Histogram3D.h

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#ifndef CondFormats_PhysicsToolsObjects_Histogram3D_h
#define CondFormats_PhysicsToolsObjects_Histogram3D_h
 
#include "CondFormats/Serialization/interface/Serializable.h"
 
#if !defined(__CINT__) && !defined(__MAKECINT__) && !defined(__REFLEX__)
#include <atomic>
#endif
 
#include <utility>
#include <vector>
#include <cmath>
 
#include "CondFormats/PhysicsToolsObjects/interface/Histogram2D.h"
 
namespace PhysicsTools {
  namespace Calibration {
 
    //template<typename Value_t, typename AxisX_t = Value_t,
    //         typename AxisY_t = AxisX_t>
 
    template <typename Value_t, typename AxisX_t = Value_t, typename AxisY_t = AxisX_t, typename AxisZ_t = AxisX_t>
 
    class Histogram3D {
    public:
      typedef Range<AxisX_t> RangeX;
      typedef Range<AxisY_t> RangeY;
      typedef Range<AxisZ_t> RangeZ;
 
      Histogram3D();
 
      Histogram3D(const Histogram3D &orig);
 
      template <typename OValue_t, typename OAxisX_t, typename OAxisY_t, typename OAxisZ_t>
      Histogram3D(const Histogram3D<OValue_t, OAxisX_t, OAxisY_t, OAxisZ_t> &orig);
 
      Histogram3D(const std::vector<AxisX_t> &binULimitsX,
                  const std::vector<AxisY_t> &binULimitsY,
                  const std::vector<AxisZ_t> &binULimitsZ);
 
      template <typename OAxisX_t, typename OAxisY_t, typename OAxisZ_t>
      Histogram3D(const std::vector<OAxisX_t> &binULimitsX,
                  const std::vector<OAxisY_t> &binULimitsY,
                  const std::vector<OAxisZ_t> &binULimitsZ);
 
      /*
    //TO BE CONVERTED FROM HISTO2D TO HISTO3D
    template<typename OAxisX_t, typename OAxisY_t>
    Histogram3D(const std::vector<OAxisX_t> &binULimitsX,
                unsigned int nBinsY,
                const PhysicsTools::Calibration::Range<OAxisY_t> &rangeY);
 
    template<typename OAxisX_t, typename OAxisY_t>
    Histogram3D(unsigned int nBinsX,
                const PhysicsTools::Calibration::Range<OAxisX_t> &rangeX,
                const std::vector<OAxisY_t> &binULimitsY);
 
    template<typename OAxisX_t, typename OAxisY_t>
    Histogram3D(unsigned int nBinsX,
                const PhysicsTools::Calibration::Range<OAxisX_t> &rangeX,
                unsigned int nBinsY,
                const PhysicsTools::Calibration::Range<OAxisY_t> &rangeY);
*/
      Histogram3D(unsigned int nBinsX,
                  AxisX_t minX,
                  AxisX_t maxX,
                  unsigned int nBinsY,
                  AxisY_t minY,
                  AxisY_t maxY,
                  unsigned int nBinsZ,
                  AxisZ_t minZ,
                  AxisZ_t maxZ);
 
      ~Histogram3D();
 
      Histogram3D &operator=(const Histogram3D &orig);
 
      template <typename OValue_t, typename OAxisX_t, typename OAxisY_t, typename OAxisZ_t>
      Histogram3D &operator=(const Histogram3D<OValue_t, OAxisX_t, OAxisY_t, OAxisZ_t> &orig);
 
      void reset();
 
      const std::vector<AxisX_t> upperLimitsX() const { return binULimitsX; }
      const std::vector<AxisY_t> upperLimitsY() const { return binULimitsY; }
      const std::vector<AxisZ_t> upperLimitsZ() const { return binULimitsZ; }
 
      inline int bin3D(int binX, int binY, int binZ) const
      //        { return (((binY * strideY) + binX) * strideX) + binZ; }
      {
        return binZ * strideX * strideY + binY * strideX + binX;
      }
 
      Value_t binContent(int bin) const { return binValues[bin]; }
      Value_t binContent(int binX, int binY, int binZ) const { return binValues[bin3D(binX, binY, binZ)]; }
      Value_t value(AxisX_t x, AxisY_t y, AxisY_t z) const { return binContent(findBin(x, y, z)); }
      Value_t normalizedValue(AxisX_t x, AxisY_t y, AxisZ_t z) const {
        return binContent(findBin(x, y, z)) / normalization();
      }
 
      //TO BE CONVERTED FROM HISTO2D TO HISTO3D
      //    Value_t normalizedXValue(AxisX_t x, AxisY_t y, AxisZ_t z) const;
      //    Value_t normalizedYValue(AxisX_t x, AxisY_t y, AxisZ_t z) const;
      //      Value_t normalizedZValue(AxisX_t x, AxisY_t y, AxisZ_t z) const;
 
      Value_t binError(int bin) const { return std::sqrt(binContent(bin)); }
      Value_t binError(int binX, int binY, int binZ) const { return binError(bin3D(binX, binY, binZ)); }
      Value_t error(AxisX_t x, AxisY_t y, AxisZ_t z) const { return binError(findBin(x, y, z)); }
      Value_t normalizedError(AxisX_t x, AxisY_t y, AxisY_t z) const {
        return std::sqrt(binContent(findBin(x, y, z))) / normalization();
      }
 
      //TO BE CONVERTED FROM HISTO2D TO HISTO3D
      //    Value_t normalizedXError(AxisX_t x, AxisY_t y, AxisZ_t z) const;
      //    Value_t normalizedYError(AxisX_t x, AxisY_t y, AxisZ_t z) const;
 
      void setBinContent(int bin, Value_t value);
      void setBinContent(int binX, int binY, int binZ, Value_t value) { setBinContent(bin3D(binX, binY, binZ), value); }
      void fill(AxisX_t x, AxisY_t y, AxisZ_t z, Value_t weight = 1.0);
 
      bool empty() const { return binValues.empty(); }
      bool hasEquidistantBinsX() const { return binULimitsX.empty(); }
      bool hasEquidistantBinsY() const { return binULimitsY.empty(); }
      bool hasEquidistantBinsZ() const { return binULimitsZ.empty(); }
      int numberOfBinsX() const { return strideX - 2; }
      int numberOfBinsY() const { return strideY - 2; }
      int numberOfBinsZ() const { return binValues.size() / (strideX * strideY) - 2; }
      int numberOfBins() const { return numberOfBinsX() * numberOfBinsY() * numberOfBinsZ(); }
 
      inline const std::vector<Value_t> &values() const { return binValues; }
 
      void setValues(const std::vector<Value_t> &values);
 
      template <typename OValue_t>
      void setValues(const std::vector<OValue_t> &values);
 
      inline RangeX rangeX() const { return limitsX; }
      inline RangeY rangeY() const { return limitsY; }
      inline RangeZ rangeZ() const { return limitsZ; }
      RangeX binRangeX(int binX) const;
      RangeY binRangeY(int binY) const;
      RangeZ binRangeZ(int binZ) const;
 
      //TO BE CONVERTED FROM HISTO2D TO HISTO3D
      /*    std::pair<RangeX, RangeY> binRange(int bin) const;
    std::pair<RangeX, RangeY> binRange(int binX, int binY) const
    { return binRange(bin2D(binX, binY)); }
*/
      int findBinX(AxisX_t x) const;
      int findBinY(AxisY_t y) const;
      int findBinZ(AxisZ_t z) const;
      int findBin(AxisX_t x, AxisY_t y, AxisZ_t z) const { return bin3D(findBinX(x), findBinY(y), findBinZ(z)); }
      Value_t normalization() const;
 
      //TO BE CONVERTED FROM HISTO2D TO HISTO3D
      //    Value_t normalizationX(int binY) const;
      //    Value_t normalizationY(int binX) const;
 
    protected:
      unsigned int strideX;
      unsigned int strideY;
      std::vector<AxisX_t> binULimitsX;
      std::vector<AxisY_t> binULimitsY;
      std::vector<AxisZ_t> binULimitsZ;
      std::vector<Value_t> binValues;
      RangeX limitsX;
      RangeY limitsY;
      RangeY limitsZ;
 
      // transient cache variables
      mutable Value_t total COND_TRANSIENT;  //CMS-THREADING protected by totalValid
#if !defined(__CINT__) && !defined(__MAKECINT__) && !defined(__REFLEX__)
      mutable std::atomic<bool> totalValid COND_TRANSIENT;
#else
      mutable bool totalValid COND_TRANSIENT;
#endif
      mutable std::vector<Value_t> sliceTotal COND_TRANSIENT;
      mutable std::vector<Value_t> rowTotal COND_TRANSIENT;
      mutable std::vector<Value_t> columnTotal COND_TRANSIENT;
 
      COND_SERIALIZABLE;
    };
 
    typedef Histogram3D<float> HistogramF3D;
    typedef Histogram3D<double> HistogramD3D;
 
  }  // namespace Calibration
}  // namespace PhysicsTools
 
#if !defined(__CINT__) && !defined(__MAKECINT__) && !defined(__REFLEX__)
#include "CondFormats/PhysicsToolsObjects/interface/Histogram3D.icc"
#endif
 
#endif  // CondFormats_PhysicsToolsObjects_Histogram3D_h