egs_dose_scoring.h

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/*
###############################################################################
#
#  EGSnrc egs++ dose scoring object headers
#  Copyright (C) 2015 National Research Council Canada
#
#  This file is part of EGSnrc.
#
#  EGSnrc is free software: you can redistribute it and/or modify it under
#  the terms of the GNU Affero General Public License as published by the
#  Free Software Foundation, either version 3 of the License, or (at your
#  option) any later version.
#
#  EGSnrc is distributed in the hope that it will be useful, but WITHOUT ANY
#  WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS
#  FOR A PARTICULAR PURPOSE.  See the GNU Affero General Public License for
#  more details.
#
#  You should have received a copy of the GNU Affero General Public License
#  along with EGSnrc. If not, see <http://www.gnu.org/licenses/>.
#
###############################################################################
#
#  Author:          Ernesto Mainegra-Hing, 2012
#
#  Contributors:    Reid Townson
#                   Blake Walters
#                   Max Orok
#                   Martin Martinov
#
###############################################################################
#
#  A general dose calculation tool. Since it is outside the scope of the
#  EGS_Application class, a few utility methods are needed in EGS_Application
#  to retrieve information regarding media, geometry and source.
#
#  Dose is output for each dose region without any spacial information. For a
#  more detailed dose scoring grid it is better to create a user code which
#  could produce 3D dose distributions and graph data.
#
#  Can be used in any C++ user code by entering the proper input block in
#  the ausgab object definition block.
#
#  Prints out dose in each dose scoring region.
#
#  Dose scoring regions can be defined by input using one the following
#  syntax for individual regions:
#
#  :start ausgab object definition:
#      :start ausgab object:
#          library      = egs_dose_scoring
#          name         = some_name
#          volume       = V0  V1 ... Vn
#          dose regions = IR0 IR1 ... IRn
#      :stop ausgab object:
#  :stop ausgab object definition:
#
#  or by groups of consecutive regions:
#
#  :start ausgab object definition:
#      :start ausgab object:
#          library           = egs_dose_scoring
#          name              = some_name
#          volume            = V0 V1 ... Vn
#          dose start region = IRI_0 ... IRI_N
#          dose stop region  = IRE_0 ... IRE_N
#      :stop ausgab object:
#  :stop ausgab object definition:
#
#  where one can have same number of volume entries as group of regions (n=N)
#  or same number of volume entries as number of individual regions. If there
#  are more dose scoring regions than volume entries, a default volume is use for
#  those regions without volume information. This default can be either the first
#  volume entry or 1 g/cm3.
#
#  TODO:
#
#  - Classify dose as contributed by primary or scattered particles
#  - Custom classification using latch
#  - Dose to medium calculation
#
###############################################################################
*/
 
 
#ifndef EGS_DOSE_SCORING_
#define EGS_DOSE_SCORING_
 
#include "egs_ausgab_object.h"
#include "egs_application.h"
#include "egs_scoring.h"
#include "egs_base_geometry.h"
 
#ifdef WIN32
 
    #ifdef BUILD_DOSE_SCORING_DLL
        #define EGS_DOSE_SCORING_EXPORT __declspec(dllexport)
    #else
        #define EGS_DOSE_SCORING_EXPORT __declspec(dllimport)
    #endif
    #define EGS_DOSE_SCORING_LOCAL
 
#else
 
    #ifdef HAVE_VISIBILITY
        #define EGS_DOSE_SCORING_EXPORT __attribute__ ((visibility ("default")))
        #define EGS_DOSE_SCORING_LOCAL  __attribute__ ((visibility ("hidden")))
    #else
        #define EGS_DOSE_SCORING_EXPORT
        #define EGS_DOSE_SCORING_LOCAL
    #endif
 
#endif
 
class EGS_DOSE_SCORING_EXPORT EGS_DoseScoring : public EGS_AusgabObject {
 
public:
 
    EGS_DoseScoring(const string &Name="", EGS_ObjectFactory *f = 0);
 
    ~EGS_DoseScoring();
 
    int processEvent(EGS_Application::AusgabCall iarg) {
 
        int ir = app->top_p.ir, imed = ir>=0 ? app->getMedium(ir):-1;
        EGS_Float edep = app->getEdep();
 
        /**** energy deposition in a medium ***/
        if (iarg <= 4 && imed >= 0 && edep > 0 && doseM) {
            doseM->score(imed, edep*app->top_p.wt);
        }
 
        //score in file array if requested
        if (ir >=0 && doseF && iarg <=4 && df_reg[ir] >= 0 && edep) {
            doseF->score(df_reg[ir], edep*app->top_p.wt);
        }
 
        /*** Check if scoring in current region ***/
        if (ir >= 0 && dose) {
            if (d_reg_index[ir]<0) {
                return 0;
            }
        }
 
        /**** energy deposition in current region ***/
        if (iarg <= 4 && ir >= 0 && edep > 0 && dose) {
            dose->score(d_reg_index[ir], edep*app->top_p.wt);
        }
        return 0;
    };
 
    int processEvent(EGS_Application::AusgabCall iarg, int ir) {
 
        if (ir == -1) {
            ir = app->top_p.ir;
        }
 
        int imed = ir>=0 ? app->getMedium(ir):-1;
        EGS_Float edep = app->getEdep();
 
        /**** energy deposition in a medium ***/
        if (iarg <= 4 && imed >= 0 && edep > 0 && doseM) {
            doseM->score(imed, edep*app->top_p.wt);
        }
 
        //score in file array if requested
        if (ir >= 0 && doseF && iarg <=4 && df_reg[ir] >= 0 && edep) {
            doseF->score(df_reg[ir], edep*app->top_p.wt);
        }
 
        /*** Check if scoring in current region ***/
        if (ir >= 0 && dose) {
            if (d_reg_index[ir]<0) {
                return 0;
            }
        }
 
        /**** energy deposition in current region ***/
        if (iarg <= 4 && ir >= 0 && edep > 0 && dose) {
            dose->score(d_reg_index[ir], edep*app->top_p.wt);
        }
        return 0;
    };
 
    bool needsCall(EGS_Application::AusgabCall iarg) const {
        if (iarg <= 4) {
            return true;
        }
        else {
            return false;
        }
    };
 
    void setApplication(EGS_Application *App);
 
    void getNumberRegions(const string &str, vector<int> &regs);
 
    void getLabelRegions(const string &str, vector<int> &regs);
 
    void reportResults();
 
    void setCurrentCase(EGS_I64 ncase) {
        if (ncase != m_lastCase) {
            m_lastCase = ncase;
            if (dose) {
                dose->setHistory(ncase);
            }
            if (doseM) {
                doseM->setHistory(ncase);
            }
            if (doseF) {
                doseF->setHistory(ncase);
            }
        }
    };
    int getDigits(int i) {
        int imax = 10;
        while (i>=imax) {
            imax*=10;
        }
        return (int)log10((float)imax);
    };
 
    EGS_Float getRealRho(int ireg) {
        int med = dose_geom->medium(ireg);
        return dose_geom->getRelativeRho(ireg)*app->getMediumRho(med);
    }
 
    void setVol(const vector<EGS_Float> volin) {
        vol_list=volin;
    };
    void setVol(const EGS_Float volin) {
        vol_list.push_back(volin);
    };
    void setDoseRegions(const vector <int> d_reg) {
        d_region=d_reg;
    };
    void setDoseRegions(const string d_reg) {
        d_regionString=d_reg;
    };
    void setMediumScoring(bool flag) {
        score_medium_dose=flag;
    };
    void setRegionScoring(bool flag) {
        score_region_dose=flag;
    };
    void setOutputFile(bool flag, EGS_BaseGeometry *dgeom, int ftype) {
        output_dose_file=flag;
        dose_geom= dgeom;
        file_type = ftype;
    };
    bool getOutputFile(EGS_BaseGeometry *&dgeom, int &ftype) {
        dgeom = dose_geom;
        ftype = file_type;
        return output_dose_file;
    };
    void setUserNorm(const EGS_Float &normi) {
        norm_u=normi;
    };
    void outputDoseFile(const EGS_Float &normD);
 
    bool storeState(ostream &data) const;
    bool setState(istream &data);
    void resetCounter();
    bool addState(istream &data);
    int addTheStates(istream &data);
 
protected:
 
    EGS_ScoringArray *dose;  
    EGS_ScoringArray *doseM;  
    vector <EGS_Float>  vol_list; // Input list of region volumes
    vector <int> d_region;        // Input list of dose scoring regions  d_reg[i] = ir
    string d_regionString;
    vector <int> d_reg_index;     // list index for dose scoring regions d_reg_index[ir]= 0..d_reg.size()-1
    vector <EGS_Float>  vol;      // geometrical region volumes
    EGS_Float norm_u;
    int nreg,     // number of regions in the geometry
        nmedia;   // number of media in the input file
    int max_dreg, // maximum dose region number
        max_medl; // maximum medium name length
    EGS_I64    m_lastCase;   
    bool score_medium_dose,
         score_region_dose;
 
    EGS_BaseGeometry *dose_geom; //EGS_XYZGeometry for which to output dose to file
    EGS_ScoringArray *doseF;  
    vector<int> df_reg; //array mapping global reg. no. onto reg. no. in EGS_XYZGeometry
    bool output_dose_file; //set to true if outputting a dose file
    int file_type;           //output file type--currently only .3ddose (file_type=0) supported
    string df_name;          //output file name--put here for convenience sake
};
 
#endif