h2plot

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// Copyright (C) 2010, Guy Barrand. All rights reserved.
// See the file tools.license for terms.
 
#ifndef tools_sg_h2plot
#define tools_sg_h2plot
 
// Connexion inlib/histo to sg/plotter.
 
// Inheritance :
#include "plottables"
 
#include "../histo/h1d"
#include "../histo/h2d"
#include "../histo/p1d"
#include "../histo/p2d"
 
#include "../words"
#include "../num2s"
 
#ifdef TOOLS_MEM
#include "../mem"
#endif
 
namespace tools {
namespace sg {
 
class h1d2plot : public virtual bins1D {
public:
  TOOLS_SCLASS(tools::sg::h1d2plot)
public:
  virtual void* cast(const std::string& a_class) const {
    if(void* p = cmp_cast<h1d2plot>(this,a_class)) {return p;}
    return bins1D::cast(a_class);
  }
public: //plottable
  virtual plottable* copy() const {return new h1d2plot(*this);}
  virtual bool is_valid() const {return true;}
  virtual const std::string& name() const {return m_name;}
  virtual void set_name(const std::string& a_s) {m_name = a_s;}
 
  virtual const std::string& title() const {return m_data.title();}
  virtual const std::string& legend() const {return m_legend;}
  virtual void set_legend(const std::string& a_s) {m_legend = a_s;}
 
  virtual void infos(const std::string& a_opts,std::string& a_sinfos) const {
    a_sinfos.clear();
    std::string f_lf("\n");
    std::vector<std::string> ws;
    words(a_opts," ",false,ws);
    std::vector<std::string>::const_iterator it;
 
  /*bool show_fit_ndf = false;
   {for(it=ws.begin();it!=ws.end();++it) {
      if((*it)=="fit_ndf") {show_fit_ndf = true;break;}
    }}*/
 
    for(it=ws.begin();it!=ws.end();++it) {
      if(((*it)=="name") && m_name.size()) {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Name";
        a_sinfos += f_lf;
        a_sinfos += m_name;
 
      } else if((*it)=="entries") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Entries";
        a_sinfos += f_lf;
        if(!numas<unsigned int>(m_data.all_entries(),a_sinfos)){}
 
      } else if((*it)=="mean") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Mean";
        a_sinfos += f_lf;
        if(!numas<double>(m_data.mean(),a_sinfos)) {}
 
      } else if((*it)=="rms") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "RMS";
        a_sinfos += f_lf;
        if(!numas<double>(m_data.rms(),a_sinfos)) {}
 
      } else if((*it)=="underflow") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "UDFLW";
        a_sinfos += f_lf;
        if(!numas<double>(m_data.bin_height(histo::axis_UNDERFLOW_BIN),a_sinfos)){}
 
      } else if((*it)=="overflow") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "OVFLW";
        a_sinfos += f_lf;
        if(!numas<double>(m_data.bin_height(histo::axis_OVERFLOW_BIN),a_sinfos)){}
 
/*
      } else if((*it)=="fit_quality") {
        //look in m_data annotations for "fit.chi2" and "fit.ndf" keys :
        if(show_fit_ndf) {
          std::string schi2;
          std::string sndf;
          if(m_data.annotation("fit.chi2",schi2) &&
             m_data.annotation("fit.ndf",sndf)   ){
            if(a_sinfos.size()) a_sinfos += f_lf;
            a_sinfos += "[h]^2! / ndf";
            a_sinfos += f_lf;
            a_sinfos += schi2;
            a_sinfos += " / ";
            a_sinfos += sndf;
          }
        } else { //show chi2 only.
          std::string schi2;
          if(m_data.annotation("fit.chi2",schi2)){
            if(a_sinfos.size()) a_sinfos += f_lf;
            a_sinfos += "[h]^2!";
            a_sinfos += f_lf;
            a_sinfos += schi2;
          }
        }
 
      } else if((*it)=="fit_parameters") {
        //look in m_data annotations for "fit.param.<name>" keys :
        typedef std::map<std::string,std::string> annots_t;
        const annots_t& annots = m_data.annotations();
        annots_t::const_iterator it;
        for(it=annots.begin();it!=annots.end();++it) {
          const std::string& key = (*it).first;
          if(key.substr(0,10)=="fit.param.") {
            //fit.param.mean 14
            //01234567890123
            std::string name = key.substr(10,key.size()-10);
            if(a_sinfos.size()) a_sinfos += f_lf;
            a_sinfos += name;
            a_sinfos += f_lf;
            a_sinfos += (*it).second;
          }
        }
*/
      }
    }
  }
public: //bins1D
  virtual void bins_Sw_range(float& a_mn,float& a_mx,bool a_with_entries) const {
    if(a_with_entries && m_data.has_entries_per_bin()) {
      double mn,mx;
      m_data.min_bin_height_with_entries(mn);
      m_data.max_bin_height_with_entries(mx);
      a_mn = float(mn);
      a_mx = float(mx);
    } else {
      a_mn = (float)m_data.min_bin_height();
      a_mx = (float)m_data.max_bin_height();
    }
  }
  virtual unsigned int bins() const {return m_data.axis().bins();}
  virtual float axis_min() const {return (float)m_data.axis().lower_edge();}
  virtual float axis_max() const {return (float)m_data.axis().upper_edge();}
  virtual float bin_lower_edge(int aI) const {return (float)m_data.axis().bin_lower_edge(aI);}
  virtual float bin_upper_edge(int aI) const {return (float)m_data.axis().bin_upper_edge(aI);}
 
  virtual bool has_entries_per_bin() const {return m_data.has_entries_per_bin();}
  virtual unsigned int bin_entries(int aI) const {return m_data.bin_entries(aI);}
 
  virtual float bin_Sw(int aI) const {return (float)m_data.bin_height(aI);}
 
  virtual float bin_error(int aI) const {return (float)m_data.bin_error(aI);}
  virtual bool is_profile() const {return false;}
public:
  h1d2plot(const histo::h1d& a_data):m_data(a_data) {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  virtual ~h1d2plot(){
#ifdef TOOLS_MEM
    mem::decrement(s_class().c_str());
#endif
  }
public:
  h1d2plot(const h1d2plot& a_from)
  :plottable(a_from),bins1D(a_from)
  ,m_data(a_from.m_data)
  ,m_name(a_from.m_name)
  ,m_legend(a_from.m_legend)
  {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  h1d2plot& operator=(const h1d2plot& a_from){
    m_name = a_from.m_name;
    m_legend = a_from.m_legend;
    return *this;
  }
public:
  const histo::h1d& data() const {return m_data;}
protected:
  const histo::h1d& m_data;
  std::string m_name;
  std::string m_legend;
};
 
class h2d2plot : public virtual bins2D {
public:
  TOOLS_SCLASS(tools::sg::h2d2plot)
public:
  virtual void* cast(const std::string& a_class) const {
    if(void* p = cmp_cast<h2d2plot>(this,a_class)) {return p;}
    return bins2D::cast(a_class);
  }
public: //plottable
  virtual plottable* copy() const {return new h2d2plot(*this);}
  virtual bool is_valid() const {return true;}
  virtual const std::string& name() const {return m_name;}
  virtual void set_name(const std::string& a_s) {m_name = a_s;}
  virtual const std::string& title() const {return m_data.title();}
  virtual const std::string& legend() const {return m_legend;}
  virtual void set_legend(const std::string& a_s) {m_legend = a_s;}
 
  virtual void infos(const std::string& a_opts,std::string& a_sinfos) const {
    a_sinfos.clear();
    std::string f_lf("\n");
    std::vector<std::string> ws;
    words(a_opts," ",false,ws);
    std::vector<std::string>::const_iterator it;
    for(it=ws.begin();it!=ws.end();++it) {
      if(((*it)=="name") && m_name.size()) {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Name\n";
        a_sinfos += m_name;
 
      } else if((*it)=="entries") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Entries\n";
        if(!numas<unsigned int>(m_data.all_entries(),a_sinfos)) {}
 
      } else if((*it)=="mean") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "MeanX\n";
        if(!numas<double>(m_data.mean_x(),a_sinfos)) {}
        a_sinfos += f_lf;
        a_sinfos += "MeanY\n";
        if(!numas<double>(m_data.mean_y(),a_sinfos)) {}
 
      } else if((*it)=="rms") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "RMS X\n";
        if(!numas<double>(m_data.rms_x(),a_sinfos)) {}
        a_sinfos += f_lf;
        a_sinfos += "RMS Y\n";
        if(!numas<double>(m_data.rms_y(),a_sinfos)) {}
 
      }
    }
  }
public: //bins2D
  virtual void bins_Sw_range(float& a_mn,float& a_mx,bool a_with_entries) const {
    if(a_with_entries && m_data.has_entries_per_bin()) {
      double mn,mx;
      m_data.min_bin_height_with_entries(mn);
      m_data.max_bin_height_with_entries(mx);
      a_mn = float(mn);
      a_mx = float(mx);
    } else {
      a_mn = (float)m_data.min_bin_height();
      a_mx = (float)m_data.max_bin_height();
    }
  }
  virtual unsigned int x_bins() const {return m_data.axis_x().bins();}
  virtual unsigned int y_bins() const {return m_data.axis_y().bins();}
  virtual float x_axis_min() const {return (float)m_data.axis_x().lower_edge();}
  virtual float x_axis_max() const {return (float)m_data.axis_x().upper_edge();}
  virtual float y_axis_min() const {return (float)m_data.axis_y().lower_edge();}
  virtual float y_axis_max() const {return (float)m_data.axis_y().upper_edge();}
 
  virtual float bin_lower_edge_x(int aI) const {return (float)m_data.axis_x().bin_lower_edge(aI);}
  virtual float bin_upper_edge_x(int aI) const {return (float)m_data.axis_x().bin_upper_edge(aI);}
  virtual float bin_lower_edge_y(int aI) const {return (float)m_data.axis_y().bin_lower_edge(aI);}
  virtual float bin_upper_edge_y(int aI) const {return (float)m_data.axis_y().bin_upper_edge(aI);}
 
  virtual bool has_entries_per_bin() const {return m_data.has_entries_per_bin();}
  virtual unsigned int bin_entries(int aI,int aJ) const {return m_data.bin_entries(aI,aJ);}
 
  virtual float bin_Sw(int aI,int aJ) const {return (float)m_data.bin_height(aI,aJ);}
 
  virtual float bin_error(int aI,int aJ) const {return (float)m_data.bin_error(aI,aJ);}
public:
  h2d2plot(const histo::h2d& a_data)
  :m_data(a_data)
  {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  virtual ~h2d2plot(){
#ifdef TOOLS_MEM
    mem::decrement(s_class().c_str());
#endif
  }
public:
  h2d2plot(const h2d2plot& a_from)
  :plottable(a_from),bins2D(a_from)
  ,m_data(a_from.m_data)
  ,m_name(a_from.m_name)
  ,m_legend(a_from.m_legend)
  {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  h2d2plot& operator=(const h2d2plot& a_from){
    m_name = a_from.m_name;
    m_legend = a_from.m_legend;
    return *this;
  }
protected:
  const histo::h2d& m_data;
  std::string m_name;
  std::string m_legend;
};
 
//NOTE : for the moment, same code as h1d2plot !
class p1d2plot : public virtual bins1D {
public:
  TOOLS_SCLASS(tools::sg::p1d2plot)
public:
  virtual void* cast(const std::string& a_class) const {
    if(void* p = cmp_cast<p1d2plot>(this,a_class)) {return p;}
    return bins1D::cast(a_class);
  }
public:
  virtual plottable* copy() const {return new p1d2plot(*this);}
  virtual bool is_valid() const {return true;}
  virtual const std::string& name() const {return m_name;}
  virtual void set_name(const std::string& a_s) {m_name = a_s;}
  virtual const std::string& title() const {return m_data.title();}
  virtual const std::string& legend() const {return m_legend;}
  virtual void set_legend(const std::string& a_s) {m_legend = a_s;}
 
  virtual void infos(const std::string& a_opts,std::string& a_sinfos) const {
    a_sinfos.clear();
    std::string f_lf("\n");
    std::vector<std::string> ws;
    words(a_opts," ",false,ws);
    std::vector<std::string>::const_iterator it;
    for(it=ws.begin();it!=ws.end();++it) {
      if(((*it)=="name") && m_name.size()) {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Name\n";
        a_sinfos += m_name;
 
      } else if((*it)=="entries") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Entries\n";
        if(!numas<unsigned int>(m_data.all_entries(),a_sinfos)) {}
      } else if((*it)=="mean") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Mean\n";
        if(!numas<double>(m_data.mean(),a_sinfos)) {}
      } else if((*it)=="rms") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "RMS\n";
        if(!numas<double>(m_data.rms(),a_sinfos)) {}
 
      }
    }
  }
public:
  virtual unsigned int bins() const {return m_data.axis().bins();}
 
  virtual void bins_Sw_range(float& a_mn,float& a_mx,bool a_with_entries) const {
    if(a_with_entries && m_data.has_entries_per_bin()) {
      double mn,mx;
      m_data.min_bin_height_with_entries(mn);
      m_data.max_bin_height_with_entries(mx);
      a_mn = float(mn);
      a_mx = float(mx);
    } else {
      a_mn = (float)m_data.min_bin_height();
      a_mx = (float)m_data.max_bin_height();
    }
  }
 
  virtual float axis_min() const {return (float)m_data.axis().lower_edge();}
  virtual float axis_max() const {return (float)m_data.axis().upper_edge();}
  virtual float bin_lower_edge(int aI) const {return (float)m_data.axis().bin_lower_edge(aI);}
  virtual float bin_upper_edge(int aI) const {return (float)m_data.axis().bin_upper_edge(aI);}
 
  virtual bool has_entries_per_bin() const {return m_data.has_entries_per_bin();}
  virtual unsigned int bin_entries(int aI) const {return m_data.bin_entries(aI);}
 
  virtual float bin_Sw(int aI) const {return (float)m_data.bin_height(aI);}
 
  virtual float bin_error(int aI) const {return (float)m_data.bin_error(aI);}
 
  virtual bool is_profile() const {return true;}
public:
  p1d2plot(const histo::p1d& a_data):m_data(a_data){}
  virtual ~p1d2plot(){}
public:
  p1d2plot(const p1d2plot& a_from)
  :plottable(a_from),bins1D(a_from)
  ,m_data(a_from.m_data)
  ,m_name(a_from.m_name)
  ,m_legend(a_from.m_legend)
  {}
  p1d2plot& operator=(const p1d2plot& a_from){
    m_name = a_from.m_name;
    m_legend = a_from.m_legend;
    return *this;
  }
protected:
  const histo::p1d& m_data;
  std::string m_name;
  std::string m_legend;
};
 
/*
class p2d2plot : public virtual SbPlottableBins2D {
public:
  TOOLS_SCLASS(tools::sg::p2d2plot)
public:
  virtual void* cast(const std::string& a_class) const {
    if(void* p = cmp_cast<p2d2plot>(this,a_class)) {return p;}
    return bins2D::cast(a_class);
  }
public: //SbPlottableObject
  virtual bool is_valid() const {return true;}
  virtual const char* name(){return m_name;}
  virtual const char* legend(){return m_legend;}
public:
  virtual int getDimension() const{return 2;}
  virtual const char* title(){return m_data.title();}
public: //SbPlottableBins2D
  virtual void getBinsSumOfWeightsRange(float& a_mn,float& a_mx) const {
    a_mn = (float)m_data.min_bin_height();
    a_mx = (float)m_data.max_bin_height();
  }
  virtual int getAxisNumberOfBinsX() const {return m_data.axis_x().bins();}
  virtual int getAxisNumberOfBinsY() const {return m_data.axis_y().bins();}
  virtual float getAxisMinimumX() const {return (float)m_data.axis_x().lower_edge();}
  virtual float getAxisMaximumX() const {return (float)m_data.axis_x().upper_edge();}
  virtual float getAxisMinimumY() const {return (float)m_data.axis_y().lower_edge();}
  virtual float getAxisMaximumY() const {return (float)m_data.axis_y().upper_edge();}
  virtual float getBinLowerEdgeX(int aI) const {
    return (float)m_data.axis_x().bin_lower_edge(aI);
  }
  virtual float bin_upper_edgeX(int aI) const {
    return (float)m_data.axis_x().bin_upper_edge(aI);
  }
  virtual float getBinLowerEdgeY(int aI) const {
    return (float)m_data.axis_y().bin_lower_edge(aI);
  }
  virtual float bin_upper_edgeY(int aI) const {
    return (float)m_data.axis_y().bin_upper_edge(aI);
  }
  virtual int getBinNumberOfEntries(int aI,int aJ) const {
    return m_data.bin_entries(aI,aJ);
  }
  virtual float getBinSumOfWeights(int aI,int aJ) const {
    return (float)m_data.bin_height(aI,aJ);
  }
  virtual float getBinBar(int aI,int aJ) const {
    return (float)m_data.bin_error(aI,aJ);
  }
 
  virtual void infos(const std::string& a_opts,std::string& a_sinfos) const {
    a_sinfos.clear();
    std::string f_lf("\n");
    std::vector<std::string> ws;
    words(a_opts," ",false,ws);
    std::vector<std::string>::const_iterator it;
    for(it=ws.begin();it!=ws.end();++it) {
      if(((*it)=="name") && m_name.size()) {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Name\n";
        a_sinfos += m_name;
 
      } else if((*it)=="entries") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "Entries\n";
        if(!numasd int>(m_data.all_entries(),a_sinfos)) {}
      } else if((*it)=="mean") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "MeanX\n";
        if(!numas<double>(m_data.mean_x(),a_sinfos)) {}
        a_sinfos += f_lf;
        a_sinfos += "MeanY\n";
        if(!numas<double>(m_data.mean_y(),a_sinfos)) {}
      } else if((*it)=="rms") {
        if(a_sinfos.size()) a_sinfos += f_lf;
        a_sinfos += "RMS X\n";
        if(!numas<double>(m_data.rms_x(),a_sinfos)) {}
        a_sinfos += f_lf;
        a_sinfos += "RMS Y\n";
        if(!numas<double>(m_data.rms_y(),a_sinfos)) {}
 
      }
    }
  }
 
public:
  p2d2plot(const histo::p2d& a_data)
  :m_data(a_data)
  {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  virtual ~p2d2plot(){
#ifdef TOOLS_MEM
    mem::decrement(s_class().c_str());
#endif
  }
public:
  p2d2plot(const p2d2plot& a_from)
  :m_data(a_from.m_data)
  ,m_name(a_from.m_name)
  ,m_legend(a_from.m_legend)
  {
#ifdef TOOLS_MEM
    mem::increment(s_class().c_str());
#endif
  }
  p2d2plot& operator=(const p2d2plot& a_from){
    m_name = a_from.m_name;
    m_legend = a_from.m_legend;
    return *this;
  }
protected:
  const histo::p2d& m_data;
  std::string m_name;
  std::string m_legend;
};
*/
 
}}
 
#endif