L1TMuonOverlapParams.h

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#ifndef L1TMTFOverlapParams_h
#define L1TMTFOverlapParams_h

#include <memory>
#include <iostream>
#include <vector>
#include <cmath>

#include "CondFormats/Serialization/interface/Serializable.h"
#include "CondFormats/L1TObjects/interface/LUT.h"

class L1TMuonOverlapParams {
  
 public:
  
  class Node {
  public:
    std::string type_;
    unsigned version_;
    l1t::LUT LUT_;
    std::vector<double> dparams_;
    std::vector<unsigned> uparams_;
    std::vector<int> iparams_;
    std::vector<std::string> sparams_;
    Node(){ type_="unspecified"; version_=0; }
    COND_SERIALIZABLE;
  };

  class LayerMapNode {
  public:
    unsigned int hwNumber;
    
    unsigned int logicNumber;

    bool bendingLayer;

    unsigned int connectedToLayer;

    COND_SERIALIZABLE;
  };


  class RefLayerMapNode{

  public:

    unsigned int refLayer;

    unsigned int logicNumber; 

    COND_SERIALIZABLE;
  };


  class RefHitNode{

  public:

    unsigned int iInput;
    int  iPhiMin, iPhiMax;
    unsigned int iRefHit;
    unsigned int iRefLayer;
    unsigned int iRegion;
    
    COND_SERIALIZABLE;
  };

  class LayerInputNode{

  public:

    unsigned int iFirstInput;
    unsigned int iLayer;
    unsigned int nInputs;

    COND_SERIALIZABLE;
  };
  
  
  
  enum { Version = 1 };
  
  // DO NOT ADD ENTRIES ANYWHERE BUT DIRECTLY BEFORE "NUM_OMTFPARAMNODES"
  enum { CHARGE=0, ETA=1, PT=2, PDF=3, MEANDISTPHI=4,
     GENERAL = 5, SECTORS_START=6, SECTORS_END=7,
     NUM_OMTFPARAMNODES=8};

  // General configuration parameters indexes
  enum {GENERAL_ADDRBITS=0, GENERAL_VALBITS=1, GENERAL_HITSPERLAYER=2, GENERAL_PHIBITS=3, GENERAL_PHIBINS=4, GENERAL_NREFHITS=5, GENERAL_NTESTREFHITS=6,
    GENERAL_NPROCESSORS=7, GENERAL_NLOGIC_REGIONS=8, GENERAL_NINPUTS=9, GENERAL_NLAYERS=10, GENERAL_NREFLAYERS=11, GENERAL_NGOLDENPATTERNS=12,
    GENERAL_NCONFIG=13
  };
    
  
  L1TMuonOverlapParams() { fwVersion_=Version; pnodes_.resize(NUM_OMTFPARAMNODES); }
  ~L1TMuonOverlapParams() {}

  // Firmware version
  unsigned fwVersion() const { return fwVersion_; }
  void setFwVersion(unsigned fwVersion) { fwVersion_ = fwVersion; }

  std::vector<int>* generalParams()        { return &pnodes_[GENERAL].iparams_; }
  void setGeneralParams (const std::vector<int> & paramsVec) { pnodes_[GENERAL].type_ = "INT"; pnodes_[GENERAL].iparams_ = paramsVec;}

  int nPdfAddrBits() { return pnodes_[GENERAL].iparams_[GENERAL_ADDRBITS];};

  int nPdfValBits() { return pnodes_[GENERAL].iparams_[GENERAL_VALBITS];};

  int nHitsPerLayer() { return pnodes_[GENERAL].iparams_[GENERAL_HITSPERLAYER];};

  int nPhiBits() { return pnodes_[GENERAL].iparams_[GENERAL_PHIBITS];};

  int nPhiBins() { return pnodes_[GENERAL].iparams_[GENERAL_PHIBINS];};

  int nRefHits() { return pnodes_[GENERAL].iparams_[GENERAL_NREFHITS];};
    
  int nTestRefHits() { return pnodes_[GENERAL].iparams_[GENERAL_NTESTREFHITS];};

  int nProcessors() { return pnodes_[GENERAL].iparams_[GENERAL_NPROCESSORS];};

  int nLogicRegions() { return pnodes_[GENERAL].iparams_[GENERAL_NLOGIC_REGIONS];};

  int nInputs() { return pnodes_[GENERAL].iparams_[GENERAL_NINPUTS];};

  int nLayers() { return pnodes_[GENERAL].iparams_[GENERAL_NLAYERS];};

  int nRefLayers() { return pnodes_[GENERAL].iparams_[GENERAL_NREFLAYERS];};

  int nGoldenPatterns() { return pnodes_[GENERAL].iparams_[GENERAL_NGOLDENPATTERNS];};
    
  void setLayerMap(const  std::vector<LayerMapNode> &aVector) { layerMap_ = aVector;}

  void setRefLayerMap(const  std::vector<RefLayerMapNode> &aVector) { refLayerMap_ = aVector;}

  void setRefHitMap(const std::vector<RefHitNode> &aVector) {refHitMap_ = aVector;};

  void setGlobalPhiStartMap(const std::vector<int> &aVector) {globalPhiStart_ = aVector;};

  void setLayerInputMap(const std::vector<LayerInputNode> &aVector) {layerInputMap_ = aVector;};

  void setConnectedSectorsStart(const std::vector<int> &aVector){pnodes_[SECTORS_START].type_ = "INT"; pnodes_[SECTORS_START].iparams_ = aVector;};
  
  void setConnectedSectorsEnd(const std::vector<int> &aVector){pnodes_[SECTORS_END].type_ = "INT"; pnodes_[SECTORS_END].iparams_ = aVector;};
  
  std::vector<LayerMapNode> * layerMap() { return &layerMap_;};

  std::vector<RefLayerMapNode> * refLayerMap() { return &refLayerMap_;};

  std::vector<RefHitNode> * refHitMap() {return &refHitMap_;};
  
  std::vector<int> * globalPhiStartMap() { return &globalPhiStart_;};

  std::vector<LayerInputNode> * layerInputMap() { return &layerInputMap_;};

  std::vector<int> * connectedSectorsStart() { return &pnodes_[SECTORS_START].iparams_;};
  
  std::vector<int> * connectedSectorsEnd() { return &pnodes_[SECTORS_END].iparams_;};

 
  l1t::LUT* chargeLUT()        { return &pnodes_[CHARGE].LUT_; }
  l1t::LUT* etaLUT()        { return &pnodes_[ETA].LUT_; }
  l1t::LUT* ptLUT()          { return &pnodes_[PT].LUT_; }
  l1t::LUT* pdfLUT()          { return &pnodes_[PDF].LUT_; }
  l1t::LUT* meanDistPhiLUT()          { return &pnodes_[MEANDISTPHI].LUT_; }

  void setChargeLUT (const l1t::LUT & lut) { pnodes_[CHARGE].type_ = "LUT"; pnodes_[CHARGE].LUT_ = lut; }
  void setEtaLUT (const l1t::LUT & lut) { pnodes_[ETA].type_ = "LUT"; pnodes_[ETA].LUT_ = lut; }
  void setPtLUT (const l1t::LUT & lut) { pnodes_[PT].type_ = "LUT"; pnodes_[PT].LUT_ = lut; }
  void setPdfLUT (const l1t::LUT & lut) { pnodes_[PDF].type_ = "LUT"; pnodes_[PDF].LUT_ = lut; }
  void setMeanDistPhiLUT (const l1t::LUT & lut) { pnodes_[MEANDISTPHI].type_ = "LUT"; pnodes_[MEANDISTPHI].LUT_ = lut; }
  
  
 private:

  unsigned fwVersion_;
    
  std::vector<Node> pnodes_;

  std::vector<LayerMapNode> layerMap_;

  std::vector<RefLayerMapNode> refLayerMap_;

  std::vector<RefHitNode> refHitMap_;

  std::vector<int> globalPhiStart_;

  std::vector<LayerInputNode> layerInputMap_;
  
  COND_SERIALIZABLE;
};    
#endif