L1CaloHcalScaleConfigOnlineProd.cc

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// -*- C++ -*-
//
// Package:    L1EmEtScaleOnlineProd
// Class:      L1EmEtScaleOnlineProd
// 
//
// Original Author:  Werner Man-Li Sun
//         Created:  Tue Sep 16 22:43:22 CEST 2008
// $Id: L1CaloHcalScaleConfigOnlineProd.cc,v 1.4 2010/07/20 02:58:33 wmtan Exp $
//
//


// system include files

// user include files
#include "CondTools/L1Trigger/interface/L1ConfigOnlineProdBase.h"
#include "CondFormats/L1TObjects/interface/L1CaloHcalScale.h"
#include "CondFormats/DataRecord/interface/L1CaloHcalScaleRcd.h"
#include "Geometry/HcalTowerAlgo/interface/HcalTrigTowerGeometry.h"
#include "CalibCalorimetry/CaloTPG/src/CaloTPGTranscoderULUT.h"
#include "CondTools/L1Trigger/interface/OMDSReader.h"

#include <cmath>
#include <iostream>
#include <iomanip>

//
// class declaration
//

class L1CaloHcalScaleConfigOnlineProd :
  public L1ConfigOnlineProdBase< L1CaloHcalScaleRcd, L1CaloHcalScale > {
   public:
      L1CaloHcalScaleConfigOnlineProd(const edm::ParameterSet& iConfig);
      ~L1CaloHcalScaleConfigOnlineProd();

  virtual boost::shared_ptr< L1CaloHcalScale > newObject(
    const std::string& objectKey ) ;


   private:
 
  L1CaloHcalScale* hcalScale;
  HcalTrigTowerGeometry theTrigTowerGeometry;
  CaloTPGTranscoderULUT* caloTPG;
  typedef std::vector<double> RCTdecompression;
  std::vector<RCTdecompression> hcaluncomp;

  //  HcaluLUTTPGCoder* tpgCoder;// = new    HcaluLUTTPGCoder();


  HcalTrigTowerDetId* ttDetId;

      // ----------member data ---------------------------
};

//
// constants, enums and typedefs
//

//
// static data member definitions
//

//
// constructors and destructor
//
L1CaloHcalScaleConfigOnlineProd::L1CaloHcalScaleConfigOnlineProd(
  const edm::ParameterSet& iConfig)
  : L1ConfigOnlineProdBase< L1CaloHcalScaleRcd, L1CaloHcalScale >( iConfig )
{
  hcalScale = new L1CaloHcalScale(0);
  caloTPG = new CaloTPGTranscoderULUT();
}


L1CaloHcalScaleConfigOnlineProd::~L1CaloHcalScaleConfigOnlineProd()
{
 
   // do anything here that needs to be done at desctruction time
   // (e.g. close files, deallocate resources etc.)

  if(caloTPG != 0)
    delete caloTPG;






}

boost::shared_ptr< L1CaloHcalScale >
L1CaloHcalScaleConfigOnlineProd::newObject( const std::string& objectKey )
{
     using namespace edm::es;
 
     std:: cout << "object Key " << objectKey <<std::endl <<std::flush;

     if(objectKey == "NULL" || objectKey == "")  // return default blank ecal scale  
       return boost::shared_ptr< L1CaloHcalScale >( hcalScale );
     if(objectKey == "IDENTITY"){  // return identity ecal scale  
       
       delete hcalScale;
       
       hcalScale = new L1CaloHcalScale(1);
       
       return boost::shared_ptr< L1CaloHcalScale >( hcalScale);
     }
  
     std::vector<unsigned int> analyticalLUT(1024, 0);
     std::vector<unsigned int> identityLUT(1024, 0);
     
     // Compute compression LUT
     for (unsigned int i=0; i < 1024; i++) {
       analyticalLUT[i] = (unsigned int)(sqrt(14.94*log(1.+i/14.94)*i) + 0.5);
       identityLUT[i] = std::min(i,0xffu);
     }
     
     hcaluncomp.clear();
     for (int i = 0; i < 4176; i++){
       RCTdecompression decompressionTable(256,0);
       hcaluncomp.push_back(decompressionTable);
    }
     


     std::vector < std::string > mainStrings;
     mainStrings.push_back("HCAL_LUT_METADATA");
     mainStrings.push_back("HCAL_LUT_CHAN_DATA");

     // ~~~~~~~~~ Cut values ~~~~~~~~~

 
     std::vector< std::string > metaStrings ;
     metaStrings.push_back("RCTLSB");  
     metaStrings.push_back("NOMINAL_GAIN");  
   
 
    l1t::OMDSReader::QueryResults paramResults =
       m_omdsReader.basicQueryView( metaStrings,
                                "CMS_HCL_HCAL_COND",
                                "V_HCAL_LUT_METADATA_V1",
                                "V_HCAL_LUT_METADATA_V1.TAG_NAME",
                m_omdsReader.basicQuery(
                            "HCAL_LUT_METADATA",
                            "CMS_RCT",
                            "HCAL_SCALE_KEY",
                            "HCAL_SCALE_KEY.HCAL_TAG",
                            m_omdsReader.singleAttribute(objectKey)));
    

    
    
    if( paramResults.queryFailed()
    || (paramResults.numberRows()!=1) ) // check query successful
       {
     edm::LogError( "L1-O2O" ) << "Problem with L1CaloHcalScale key.  Unable to find lutparam dat table" ;
     return boost::shared_ptr< L1CaloHcalScale >() ;
       }
        
    double hcalLSB, nominal_gain;
    paramResults.fillVariable("RCTLSB",hcalLSB);    
    paramResults.fillVariable("NOMINAL_GAIN",nominal_gain);
 
        float    rctlsb = hcalLSB == 0.25 ? 1./4 : 1./8;


    l1t::OMDSReader::QueryResults chanKey =m_omdsReader.basicQuery(
                                  "HCAL_LUT_CHAN_DATA",
                                  "CMS_RCT",
                                  "HCAL_SCALE_KEY",
                                  "HCAL_SCALE_KEY.HCAL_TAG",
                                  m_omdsReader.singleAttribute(objectKey));
      
    //coral::AttributeList myresult;
    //    myresult.extend(
    
 
    std::string schemaName("CMS_HCL_HCAL_COND");
    coral::ISchema& schema = m_omdsReader.dbSession()->schema( schemaName ) ;
    coral::IQuery* query = schema.newQuery(); ;

     
    std::vector< std::string > channelStrings;
    channelStrings.push_back("IPHI");
    channelStrings.push_back("IETA");
    channelStrings.push_back("LUT_GRANULARITY");
    channelStrings.push_back("OUTPUT_LUT_THRESHOLD");
    channelStrings.push_back("OBJECTNAME");

         
   
     std::vector< std::string >::const_iterator it = channelStrings.begin() ;
     std::vector< std::string >::const_iterator end = channelStrings.end() ;
     for( ; it != end ; ++it )
       {
         query->addToOutputList( *it ) ;
       }

    std::string ob = "OBJECTNAME";
    coral::AttributeList myresult; 
    myresult.extend("IPHI", typeid(int)); 
    myresult.extend("IETA", typeid(int)); 
    myresult.extend("LUT_GRANULARITY", typeid(int)); 
    myresult.extend("OUTPUT_LUT_THRESHOLD", typeid(int)); 
    myresult.extend( ob,typeid(std::string));//, typeid(std::string)); 

    query->defineOutput( myresult ); 

    query->addToTableList( "V_HCAL_LUT_CHAN_DATA_V1");

    query->setCondition(
            "V_HCAL_LUT_CHAN_DATA_V1.TAG_NAME = :" + chanKey.columnNames().front(),
            chanKey.attributeLists().front());

    coral::ICursor& cursor = query->execute();

 // when the query goes out of scope.
    std::vector<coral::AttributeList> atts;
    while (cursor.next()) {
        atts.push_back(cursor.currentRow());
    };

    delete query;

    l1t::OMDSReader::QueryResults chanResults(channelStrings,atts); 
    if( chanResults.queryFailed()
    || (chanResults.numberRows()==0) ) // check query successful
       {
     edm::LogError( "L1-O2O" ) << "Problem with L1CaloHcalScale key.  Unable to find lutparam dat table nrows" << chanResults.numberRows() ;
     return boost::shared_ptr< L1CaloHcalScale >() ;
       }



    chanResults.attributeLists();
     for(int i = 0; i < chanResults.numberRows() ; ++i){
       std::string objectName;
       chanResults.fillVariableFromRow("OBJECTNAME",i, objectName);
       //       int
       if(objectName == "HcalTrigTowerDetId") { //trig tower
     int ieta, iphi, lutGranularity, threshold;
     
     
     chanResults.fillVariableFromRow("LUT_GRANULARITY",i,lutGranularity);
     chanResults.fillVariableFromRow("IPHI",i,iphi);
     chanResults.fillVariableFromRow("IETA",i,ieta);
     chanResults.fillVariableFromRow("OUTPUT_LUT_THRESHOLD",i,threshold);
     

     unsigned int outputLut[1024];

     uint32_t lutId = caloTPG->getOutputLUTId(ieta,iphi);

     double eta_low = 0., eta_high = 0.;
     theTrigTowerGeometry.towerEtaBounds(ieta,eta_low,eta_high); 
     double cosh_ieta = fabs(cosh((eta_low + eta_high)/2.));


     if (!caloTPG->HTvalid(ieta, iphi)) continue;
     double factor = 0.;
     if (abs(ieta) >= theTrigTowerGeometry.firstHFTower())
       factor = rctlsb;
     else 
       factor = nominal_gain / cosh_ieta * lutGranularity;
     for (int k = 0; k < threshold; ++k)
       outputLut[k] = 0;
     
         for (unsigned int k = threshold; k < 1024; ++k)
       outputLut[k] = (abs(ieta) < theTrigTowerGeometry.firstHFTower()) ? analyticalLUT[k] : identityLUT[k];
     

       // tpg - compressed value
       unsigned int tpg = outputLut[0];
          
       int low = 0;

          for (unsigned int k = 0; k < 1024; ++k){
             if (outputLut[k] != tpg){
                unsigned int mid = (low + k)/2;
                hcaluncomp[lutId][tpg] = (tpg == 0 ? low : factor * mid);
                low = k;
                tpg = outputLut[k];
             }
          }
          hcaluncomp[lutId][tpg] = factor * low;
       }
     }
     


     for( unsigned short ieta = 1 ; ieta <= L1CaloHcalScale::nBinEta; ++ieta ){
       for(int pos = 0; pos <=1; pos++){
     for( unsigned short irank = 0 ; irank < L1CaloHcalScale::nBinRank; ++irank ){
     
       
       
       int zside = (int)  pow(-1,pos);
       int nphi = 0;
       double etvalue = 0.;
       

       for(int iphi = 1; iphi<=72; iphi++){
         if(!caloTPG->HTvalid(ieta, iphi))
           continue;
         uint32_t lutId = caloTPG->getOutputLUTId(ieta,iphi);
         nphi++;
         etvalue += (double) hcaluncomp[lutId][irank];

       } // phi
       if (nphi > 0) etvalue /= nphi;
       
       hcalScale->setBin(irank, ieta, zside, etvalue);

     } // rank
       } // zside
     }// eta

     std::cout << std::setprecision(10);
     hcalScale->print(std::cout);
// ------------ method called to produce the data  ------------
     return boost::shared_ptr< L1CaloHcalScale >( hcalScale );

}
//define this as a plug-in
DEFINE_FWK_EVENTSETUP_MODULE(L1CaloHcalScaleConfigOnlineProd);