// -*- c++ -*-

 #ifndef LEMON_FOR_EACH_MACROS_H

 #define LEMON_FOR_EACH_MACROS_H

 // /// \ingroup gwrappers

 /// \file

 /// \brief Iteration macros.

 ///

 /// This file contains several macros which make easier writting 

 /// for cycles in LEMON using LEMON iterators.

 ///

 /// \author Marton Makai

 namespace lemon {

   /// This macro provides a comfortable interface for iterating with LEMON 

   /// iterators.

   /// \code

   /// Graph g;

   /// ...

   /// Graph::NodeIt n;

   /// h_for_glob(n, g) {

   /// ...

   /// }

   /// Graph::EdgeIt e;

   /// h_for_glob(e, g) {

   /// ...

   /// }

   /// \endcode

   /// Note that the iterated variables \c n and \c e are global ones. 

 #define h_for_glob(e, g) for((g).first((e)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 #define FOR_EACH_GLOB(e, g) for((g).first((e)); (g).valid((e)); (g).next((e)))

   /// This macro provides a comfortable interface for iterating with LEMON 

   /// iterators.

   /// \code

   /// Graph g;

   /// ...

   /// Graph::Node v;

   /// Graph::OutEdgeIt e;

   /// h_for_inc_glob(e, g, v) {

   /// ...

   /// }

   /// typedef BipartiteGraph<Graph> BGraph;

   /// BGraph h;

   /// ...

   /// BGraph::ClassNodeIt n;

   /// h_for_inc_glob(BGraph::ClassNodeIt, n, h, h.S_CLASS) {

   /// ...

   /// }

   /// \endcode

   /// Note that iterated variables \c e and \c n are global ones. 

 #define h_for_inc_glob(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 #define FOR_EACH_INC_GLOB(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 //#define FOR_EACH_EDGE_GLOB(e, g) for((g).first((e)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 //#define FOR_EACH_NODE_GLOB(e, g) for((g).first((e)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 //#define FOR_EACH_INEDGE_GLOB(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 /// \deprecated

 //#define FOR_EACH_OUTEDGE_GLOB(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 //   template<typename It, typename Graph> 

 //   It loopFirst(const Graph& g) const {

 //     It e; g.first(e); return e; 

 //   }

 //   template<typename It, typename Graph> 

 //   It loopFirst(const Graph& g, const Node& v) const {

 //     It e; g.first(e, v); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::NodeIt loopFirstNode(const Graph& g) const {

 //     typename Graph::NodeIt e; g.first(e); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::EdgeIt loopFirstEdge(const Graph& g) const {

 //     typename Graph::EdgeIt e; g.first(e); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::OutEdgeIt 

 //   loopFirstOutEdge(const Graph& g, const Node& n) const {

 //     typename Graph::OutEdgeIt e; g.first(e, n); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::InEdgeIt 

 //   loopFirstIn Edge(const Graph& g, const Node& n) const {

 //     typename Graph::InEdgeIt e; g.first(e, n); return e; 

 //   }

 //FIXME ezt hogy a gorcsbe birja levezetni. Csak ugy leveszi a const-ot??

   template<typename It, typename Graph> 

   It loopFirst(const It&, const Graph& g) {

     It e; g.first(e); return e; 

   }

   template<typename It, typename Graph, typename Node> 

   It loopFirst(const It&, const Graph& g, const Node& v) {

     It e; g.first(e, v); return e; 

   }

 //   template<typename Graph> 

 //   typename Graph::NodeIt loopFirstNode(const Graph& g) const {

 //     typename Graph::NodeIt e; g.first(e); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::EdgeIt loopFirstEdge(const Graph& g) const {

 //     typename Graph::EdgeIt e; g.first(e); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::OutEdgeIt 

 //   loopFirstOutEdge(const Graph& g, const Node& n) const {

 //     typename Graph::OutEdgeIt e; g.first(e, n); return e; 

 //   }

 //   template<typename Graph> 

 //   typename Graph::InEdgeIt 

 //   loopFirstIn Edge(const Graph& g, const Node& n) const {

 //     typename Graph::InEdgeIt e; g.first(e, n); return e; 

 //   }

   /// This macro provides a comfortable interface for iterating with LEMON 

   /// iterators.

   /// \code

   /// Graph g;

   /// ...

   /// h_for(Graph::NodeIt, n, g) {

   /// ...

   /// }

   /// h_for(Graph::EdgeIt, e, g) {

   /// ...

   /// }

   /// \endcode

   /// Note that the iterated variables \c n and \c e are local ones. 

 #define h_for(Ittype, e, g) for(Ittype e=loopFirst(Ittype(), (g)); (g).valid(e); (g).next(e))

 /// \deprecated

 #define FOR_EACH_LOC(Ittype, e, g) for(Ittype e=loopFirst(Ittype(), (g)); (g).valid(e); (g).next(e))

   /// This macro provides a comfortable interface for iterating with LEMON 

   /// iterators.

   /// \code

   /// Graph g;

   /// ...

   /// Graph::Node v;

   /// h_for_inc(Graph::OutEdgeIt, e, g, v) {

   /// ...

   /// }

   /// typedef BipartiteGraph<Graph> BGraph;

   /// BGraph h;

   /// ...

   /// h_for_inc(BGraph::ClassNodeIt, n, h, h.S_CLASS) {

   /// ...

   /// }

   /// \endcode

   /// Note that the iterated variables \c e and \c n are local ones. 

 #define h_for_inc(Ittype, e, g, v) for(Ittype e=loopFirst(Ittype(), (g), (v)); (g).valid(e); (g).next(e))

 /// \deprecated

 #define FOR_EACH_INC_LOC(Ittype, e, g, v) for(Ittype e=loopFirst(Ittype(), (g), (v)); (g).valid(e); (g).next(e))

 // #define FOR_EACH_EDGE_LOC(e, g) ezt nem tom hogy kell for((g).first((e)); (g).valid((e)); (g).next((e)))

 // #define FOR_EACH_NODE_LOC(e, g) for((g).first((e)); (g).valid((e)); (g).next((e)))

 // #define FOR_EACH_INEDGE_LOC(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 // #define FOR_EACH_OUTEDGE_LOC(e, g, v) for((g).first((e), (v)); (g).valid((e)); (g).next((e)))

 } //namespace lemon

 #endif //LEMON_FOR_EACH_MACROS_H