File: vdtPerfBenchmark.cpp

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/*
 * vdtPerfBenchmark.cpp
 *
 *  Created on: Jun 23, 2012
 *      Author: danilopiparo
 */

#include "vdtdiag_random.h"
#include "vdtMath.h"
#include "vdtdiag_helper.h"
#include "vdtdiag_fcnPerformance.h"
#include "vdtdiag_fcnTuples.h"
#include "vdtdiag_simpleCmd.h"

#include <iostream>
#include <fstream>
#include <string>
#include <regex>


/**
 * Loop on the functions, and measure performance
 **/

/*
 - log
 - exp
 - sin
 - cos
 - tan
 - asin
 - acos
 - atan
 - inverse sqrt
 - inverse (faster than division, based on isqrt)
 */
template <class T,class TUPLE>
void print_avg(const TUPLE& dpfcntuple, std::ofstream& ofile,uint32_t repetitions){
    fcnPerformance<T> dpExpPerf(std::get<0>(dpfcntuple),
            std::get<2>(dpfcntuple),
            std::get<1>(dpfcntuple),
            repetitions);
    dpExpPerf.print();
    dpExpPerf.print(ofile);
}

template <class T,class TUPLE>
void print_avg2D(const TUPLE& dpfcntuple, std::ofstream& ofile,uint32_t repetitions){
    fcnPerformance<T> dpExpPerf(std::get<0>(dpfcntuple),
            std::get<2>(dpfcntuple),
            std::get<3>(dpfcntuple),
            std::get<1>(dpfcntuple),
            repetitions);
    dpExpPerf.print();
    dpExpPerf.print(ofile);
}

int main(int argc, char **argv){

    //set cmd options
    CmdOptions opt;
    opt.addOption("-n","--nick","Nickname to distinguish different runs/libraries used (required)");
    opt.addOption("-s","--size","# of numbers to be tested (default 50000)");
    opt.addOption("-r","--repetitions","# of repetitions from which statistics are calculated (default 150)");
    opt.addOption("-M","--pool_max","Upper limit of the pool interval");
    opt.addOption("-m","--pool_min","Lower limit of the pool interval");
    opt.addOption("-p","--pattern","Regular expression to be matched in function name");

    double POOL_MAX=5000;
    double POOL_MIN=-POOL_MAX;

    uint32_t SIZE = 50000;
    uint32_t REPETITIONS = 150;
    std::string nick = "";
    std::string pattern_s=".*";

    if(!opt.parseCmd(argc,argv)){
        std::cout << "Something is wrong with cmd options, try --help\n"
                <<"usage: vdtPerfBenchmark -n=<run88libmVSvdt>\n";
        return 0;
    }
    // if help was printed, exit
    if(opt.isSet("-h"))
        return 1;

    // process cmd options
    nick = opt.getArgument("-n");
    if(nick == ""){
        std::cout << "Error: Nickname was not specified!\n";
        opt.printHelp("-n");
        return 0;
    }


    //getArgument() contains isSet check
    if(opt.getArgument("-s") != "")
        SIZE = std::stoi(opt.getArgument("-s").c_str());

    if(opt.getArgument("-r") != "")
        REPETITIONS = std::stoi(opt.getArgument("-r").c_str());

    if(opt.getArgument("-m") != "")
        POOL_MIN = std::stod(opt.getArgument("-m").c_str());

    if(opt.getArgument("-M") != "")
        POOL_MAX = std::stod(opt.getArgument("-M").c_str());

    if (opt.getArgument("-p")!= "")
        pattern_s = opt.getArgument("-p");

    std::regex pattern (pattern_s);
    
    // Control print
    std::cout << "Running with nick: " << nick << ", size: " << SIZE << ", repetitions: "<< REPETITIONS
            << ", the pool max:" << POOL_MAX << ", the pool min:" << POOL_MIN
            << " and the pattern " << pattern_s << "\n";

    // setup filename
    std::string fname = nick + "__performance_benchmark.txt";

    std::ofstream ofile(fname);

    std::cout << "Double Precision\n";

    randomPool<double> symmrpool (POOL_MIN,POOL_MAX,SIZE);
    randomPool<double> asymmrpool (.00001,POOL_MAX,SIZE);
    randomPool<double> mone2onerpool (-1,1,SIZE);
    randomPool<double> expPool (-705,705,SIZE);
    randomPool2D<double> mone2onerpool2D (-1,-1,1,1,SIZE);

    // simple
    std::vector<genfpfcn_tuple<double>> dp_fcns;
    getFunctionTuples(&dp_fcns,symmrpool,asymmrpool,mone2onerpool,expPool);

    std::string funcname;
    for (const auto& dpfcntuple : dp_fcns){
        funcname = std::get<0>(dpfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg<double,genfpfcn_tuple<double>>(dpfcntuple,ofile,REPETITIONS);
    }

    // double precision vectorised -----------------------------------------------

    // Simple
    std::vector<genfpfcnv_tuple<double>> dp_fcnsv;
    getFunctionTuplesvect(&dp_fcnsv,symmrpool,asymmrpool,mone2onerpool,expPool);

    for (const auto& dpfcntuple : dp_fcnsv){
        funcname = std::get<0>(dpfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg<double,genfpfcnv_tuple<double>>(dpfcntuple,ofile,REPETITIONS);
    }

    //------------------------------------------------------------------------------

    // NOW SINGLE PRECISION

    std::cout << "Single Precision\n";

    randomPool<float> symmrpoolf (POOL_MIN,POOL_MAX,SIZE);
    randomPool<float> asymmrpoolf (.00001,POOL_MAX,SIZE);
    randomPool<float> mone2onerpoolf (-1,1,SIZE);
    randomPool<float> expPoolf (-80,80,SIZE);
    randomPool2D<float> mone2onerpool2Df (-1.f,-1.f,1.f,1.f,SIZE);

    // simple
    std::vector<genfpfcn_tuple<float>> sp_fcns;
    getFunctionTuples(&sp_fcns,symmrpoolf,asymmrpoolf,mone2onerpoolf,expPoolf);

    for (const auto& spfcntuple : sp_fcns){
        funcname = std::get<0>(spfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg<float,genfpfcn_tuple<float>>(spfcntuple,ofile,REPETITIONS);
    }

    // single precision vectorised

    // Simple
    std::vector<genfpfcnv_tuple<float>> sp_fcnsv;
    getFunctionTuplesvect(&sp_fcnsv,symmrpoolf,asymmrpoolf,mone2onerpoolf,expPoolf);

    for (const auto& spfcntuple : sp_fcnsv){
        funcname = std::get<0>(spfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg<float,genfpfcnv_tuple<float>>(spfcntuple,ofile,REPETITIONS);
    }

    // 2D
    std::cout << "\n\n Functions with Two Arguments \n";

    // Double Precision
    std::cout << "Double Precision\n";
    std::vector<genfpfcn2D_tuple<double>> dp_fcns2D;
    getFunctionTuples(&dp_fcns2D,mone2onerpool2D);

    for (const auto& dpfcntuple : dp_fcns2D){
        funcname = std::get<0>(dpfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))        
            print_avg2D<double,genfpfcn2D_tuple<double>>(dpfcntuple,ofile,REPETITIONS);
    }

    // Double Precision Array

    std::vector<genfpfcn2Dv_tuple<double>> dp_fcns2Dv;
    getFunctionTuplesvect(&dp_fcns2Dv,mone2onerpool2D);

    for (const auto& dpfcntuple : dp_fcns2Dv){
        funcname = std::get<0>(dpfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))        
            print_avg2D<double,genfpfcn2Dv_tuple<double>>(dpfcntuple,ofile,REPETITIONS);
    }

    // Single Precision
    std::cout << "Single Precision\n";
    std::vector<genfpfcn2D_tuple<float>> sp_fcns2D;
    getFunctionTuples(&sp_fcns2D,mone2onerpool2Df);

    for (const auto& spfcntuple : sp_fcns2D){
        funcname = std::get<0>(spfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg2D<float,genfpfcn2D_tuple<float>>(spfcntuple,ofile,REPETITIONS);
    }


    // Single Precision Array
    std::vector<genfpfcn2Dv_tuple<float>> sp_fcns2Dv;
    getFunctionTuplesvect(&sp_fcns2Dv,mone2onerpool2Df);

    for (const auto& spfcntuple : sp_fcns2Dv){
        funcname = std::get<0>(spfcntuple);
        if (std::regex_match(funcname.begin(), funcname.end(), pattern))
            print_avg2D<float,genfpfcn2Dv_tuple<float>>(spfcntuple,ofile,REPETITIONS);
    }

    ofile.close();
}