diff -r d8475431bbbb -r 8e85e6bbefdf src/lemon/suurballe.h
--- a/src/lemon/suurballe.h	Sat May 21 21:04:57 2005 +0000
+++ /dev/null	Thu Jan 01 00:00:00 1970 +0000
@@ -1,209 +0,0 @@
-/* -*- C++ -*-
- * src/lemon/suurballe.h - Part of LEMON, a generic C++ optimization library
- *
- * Copyright (C) 2005 Egervary Jeno Kombinatorikus Optimalizalasi Kutatocsoport
- * (Egervary Research Group on Combinatorial Optimization, EGRES).
- *
- * Permission to use, modify and distribute this software is granted
- * provided that this copyright notice appears in all copies. For
- * precise terms see the accompanying LICENSE file.
- *
- * This software is provided "AS IS" with no warranty of any kind,
- * express or implied, and with no claim as to its suitability for any
- * purpose.
- *
- */
-
-#ifndef LEMON_SUURBALLE_H
-#define LEMON_SUURBALLE_H
-
-///\ingroup flowalgs
-///\file
-///\brief An algorithm for finding k paths of minimal total length.
-
-
-#include <lemon/maps.h>
-#include <vector>
-#include <lemon/min_cost_flow.h>
-
-namespace lemon {
-
-/// \addtogroup flowalgs
-/// @{
-
-  ///\brief Implementation of an algorithm for finding k edge-disjoint paths between 2 nodes 
-  /// of minimal total length 
-  ///
-  /// The class \ref lemon::Suurballe implements
-  /// an algorithm for finding k edge-disjoint paths
-  /// from a given source node to a given target node in an
-  /// edge-weighted directed graph having minimal total weight (length).
-  ///
-  ///\warning Length values should be nonnegative.
-  /// 
-  ///\param Graph The directed graph type the algorithm runs on.
-  ///\param LengthMap The type of the length map (values should be nonnegative).
-  ///
-  ///\note It it questionable whether it is correct to call this method after
-  ///%Suurballe for it is just a special case of Edmonds' and Karp's algorithm
-  ///for finding minimum cost flows. In fact, this implementation just
-  ///wraps the MinCostFlow algorithms. The paper of both %Suurballe and
-  ///Edmonds-Karp published in 1972, therefore it is possibly right to
-  ///state that they are
-  ///independent results. Most frequently this special case is referred as
-  ///%Suurballe method in the literature, especially in communication
-  ///network context.
-  ///\author Attila Bernath
-  template <typename Graph, typename LengthMap>
-  class Suurballe{
-
-
-    typedef typename LengthMap::Value Length;
-    
-    typedef typename Graph::Node Node;
-    typedef typename Graph::NodeIt NodeIt;
-    typedef typename Graph::Edge Edge;
-    typedef typename Graph::OutEdgeIt OutEdgeIt;
-    typedef typename Graph::template EdgeMap<int> EdgeIntMap;
-
-    typedef ConstMap<Edge,int> ConstMap;
-
-    const Graph& G;
-
-    Node s;
-    Node t;
-
-    //Auxiliary variables
-    //This is the capacity map for the mincostflow problem
-    ConstMap const1map;
-    //This MinCostFlow instance will actually solve the problem
-    MinCostFlow<Graph, LengthMap, ConstMap> min_cost_flow;
-
-    //Container to store found paths
-    std::vector< std::vector<Edge> > paths;
-
-  public :
-
-
-    /*! \brief The constructor of the class.
-    
-    \param _G The directed graph the algorithm runs on. 
-    \param _length The length (weight or cost) of the edges. 
-    \param _s Source node.
-    \param _t Target node.
-    */
-    Suurballe(Graph& _G, LengthMap& _length, Node _s, Node _t) : 
-      G(_G), s(_s), t(_t), const1map(1), 
-      min_cost_flow(_G, _length, const1map, _s, _t) { }
-
-    ///Runs the algorithm.
-
-    ///Runs the algorithm.
-    ///Returns k if there are at least k edge-disjoint paths from s to t.
-    ///Otherwise it returns the number of edge-disjoint paths found 
-    ///from s to t.
-    ///
-    ///\param k How many paths are we looking for?
-    ///
-    int run(int k) {
-      int i = min_cost_flow.run(k);
-
-      //Let's find the paths
-      //We put the paths into stl vectors (as an inner representation). 
-      //In the meantime we lose the information stored in 'reversed'.
-      //We suppose the lengths to be positive now.
-
-      //We don't want to change the flow of min_cost_flow, so we make a copy
-      //The name here suggests that the flow has only 0/1 values.
-      EdgeIntMap reversed(G); 
-
-      for(typename Graph::EdgeIt e(G); e!=INVALID; ++e) 
-	reversed[e] = min_cost_flow.getFlow()[e];
-      
-      paths.clear();
-      //total_length=0;
-      paths.resize(k);
-      for (int j=0; j<i; ++j){
-	Node n=s;
-
-	while (n!=t){
-
-	  OutEdgeIt e(G, n);
-	  
-	  while (!reversed[e]){
-	    ++e;
-	  }
-	  n = G.target(e);
-	  paths[j].push_back(e);
-	  //total_length += length[e];
-	  reversed[e] = 1-reversed[e];
-	}
-	
-      }
-      return i;
-    }
-
-    
-    ///Returns the total length of the paths.
-    
-    ///This function gives back the total length of the found paths.
-    Length totalLength(){
-      return min_cost_flow.totalLength();
-    }
-
-    ///Returns the found flow.
-
-    ///This function returns a const reference to the EdgeMap \c flow.
-    const EdgeIntMap &getFlow() const { return min_cost_flow.flow;}
-
-    /// Returns the optimal dual solution
-    
-    ///This function returns a const reference to the NodeMap
-    ///\c potential (the dual solution).
-    const EdgeIntMap &getPotential() const { return min_cost_flow.potential;}
-
-    ///Checks whether the complementary slackness holds.
-
-    ///This function checks, whether the given solution is optimal.
-    ///Currently this function only checks optimality,
-    ///doesn't bother with feasibility
-    ///It is meant for testing purposes.
-    bool checkComplementarySlackness(){
-      return min_cost_flow.checkComplementarySlackness();
-    }
-
-    ///Read the found paths.
-    
-    ///This function gives back the \c j-th path in argument p.
-    ///Assumes that \c run() has been run and nothing changed since then.
-    /// \warning It is assumed that \c p is constructed to
-    ///be a path of graph \c G.
-    ///If \c j is not less than the result of previous \c run,
-    ///then the result here will be an empty path (\c j can be 0 as well).
-    ///
-    ///\param Path The type of the path structure to put the result to (must meet lemon path concept).
-    ///\param p The path to put the result to 
-    ///\param j Which path you want to get from the found paths (in a real application you would get the found paths iteratively)
-    template<typename Path>
-    void getPath(Path& p, size_t j){
-
-      p.clear();
-      if (j>paths.size()-1){
-	return;
-      }
-      typename Path::Builder B(p);
-      for(typename std::vector<Edge>::iterator i=paths[j].begin(); 
-	  i!=paths[j].end(); ++i ){
-	B.pushBack(*i);
-      }
-
-      B.commit();
-    }
-
-  }; //class Suurballe
-
-  ///@}
-
-} //namespace lemon
-
-#endif //LEMON_SUURBALLE_H