G4AtomicTransitionManager.cc

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// $Id: G4AtomicTransitionManager.cc,v 1.2 ????
// GEANT4 tag $Name: not supported by cvs2svn $
//
// Authors: Elena Guardincerri ([email protected])
//          Alfonso Mantero ([email protected])
//
// History:
// -----------
// 16 Sep 2001 E. Guardincerri  First Committed to cvs
//
// -------------------------------------------------------------------
 
#include "G4AtomicTransitionManager.hh"
 
G4AtomicTransitionManager::G4AtomicTransitionManager(G4int minZ, G4int maxZ, 
  G4int limitInfTable,G4int limitSupTable)
  :zMin(minZ), 
  zMax(maxZ),
  infTableLimit(limitInfTable),
  supTableLimit(limitSupTable)
{
  // infTableLimit is initialized to 6 because EADL lacks data for Z<=5
  G4ShellData* shellManager = new G4ShellData;
 
  // initialization of the data for auger effect
  
  augerData = new G4AugerData;
 
  shellManager->LoadData("/fluor/binding");
  
  // Fills shellTable with the data from EADL, identities and binding 
  // energies of shells
  for (G4int Z = zMin; Z<= zMax; Z++)
    {
      std::vector<G4AtomicShell*> vectorOfShells;  
      size_t shellIndex = 0; 
 
      size_t numberOfShells=shellManager->NumberOfShells(Z);
      for (shellIndex = 0; shellIndex<numberOfShells; shellIndex++) 
    { 
      G4int shellId = shellManager->ShellId(Z,shellIndex);
      G4double bindingEnergy = shellManager->BindingEnergy(Z,shellIndex);
     
      G4AtomicShell * shell = new G4AtomicShell(shellId,bindingEnergy);
    
      vectorOfShells.push_back(shell);
    }
    
      //     shellTable.insert(std::make_pair(Z, vectorOfShells));
      shellTable[Z] = vectorOfShells;
    }
  
  // Fills transitionTable with the data from EADL, identities, transition 
  // energies and transition probabilities
  for (G4int Znum= infTableLimit; Znum<=supTableLimit; Znum++)
    {  G4FluoData* fluoManager = new G4FluoData;
    std::vector<G4FluoTransition*> vectorOfTransitions;
    fluoManager->LoadData(Znum);
    
    size_t numberOfVacancies = fluoManager-> NumberOfVacancies();
    
    for (size_t vacancyIndex = 0; vacancyIndex<numberOfVacancies;  vacancyIndex++)
      
      {
    std::vector<G4int>  vectorOfIds;
    G4DataVector vectorOfEnergies;
    G4DataVector vectorOfProbabilities;
    
    G4int finalShell = fluoManager->VacancyId(vacancyIndex);
    size_t numberOfTransitions = fluoManager->NumberOfTransitions(vacancyIndex);
    for (size_t origShellIndex = 0; origShellIndex < numberOfTransitions;
         origShellIndex++)
        
      {
        
        G4int originatingShellId = fluoManager->StartShellId(origShellIndex,vacancyIndex);
        
        vectorOfIds.push_back(originatingShellId);
        
        G4double transitionEnergy = fluoManager->StartShellEnergy(origShellIndex,vacancyIndex);
        vectorOfEnergies.push_back(transitionEnergy);
        G4double transitionProbability = fluoManager->StartShellProb(origShellIndex,vacancyIndex);
        vectorOfProbabilities.push_back(transitionProbability);
      }
      G4FluoTransition * transition = new G4FluoTransition (finalShell,vectorOfIds,
                                    vectorOfEnergies,vectorOfProbabilities);
      vectorOfTransitions.push_back(transition); 
      }
    //      transitionTable.insert(std::make_pair(Znum, vectorOfTransitions));
    transitionTable[Znum] = vectorOfTransitions;
      
      delete fluoManager;
    }
  delete shellManager;
}
 
G4AtomicTransitionManager::~G4AtomicTransitionManager()
  
{ 
 
  delete augerData;
 
std::map<G4int,std::vector<G4AtomicShell*>,std::less<G4int> >::iterator pos;
 
 for (pos = shellTable.begin(); pos != shellTable.end(); pos++){
   
   std::vector< G4AtomicShell*>vec = (*pos).second;
   
   G4int vecSize=vec.size();
   
   for (G4int i=0; i< vecSize; i++){
     G4AtomicShell* shell = vec[i];
     delete shell;     
   }
   
 }
 
 std::map<G4int,std::vector<G4FluoTransition*>,std::less<G4int> >::iterator ppos;
 
 for (ppos = transitionTable.begin(); ppos != transitionTable.end(); ppos++){
   
   std::vector<G4FluoTransition*>vec = (*ppos).second;
   
   G4int vecSize=vec.size();
   
   for (G4int i=0; i< vecSize; i++){
     G4FluoTransition* transition = vec[i];
     delete transition;      
   }
   
 }   
 
}
 
G4AtomicTransitionManager* G4AtomicTransitionManager::instance = 0;
 
G4AtomicTransitionManager* G4AtomicTransitionManager::Instance()
{
  if (instance == 0)
    {
      instance = new G4AtomicTransitionManager;
     
    }
  return instance;
}
 
 
G4AtomicShell* G4AtomicTransitionManager::Shell(G4int Z, size_t shellIndex) const
{ 
  std::map<G4int,std::vector<G4AtomicShell*>,std::less<G4int> >::const_iterator pos;
  
  pos = shellTable.find(Z);
  
  if (pos!= shellTable.end())
    {
      std::vector<G4AtomicShell*> v = (*pos).second;
      if (shellIndex<v.size())
    {
      return(v[shellIndex]);
    }
      else 
    {
      size_t lastShell = v.size();
      G4cout << "G4AtomicTransitionManager::Shell - Z = " 
         << Z << ", shellIndex = " << shellIndex 
         << " not found; number of shells = " << lastShell << G4endl;
      //  G4Exception("G4AtomicTransitionManager:shell not found");
      if (lastShell > 0)
        {
          return v[lastShell - 1];
        }
      else
        {       
          return 0;
        }
    }
    }
  else
    {
      G4Exception("G4AtomicTransitionManager::Shell()","de0001",FatalErrorInArgument,"Z not found");
      return 0;
    } 
}
 
// This function gives, upon Z and the Index of the initial shell where te vacancy is, 
// the radiative transition that can happen (originating shell, energy, probability)
 
const G4FluoTransition* G4AtomicTransitionManager::ReachableShell(G4int Z,size_t shellIndex) const
{
  std::map<G4int,std::vector<G4FluoTransition*>,std::less<G4int> >::const_iterator pos;
  pos = transitionTable.find(Z);
  if (pos!= transitionTable.end())
    {
      std::vector<G4FluoTransition*> v = (*pos).second;      
      if (shellIndex < v.size()) return(v[shellIndex]);
      else {
    G4Exception("G4AtomicTransitionManager::ReachebleShell()","de0002", JustWarning,"Energy Deposited Locally.");
    return 0;
      }
  }
  else{
    //    G4cout << "G4AtomicTransitionMagare warning: No fluorescence or Auger for Z=" << Z << G4endl;
    //    G4cout << "Absorbed enrgy deposited locally" << G4endl;
 
    //    G4String pippo = (G4String(Z));
 
    G4String msg = "No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.";
 
    G4Exception("G4AtomicTransitionManager::ReachableShell()","de0001",JustWarning,msg);
    //"No deexcitation for Z=" + (G4String(Z))+". Energy Deposited Locally.");
    return 0;
  } 
}
 
const G4AugerTransition* G4AtomicTransitionManager::ReachableAugerShell(G4int Z, G4int vacancyShellIndex) const
{
  
  G4AugerTransition* augerTransition = augerData->GetAugerTransition(Z,vacancyShellIndex);
  return augerTransition;
}
 
 
 
G4int G4AtomicTransitionManager::NumberOfShells (G4int Z) const
{
 
std::map<G4int,std::vector<G4AtomicShell*>,std::less<G4int> >::const_iterator pos;
 
  pos = shellTable.find(Z);
 
  if (pos!= shellTable.end()){
 
    std::vector<G4AtomicShell*> v = (*pos).second;
 
    return v.size();
  }
 
  else{
    //    G4cout << "G4AtomicTransitionMagare warning: No fluorescence or Auger for Z=" << Z << G4endl;
    //    G4cout << "Absorbed enrgy deposited locally" << G4endl;
 
    G4String msg = "No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.";
 
    G4Exception("G4AtomicTransitionManager::NumberOfShells()","de0001",JustWarning,msg);
 
    //"No deexcitation for Z=" + (G4String(Z))+". Energy Deposited Locally.");
 
    return 0;
  } 
}
 
// This function returns the number of possible radiative transitions for the atom with atomic number Z
// i.e. the number of shell in wich a vacancy can be filled with a radiative transition 
 
G4int G4AtomicTransitionManager::NumberOfReachableShells(G4int Z) const
{
std::map<G4int,std::vector<G4FluoTransition*>,std::less<G4int> >::const_iterator pos;
 
  pos = transitionTable.find(Z);
 
  if (pos!= transitionTable.end())
    {
      std::vector<G4FluoTransition*> v = (*pos).second;
      return v.size();
    }
  else
    {
      //      G4cout << "G4AtomicTransitionMagare warning: No fluorescence or Auger for Z=" << Z << G4endl;
      //      G4cout << "Absorbed enrgy deposited locally" << G4endl;
      
      G4String msg = "No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.";
 
      G4Exception("G4AtomicTransitionManager::NumberOfReachebleShells()","de0001",JustWarning,msg);
 
      //"No deexcitation for Z=" + (G4String(Z))+". Energy Deposited Locally.");
 
      return 0;
    } 
}
 
// This function returns the number of possible NON-radiative transitions for the atom with atomic number Z
// i.e. the number of shell in wich a vacancy can be filled with a NON-radiative transition 
 
G4int G4AtomicTransitionManager::NumberOfReachableAugerShells(G4int Z)const 
{
  G4int n = augerData->NumberOfVacancies(Z);
  return n;
}
 
 
 
G4double G4AtomicTransitionManager::TotalRadiativeTransitionProbability(G4int Z, 
                                    size_t shellIndex)
 
{
std::map<G4int,std::vector<G4FluoTransition*>,std::less<G4int> >::iterator pos;
 
  pos = transitionTable.find(Z);
 
  if (pos!= transitionTable.end())
    {
      std::vector<G4FluoTransition*> v = (*pos).second;
      
    if (shellIndex < v.size())
      {
    G4FluoTransition* transition = v[shellIndex];
    G4DataVector transProb = transition->TransitionProbabilities();
    G4double totalRadTransProb = 0;
    
    for (size_t j = 0; j<transProb.size(); j++) // AM -- corrected, it was 1
    {
      totalRadTransProb = totalRadTransProb + transProb[j];
    }
      return totalRadTransProb;   
      
    }
    else {
 
      G4Exception("G4AtomicTransitionManager::TotalRadiativeTransitionProbability()","de0002", JustWarning,"Energy Deposited Locally.");
      return 0;
      
    }
  }
  else{
    //G4cout << "G4AtomicTransitionMagare warning: No fluorescence or Auger for Z=" << Z << G4endl;
    //G4cout << "Absorbed enrgy deposited locally" << G4endl;
    
    G4String msg = "No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.";
 
    G4Exception("G4AtomicTransitionManager::TotalRadiativeTransitionProbability()","de0001",JustWarning,msg);
    //"No deexcitation for Z=" + (G4String(Z))+". Energy Deposited Locally.");
 
 
    return 0;
  } 
}
 
G4double G4AtomicTransitionManager::TotalNonRadiativeTransitionProbability(G4int Z, size_t shellIndex)
 
{
 
  std::map<G4int,std::vector<G4FluoTransition*>,std::less<G4int> >::iterator pos;
  
  pos = transitionTable.find(Z);
  
  if (pos!= transitionTable.end()){
    
    std::vector<G4FluoTransition*> v = (*pos).second;
  
    
    if (shellIndex<v.size()){
 
      G4FluoTransition* transition=v[shellIndex];
      G4DataVector transProb = transition->TransitionProbabilities();
      G4double totalRadTransProb = 0;
      
      for(size_t j = 0; j<transProb.size(); j++) // AM -- Corrected, was 1
    {
      totalRadTransProb = totalRadTransProb + transProb[j];
    }
      
      if (totalRadTransProb > 1) {
    G4Exception( "G4AtomicTransitionManager::TotalNonRadiativeTransitionProbability()","de0003",FatalException,"Total probability mismatch");
      return 0;
}
      G4double totalNonRadTransProb= (1 - totalRadTransProb);
      
      return totalNonRadTransProb;    }
    
    else {
 
G4Exception("G4AtomicTransitionManager::TotalNonRadiativeTransitionProbability()","de0002", JustWarning,"Energy Deposited Locally.");
 
      return 0;
    }
  }
  else{
    //    G4cout << "G4AtomicTransitionMagare warning: No fluorescence or Auger for Z=" << Z << G4endl;
    //    G4cout << "Absorbed enrgy deposited locally" << G4endl;
 
    G4String msg = "No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.";
 
    G4Exception("G4AtomicTransitionManager::TotalNonRadiativeTransitionProbability()","de0001",JustWarning,msg);
 
//"No deexcitation for Z=" + (G4String(Z))+ ". Energy Deposited Locally.");
 
    return 0;
  } 
}