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 // ********************************************************************
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 // * the Geant4 Collaboration.  It is provided  under  the terms  and *
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 // ********************************************************************
 //
 // G4VTHitsVector, G4THitsVector & G4THitsDeque
 //
 // Class description:
 //
 // This is a template class of hits Vector and parametrised by
 // The concrete class of G4VHit. This is a uniform collection for
 // a particular concrete hit class objects.
 // An intermediate layer class G4HitsVector appeared in this
 // header file is used just for G4Allocator, because G4Allocator
 // cannot be instantiated with a template class. Thus G4HitsVector
 // class MUST NOT be directly used by the user.
 //
 // Author: Makoto Asai, Jonathan Madsen
 // --------------------------------------------------------------------
 #ifndef G4THitsVector_h
 #define G4THitsVector_h 1
 
 #include "G4THitsCollection.hh"
 #include "G4THitsMap.hh"
 #include "globals.hh"
 
 #include <deque>
 #include <map>
 #include <unordered_map>
 #include <vector>
 
 template <typename T, typename Vector_t = std::deque<T*>>
 class G4VTHitsVector : public G4HitsCollection
 {
  public:
 
   using this_type = G4VTHitsVector<T, Vector_t>;
   using value_type = T;
   using vector_type = Vector_t;
   using iterator = typename vector_type::iterator;
   using const_iterator = typename vector_type::const_iterator;
 
   using store_type = typename Vector_t::value_type;
   using pair_t = std::pair<G4int, store_type>;
   using map_t = std::map<G4int, store_type>;
   using uomap_t = std::unordered_map<G4int, store_type>;
   using mmap_t = std::multimap<G4int, store_type>;
   using uommap_t = std::unordered_multimap<G4int, store_type>;
 
  private:
 #define is_same_t(_Tp, _Up) std::is_same<_Tp, _Up>::value
 #define is_fundamental_t(_Tp) std::is_fundamental<_Tp>::value
 
 #define is_std_map_t(_Mp) std::is_same<_Mp, map_t>::value
 #define is_std_uomap_t(_Mp) std::is_same<_Mp, uomap_t>::value
 #define is_std_mmap_t(_Mp) std::is_same<_Mp, mmap_t>::value
 #define is_std_uommap_t(_Mp) std::is_same<_Mp, uommap_t>::value
 #define is_map_t(_Mp) \
   (is_std_map_t(_Mp) ||\ is_std_mmap_t(_Mp) || \ is_std_uomap_t(_Mp) || \ is_std_uommap_t(_Mp))
 #define is_pointer_t(_Tp) std::is_pointer<_Tp>::value
 #define scast(_Tp) static_cast<_Tp>
 
   template <G4bool _Bp, typename _Tp = void>
   using enable_if_t = typename std::enable_if<_Bp, _Tp>::type;
 
  public:
 
   // generic constructor
   G4VTHitsVector(G4int init_size = 0);
   // det + collection description constructor
   G4VTHitsVector(const G4String& detName, const G4String& colNam, G4int init_size = 0);
   // destructor
   ~G4VTHitsVector() override;
   // equivalence operator
   G4bool operator==(const this_type& rhs) const;
 
   void DrawAllHits() override;
   void PrintAllHits() override;
   //  These two methods invokes Draw() and Print() methods of all of
   // hit objects stored in this map, respectively.
 
   // Generic iteration
   inline Vector_t* GetContainer() const { return scast(Vector_t*)(theCollection); }
 
   inline typename Vector_t::size_type size() { return GetContainer()->size(); }
 
   inline typename Vector_t::size_type GetIndex(iterator itr) { return std::distance(begin(), itr); }
 
   inline typename Vector_t::size_type GetIndex(const_iterator itr) const
   {
     return std::distance(begin(), itr);
   }
 
   template <typename U = store_type, enable_if_t<(is_pointer_t(U)), G4int> = 0>
   inline T* GetObject(G4int idx) const
   {
     return (idx < (G4int)GetContainer()->size()) ? (*GetContainer())[idx] : nullptr;
   }
 
   template <typename U = store_type, enable_if_t<(is_pointer_t(U)), G4int> = 0>
   inline T* GetObject(iterator itr) const
   {
     return (*itr);
   }
 
   template <typename U = store_type, enable_if_t<(is_pointer_t(U)), G4int> = 0>
   inline const T* GetObject(const_iterator itr) const
   {
     return (*itr);
   }
 
   template <typename U = store_type, enable_if_t<(! is_pointer_t(U)), G4int> = 0>
   inline T* GetObject(G4int idx) const
   {
     return (idx < (G4int)GetContainer()->size()) ? &(*GetContainer())[idx] : nullptr;
   }
 
   template <typename U = store_type, enable_if_t<(! is_pointer_t(U)), G4int> = 0>
   inline T* GetObject(iterator itr) const
   {
     return &(*itr);
   }
 
   template <typename U = store_type, enable_if_t<(! is_pointer_t(U)), G4int> = 0>
   inline const T* GetObject(const_iterator itr) const
   {
     return &(*itr);
   }
 
   iterator begin() { return GetContainer()->begin(); }
   iterator end() { return GetContainer()->end(); }
   const_iterator begin() const { return GetContainer()->begin(); }
   const_iterator end() const { return GetContainer()->end(); }
   const_iterator cbegin() const { return GetContainer()->cbegin(); }
   const_iterator cend() const { return GetContainer()->cend(); }
 
   //  Returns a pointer to a concrete hit object.
   inline Vector_t* GetVector() const { return scast(Vector_t*)(theCollection); }
 
   //  Overwrite a hit object. Total number of hit objects stored in this
   // map is returned.
   inline std::size_t entries() const { return (scast(Vector_t*)(theCollection))->size(); }
 
   //  Returns the number of hit objects stored in this map
   inline void clear();
 
   G4VHit* GetHit(std::size_t) const override { return nullptr; }
   std::size_t GetSize() const override { return (scast(Vector_t*)(theCollection))->size(); }
 
   inline map_t* GetMap() const;
 
   //------------------------------------------------------------------------//
   //  POINTER TYPE
   //------------------------------------------------------------------------//
   // ensure fundamental types are initialized to zero
   template <typename U = T, typename V = store_type,
     enable_if_t<(is_fundamental_t(U) && is_pointer_t(V)), G4int> = 0>
   store_type allocate() const
   {
     return new T(0.);
   }
 
   // non-fundamental types should set values to appropriate values
   // and G4StatDouble stat(0.); stat += 1.0; gives n == 2;
   template <typename U = T, typename V = store_type,
     enable_if_t<(! is_fundamental_t(U) && is_pointer_t(V)), G4int> = 0>
   store_type allocate() const
   {
     return new T();
   }
 
   // ensure fundamental types are initialized to zero
   template <typename U = store_type, enable_if_t<(is_pointer_t(U)), G4int> = 0>
   store_type null() const
   {
     return nullptr;
   }
 
   //------------------------------------------------------------------------//
   //  NON-POINTER TYPE
   //------------------------------------------------------------------------//
   // ensure fundamental types are initialized to zero
   template <typename U = T, typename V = store_type,
     enable_if_t<(is_fundamental_t(U) && ! is_pointer_t(V)), G4int> = 0>
   store_type allocate() const
   {
     return T(0.);
   }
   // non-fundamental types should set values to appropriate values
   // and G4StatDouble stat(0.); stat += 1.0; gives n == 2;
   template <typename U = T, typename V = store_type,
     enable_if_t<(! is_fundamental_t(U) && ! is_pointer_t(V)), G4int> = 0>
   store_type allocate() const
   {
     return T();
   }
 
   // ensure fundamental types are initialized to zero
   template <typename U = store_type, enable_if_t<(! is_pointer_t(U)), G4int> = 0>
   store_type null() const
   {
     return store_type();
   }
 
   //------------------------------------------------------------------------//
   // Generic operator += where add(...) overloads handle various
   //  U and VectorU_t types
   //------------------------------------------------------------------------//
   template <typename U, typename VectorU_t,
     enable_if_t<(is_pointer_t(typename VectorU_t::value_type)), G4int> = 0>
   this_type& operator+=(const G4VTHitsVector<U, VectorU_t>& right) const
   {
     VectorU_t* aHitsVector = right.GetVector();
     for (auto itr = aHitsVector->begin(); itr != aHitsVector->end(); ++itr) {
       auto _ptr = (*itr) ? (*itr) : null();
       if (_ptr) add<U>(std::distance(aHitsVector->begin(), itr), *_ptr);
     }
     return static_cast<this_type&>(*(const_cast<this_type*>(this)));
   }
   //------------------------------------------------------------------------//
   template <typename U, typename VectorU_t,
     enable_if_t<(! is_pointer_t(typename VectorU_t::value_type)), G4int> = 0>
   this_type& operator+=(const G4VTHitsVector<U, VectorU_t>& right) const
   {
     VectorU_t* aHitsVector = right.GetVector();
     for (auto itr = aHitsVector->begin(); itr != aHitsVector->end(); ++itr) {
       auto _ptr = (*itr) ? (*itr) : allocate();
       add<U>(std::distance(aHitsVector->begin(), itr), _ptr);
     }
     return static_cast<this_type&>(*(const_cast<this_type*>(this)));
   }
   //------------------------------------------------------------------------//
   template <typename U, typename MapU_t,
     enable_if_t<(is_pointer_t(typename MapU_t::mapped_type)), G4int> = 0>
   this_type& operator+=(const G4VTHitsMap<U, MapU_t>& right) const
   {
     MapU_t* aHitsMap = right.GetMap();
     for (auto itr = aHitsMap->begin(); itr != aHitsMap->end(); ++itr)
       add<U>(itr->first, *(itr->second));
     return static_cast<this_type&>(*(const_cast<this_type*>(this)));
   }
   //------------------------------------------------------------------------//
   template <typename U, typename MapU_t,
     enable_if_t<! (is_pointer_t(typename MapU_t::mapped_type)), G4int> = 0>
   this_type& operator+=(const G4VTHitsMap<U, MapU_t>& right) const
   {
     MapU_t* aHitsMap = right.GetMap();
     for (auto itr = aHitsMap->begin(); itr != aHitsMap->end(); ++itr)
       add<U>(itr->first, itr->second);
     return static_cast<this_type&>(*(const_cast<this_type*>(this)));
   }
   //------------------------------------------------------------------------//
 
   //------------------------------------------------------------------------//
   //  Insert a hit object. Total number of hit objects stored in this
   //  map is returned.
   //------------------------------------------------------------------------//
   //  Standard vector overload for any type
   //      assumes type T has overload of += operator for U
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<is_same_t(U, T), G4int> = 0>
   std::size_t add(const G4int& key, U*& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     _add(theHitsVector, key, *aHit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
   //  Overload for different types
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<! is_same_t(U, T), G4int> = 0>
   std::size_t add(const G4int& key, U*& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     store_type hit = allocate();
     get_reference(hit) += *aHit;
     _add(theHitsVector, key, *hit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
   //  Overload for same type
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<is_same_t(U, T), G4int> = 0>
   std::size_t add(const G4int& key, U& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     _add(theHitsVector, key, aHit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
   //  Overload for different types
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<! is_same_t(U, T), G4int> = 0>
   std::size_t add(const G4int& key, U& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     _add(theHitsVector, key, aHit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
 
   //------------------------------------------------------------------------//
   //  Set a hit object. Total number of hit objects stored in this
   //  map is returned.
   //------------------------------------------------------------------------//
   //  Overload for same type T
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<is_same_t(U, T), G4int> = 0>
   inline std::size_t set(const G4int& key, U*& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     _assign(theHitsVector, key, aHit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
   //  Overload for different types
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<! is_same_t(U, T), G4int> = 0>
   inline std::size_t set(const G4int& key, U*& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     store_type hit = allocate();
     get_reference(hit) += *aHit;
     _assign(theHitsVector, key, hit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
 
   //------------------------------------------------------------------------//
   //  Set a hit object. Total number of hit objects stored in this
   //  map is returned.
   //------------------------------------------------------------------------//
   //  Overload for same type T
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<is_same_t(U, T), G4int> = 0>
   inline std::size_t set(const G4int& key, U& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     _assign(theHitsVector, key, &aHit);
     return theHitsVector->size();
   }
   //------------------------------------------------------------------------//
   //  Overload for different types
   //------------------------------------------------------------------------//
   template <typename U = T, enable_if_t<! is_same_t(U, T), G4int> = 0>
   inline std::size_t set(const G4int& key, U& aHit) const
   {
     vector_type* theHitsVector = GetVector(key);
     store_type hit = allocate();
     get_reference(hit) += aHit;
     _assign(theHitsVector, key, &aHit);
     return theHitsVector->size();
   }
 
   //------------------------------------------------------------------------//
   T* at(G4int key) const
   {
     vector_type* theHitsVector = GetVector();
     resize(theHitsVector, key);
     return &get_reference((*theHitsVector)[key]);
   }
   //------------------------------------------------------------------------//
   T* operator[](G4int key) const
   {
     vector_type* theHitsVector = GetVector();
     resize(theHitsVector, key);
     return &get_reference((*theHitsVector)[key]);
   }
   //------------------------------------------------------------------------//
 
  protected:
 
   template <typename U = store_type, enable_if_t<(is_pointer_t(U)), G4int> = 0>
   void resize(vector_type*& theHitsVector, const G4int& key) const
   {
     // ensure the proper size
     if (key >= (G4int)theHitsVector->size()) theHitsVector->resize(key + 1, null());
 
     // if null pointer for vector entry: allocate
     if (! theHitsVector->at(key)) {
       store_type init = allocate();
       _assign(theHitsVector, key, init);
     }
   }
 
   template <typename U = store_type, enable_if_t<(! is_pointer_t(U)), G4int> = 0>
   void resize(vector_type*& theHitsVector, const G4int& key) const
   {
     // ensure the proper size
     if (key >= (G4int)theHitsVector->size()) theHitsVector->resize(key + 1, null());
   }
 
   vector_type* GetVector(const G4int& key) const
   {
     vector_type* theHitsVector = GetVector();
     resize(theHitsVector, key);
     return theHitsVector;
   }
 
   //------------------------------------------------------------------------//
   //  Assign/Add when the storage type is pointer
   //      assumes type T has overload of += operator for U
   //------------------------------------------------------------------------//
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _assign(vector_type*& theHitsVector, const G4int& key, T& val) const
   {
     delete (*theHitsVector)[key];
     *(*theHitsVector)[key] = val;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _assign(vector_type*& theHitsVector, const G4int& key, T*& val) const
   {
     delete (*theHitsVector)[key];
     (*theHitsVector)[key] = val;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, T& val) const
   {
     *(*theHitsVector)[key] += val;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, T*& val) const
   {
     *(*theHitsVector)[key] += *val;
   }
 
   template <typename V, typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, V& val) const
   {
     *(*theHitsVector)[key] += val;
   }
 
   template <typename V, typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, V*& val) const
   {
     *(*theHitsVector)[key] += *val;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   T& get(U& val) const
   {
     return *val;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   void delete_contents(vector_type*& theHitsVector) const
   {
     for (auto itr = theHitsVector->begin(); itr != theHitsVector->end(); ++itr)
       delete *itr;
   }
 
   template <typename U = store_type, enable_if_t<is_pointer_t(U), G4int> = 0>
   T& get_reference(U& val) const
   {
     return *val;
   }
 
   //------------------------------------------------------------------------//
   //  Assign/Add when the storage type is pointer
   //      assumes type T has overload of += operator for U
   //------------------------------------------------------------------------//
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _assign(vector_type*& theHitsVector, const G4int& key, T& val) const
   {
     (*theHitsVector)[key] = val;
   }
 
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _assign(vector_type*& theHitsVector, const G4int& key, T*& val) const
   {
     delete (*theHitsVector)[key];
     (*theHitsVector)[key] = *val;
   }
 
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, T& val) const
   {
     (*theHitsVector)[key] += val;
   }
 
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, T*& val) const
   {
     (*theHitsVector)[key] += *val;
   }
 
   template <typename V, typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, V& val) const
   {
     (*theHitsVector)[key] += val;
   }
 
   template <typename V, typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void _add(vector_type*& theHitsVector, const G4int& key, V*& val) const
   {
     (*theHitsVector)[key] += *val;
   }
 
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   void delete_contents(vector_type*&) const
   {}
 
   template <typename U = store_type, enable_if_t<! is_pointer_t(U), G4int> = 0>
   T& get_reference(U& val) const
   {
     return val;
   }
 
 #undef is_same_t
 #undef is_fundamental_t
 #undef is_std_map_t
 #undef is_std_mmap_t
 #undef is_std_uomap_t
 #undef is_std_uommap_t
 #undef is_map_t
 #undef is_pointer_t
 #undef scast
 };
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 G4VTHitsVector<T, Vector_t>::G4VTHitsVector(G4int init_size)
 {
   theCollection = static_cast<void*>(new Vector_t);
   if (init_size > 0) {
     vector_type* theHitsVector = GetVector();
     resize(theHitsVector, init_size - 1);
   }
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 G4VTHitsVector<T, Vector_t>::G4VTHitsVector(const G4String& detName, const G4String& colNam, G4int init_size)
   : G4HitsCollection(detName, colNam)
 {
   theCollection = static_cast<void*>(new Vector_t);
   if (init_size > 0) {
     vector_type* theHitsVector = GetVector();
     resize(theHitsVector, init_size - 1);
   }
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 G4VTHitsVector<T, Vector_t>::~G4VTHitsVector()
 {
   vector_type* theHitsVector = GetVector();
   delete_contents(theHitsVector);
   delete theHitsVector;
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 G4bool G4VTHitsVector<T, Vector_t>::operator==(const G4VTHitsVector<T, Vector_t>& right) const
 {
   return (collectionName == right.collectionName);
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 typename G4VTHitsVector<T, Vector_t>::map_t* G4VTHitsVector<T, Vector_t>::GetMap() const
 {
   G4ThreadLocalStatic auto theHitsMap = new map_t();
   theHitsMap->clear();
   vector_type* theHitsVector = GetVector();
   for (std::size_t i = 0; i < theHitsVector->size(); ++i) {
     store_type& _obj = (*theHitsVector)[i];
     if (_obj) (*theHitsMap)[i] = _obj;
   }
   return theHitsMap;
 }
 //============================================================================//
 
 template <typename T, typename Vector_t>
 void G4VTHitsVector<T, Vector_t>::DrawAllHits()
 {
   ;
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 void G4VTHitsVector<T, Vector_t>::PrintAllHits()
 {
   G4cout << "G4THitsVector " << SDname << " / " << collectionName << " --- " << entries()
          << " entries" << G4endl;
   /*----- commented out for the use-case where <T> cannot be initialized
           to be zero or does not support += operator.
    Vector_t * theHitsVector = GetVector();
    typename Vector_t::iterator itr = theHitsVector->begin();
    T sum = 0.;
    for(; itr != theHitsVector->end(); ++itr) {
     G4cout << "  " << itr->first << " : "
            << *(itr->second) << G4endl;
     sum += *(itr->second);
    }
    G4cout << "             Total : " << sum << G4endl;
   ----------------------------------------------------------------------*/
 }
 
 //============================================================================//
 
 template <typename T, typename Vector_t>
 void G4VTHitsVector<T, Vector_t>::clear()
 {
   vector_type* theHitsVector = GetVector();
   delete_contents(theHitsVector);
   theHitsVector->clear();
 }
 
 //============================================================================//
 //                                                                            //
 //                                                                            //
 //                      Helpers for different map types                       //
 //                                                                            //
 //                                                                            //
 //============================================================================//
 
 template <typename _Tp>
 class G4THitsVector : public G4VTHitsVector<_Tp, std::vector<_Tp*>>
 {
  public:
   using parent_type = G4VTHitsVector<_Tp, std::vector<_Tp *>>;
 
  public:
   G4THitsVector(G4int init_size = 0) : parent_type(init_size) {}
   G4THitsVector(const G4String& detName, const G4String& colName, G4int init_size = 0)
     : parent_type(detName, colName, init_size)
   {}
 
   using parent_type::operator+=;
   using parent_type::operator==;
   using parent_type::operator[];
   using parent_type::add;
   using parent_type::begin;
   using parent_type::cbegin;
   using parent_type::cend;
   using parent_type::clear;
   using parent_type::DrawAllHits;
   using parent_type::end;
   using parent_type::entries;
   using parent_type::GetHit;
   using parent_type::GetMap;
   using parent_type::GetSize;
   using parent_type::GetVector;
   using parent_type::PrintAllHits;
   using parent_type::set;
 };
 
 //============================================================================//
 
 template <typename _Tp>
 class G4THitsDeque : public G4VTHitsVector<_Tp, std::deque<_Tp*>>
 {
  public:
   using parent_type = G4VTHitsVector<_Tp, std::deque<_Tp*>>;
 
  public:
   G4THitsDeque(G4int init_size = 0) : parent_type(init_size) {}
   G4THitsDeque(const G4String& detName, const G4String& colName, G4int init_size = 0)
     : parent_type(detName, colName, init_size)
   {}
 
   using parent_type::operator+=;
   using parent_type::operator==;
   using parent_type::operator[];
   using parent_type::add;
   using parent_type::begin;
   using parent_type::cbegin;
   using parent_type::cend;
   using parent_type::clear;
   using parent_type::DrawAllHits;
   using parent_type::end;
   using parent_type::entries;
   using parent_type::GetHit;
   using parent_type::GetMap;
   using parent_type::GetSize;
   using parent_type::GetVector;
   using parent_type::PrintAllHits;
   using parent_type::set;
 };
 
 //============================================================================//
 
 #endif

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