0_t::width + dxy_t::width + ap_uint<3>::width;
inline ap_uint<BITWIDTH> pack() const {
ap_uint<BITWIDTH> ret;
unsigned int start = 0;
pack_into_bits(ret, start, hwPt);
pack_into_bits(ret, start, hwEta);
pack_into_bits(ret, start, hwPhi);
pack_into_bits(ret, start, hwDEta);
pack_into_bits(ret, start, hwDPhi);
pack_bool_into_bits(ret, start, hwCharge);
pack_into_bits(ret, start, hwZ0);
pack_into_bits(ret, start, hwDxy);
pack_into_bits(ret, start, hwQuality);
return ret;
}
inline static MuObj unpack(const ap_uint<BITWIDTH> &src) {
MuObj ret;
unsigned int start = 0;
unpack_from_bits(src, start, ret.hwPt);
unpack_from_bits(src, start, ret.hwEta);
unpack_from_bits(src, start, ret.hwPhi);
unpack_from_bits(src, start, ret.hwDEta);
unpack_from_bits(src, start, ret.hwDPhi);
unpack_bool_from_bits(src, start, ret.hwCharge);
unpack_from_bits(src, start, ret.hwZ0);
unpack_from_bits(src, start, ret.hwDxy);
unpack_from_bits(src, start, ret.hwQuality);
return ret;
}
};
inline void clear(MuObj &c) { c.clear(); }
struct PVObj {
z0_t hwZ0;
inline bool operator==(const PVObj &other) const { return hwZ0 == other.hwZ0; }
inline void clear() { hwZ0 = 0; }
float floatZ0() const { return Scales::floatZ0(hwZ0); }
static const int BITWIDTH = z0_t::width;
inline ap_uint<BITWIDTH> pack() const {
ap_uint<BITWIDTH> ret;
unsigned int start = 0;
pack_into_bits(ret, start, hwZ0);
return ret;
}
inline static PVObj unpack(const ap_uint<BITWIDTH> &src) {
PVObj ret;
unsigned int start = 0;
unpack_from_bits(src, start, ret.hwZ0);
return ret;
}
};
inline void clear(PVObj &c) { c.clear(); }
} // namespace l1ct
#endif
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