Phase2 L1T: Correlator development for AR2026

DPGAnalysis/Phase2L1TNanoAOD/python/l1tPh2Nanotables_cff.py

@@ -394,12 +394,13 @@
 )
 
 sc8JetTable = pfJetTable.clone(
-    src = 'l1tSC8PFL1PuppiCorrectedEmulator',
+    src = cms.InputTag('l1tSC82ProngJetProducer', 'l1tSC82ProngJets'),
     name = "L1puppiJetSC8",
     doc = "SeededCone 0.8 Puppi jet,  origin: Correlator",
     variables = cms.PSet(
         pfJetTable.variables.clone(),
-        mass = Var("mass", float)
+        mass = Var("mass", float),
+        nprongTagScore = Var('getTagScore("nprong")', float)
     )
 )
 
@@ -580,7 +581,7 @@
     # ## jets
     sc4JetTable,
     sc8JetTable,
-    sc4ExtJetTable, 
+    sc4ExtJetTable,
     sc4NGJetTable,
     histoJetTable,
     caloJetTable,

DataFormats/L1TCalorimeterPhase2/interface/CaloPFCluster.h

@@ -14,30 +14,35 @@ namespace l1tp2 {
     CaloPFCluster()
         : l1t::L1Candidate(),
           clusterEt_(0.),
+          ecalEt_(0.),
           clusterIEta_(-99),
           clusterIPhi_(-99),
           clusterEta_(-99.),
           clusterPhi_(-99.) {}
 
     CaloPFCluster(const PolarLorentzVector& p4,
                   float clusterEt,
+                  float ecalEt,
                   int clusterIEta,
                   int clusterIPhi,
                   float clusterEta,
                   float clusterPhi)
         : l1t::L1Candidate(p4),
           clusterEt_(clusterEt),
+          ecalEt_(ecalEt),
           clusterIEta_(clusterIEta),
           clusterIPhi_(clusterIPhi),
           clusterEta_(clusterEta),
           clusterPhi_(clusterPhi) {}
 
     inline float clusterEt() const { return clusterEt_; };
+    inline float ecalEt() const { return ecalEt_; };
     inline int clusterIEta() const { return clusterIEta_; };
     inline int clusterIPhi() const { return clusterIPhi_; };
     inline float clusterEta() const { return clusterEta_; };
     inline float clusterPhi() const { return clusterPhi_; };
     void setClusterEt(float clusterEtIn) { clusterEt_ = clusterEtIn; };
+    void setEcalEt(float ecalEtIn) { ecalEt_ = ecalEtIn; };
     void setClusterIEta(int clusterIEtaIn) { clusterIEta_ = clusterIEtaIn; };
     void setClusterIPhi(int clusterIPhiIn) { clusterIPhi_ = clusterIPhiIn; };
     void setClusterEta(float clusterEtaIn) { clusterEta_ = clusterEtaIn; };
@@ -46,6 +51,8 @@ namespace l1tp2 {
   private:
     // ET
     float clusterEt_;
+    // ECAL ET
+    float ecalEt_;
     // GCT ieta
     int clusterIEta_;
     // GCT iphi

DataFormats/L1TCalorimeterPhase2/interface/DigitizedCaloToCorrelatorTM18.h

@@ -0,0 +1,45 @@
+#ifndef DataFormats_L1TCalorimeterPhase2_DigitizedCaloToCorrelatorTM18_h
+#define DataFormats_L1TCalorimeterPhase2_DigitizedCaloToCorrelatorTM18_h
+
+#include <ap_int.h>
+#include <variant>
+#include <vector>
+#include "DataFormats/L1TCalorimeterPhase2/interface/GCTEmDigiCluster.h"
+#include "DataFormats/L1TCalorimeterPhase2/interface/GCTHadDigiCluster.h"
+
+namespace l1tp2 {
+
+  typedef std::variant<std::monostate, l1tp2::GCTEmDigiCluster, l1tp2::GCTHadDigiCluster> GCTDigiCluster;
+  typedef std::vector<l1tp2::GCTDigiCluster> GCTDigiClusterLink;
+
+  class DigitizedCaloToCorrelatorTM18 {
+  private:
+    // Data (to remove)
+    ap_uint<64> CardData[162];
+
+    GCTDigiClusterLink CardLink;
+
+  public:
+    DigitizedCaloToCorrelatorTM18() {
+      for (int i = 0; i < 162; i++) {
+        CardData[i] = 0;
+      }
+    }
+    DigitizedCaloToCorrelatorTM18(ap_uint<64> data[162], GCTDigiClusterLink link) {
+      for (int i = 0; i < 162; i++) {
+        CardData[i] = data[i];
+      }
+      CardLink = link;
+    }
+
+    const ap_uint<64>* dataCard() const { return CardData; }
+    const GCTDigiClusterLink& linkCard() const { return CardLink; }
+  };
+
+  // Collection typedef
+  // this represents both the EM and PF clusters from a single GCT card in one link
+  typedef std::vector<l1tp2::DigitizedCaloToCorrelatorTM18> DigitizedCaloToCorrelatorCollectionTM18;
+
+}  // namespace l1tp2
+
+#endif

DataFormats/L1TCalorimeterPhase2/interface/DigitizedClusterCorrelator.h

@@ -20,49 +20,16 @@ namespace l1tp2 {
     static constexpr float ETA_RANGE_ONE_SIDE = 1.4841;  // barrel goes from (-1.4841, +1.4841)
     static constexpr float LSB_ETA = ((2 * ETA_RANGE_ONE_SIDE) / (n_towers_eta * n_crystals_in_tower));  // (2.8 / 170)
     static constexpr float LSB_PHI = ((2 * M_PI) / (3 * n_towers_phi * n_crystals_in_tower));            // (2 pi * 360)
+    static constexpr float PHI_RANGE_PER_SLR_DEGREES = 120;
 
     static constexpr unsigned int n_bits_pt = 12;            // 12 bits allocated for pt
     static constexpr unsigned int n_bits_unused_start = 63;  // unused bits start at bit 63
 
     // "top" of the correlator card #0 in GCT coordinates is iPhi tower index 24
-    static constexpr int correlatorCard0_tower_iphi_offset = 24;
+    static constexpr int correlatorCard0_tower_iphi_offset = 68;
     // same but for correlator cards #1 and 2 (cards wrap around phi = 180 degrees):
-    static constexpr int correlatorCard1_tower_iphi_offset = 48;
-    static constexpr int correlatorCard2_tower_iphi_offset = 0;
-
-    // Private member functions to perform digitization
-    ap_uint<12> digitizePt(float pt_f) {
-      float maxPt_f = (std::pow(2, n_bits_pt) - 1) * LSB_PT;
-      // If pT exceeds the maximum (extremely unlikely), saturate the value
-      if (pt_f >= maxPt_f) {
-        return (ap_uint<12>)0xFFF;
-      }
-
-      return (ap_uint<12>)(pt_f / LSB_PT);
-    }
-
-    ap_uint<8> digitizeIEtaCr(unsigned int iEtaCr) { return (ap_uint<8>)iEtaCr; }
-
-    ap_uint<7> digitizeIPhiCr(unsigned int iPhiCr) { return (ap_uint<7>)iPhiCr; }
-
-    // To-do: HoE is not defined for clusters
-    ap_uint<4> digitizeHoE(unsigned int hoe) { return (ap_uint<4>)hoe; }
-    ap_uint<2> digitizeHoeFlag(unsigned int hoeFlag) { return (ap_uint<2>)hoeFlag; }
-
-    ap_uint<3> digitizeIso(unsigned int iso) { return (ap_uint<3>)iso; }
-    ap_uint<2> digitizeIsoFlag(unsigned int isoFlag) { return (ap_uint<2>)isoFlag; }
-
-    // To-do: fb: no information yet
-    ap_uint<6> digitizeFb(unsigned int fb) { return (ap_uint<6>)fb; }
-
-    // To-do: timing: no information yet
-    ap_uint<5> digitizeTiming(unsigned int timing) { return (ap_uint<5>)timing; }
-
-    // Shape: shower shape working point
-    ap_uint<2> digitizeShapeFlag(unsigned int shapeFlag) { return (ap_uint<2>)shapeFlag; }
-
-    // TO-DO: Brems: was brems applied (NOT STORED YET IN GCT)
-    ap_uint<2> digitizeBrems(unsigned int brems) { return (ap_uint<2>)brems; }
+    static constexpr int correlatorCard1_tower_iphi_offset = 20;
+    static constexpr int correlatorCard2_tower_iphi_offset = 44;
 
   public:
     DigitizedClusterCorrelator() { clusterData = 0x0; }
@@ -71,45 +38,20 @@ namespace l1tp2 {
 
     // Constructor from digitized inputs
     DigitizedClusterCorrelator(ap_uint<12> pt,
-                               ap_uint<8> etaCr,
-                               ap_uint<7> phiCr,
-                               ap_uint<4> hoe,
-                               ap_uint<2> hoeFlag,
-                               ap_uint<3> iso,
-                               ap_uint<2> isoFlag,
-                               ap_uint<6> fb,
+                               ap_uint<7> eta,
+                               ap_int<7> phi,
+                               ap_uint<6> hoe,
+                               ap_uint<6> iso,
+                               ap_uint<6> shape,
+                               ap_uint<3> wp,
                                ap_uint<5> timing,
-                               ap_uint<2> shapeFlag,
                                ap_uint<2> brems,
-                               int iGCTCard,
-                               bool fullydigitizedInputs) {
-      (void)fullydigitizedInputs;
-      clusterData = ((ap_uint<64>)pt) | (((ap_uint<64>)etaCr) << 12) | (((ap_uint<64>)phiCr) << 20) |
-                    (((ap_uint<64>)hoe) << 27) | (((ap_uint<64>)hoeFlag) << 31) | (((ap_uint<64>)iso) << 36) |
-                    (((ap_uint<64>)isoFlag) << 38) | (((ap_uint<64>)fb) << 44) | (((ap_uint<64>)timing) << 49) |
-                    (((ap_uint<64>)shapeFlag << 51)) | (((ap_uint<64>)brems << 53));
-      idxGCTCard = iGCTCard;
-    }
-
-    // Constructor from float inputs
-    DigitizedClusterCorrelator(float pt_f,
-                               unsigned int iEtaCr,
-                               unsigned int iPhiCr,
-                               unsigned int hoe,
-                               unsigned int hoeFlag,
-                               unsigned int iso,
-                               unsigned int isoFlag,
-                               unsigned int fb,
-                               unsigned int timing,
-                               unsigned int shapeFlag,
-                               unsigned int brems,
+                               ap_uint<10> spare,
                                int iGCTCard) {
-      clusterData = (((ap_uint<64>)digitizePt(pt_f)) | ((ap_uint<64>)digitizeIEtaCr(iEtaCr) << 12) |
-                     ((ap_uint<64>)digitizeIPhiCr(iPhiCr) << 20) | ((ap_uint<64>)digitizeHoE(hoe) << 27) |
-                     ((ap_uint<64>)digitizeHoeFlag(hoeFlag) << 31) | ((ap_uint<64>)digitizeIso(iso) << 36) |
-                     ((ap_uint<64>)digitizeIsoFlag(isoFlag) << 38) | ((ap_uint<64>)digitizeFb(fb) << 44) |
-                     ((ap_uint<64>)digitizeTiming(timing) << 49) | ((ap_uint<64>)digitizeShapeFlag(shapeFlag) << 51) |
-                     ((ap_uint<64>)digitizeBrems(brems) << 53));
+      clusterData = ((ap_uint<64>)pt) | (((ap_uint<64>)eta) << 12) | (((ap_uint<64>)(phi & 0x7F)) << 19) |
+                    (((ap_uint<64>)hoe) << 26) | (((ap_uint<64>)iso) << 32) | (((ap_uint<64>)shape) << 38) |
+                    (((ap_uint<64>)wp) << 44) | (((ap_uint<64>)timing) << 47) | (((ap_uint<64>)brems) << 52) |
+                    (((ap_uint<64>)spare) << 54);
       idxGCTCard = iGCTCard;
     }
 
@@ -121,49 +63,39 @@ namespace l1tp2 {
     float ptFloat() const { return (pt() * ptLSB()); }
 
     // crystal eta in the correlator region (LSB: 2.8/170)
-    ap_uint<8> eta() const { return ((clusterData >> 12) & 0xFF); }  // (eight 1's) 0b11111111 = 0xFF
+    ap_uint<7> eta() const { return ((clusterData >> 12) & 0x7F); }  // (seven 1's) 0b11111111 = 0x7F
 
     // crystal phi in the correlator region (LSB: 2pi/360)
-    ap_uint<7> phi() const { return ((clusterData >> 20) & 0x7F); }  // (seven 1's) 0b1111111 = 0x7F
+    ap_int<7> phi() const { return ((clusterData >> 19) & 0x7F); }
 
     // HoE value and flag: not defined yet in the emulator
-    ap_uint<4> hoe() const { return ((clusterData >> 27) & 0xF); }      // (four 1's) 0b1111 = 0xF
-    ap_uint<2> hoeFlag() const { return ((clusterData >> 31) & 0x3); }  // (two 1's) 0b11 = 0x3
+    ap_uint<6> hoe() const { return ((clusterData >> 26) & 0x3F); }
 
-    // Raw isolation sum: not saved in the emulator
-    ap_uint<3> iso() const { return ((clusterData >> 36) & 0x7); }
+    ap_uint<6> iso() const { return ((clusterData >> 32) & 0x3F); }  // raw isolation sum
 
-    // iso flag: two bits, least significant bit is the standalone WP (true or false), second bit is the looseTk WP (true or false)
-    // e.g. 0b01 : standalone iso flag passed, loose Tk iso flag did not pass
-    ap_uint<2> isoFlags() const { return ((clusterData >> 38) & 0x3); }  // (two 1's) 0b11 = 0x3
-    bool passes_iso() const { return (isoFlags() & 0x1); }               // standalone iso WP
-    bool passes_looseTkiso() const { return (isoFlags() & 0x2); }        // loose Tk iso WP
+    ap_uint<6> shape() const { return ((clusterData >> 38) & 0x3F); }  // et2x5/et5x5
 
-    // fb and timing: not saved in the current emulator
-    ap_uint<6> fb() const { return ((clusterData >> 44) & 0x3F); }
-    ap_uint<5> timing() const { return ((clusterData >> 49) & 0x1F); }
+    ap_uint<3> wp() const { return ((clusterData >> 44) & 0x7); }  // encoded standaloneWP, looseL1TkMatchWP, photonWP
 
-    // shower shape shape flag: two bits, least significant bit is the standalone WP, second bit is the looseTk WP
-    // e.g. 0b01 : standalone shower shape flag passed, loose Tk shower shape flag did not pass
-    ap_uint<2> shapeFlags() const { return ((clusterData >> 51) & 0x3); }
-
-    bool passes_ss() const { return (shapeFlags() & 0x1); }         // standalone shower shape WP
-    bool passes_looseTkss() const { return (shapeFlags() & 0x2); }  // loose Tk shower shape WP
+    // timing: not saved in the current emulator
+    ap_uint<5> timing() const { return ((clusterData >> 47) & 0x1F); }
 
     // brems: not saved in the current emulator
-    ap_uint<2> brems() const { return ((clusterData >> 53) & 0x3); }
+    ap_uint<2> brems() const { return ((clusterData >> 52) & 0x3); }
+
+    ap_uint<10> spare() const { return ((clusterData >> 54) & 0x3FF); }
 
     // which GCT card (0, 1, or 2)
     unsigned int cardNumber() const { return idxGCTCard; }
 
-    const int unusedBitsStart() const { return n_bits_unused_start; }
-
-    // Other checks
-    bool passNullBitsCheck(void) const { return ((data() >> unusedBitsStart()) == 0x0); }
-
-    // Get real eta (does not depend on card number). crystal iEta = 0 starts at real eta -1.4841.
+    // Get real eta (does not depend on card number)
     // LSB_ETA/2 is to add half a crystal width to get the center of the crystal in eta
-    float realEta() const { return (float)((-1 * ETA_RANGE_ONE_SIDE) + (eta() * LSB_ETA) + (LSB_ETA / 2)); }
+    float realEta() const {
+      float tmpeta = (eta() * LSB_ETA) + (LSB_ETA / 2);
+      if ((spare() & 0x4) == 0)
+        tmpeta = -((eta() * LSB_ETA) + (LSB_ETA / 2));
+      return tmpeta;
+    }
 
     // Get real phi (uses card number).
     float realPhi() const {
@@ -176,10 +108,18 @@ namespace l1tp2 {
       } else if (cardNumber() == 2) {
         offset_tower = correlatorCard2_tower_iphi_offset;
       }
-      int thisPhi = (phi() + (offset_tower * n_crystals_in_tower));
-      // crystal iPhi = 0 starts at real phi = -180 degrees
+
+      int tmpphi = (phi() + PHI_RANGE_PER_SLR_DEGREES / 4);
+      bool wrapped = !((spare() & 0x2) == 0);
+      if (wrapped) {
+        tmpphi += PHI_RANGE_PER_SLR_DEGREES / 2;
+      }
+      int thisPhi = (tmpphi + (offset_tower * n_crystals_in_tower));
+      if (thisPhi > 180)
+        thisPhi -= 360;  // range between -180 to 180 degrees
+
       // LSB_PHI/2 is to add half a crystal width to get the center of the crystal in phi
-      return (float)((-1 * M_PI) + (thisPhi * LSB_PHI) + (LSB_PHI / 2));
+      return (float)((thisPhi * LSB_PHI) + (LSB_PHI / 2));
     }
   };