ValueQuantity.h

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#ifndef ValueQuantity_h
#define ValueQuantity_h

#include "DQM/HcalCommon/interface/Quantity.h"
#include "DQM/HcalCommon/interface/Flag.h"
#include "boost/unordered_map.hpp"
#include "boost/foreach.hpp"

namespace hcaldqm
{
    namespace quantity
    {
        enum ValueQuantityType
        {
            fN = 0,
            fEvents = 1,
            fEnergy = 2,
            fTiming_ns = 3,
            fADC_128 = 4,
            fADC_5 = 5,
            fADC_15 = 6,
            ffC_10000 = 7,
            ffC_1000 = 8,
            ffC_3000 = 9,
            fTiming_TS = 10,
            fTiming_TS200 = 11,
            fLS = 12,
            fEt_256 = 13,
            fEt_128 = 14,
            fFG = 15,
            fRatio = 16,
            fDigiSize = 17,
            fAroundZero = 18,
            fRatio2 = 19,
            fdEtRatio = 20,
            fSumdEt = 21,
            fTiming_20TS = 22,
            fQIE10ADC_256 = 23,
            fQIE10TDC_64 = 24,
            fQIE10TDC_16 = 25,
            fDiffAbs = 26,
            fRatio_0to2 = 27,
            fN_to8000 = 28,
            fEnergyTotal = 29,
            fN_m0to10000 = 30,
            fEtCorr_256 = 31,
            fADCCorr_128 = 32,
            fBX = 33,
            fEnergy_1TeV = 34,
            fState = 35,
            fQIE10fC_400000 = 36,
            fDataSize = 37,
            fQIE10fC_2000 = 38,
            fQIE10fC_10000 = 39,
            fQIE8fC_1000_50 = 40,
            fTime_ns_250 = 41,
            fADC_256 = 42,
            ffC_generic_10000 = 43,
            ffC_generic_400000 = 44,
            fQIE10ADC_16 = 45,
            fDualAnodeAsymmetry = 46,
            fTimingRatio = 47,
            fQIE10fC_100000Coarse = 48,
            fBadTDC = 49,
        };
        const std::map<ValueQuantityType, std::string> name_value = {
            {fN,"N"},
            {fEvents,"Events"},
            {fEnergy,"Energy"},
            {fTiming_ns,"Timing"},
            {fADC_5,"ADC (QIE8)"},
            {fADC_15,"ADC (QIE8)"},
            {fADC_128,"ADC (QIE8)"},
            {fADC_256,"ADC"},
            {fQIE10ADC_256,"ADC (QIE10/11)"},
            {fQIE10ADC_16,"ADC (QIE10/11)"},
            {ffC_1000,"fC (QIE8)"},
            {ffC_3000,"fC (QIE8)"},
            {ffC_10000,"fC (QIE8)"},
            {fQIE8fC_1000_50,"fC"},
            {fQIE10fC_2000,"fC"},
            {fQIE10fC_10000,"fC"},
            {fQIE10fC_400000,"fC"},
            {ffC_generic_10000,"fC (QIE8/10/11)"},
            {ffC_generic_400000,"fC (QIE8/10/11)"},         
            {fTiming_TS,"Timing"},
            {fTiming_TS200,"Timing"},
            {fLS,"LS"},
            {fEt_256,"Et"},
            {fEt_128,"Et"},
            {fFG,"FG"},
            {fRatio,"Ratio"},
            {fDigiSize,"DigiSize"},
            {fAroundZero,"Q"},
            {fRatio2,"Ratio"},
            {fdEtRatio,"dEtRatio"},
            {fSumdEt,"SumdEt"},
            {fTiming_20TS,"Timing"},
            {fQIE10TDC_64,"TDC"},
            {fQIE10TDC_16,"TDC"},
            {fDiffAbs,"Q"},
            {fRatio_0to2,"Ratio"},
            {fN_to8000,"N"},
            {fEnergyTotal,"Energy"},
            {fN_m0to10000,"N"},
            {fEtCorr_256,"Et"},
            {fADCCorr_128,"ADC"},
            {fBX,"BX"},
            {fEnergy_1TeV,"Energy"},
            {fState,"State"},
            {fDataSize,"FED Data Size (kB)"},
            {fTime_ns_250,"Time (ns)"},
            {fDualAnodeAsymmetry, "(q_{1}-q_{2})/(q_{1}+q_{2})"},
            {fTimingRatio, "q_{SOI+1}/q_{SOI}"},
            {fQIE10fC_100000Coarse,"fC"},
            {fBadTDC, "TDC"},
        };
        const std::map<ValueQuantityType, double> min_value = {
            {fN,-0.05},
            {fEvents,0},
            {fEnergy,0},
            {fTiming_ns,-50},
            {fADC_128,-0.5},
            {fADC_5,-0.5},
            {fADC_15,-0.5},
            {ffC_10000,0},
            {ffC_1000,0},
            {ffC_3000,0},
            {fTiming_TS,-0.5},
            {fTiming_TS200,0},
            {fLS,0.5},
            {fEt_256,0},
            {fEt_128,0},
            {fFG,0},
            {fRatio,0},
            {fDigiSize,-0.5},
            {fAroundZero,-1},
            {fRatio2,0.5},
            {fdEtRatio,0},
            {fSumdEt,0},
            {fTiming_20TS,-0.5},
            {fQIE10ADC_256,-0.5},
            {fQIE10ADC_16,-0.5},
            {fQIE10TDC_64,-0.5},
            {fQIE10TDC_16,-0.5},
            {fDiffAbs,0},
            {fRatio_0to2,0},
            {fN_to8000,0},
            {fEnergyTotal,0},
            {fN_m0to10000,-0.05},
            {fEtCorr_256,-1},
            {fADCCorr_128,-2},
            {fBX,-0.5},
            {fEnergy_1TeV,0},
            {fState,flag::fNA},
            {fQIE10fC_400000,0},
            {fDataSize,0},
            {fQIE10fC_2000,0},
            {fQIE10fC_10000,0},
            {fQIE8fC_1000_50,0},
            {fTime_ns_250,-0.5},
            {fADC_256,-0.5},
            {ffC_generic_10000,0.},
            {ffC_generic_400000,0.},    
            {fDualAnodeAsymmetry,-1.},  
            {fTimingRatio,0.},  
            {fQIE10fC_100000Coarse,0},
            {fBadTDC,49.5},
        };
        const std::map<ValueQuantityType, double> max_value = {
            {fN,1000},
            {fEvents,1000},
            {fEnergy,200},
            {fTiming_ns,50},
            {fADC_128,127.5},
            {fADC_5,5},
            {fADC_15,15},
            {ffC_10000,10000},
            {ffC_1000,1000},
            {ffC_3000,3000},
            {fTiming_TS,9.5},
            {fTiming_TS200,9.5},
            {fLS,4000.5},
            {fEt_256,255.5},
            {fEt_128,255.5},
            {fFG,2},
            {fRatio,1},
            {fDigiSize,20.5},
            {fAroundZero,1},
            {fRatio2,1.5},
            {fdEtRatio,1},
            {fSumdEt,1000},
            {fTiming_20TS,9.5},
            {fQIE10ADC_256,255.5},
            {fQIE10ADC_16,15.5},
            {fQIE10TDC_64,63.5},
            {fQIE10TDC_16,15.5},
            {fDiffAbs,1},
            {fRatio_0to2,2},
            {fN_to8000,8000},
            {fEnergyTotal,100000},
            {fN_m0to10000,10000},
            {fEtCorr_256,257},
            {fADCCorr_128,128},
            {fBX,3600.5},
            {fEnergy_1TeV,1000},
            {fState,flag::nState},
            {fQIE10fC_400000,400000},
            {fDataSize,100},
            {fQIE10fC_2000,2000},
            {fQIE10fC_10000,10000},
            {fQIE8fC_1000_50,1000},
            {fTime_ns_250,249.5},
            {fADC_256,255.5},
            {ffC_generic_10000,10000},
            {ffC_generic_400000,400000},    
            {fDualAnodeAsymmetry,1.},
            {fTimingRatio,2.5}, 
            {fQIE10fC_100000Coarse,100000},
            {fBadTDC,61.5},
        };
        const std::map<ValueQuantityType, int> nbins_value = {
            {fN,200},
            {fEvents,200},
            {fEnergy,100},
            {fTiming_ns,200},
            {fADC_128,128},
            {fADC_5,100},
            {fADC_15,300},
            {ffC_10000,1000},
            {ffC_1000,200},
            {ffC_3000,600},
            {fTiming_TS,10},
            {fTiming_TS200,200},
            {fLS,4000},
            {fEt_256,256},
            {fEt_128,128},
            {fFG,2},
            {fRatio,100},
            {fDigiSize,21},
            {fAroundZero,100},
            {fRatio2,100},
            {fdEtRatio,100},
            {fSumdEt,100},
            {fTiming_20TS,10},
            {fQIE10ADC_256,256},
            {fQIE10TDC_64,64},
            {fQIE10TDC_16,16},
            {fDiffAbs,200},
            {fRatio_0to2,100},
            {fN_to8000,8000},
            {fEnergyTotal,500},
            {fN_m0to10000,100},
            {fEtCorr_256,258},
            {fADCCorr_128,130},
            {fBX,3601},
            {fEnergy_1TeV,200},
            {fState,flag::nState},
            {fQIE10fC_400000,4000},
            {fDataSize,100},
            {fQIE10fC_2000,100},
            {fQIE10fC_10000,500},
            {fQIE8fC_1000_50,50},
            {fTime_ns_250,100},
            {fADC_256,256},
            {ffC_generic_10000,10000},
            {ffC_generic_400000,10000}, 
            {fDualAnodeAsymmetry,40},
            {fTimingRatio,50},
            {fQIE10fC_100000Coarse,1000},
            {fBadTDC,12}
        };
        class ValueQuantity : public Quantity
        {
            public:
                ValueQuantity() : _type(){}
                ValueQuantity(ValueQuantityType type, bool isLog=false) :
                    Quantity(name_value.at(type), isLog), _type(type)
                {}
                ~ValueQuantity() override {}

                ValueQuantity* makeCopy() override
                {return new ValueQuantity(_type, _isLog);}

                //  get Value to be overriden
                int getValue(int x) override
                {return x;}
                double getValue(double x) override
                {return x;}

                //  standard properties
                QuantityType type() override {return fValueQuantity;}
                int nbins() override {return nbins_value.at(_type);}
                double min() override {return min_value.at(_type);}
                double max() override {return max_value.at(_type);}

                void setBits(TH1* o) override
                {Quantity::setBits(o);setLS(o);}
                virtual void setLS(TH1* o)
                {
                    if (_type==fLS)
                    {
                        //  for LS axis - set the bit
                        //  set extendable axes.
                        o->SetBit(BIT(BIT_OFFSET+BIT_AXIS_LS));
        //              o->SetCanExtend(TH1::kXaxis);
                    }
                }

            protected:
                ValueQuantityType _type;
        };

        class FlagQuantity : public ValueQuantity
        {
            public:
                FlagQuantity(){}
                FlagQuantity(std::vector<flag::Flag> const& flags) :
                    _flags(flags) {}
                ~FlagQuantity() override {}
                
                FlagQuantity* makeCopy() override
                {return new FlagQuantity(_flags);}

                std::string name() override {return "Flag";}
                int nbins() override {return _flags.size();}
                double min() override {return 0;}
                double max() override {return _flags.size();}
                int getValue(int f) override {return f;}
                uint32_t getBin(int f) override {return f+1;}
                std::vector<std::string> getLabels() override
                {
                    std::vector<std::string> vnames;
                    for (std::vector<flag::Flag>::const_iterator
                        it=_flags.begin(); it!=_flags.end(); ++it)
                        vnames.push_back(it->_name);

                    return vnames;
                }
            protected:

                std::vector<flag::Flag> _flags;
        };

        class LumiSection : public ValueQuantity
        {
            public:
                LumiSection() : ValueQuantity(fLS), _n(4000)
                {}
                LumiSection(int n) : ValueQuantity(fLS), 
                    _n(n) 
                {}
                ~LumiSection() override {}
                
                LumiSection* makeCopy() override
                {return new LumiSection(_n);}

                std::string name() override {return "LS";}
                int nbins() override {return _n;}
                double min() override {return 1;}
                double max() override {return _n+1;}
                int getValue(int l) override {return l;}
                uint32_t getBin(int l) override 
                {return getValue(l);}
                void setMax(double x) override {_n=x;}

            protected:
                int _n;
        };

        class RunNumber : public ValueQuantity
        {
            public:
                RunNumber() {}
                RunNumber(std::vector<int> runs) :
                    _runs(runs) 
                {}
                ~RunNumber() override {}

                std::string name() override {return "Run";}
                int nbins() override {return _runs.size();}
                double min() override {return 0;}
                double max() override {return _runs.size();}
                std::vector<std::string> getLabels() override
                {
                    char name[10];
                    std::vector<std::string> labels;
                    for (uint32_t i=0; i<_runs.size(); i++)
                    {
                        sprintf(name, "%d", _runs[i]);
                        labels.push_back(name);
                    }
                    return labels;
                }
                int getValue(int run) override
                {
                    int ir = -1;
                    for (uint32_t i=0; i<_runs.size(); i++)
                        if (_runs[i]==run)
                        {
                            ir = (int)i;
                            break;
                        }

                    if (ir==-1)
                        throw cms::Exception("HCALDQM")
                            << "run number doens't exist " << run; 

                    return ir;
                }

                uint32_t getBin(int run) override
                {
                    return (this->getValue(run)+1);
                }

            protected:
                std::vector<int> _runs;
        };

        class EventNumber : public ValueQuantity
        {
            public:
                EventNumber() {}
                EventNumber(int nevents) :
                    ValueQuantity(fN), _nevents(nevents)
                {}
                ~EventNumber() override {}

                std::string name() override {return "Event";}
                int nbins() override {return _nevents;}
                double min() override {return 0.5;}
                double max() override {return _nevents+0.5;}

            protected:
                int _nevents;
        };

        class EventType : public ValueQuantity
        {
            public:
                EventType() {}
                EventType(std::vector<uint32_t> const& vtypes):
                    ValueQuantity(fN)
                {this->setup(vtypes);}
                ~EventType() override {}

                virtual void setup(std::vector<uint32_t> const& vtypes)
                {
                    std::cout << "SIZE = " << vtypes.size() << std::endl;
                    for (uint32_t i=0; i<vtypes.size(); i++)
                        _types.insert(std::make_pair((uint32_t)vtypes[i], i));
                }
                int getValue(int v) override
                {
                    return _types[(uint32_t)v];
                }
                uint32_t getBin(int v) override
                {
                    return getValue(v)+1;
                }

                int nbins() override {return _types.size();}
                double min() override {return 0;}
                double max() override {return _types.size();}
                std::string name() override {return "Event Type";}

            protected:
                typedef boost::unordered_map<uint32_t, int> TypeMap;
                TypeMap _types;

            public:
                std::vector<std::string> getLabels() override
                {
                    std::vector<std::string> labels(_types.size());
                    std::cout << "SIZE = " << _types.size() << std::endl;
                    BOOST_FOREACH(TypeMap::value_type &v, _types)
                    {
                        labels[v.second] = utilities::ogtype2string((OrbitGapType) 
                            v.first);
                    }
                    return labels;
                }
                EventType* makeCopy() override
                {
                    std::vector<uint32_t> vtypes;
                    BOOST_FOREACH(TypeMap::value_type &p, _types)
                    {
                        vtypes.push_back(p.first);
                    }

                    std::sort(vtypes.begin(), vtypes.end());
                    return new EventType(vtypes);
                }
        };
    }
}

#endif