Changes in / [839:f3bc4e9b5f3a:840:2914b6f0fde0] in lemon-1.2

Files:

• INSTALL (modified) (1 diff)
• doc/CMakeLists.txt (modified) (1 diff)
• doc/Makefile.am (modified) (1 diff)
• doc/images/planar.eps (added)
• lemon/bellman_ford.h (modified) (2 diffs)
• lemon/bfs.h (modified) (3 diffs)
• lemon/capacity_scaling.h (modified) (3 diffs)
• lemon/circulation.h (modified) (1 diff)
• lemon/cost_scaling.h (modified) (4 diffs)
• lemon/cycle_canceling.h (modified) (2 diffs)
• lemon/dfs.h (modified) (3 diffs)
• lemon/dijkstra.h (modified) (2 diffs)
• lemon/glpk.h (modified) (3 diffs)
• lemon/graph_to_eps.h (modified) (1 diff)
• lemon/hartmann_orlin.h (modified) (2 diffs)
• lemon/howard.h (modified) (2 diffs)
• lemon/karp.h (modified) (2 diffs)
• lemon/lp_base.h (modified) (1 diff)
• lemon/min_cost_arborescence.h (modified) (2 diffs)
• lemon/network_simplex.h (modified) (9 diffs)
• lemon/planarity.h (modified) (17 diffs)
• lemon/preflow.h (modified) (1 diff)
• scripts/bib2dox.py (modified) (1 diff)
• test/min_cost_flow_test.cc (modified) (4 diffs)

INSTALL

@@ -174 +174 @@
 
    Disable COIN-OR support.
+
+
+Makefile Variables
+==================
+
+Some Makefile variables are reserved by the GNU Coding Standards for
+the use of the "user" - the person building the package. For instance,
+CXX and CXXFLAGS are such variables, and have the same meaning as
+explained in the previous section. These variables can be set on the
+command line when invoking `make' like this:
+`make [VARIABLE=VALUE]...'
+
+WARNINGCXXFLAGS is a non-standard Makefile variable introduced by us
+to hold several compiler flags related to warnings. Its default value
+can be overridden when invoking `make'. For example to disable all
+warning flags use `make WARNINGCXXFLAGS='.
+
+In order to turn off a single flag from the default set of warning
+flags, you can use the CXXFLAGS variable, since this is passed after
+WARNINGCXXFLAGS. For example to turn off `-Wold-style-cast' (which is
+used by default when g++ is detected) you can use
+`make CXXFLAGS="-g -O2 -Wno-old-style-cast"'.

doc/CMakeLists.txt

@@ -27 +27 @@
     COMMAND ${GHOSTSCRIPT_EXECUTABLE} ${GHOSTSCRIPT_OPTIONS} -r18 -sOutputFile=gen-images/nodeshape_3.png ${CMAKE_CURRENT_SOURCE_DIR}/images/nodeshape_3.eps
     COMMAND ${GHOSTSCRIPT_EXECUTABLE} ${GHOSTSCRIPT_OPTIONS} -r18 -sOutputFile=gen-images/nodeshape_4.png ${CMAKE_CURRENT_SOURCE_DIR}/images/nodeshape_4.eps
+    COMMAND ${GHOSTSCRIPT_EXECUTABLE} ${GHOSTSCRIPT_OPTIONS} -r18 -sOutputFile=gen-images/planar.png ${CMAKE_CURRENT_SOURCE_DIR}/images/planar.eps
     COMMAND ${GHOSTSCRIPT_EXECUTABLE} ${GHOSTSCRIPT_OPTIONS} -r18 -sOutputFile=gen-images/strongly_connected_components.png ${CMAKE_CURRENT_SOURCE_DIR}/images/strongly_connected_components.eps
     COMMAND ${CMAKE_COMMAND} -E remove_directory html

doc/Makefile.am

@@ -29 +29 @@
         edge_biconnected_components.eps \
         node_biconnected_components.eps \
+        planar.eps \
         strongly_connected_components.eps
 

lemon/bellman_ford.h

@@ -172 +172 @@
   /// the lengths of the arcs. The default map type is
   /// \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref BellmanFordDefaultTraits
+  /// "BellmanFordDefaultTraits<GR, LEN>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename LEN, typename TR>
@@ -934 +939 @@
   /// This class should only be used through the \ref bellmanFord()
   /// function, which makes it easier to use the algorithm.
+  ///
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm.
   template<class TR>
   class BellmanFordWizard : public TR {

lemon/bfs.h

@@ -122 +122 @@
   ///\tparam GR The type of the digraph the algorithm runs on.
   ///The default type is \ref ListDigraph.
+  ///\tparam TR The traits class that defines various types used by the
+  ///algorithm. By default, it is \ref BfsDefaultTraits
+  ///"BfsDefaultTraits<GR>".
+  ///In most cases, this parameter should not be set directly,
+  ///consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR,
@@ -958 +963 @@
   /// This class should only be used through the \ref bfs() function,
   /// which makes it easier to use the algorithm.
+  ///
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm.
   template<class TR>
   class BfsWizard : public TR
@@ -1296 +1304 @@
   /// does not observe the BFS events. If you want to observe the BFS
   /// events, you should implement your own visitor class.
-  /// \tparam TR Traits class to set various data types used by the
-  /// algorithm. The default traits class is
-  /// \ref BfsVisitDefaultTraits "BfsVisitDefaultTraits<GR>".
-  /// See \ref BfsVisitDefaultTraits for the documentation of
-  /// a BFS visit traits class.
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref BfsVisitDefaultTraits
+  /// "BfsVisitDefaultTraits<GR>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename VS, typename TR>

lemon/capacity_scaling.h

@@ -78 +78 @@
   /// \tparam GR The digraph type the algorithm runs on.
   /// \tparam V The number type used for flow amounts, capacity bounds
-  /// and supply values in the algorithm. By default it is \c int.
+  /// and supply values in the algorithm. By default, it is \c int.
   /// \tparam C The number type used for costs and potentials in the
-  /// algorithm. By default it is the same as \c V.
+  /// algorithm. By default, it is the same as \c V.
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref CapacityScalingDefaultTraits
+  /// "CapacityScalingDefaultTraits<GR, V, C>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
   ///
   /// \warning Both number types must be signed and all input data must
@@ -316 +321 @@
         "The cost type of CapacityScaling must be signed");
 
+      // Reset data structures
+      reset();
+    }
+
+    /// \name Parameters
+    /// The parameters of the algorithm can be specified using these
+    /// functions.
+
+    /// @{
+
+    /// \brief Set the lower bounds on the arcs.
+    ///
+    /// This function sets the lower bounds on the arcs.
+    /// If it is not used before calling \ref run(), the lower bounds
+    /// will be set to zero on all arcs.
+    ///
+    /// \param map An arc map storing the lower bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template <typename LowerMap>
+    CapacityScaling& lowerMap(const LowerMap& map) {
+      _have_lower = true;
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _lower[_arc_idf[a]] = map[a];
+        _lower[_arc_idb[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the upper bounds (capacities) on the arcs.
+    ///
+    /// This function sets the upper bounds (capacities) on the arcs.
+    /// If it is not used before calling \ref run(), the upper bounds
+    /// will be set to \ref INF on all arcs (i.e. the flow value will be
+    /// unbounded from above).
+    ///
+    /// \param map An arc map storing the upper bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename UpperMap>
+    CapacityScaling& upperMap(const UpperMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _upper[_arc_idf[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the costs of the arcs.
+    ///
+    /// This function sets the costs of the arcs.
+    /// If it is not used before calling \ref run(), the costs
+    /// will be set to \c 1 on all arcs.
+    ///
+    /// \param map An arc map storing the costs.
+    /// Its \c Value type must be convertible to the \c Cost type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename CostMap>
+    CapacityScaling& costMap(const CostMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _cost[_arc_idf[a]] =  map[a];
+        _cost[_arc_idb[a]] = -map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the supply values of the nodes.
+    ///
+    /// This function sets the supply values of the nodes.
+    /// If neither this function nor \ref stSupply() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// \param map A node map storing the supply values.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename SupplyMap>
+    CapacityScaling& supplyMap(const SupplyMap& map) {
+      for (NodeIt n(_graph); n != INVALID; ++n) {
+        _supply[_node_id[n]] = map[n];
+      }
+      return *this;
+    }
+
+    /// \brief Set single source and target nodes and a supply value.
+    ///
+    /// This function sets a single source node and a single target node
+    /// and the required flow value.
+    /// If neither this function nor \ref supplyMap() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// Using this function has the same effect as using \ref supplyMap()
+    /// with such a map in which \c k is assigned to \c s, \c -k is
+    /// assigned to \c t and all other nodes have zero supply value.
+    ///
+    /// \param s The source node.
+    /// \param t The target node.
+    /// \param k The required amount of flow from node \c s to node \c t
+    /// (i.e. the supply of \c s and the demand of \c t).
+    ///
+    /// \return <tt>(*this)</tt>
+    CapacityScaling& stSupply(const Node& s, const Node& t, Value k) {
+      for (int i = 0; i != _node_num; ++i) {
+        _supply[i] = 0;
+      }
+      _supply[_node_id[s]] =  k;
+      _supply[_node_id[t]] = -k;
+      return *this;
+    }
+    
+    /// @}
+
+    /// \name Execution control
+    /// The algorithm can be executed using \ref run().
+
+    /// @{
+
+    /// \brief Run the algorithm.
+    ///
+    /// This function runs the algorithm.
+    /// The paramters can be specified using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
+    /// For example,
+    /// \code
+    ///   CapacityScaling<ListDigraph> cs(graph);
+    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// This function can be called more than once. All the given parameters
+    /// are kept for the next call, unless \ref resetParams() or \ref reset()
+    /// is used, thus only the modified parameters have to be set again.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class (or the last \ref reset() call), then the \ref reset()
+    /// function must be called.
+    ///
+    /// \param factor The capacity scaling factor. It must be larger than
+    /// one to use scaling. If it is less or equal to one, then scaling
+    /// will be disabled.
+    ///
+    /// \return \c INFEASIBLE if no feasible flow exists,
+    /// \n \c OPTIMAL if the problem has optimal solution
+    /// (i.e. it is feasible and bounded), and the algorithm has found
+    /// optimal flow and node potentials (primal and dual solutions),
+    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
+    /// and infinite upper bound. It means that the objective function
+    /// is unbounded on that arc, however, note that it could actually be
+    /// bounded over the feasible flows, but this algroithm cannot handle
+    /// these cases.
+    ///
+    /// \see ProblemType
+    /// \see resetParams(), reset()
+    ProblemType run(int factor = 4) {
+      _factor = factor;
+      ProblemType pt = init();
+      if (pt != OPTIMAL) return pt;
+      return start();
+    }
+
+    /// \brief Reset all the parameters that have been given before.
+    ///
+    /// This function resets all the paramaters that have been given
+    /// before using functions \ref lowerMap(), \ref upperMap(),
+    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// For example,
+    /// \code
+    ///   CapacityScaling<ListDigraph> cs(graph);
+    ///
+    ///   // First run
+    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    ///
+    ///   // Run again with modified cost map (resetParams() is not called,
+    ///   // so only the cost map have to be set again)
+    ///   cost[e] += 100;
+    ///   cs.costMap(cost).run();
+    ///
+    ///   // Run again from scratch using resetParams()
+    ///   // (the lower bounds will be set to zero on all arcs)
+    ///   cs.resetParams();
+    ///   cs.upperMap(capacity).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see reset(), run()
+    CapacityScaling& resetParams() {
+      for (int i = 0; i != _node_num; ++i) {
+        _supply[i] = 0;
+      }
+      for (int j = 0; j != _res_arc_num; ++j) {
+        _lower[j] = 0;
+        _upper[j] = INF;
+        _cost[j] = _forward[j] ? 1 : -1;
+      }
+      _have_lower = false;
+      return *this;
+    }
+
+    /// \brief Reset the internal data structures and all the parameters
+    /// that have been given before.
+    ///
+    /// This function resets the internal data structures and all the
+    /// paramaters that have been given before using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// See \ref resetParams() for examples.
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see resetParams(), run()
+    CapacityScaling& reset() {
       // Resize vectors
       _node_num = countNodes(_graph);
@@ -379 +618 @@
       
       // Reset parameters
-      reset();
-    }
-
-    /// \name Parameters
-    /// The parameters of the algorithm can be specified using these
-    /// functions.
-
-    /// @{
-
-    /// \brief Set the lower bounds on the arcs.
-    ///
-    /// This function sets the lower bounds on the arcs.
-    /// If it is not used before calling \ref run(), the lower bounds
-    /// will be set to zero on all arcs.
-    ///
-    /// \param map An arc map storing the lower bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template <typename LowerMap>
-    CapacityScaling& lowerMap(const LowerMap& map) {
-      _have_lower = true;
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _lower[_arc_idf[a]] = map[a];
-        _lower[_arc_idb[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the upper bounds (capacities) on the arcs.
-    ///
-    /// This function sets the upper bounds (capacities) on the arcs.
-    /// If it is not used before calling \ref run(), the upper bounds
-    /// will be set to \ref INF on all arcs (i.e. the flow value will be
-    /// unbounded from above).
-    ///
-    /// \param map An arc map storing the upper bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename UpperMap>
-    CapacityScaling& upperMap(const UpperMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _upper[_arc_idf[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the costs of the arcs.
-    ///
-    /// This function sets the costs of the arcs.
-    /// If it is not used before calling \ref run(), the costs
-    /// will be set to \c 1 on all arcs.
-    ///
-    /// \param map An arc map storing the costs.
-    /// Its \c Value type must be convertible to the \c Cost type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename CostMap>
-    CapacityScaling& costMap(const CostMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _cost[_arc_idf[a]] =  map[a];
-        _cost[_arc_idb[a]] = -map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the supply values of the nodes.
-    ///
-    /// This function sets the supply values of the nodes.
-    /// If neither this function nor \ref stSupply() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// \param map A node map storing the supply values.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename SupplyMap>
-    CapacityScaling& supplyMap(const SupplyMap& map) {
-      for (NodeIt n(_graph); n != INVALID; ++n) {
-        _supply[_node_id[n]] = map[n];
-      }
-      return *this;
-    }
-
-    /// \brief Set single source and target nodes and a supply value.
-    ///
-    /// This function sets a single source node and a single target node
-    /// and the required flow value.
-    /// If neither this function nor \ref supplyMap() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// Using this function has the same effect as using \ref supplyMap()
-    /// with such a map in which \c k is assigned to \c s, \c -k is
-    /// assigned to \c t and all other nodes have zero supply value.
-    ///
-    /// \param s The source node.
-    /// \param t The target node.
-    /// \param k The required amount of flow from node \c s to node \c t
-    /// (i.e. the supply of \c s and the demand of \c t).
-    ///
-    /// \return <tt>(*this)</tt>
-    CapacityScaling& stSupply(const Node& s, const Node& t, Value k) {
-      for (int i = 0; i != _node_num; ++i) {
-        _supply[i] = 0;
-      }
-      _supply[_node_id[s]] =  k;
-      _supply[_node_id[t]] = -k;
-      return *this;
-    }
-    
-    /// @}
-
-    /// \name Execution control
-    /// The algorithm can be executed using \ref run().
-
-    /// @{
-
-    /// \brief Run the algorithm.
-    ///
-    /// This function runs the algorithm.
-    /// The paramters can be specified using functions \ref lowerMap(),
-    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
-    /// For example,
-    /// \code
-    ///   CapacityScaling<ListDigraph> cs(graph);
-    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// This function can be called more than once. All the parameters
-    /// that have been given are kept for the next call, unless
-    /// \ref reset() is called, thus only the modified parameters
-    /// have to be set again. See \ref reset() for examples.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// \param factor The capacity scaling factor. It must be larger than
-    /// one to use scaling. If it is less or equal to one, then scaling
-    /// will be disabled.
-    ///
-    /// \return \c INFEASIBLE if no feasible flow exists,
-    /// \n \c OPTIMAL if the problem has optimal solution
-    /// (i.e. it is feasible and bounded), and the algorithm has found
-    /// optimal flow and node potentials (primal and dual solutions),
-    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
-    /// and infinite upper bound. It means that the objective function
-    /// is unbounded on that arc, however, note that it could actually be
-    /// bounded over the feasible flows, but this algroithm cannot handle
-    /// these cases.
-    ///
-    /// \see ProblemType
-    ProblemType run(int factor = 4) {
-      _factor = factor;
-      ProblemType pt = init();
-      if (pt != OPTIMAL) return pt;
-      return start();
-    }
-
-    /// \brief Reset all the parameters that have been given before.
-    ///
-    /// This function resets all the paramaters that have been given
-    /// before using functions \ref lowerMap(), \ref upperMap(),
-    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
-    ///
-    /// It is useful for multiple run() calls. If this function is not
-    /// used, all the parameters given before are kept for the next
-    /// \ref run() call.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// For example,
-    /// \code
-    ///   CapacityScaling<ListDigraph> cs(graph);
-    ///
-    ///   // First run
-    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    ///
-    ///   // Run again with modified cost map (reset() is not called,
-    ///   // so only the cost map have to be set again)
-    ///   cost[e] += 100;
-    ///   cs.costMap(cost).run();
-    ///
-    ///   // Run again from scratch using reset()
-    ///   // (the lower bounds will be set to zero on all arcs)
-    ///   cs.reset();
-    ///   cs.upperMap(capacity).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// \return <tt>(*this)</tt>
-    CapacityScaling& reset() {
-      for (int i = 0; i != _node_num; ++i) {
-        _supply[i] = 0;
-      }
-      for (int j = 0; j != _res_arc_num; ++j) {
-        _lower[j] = 0;
-        _upper[j] = INF;
-        _cost[j] = _forward[j] ? 1 : -1;
-      }
-      _have_lower = false;
+      resetParams();
       return *this;
     }

lemon/circulation.h

@@ -174 +174 @@
      \tparam SM The type of the supply map. The default map type is
      \ref concepts::Digraph::NodeMap "GR::NodeMap<UM::Value>".
+     \tparam TR The traits class that defines various types used by the
+     algorithm. By default, it is \ref CirculationDefaultTraits
+     "CirculationDefaultTraits<GR, LM, UM, SM>".
+     In most cases, this parameter should not be set directly,
+     consider to use the named template parameters instead.
   */
 #ifdef DOXYGEN

lemon/cost_scaling.h

@@ -105 +105 @@
   /// \tparam GR The digraph type the algorithm runs on.
   /// \tparam V The number type used for flow amounts, capacity bounds
-  /// and supply values in the algorithm. By default it is \c int.
+  /// and supply values in the algorithm. By default, it is \c int.
   /// \tparam C The number type used for costs and potentials in the
-  /// algorithm. By default it is the same as \c V.
+  /// algorithm. By default, it is the same as \c V.
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref CostScalingDefaultTraits
+  /// "CostScalingDefaultTraits<GR, V, C>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
   ///
   /// \warning Both number types must be signed and all input data must
@@ -137 +142 @@
     ///
     /// The large cost type used for internal computations.
-    /// Using the \ref CostScalingDefaultTraits "default traits class",
-    /// it is \c long \c long if the \c Cost type is integer,
+    /// By default, it is \c long \c long if the \c Cost type is integer,
     /// otherwise it is \c double.
     typedef typename TR::LargeCost LargeCost;
@@ -341 +345 @@
       LEMON_ASSERT(std::numeric_limits<Cost>::is_signed,
         "The cost type of CostScaling must be signed");
-
+      
+      // Reset data structures
+      reset();
+    }
+
+    /// \name Parameters
+    /// The parameters of the algorithm can be specified using these
+    /// functions.
+
+    /// @{
+
+    /// \brief Set the lower bounds on the arcs.
+    ///
+    /// This function sets the lower bounds on the arcs.
+    /// If it is not used before calling \ref run(), the lower bounds
+    /// will be set to zero on all arcs.
+    ///
+    /// \param map An arc map storing the lower bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template <typename LowerMap>
+    CostScaling& lowerMap(const LowerMap& map) {
+      _have_lower = true;
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _lower[_arc_idf[a]] = map[a];
+        _lower[_arc_idb[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the upper bounds (capacities) on the arcs.
+    ///
+    /// This function sets the upper bounds (capacities) on the arcs.
+    /// If it is not used before calling \ref run(), the upper bounds
+    /// will be set to \ref INF on all arcs (i.e. the flow value will be
+    /// unbounded from above).
+    ///
+    /// \param map An arc map storing the upper bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename UpperMap>
+    CostScaling& upperMap(const UpperMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _upper[_arc_idf[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the costs of the arcs.
+    ///
+    /// This function sets the costs of the arcs.
+    /// If it is not used before calling \ref run(), the costs
+    /// will be set to \c 1 on all arcs.
+    ///
+    /// \param map An arc map storing the costs.
+    /// Its \c Value type must be convertible to the \c Cost type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename CostMap>
+    CostScaling& costMap(const CostMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _scost[_arc_idf[a]] =  map[a];
+        _scost[_arc_idb[a]] = -map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the supply values of the nodes.
+    ///
+    /// This function sets the supply values of the nodes.
+    /// If neither this function nor \ref stSupply() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// \param map A node map storing the supply values.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename SupplyMap>
+    CostScaling& supplyMap(const SupplyMap& map) {
+      for (NodeIt n(_graph); n != INVALID; ++n) {
+        _supply[_node_id[n]] = map[n];
+      }
+      return *this;
+    }
+
+    /// \brief Set single source and target nodes and a supply value.
+    ///
+    /// This function sets a single source node and a single target node
+    /// and the required flow value.
+    /// If neither this function nor \ref supplyMap() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// Using this function has the same effect as using \ref supplyMap()
+    /// with such a map in which \c k is assigned to \c s, \c -k is
+    /// assigned to \c t and all other nodes have zero supply value.
+    ///
+    /// \param s The source node.
+    /// \param t The target node.
+    /// \param k The required amount of flow from node \c s to node \c t
+    /// (i.e. the supply of \c s and the demand of \c t).
+    ///
+    /// \return <tt>(*this)</tt>
+    CostScaling& stSupply(const Node& s, const Node& t, Value k) {
+      for (int i = 0; i != _res_node_num; ++i) {
+        _supply[i] = 0;
+      }
+      _supply[_node_id[s]] =  k;
+      _supply[_node_id[t]] = -k;
+      return *this;
+    }
+    
+    /// @}
+
+    /// \name Execution control
+    /// The algorithm can be executed using \ref run().
+
+    /// @{
+
+    /// \brief Run the algorithm.
+    ///
+    /// This function runs the algorithm.
+    /// The paramters can be specified using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
+    /// For example,
+    /// \code
+    ///   CostScaling<ListDigraph> cs(graph);
+    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// This function can be called more than once. All the given parameters
+    /// are kept for the next call, unless \ref resetParams() or \ref reset()
+    /// is used, thus only the modified parameters have to be set again.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class (or the last \ref reset() call), then the \ref reset()
+    /// function must be called.
+    ///
+    /// \param method The internal method that will be used in the
+    /// algorithm. For more information, see \ref Method.
+    /// \param factor The cost scaling factor. It must be larger than one.
+    ///
+    /// \return \c INFEASIBLE if no feasible flow exists,
+    /// \n \c OPTIMAL if the problem has optimal solution
+    /// (i.e. it is feasible and bounded), and the algorithm has found
+    /// optimal flow and node potentials (primal and dual solutions),
+    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
+    /// and infinite upper bound. It means that the objective function
+    /// is unbounded on that arc, however, note that it could actually be
+    /// bounded over the feasible flows, but this algroithm cannot handle
+    /// these cases.
+    ///
+    /// \see ProblemType, Method
+    /// \see resetParams(), reset()
+    ProblemType run(Method method = PARTIAL_AUGMENT, int factor = 8) {
+      _alpha = factor;
+      ProblemType pt = init();
+      if (pt != OPTIMAL) return pt;
+      start(method);
+      return OPTIMAL;
+    }
+
+    /// \brief Reset all the parameters that have been given before.
+    ///
+    /// This function resets all the paramaters that have been given
+    /// before using functions \ref lowerMap(), \ref upperMap(),
+    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// For example,
+    /// \code
+    ///   CostScaling<ListDigraph> cs(graph);
+    ///
+    ///   // First run
+    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    ///
+    ///   // Run again with modified cost map (resetParams() is not called,
+    ///   // so only the cost map have to be set again)
+    ///   cost[e] += 100;
+    ///   cs.costMap(cost).run();
+    ///
+    ///   // Run again from scratch using resetParams()
+    ///   // (the lower bounds will be set to zero on all arcs)
+    ///   cs.resetParams();
+    ///   cs.upperMap(capacity).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see reset(), run()
+    CostScaling& resetParams() {
+      for (int i = 0; i != _res_node_num; ++i) {
+        _supply[i] = 0;
+      }
+      int limit = _first_out[_root];
+      for (int j = 0; j != limit; ++j) {
+        _lower[j] = 0;
+        _upper[j] = INF;
+        _scost[j] = _forward[j] ? 1 : -1;
+      }
+      for (int j = limit; j != _res_arc_num; ++j) {
+        _lower[j] = 0;
+        _upper[j] = INF;
+        _scost[j] = 0;
+        _scost[_reverse[j]] = 0;
+      }      
+      _have_lower = false;
+      return *this;
+    }
+
+    /// \brief Reset all the parameters that have been given before.
+    ///
+    /// This function resets all the paramaters that have been given
+    /// before using functions \ref lowerMap(), \ref upperMap(),
+    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple run() calls. If this function is not
+    /// used, all the parameters given before are kept for the next
+    /// \ref run() call.
+    /// However, the underlying digraph must not be modified after this
+    /// class have been constructed, since it copies and extends the graph.
+    /// \return <tt>(*this)</tt>
+    CostScaling& reset() {
       // Resize vectors
       _node_num = countNodes(_graph);
@@ -409 +648 @@
       
       // Reset parameters
-      reset();
-    }
-
-    /// \name Parameters
-    /// The parameters of the algorithm can be specified using these
-    /// functions.
-
-    /// @{
-
-    /// \brief Set the lower bounds on the arcs.
-    ///
-    /// This function sets the lower bounds on the arcs.
-    /// If it is not used before calling \ref run(), the lower bounds
-    /// will be set to zero on all arcs.
-    ///
-    /// \param map An arc map storing the lower bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template <typename LowerMap>
-    CostScaling& lowerMap(const LowerMap& map) {
-      _have_lower = true;
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _lower[_arc_idf[a]] = map[a];
-        _lower[_arc_idb[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the upper bounds (capacities) on the arcs.
-    ///
-    /// This function sets the upper bounds (capacities) on the arcs.
-    /// If it is not used before calling \ref run(), the upper bounds
-    /// will be set to \ref INF on all arcs (i.e. the flow value will be
-    /// unbounded from above).
-    ///
-    /// \param map An arc map storing the upper bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename UpperMap>
-    CostScaling& upperMap(const UpperMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _upper[_arc_idf[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the costs of the arcs.
-    ///
-    /// This function sets the costs of the arcs.
-    /// If it is not used before calling \ref run(), the costs
-    /// will be set to \c 1 on all arcs.
-    ///
-    /// \param map An arc map storing the costs.
-    /// Its \c Value type must be convertible to the \c Cost type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename CostMap>
-    CostScaling& costMap(const CostMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _scost[_arc_idf[a]] =  map[a];
-        _scost[_arc_idb[a]] = -map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the supply values of the nodes.
-    ///
-    /// This function sets the supply values of the nodes.
-    /// If neither this function nor \ref stSupply() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// \param map A node map storing the supply values.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename SupplyMap>
-    CostScaling& supplyMap(const SupplyMap& map) {
-      for (NodeIt n(_graph); n != INVALID; ++n) {
-        _supply[_node_id[n]] = map[n];
-      }
-      return *this;
-    }
-
-    /// \brief Set single source and target nodes and a supply value.
-    ///
-    /// This function sets a single source node and a single target node
-    /// and the required flow value.
-    /// If neither this function nor \ref supplyMap() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// Using this function has the same effect as using \ref supplyMap()
-    /// with such a map in which \c k is assigned to \c s, \c -k is
-    /// assigned to \c t and all other nodes have zero supply value.
-    ///
-    /// \param s The source node.
-    /// \param t The target node.
-    /// \param k The required amount of flow from node \c s to node \c t
-    /// (i.e. the supply of \c s and the demand of \c t).
-    ///
-    /// \return <tt>(*this)</tt>
-    CostScaling& stSupply(const Node& s, const Node& t, Value k) {
-      for (int i = 0; i != _res_node_num; ++i) {
-        _supply[i] = 0;
-      }
-      _supply[_node_id[s]] =  k;
-      _supply[_node_id[t]] = -k;
-      return *this;
-    }
-    
-    /// @}
-
-    /// \name Execution control
-    /// The algorithm can be executed using \ref run().
-
-    /// @{
-
-    /// \brief Run the algorithm.
-    ///
-    /// This function runs the algorithm.
-    /// The paramters can be specified using functions \ref lowerMap(),
-    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
-    /// For example,
-    /// \code
-    ///   CostScaling<ListDigraph> cs(graph);
-    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// This function can be called more than once. All the parameters
-    /// that have been given are kept for the next call, unless
-    /// \ref reset() is called, thus only the modified parameters
-    /// have to be set again. See \ref reset() for examples.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// \param method The internal method that will be used in the
-    /// algorithm. For more information, see \ref Method.
-    /// \param factor The cost scaling factor. It must be larger than one.
-    ///
-    /// \return \c INFEASIBLE if no feasible flow exists,
-    /// \n \c OPTIMAL if the problem has optimal solution
-    /// (i.e. it is feasible and bounded), and the algorithm has found
-    /// optimal flow and node potentials (primal and dual solutions),
-    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
-    /// and infinite upper bound. It means that the objective function
-    /// is unbounded on that arc, however, note that it could actually be
-    /// bounded over the feasible flows, but this algroithm cannot handle
-    /// these cases.
-    ///
-    /// \see ProblemType, Method
-    ProblemType run(Method method = PARTIAL_AUGMENT, int factor = 8) {
-      _alpha = factor;
-      ProblemType pt = init();
-      if (pt != OPTIMAL) return pt;
-      start(method);
-      return OPTIMAL;
-    }
-
-    /// \brief Reset all the parameters that have been given before.
-    ///
-    /// This function resets all the paramaters that have been given
-    /// before using functions \ref lowerMap(), \ref upperMap(),
-    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
-    ///
-    /// It is useful for multiple run() calls. If this function is not
-    /// used, all the parameters given before are kept for the next
-    /// \ref run() call.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// For example,
-    /// \code
-    ///   CostScaling<ListDigraph> cs(graph);
-    ///
-    ///   // First run
-    ///   cs.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    ///
-    ///   // Run again with modified cost map (reset() is not called,
-    ///   // so only the cost map have to be set again)
-    ///   cost[e] += 100;
-    ///   cs.costMap(cost).run();
-    ///
-    ///   // Run again from scratch using reset()
-    ///   // (the lower bounds will be set to zero on all arcs)
-    ///   cs.reset();
-    ///   cs.upperMap(capacity).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// \return <tt>(*this)</tt>
-    CostScaling& reset() {
-      for (int i = 0; i != _res_node_num; ++i) {
-        _supply[i] = 0;
-      }
-      int limit = _first_out[_root];
-      for (int j = 0; j != limit; ++j) {
-        _lower[j] = 0;
-        _upper[j] = INF;
-        _scost[j] = _forward[j] ? 1 : -1;
-      }
-      for (int j = limit; j != _res_arc_num; ++j) {
-        _lower[j] = 0;
-        _upper[j] = INF;
-        _scost[j] = 0;
-        _scost[_reverse[j]] = 0;
-      }      
-      _have_lower = false;
+      resetParams();
       return *this;
     }

lemon/cycle_canceling.h

@@ -252 +252 @@
         "The cost type of CycleCanceling must be signed");
 
+      // Reset data structures
+      reset();
+    }
+
+    /// \name Parameters
+    /// The parameters of the algorithm can be specified using these
+    /// functions.
+
+    /// @{
+
+    /// \brief Set the lower bounds on the arcs.
+    ///
+    /// This function sets the lower bounds on the arcs.
+    /// If it is not used before calling \ref run(), the lower bounds
+    /// will be set to zero on all arcs.
+    ///
+    /// \param map An arc map storing the lower bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template <typename LowerMap>
+    CycleCanceling& lowerMap(const LowerMap& map) {
+      _have_lower = true;
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _lower[_arc_idf[a]] = map[a];
+        _lower[_arc_idb[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the upper bounds (capacities) on the arcs.
+    ///
+    /// This function sets the upper bounds (capacities) on the arcs.
+    /// If it is not used before calling \ref run(), the upper bounds
+    /// will be set to \ref INF on all arcs (i.e. the flow value will be
+    /// unbounded from above).
+    ///
+    /// \param map An arc map storing the upper bounds.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename UpperMap>
+    CycleCanceling& upperMap(const UpperMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _upper[_arc_idf[a]] = map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the costs of the arcs.
+    ///
+    /// This function sets the costs of the arcs.
+    /// If it is not used before calling \ref run(), the costs
+    /// will be set to \c 1 on all arcs.
+    ///
+    /// \param map An arc map storing the costs.
+    /// Its \c Value type must be convertible to the \c Cost type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename CostMap>
+    CycleCanceling& costMap(const CostMap& map) {
+      for (ArcIt a(_graph); a != INVALID; ++a) {
+        _cost[_arc_idf[a]] =  map[a];
+        _cost[_arc_idb[a]] = -map[a];
+      }
+      return *this;
+    }
+
+    /// \brief Set the supply values of the nodes.
+    ///
+    /// This function sets the supply values of the nodes.
+    /// If neither this function nor \ref stSupply() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// \param map A node map storing the supply values.
+    /// Its \c Value type must be convertible to the \c Value type
+    /// of the algorithm.
+    ///
+    /// \return <tt>(*this)</tt>
+    template<typename SupplyMap>
+    CycleCanceling& supplyMap(const SupplyMap& map) {
+      for (NodeIt n(_graph); n != INVALID; ++n) {
+        _supply[_node_id[n]] = map[n];
+      }
+      return *this;
+    }
+
+    /// \brief Set single source and target nodes and a supply value.
+    ///
+    /// This function sets a single source node and a single target node
+    /// and the required flow value.
+    /// If neither this function nor \ref supplyMap() is used before
+    /// calling \ref run(), the supply of each node will be set to zero.
+    ///
+    /// Using this function has the same effect as using \ref supplyMap()
+    /// with such a map in which \c k is assigned to \c s, \c -k is
+    /// assigned to \c t and all other nodes have zero supply value.
+    ///
+    /// \param s The source node.
+    /// \param t The target node.
+    /// \param k The required amount of flow from node \c s to node \c t
+    /// (i.e. the supply of \c s and the demand of \c t).
+    ///
+    /// \return <tt>(*this)</tt>
+    CycleCanceling& stSupply(const Node& s, const Node& t, Value k) {
+      for (int i = 0; i != _res_node_num; ++i) {
+        _supply[i] = 0;
+      }
+      _supply[_node_id[s]] =  k;
+      _supply[_node_id[t]] = -k;
+      return *this;
+    }
+    
+    /// @}
+
+    /// \name Execution control
+    /// The algorithm can be executed using \ref run().
+
+    /// @{
+
+    /// \brief Run the algorithm.
+    ///
+    /// This function runs the algorithm.
+    /// The paramters can be specified using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
+    /// For example,
+    /// \code
+    ///   CycleCanceling<ListDigraph> cc(graph);
+    ///   cc.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// This function can be called more than once. All the given parameters
+    /// are kept for the next call, unless \ref resetParams() or \ref reset()
+    /// is used, thus only the modified parameters have to be set again.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class (or the last \ref reset() call), then the \ref reset()
+    /// function must be called.
+    ///
+    /// \param method The cycle-canceling method that will be used.
+    /// For more information, see \ref Method.
+    ///
+    /// \return \c INFEASIBLE if no feasible flow exists,
+    /// \n \c OPTIMAL if the problem has optimal solution
+    /// (i.e. it is feasible and bounded), and the algorithm has found
+    /// optimal flow and node potentials (primal and dual solutions),
+    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
+    /// and infinite upper bound. It means that the objective function
+    /// is unbounded on that arc, however, note that it could actually be
+    /// bounded over the feasible flows, but this algroithm cannot handle
+    /// these cases.
+    ///
+    /// \see ProblemType, Method
+    /// \see resetParams(), reset()
+    ProblemType run(Method method = CANCEL_AND_TIGHTEN) {
+      ProblemType pt = init();
+      if (pt != OPTIMAL) return pt;
+      start(method);
+      return OPTIMAL;
+    }
+
+    /// \brief Reset all the parameters that have been given before.
+    ///
+    /// This function resets all the paramaters that have been given
+    /// before using functions \ref lowerMap(), \ref upperMap(),
+    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// For example,
+    /// \code
+    ///   CycleCanceling<ListDigraph> cs(graph);
+    ///
+    ///   // First run
+    ///   cc.lowerMap(lower).upperMap(upper).costMap(cost)
+    ///     .supplyMap(sup).run();
+    ///
+    ///   // Run again with modified cost map (resetParams() is not called,
+    ///   // so only the cost map have to be set again)
+    ///   cost[e] += 100;
+    ///   cc.costMap(cost).run();
+    ///
+    ///   // Run again from scratch using resetParams()
+    ///   // (the lower bounds will be set to zero on all arcs)
+    ///   cc.resetParams();
+    ///   cc.upperMap(capacity).costMap(cost)
+    ///     .supplyMap(sup).run();
+    /// \endcode
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see reset(), run()
+    CycleCanceling& resetParams() {
+      for (int i = 0; i != _res_node_num; ++i) {
+        _supply[i] = 0;
+      }
+      int limit = _first_out[_root];
+      for (int j = 0; j != limit; ++j) {
+        _lower[j] = 0;
+        _upper[j] = INF;
+        _cost[j] = _forward[j] ? 1 : -1;
+      }
+      for (int j = limit; j != _res_arc_num; ++j) {
+        _lower[j] = 0;
+        _upper[j] = INF;
+        _cost[j] = 0;
+        _cost[_reverse[j]] = 0;
+      }      
+      _have_lower = false;
+      return *this;
+    }
+
+    /// \brief Reset the internal data structures and all the parameters
+    /// that have been given before.
+    ///
+    /// This function resets the internal data structures and all the
+    /// paramaters that have been given before using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// See \ref resetParams() for examples.
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see resetParams(), run()
+    CycleCanceling& reset() {
       // Resize vectors
       _node_num = countNodes(_graph);
@@ -317 +557 @@
       
       // Reset parameters
-      reset();
-    }
-
-    /// \name Parameters
-    /// The parameters of the algorithm can be specified using these
-    /// functions.
-
-    /// @{
-
-    /// \brief Set the lower bounds on the arcs.
-    ///
-    /// This function sets the lower bounds on the arcs.
-    /// If it is not used before calling \ref run(), the lower bounds
-    /// will be set to zero on all arcs.
-    ///
-    /// \param map An arc map storing the lower bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template <typename LowerMap>
-    CycleCanceling& lowerMap(const LowerMap& map) {
-      _have_lower = true;
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _lower[_arc_idf[a]] = map[a];
-        _lower[_arc_idb[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the upper bounds (capacities) on the arcs.
-    ///
-    /// This function sets the upper bounds (capacities) on the arcs.
-    /// If it is not used before calling \ref run(), the upper bounds
-    /// will be set to \ref INF on all arcs (i.e. the flow value will be
-    /// unbounded from above).
-    ///
-    /// \param map An arc map storing the upper bounds.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename UpperMap>
-    CycleCanceling& upperMap(const UpperMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _upper[_arc_idf[a]] = map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the costs of the arcs.
-    ///
-    /// This function sets the costs of the arcs.
-    /// If it is not used before calling \ref run(), the costs
-    /// will be set to \c 1 on all arcs.
-    ///
-    /// \param map An arc map storing the costs.
-    /// Its \c Value type must be convertible to the \c Cost type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename CostMap>
-    CycleCanceling& costMap(const CostMap& map) {
-      for (ArcIt a(_graph); a != INVALID; ++a) {
-        _cost[_arc_idf[a]] =  map[a];
-        _cost[_arc_idb[a]] = -map[a];
-      }
-      return *this;
-    }
-
-    /// \brief Set the supply values of the nodes.
-    ///
-    /// This function sets the supply values of the nodes.
-    /// If neither this function nor \ref stSupply() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// \param map A node map storing the supply values.
-    /// Its \c Value type must be convertible to the \c Value type
-    /// of the algorithm.
-    ///
-    /// \return <tt>(*this)</tt>
-    template<typename SupplyMap>
-    CycleCanceling& supplyMap(const SupplyMap& map) {
-      for (NodeIt n(_graph); n != INVALID; ++n) {
-        _supply[_node_id[n]] = map[n];
-      }
-      return *this;
-    }
-
-    /// \brief Set single source and target nodes and a supply value.
-    ///
-    /// This function sets a single source node and a single target node
-    /// and the required flow value.
-    /// If neither this function nor \ref supplyMap() is used before
-    /// calling \ref run(), the supply of each node will be set to zero.
-    ///
-    /// Using this function has the same effect as using \ref supplyMap()
-    /// with such a map in which \c k is assigned to \c s, \c -k is
-    /// assigned to \c t and all other nodes have zero supply value.
-    ///
-    /// \param s The source node.
-    /// \param t The target node.
-    /// \param k The required amount of flow from node \c s to node \c t
-    /// (i.e. the supply of \c s and the demand of \c t).
-    ///
-    /// \return <tt>(*this)</tt>
-    CycleCanceling& stSupply(const Node& s, const Node& t, Value k) {
-      for (int i = 0; i != _res_node_num; ++i) {
-        _supply[i] = 0;
-      }
-      _supply[_node_id[s]] =  k;
-      _supply[_node_id[t]] = -k;
-      return *this;
-    }
-    
-    /// @}
-
-    /// \name Execution control
-    /// The algorithm can be executed using \ref run().
-
-    /// @{
-
-    /// \brief Run the algorithm.
-    ///
-    /// This function runs the algorithm.
-    /// The paramters can be specified using functions \ref lowerMap(),
-    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply().
-    /// For example,
-    /// \code
-    ///   CycleCanceling<ListDigraph> cc(graph);
-    ///   cc.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// This function can be called more than once. All the parameters
-    /// that have been given are kept for the next call, unless
-    /// \ref reset() is called, thus only the modified parameters
-    /// have to be set again. See \ref reset() for examples.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// \param method The cycle-canceling method that will be used.
-    /// For more information, see \ref Method.
-    ///
-    /// \return \c INFEASIBLE if no feasible flow exists,
-    /// \n \c OPTIMAL if the problem has optimal solution
-    /// (i.e. it is feasible and bounded), and the algorithm has found
-    /// optimal flow and node potentials (primal and dual solutions),
-    /// \n \c UNBOUNDED if the digraph contains an arc of negative cost
-    /// and infinite upper bound. It means that the objective function
-    /// is unbounded on that arc, however, note that it could actually be
-    /// bounded over the feasible flows, but this algroithm cannot handle
-    /// these cases.
-    ///
-    /// \see ProblemType, Method
-    ProblemType run(Method method = CANCEL_AND_TIGHTEN) {
-      ProblemType pt = init();
-      if (pt != OPTIMAL) return pt;
-      start(method);
-      return OPTIMAL;
-    }
-
-    /// \brief Reset all the parameters that have been given before.
-    ///
-    /// This function resets all the paramaters that have been given
-    /// before using functions \ref lowerMap(), \ref upperMap(),
-    /// \ref costMap(), \ref supplyMap(), \ref stSupply().
-    ///
-    /// It is useful for multiple run() calls. If this function is not
-    /// used, all the parameters given before are kept for the next
-    /// \ref run() call.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
-    ///
-    /// For example,
-    /// \code
-    ///   CycleCanceling<ListDigraph> cs(graph);
-    ///
-    ///   // First run
-    ///   cc.lowerMap(lower).upperMap(upper).costMap(cost)
-    ///     .supplyMap(sup).run();
-    ///
-    ///   // Run again with modified cost map (reset() is not called,
-    ///   // so only the cost map have to be set again)
-    ///   cost[e] += 100;
-    ///   cc.costMap(cost).run();
-    ///
-    ///   // Run again from scratch using reset()
-    ///   // (the lower bounds will be set to zero on all arcs)
-    ///   cc.reset();
-    ///   cc.upperMap(capacity).costMap(cost)
-    ///     .supplyMap(sup).run();
-    /// \endcode
-    ///
-    /// \return <tt>(*this)</tt>
-    CycleCanceling& reset() {
-      for (int i = 0; i != _res_node_num; ++i) {
-        _supply[i] = 0;
-      }
-      int limit = _first_out[_root];
-      for (int j = 0; j != limit; ++j) {
-        _lower[j] = 0;
-        _upper[j] = INF;
-        _cost[j] = _forward[j] ? 1 : -1;
-      }
-      for (int j = limit; j != _res_arc_num; ++j) {
-        _lower[j] = 0;
-        _upper[j] = INF;
-        _cost[j] = 0;
-        _cost[_reverse[j]] = 0;
-      }      
-      _have_lower = false;
+      resetParams();
       return *this;
     }

lemon/dfs.h

@@ -122 +122 @@
   ///\tparam GR The type of the digraph the algorithm runs on.
   ///The default type is \ref ListDigraph.
+  ///\tparam TR The traits class that defines various types used by the
+  ///algorithm. By default, it is \ref DfsDefaultTraits
+  ///"DfsDefaultTraits<GR>".
+  ///In most cases, this parameter should not be set directly,
+  ///consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR,
@@ -888 +893 @@
   /// This class should only be used through the \ref dfs() function,
   /// which makes it easier to use the algorithm.
+  ///
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm.
   template<class TR>
   class DfsWizard : public TR
@@ -1238 +1246 @@
   /// does not observe the DFS events. If you want to observe the DFS
   /// events, you should implement your own visitor class.
-  /// \tparam TR Traits class to set various data types used by the
-  /// algorithm. The default traits class is
-  /// \ref DfsVisitDefaultTraits "DfsVisitDefaultTraits<GR>".
-  /// See \ref DfsVisitDefaultTraits for the documentation of
-  /// a DFS visit traits class.
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref DfsVisitDefaultTraits
+  /// "DfsVisitDefaultTraits<GR>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename VS, typename TR>

lemon/dijkstra.h

@@ -193 +193 @@
   ///it is necessary. The default map type is \ref
   ///concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  ///\tparam TR The traits class that defines various types used by the
+  ///algorithm. By default, it is \ref DijkstraDefaultTraits
+  ///"DijkstraDefaultTraits<GR, LEN>".
+  ///In most cases, this parameter should not be set directly,
+  ///consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename LEN, typename TR>
@@ -1093 +1098 @@
   /// This class should only be used through the \ref dijkstra() function,
   /// which makes it easier to use the algorithm.
+  ///
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm.
   template<class TR>
   class DijkstraWizard : public TR

lemon/glpk.h

@@ -26 +26 @@
 #include <lemon/lp_base.h>
 
-// forward declaration
-#if !defined _GLP_PROB && !defined GLP_PROB
-#define _GLP_PROB
-#define GLP_PROB
-typedef struct { double _opaque_prob; } glp_prob;
-/* LP/MIP problem object */
-#endif
-
 namespace lemon {
 
+  namespace _solver_bits {
+    class VoidPtr {
+    private:
+      void *_ptr;      
+    public:
+      VoidPtr() : _ptr(0) {}
+
+      template <typename T>
+      VoidPtr(T* ptr) : _ptr(reinterpret_cast<void*>(ptr)) {}
+
+      template <typename T>
+      VoidPtr& operator=(T* ptr) { 
+        _ptr = reinterpret_cast<void*>(ptr); 
+        return *this;
+      }
+
+      template <typename T>
+      operator T*() const { return reinterpret_cast<T*>(_ptr); }
+    };
+  }
 
   /// \brief Base interface for the GLPK LP and MIP solver
@@ -44 +56 @@
   protected:
 
-    typedef glp_prob LPX;
-    glp_prob* lp;
+    _solver_bits::VoidPtr lp;
 
     GlpkBase();
@@ -124 +135 @@
 
     ///Pointer to the underlying GLPK data structure.
-    LPX *lpx() {return lp;}
+    _solver_bits::VoidPtr lpx() {return lp;}
     ///Const pointer to the underlying GLPK data structure.
-    const LPX *lpx() const {return lp;}
+    _solver_bits::VoidPtr lpx() const {return lp;}
 
     ///Returns the constraint identifier understood by GLPK.

lemon/graph_to_eps.h

@@ -685 +685 @@
 #else
       os << bits::getWinFormattedDate();
+      os << std::endl;
 #endif
     }
-    os << std::endl;
 
     if (_autoArcWidthScale) {

lemon/hartmann_orlin.h

@@ -107 +107 @@
   /// \tparam LEN The type of the length map. The default
   /// map type is \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref HartmannOrlinDefaultTraits
+  /// "HartmannOrlinDefaultTraits<GR, LEN>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename LEN, typename TR>
@@ -128 +133 @@
     ///
     /// The large value type used for internal computations.
-    /// Using the \ref HartmannOrlinDefaultTraits "default traits class",
-    /// it is \c long \c long if the \c Value type is integer,
+    /// By default, it is \c long \c long if the \c Value type is integer,
     /// otherwise it is \c double.
     typedef typename TR::LargeValue LargeValue;

lemon/howard.h

@@ -107 +107 @@
   /// \tparam LEN The type of the length map. The default
   /// map type is \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref HowardDefaultTraits
+  /// "HowardDefaultTraits<GR, LEN>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename LEN, typename TR>
@@ -128 +133 @@
     ///
     /// The large value type used for internal computations.
-    /// Using the \ref HowardDefaultTraits "default traits class",
-    /// it is \c long \c long if the \c Value type is integer,
+    /// By default, it is \c long \c long if the \c Value type is integer,
     /// otherwise it is \c double.
     typedef typename TR::LargeValue LargeValue;

lemon/karp.h

@@ -105 +105 @@
   /// \tparam LEN The type of the length map. The default
   /// map type is \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref KarpDefaultTraits
+  /// "KarpDefaultTraits<GR, LEN>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename LEN, typename TR>
@@ -126 +131 @@
     ///
     /// The large value type used for internal computations.
-    /// Using the \ref KarpDefaultTraits "default traits class",
-    /// it is \c long \c long if the \c Value type is integer,
+    /// By default, it is \c long \c long if the \c Value type is integer,
     /// otherwise it is \c double.
     typedef typename TR::LargeValue LargeValue;

lemon/lp_base.h

@@ -1230 +1230 @@
       Row r;
       c.expr().simplify();
-      r._id = _addRowId(_addRow(c.lowerBounded()?c.lowerBound():-INF, 
+      r._id = _addRowId(_addRow(c.lowerBounded()?c.lowerBound()-*c.expr():-INF, 
                                 ExprIterator(c.expr().comps.begin(), cols),
                                 ExprIterator(c.expr().comps.end(), cols),
-                                c.upperBounded()?c.upperBound():INF));
+                                c.upperBounded()?c.upperBound()-*c.expr():INF));
       return r;
     }

lemon/min_cost_arborescence.h

@@ -113 +113 @@
   /// it is necessary. The default map type is \ref
   /// concepts::Digraph::ArcMap "Digraph::ArcMap<int>".
-  /// \param TR Traits class to set various data types used
-  /// by the algorithm. The default traits class is
-  /// \ref MinCostArborescenceDefaultTraits
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref MinCostArborescenceDefaultTraits
   /// "MinCostArborescenceDefaultTraits<GR, CM>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifndef DOXYGEN
   template <typename GR,
@@ -123 +124 @@
               MinCostArborescenceDefaultTraits<GR, CM> >
 #else
-  template <typename GR, typename CM, typedef TR>
+  template <typename GR, typename CM, typename TR>
 #endif
   class MinCostArborescence {

lemon/network_simplex.h

@@ -196 +196 @@
     IntVector _source;
     IntVector _target;
+    bool _arc_mixing;
 
     // Node and arc data
@@ -635 +636 @@
     NetworkSimplex(const GR& graph, bool arc_mixing = false) :
       _graph(graph), _node_id(graph), _arc_id(graph),
+      _arc_mixing(arc_mixing),
       MAX(std::numeric_limits<Value>::max()),
       INF(std::numeric_limits<Value>::has_infinity ?
@@ -645 +647 @@
         "The cost type of NetworkSimplex must be signed");
         
-      // Resize vectors
-      _node_num = countNodes(_graph);
-      _arc_num = countArcs(_graph);
-      int all_node_num = _node_num + 1;
-      int max_arc_num = _arc_num + 2 * _node_num;
-
-      _source.resize(max_arc_num);
-      _target.resize(max_arc_num);
-
-      _lower.resize(_arc_num);
-      _upper.resize(_arc_num);
-      _cap.resize(max_arc_num);
-      _cost.resize(max_arc_num);
-      _supply.resize(all_node_num);
-      _flow.resize(max_arc_num);
-      _pi.resize(all_node_num);
-
-      _parent.resize(all_node_num);
-      _pred.resize(all_node_num);
-      _forward.resize(all_node_num);
-      _thread.resize(all_node_num);
-      _rev_thread.resize(all_node_num);
-      _succ_num.resize(all_node_num);
-      _last_succ.resize(all_node_num);
-      _state.resize(max_arc_num);
-
-      // Copy the graph
-      int i = 0;
-      for (NodeIt n(_graph); n != INVALID; ++n, ++i) {
-        _node_id[n] = i;
-      }
-      if (arc_mixing) {
-        // Store the arcs in a mixed order
-        int k = std::max(int(std::sqrt(double(_arc_num))), 10);
-        int i = 0, j = 0;
-        for (ArcIt a(_graph); a != INVALID; ++a) {
-          _arc_id[a] = i;
-          _source[i] = _node_id[_graph.source(a)];
-          _target[i] = _node_id[_graph.target(a)];
-          if ((i += k) >= _arc_num) i = ++j;
-        }
-      } else {
-        // Store the arcs in the original order
-        int i = 0;
-        for (ArcIt a(_graph); a != INVALID; ++a, ++i) {
-          _arc_id[a] = i;
-          _source[i] = _node_id[_graph.source(a)];
-          _target[i] = _node_id[_graph.target(a)];
-        }
-      }
-      
-      // Reset parameters
+      // Reset data structures
       reset();
     }
@@ -844 +795 @@
     /// \endcode
     ///
-    /// This function can be called more than once. All the parameters
-    /// that have been given are kept for the next call, unless
-    /// \ref reset() is called, thus only the modified parameters
-    /// have to be set again. See \ref reset() for examples.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
+    /// This function can be called more than once. All the given parameters
+    /// are kept for the next call, unless \ref resetParams() or \ref reset()
+    /// is used, thus only the modified parameters have to be set again.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class (or the last \ref reset() call), then the \ref reset()
+    /// function must be called.
     ///
     /// \param pivot_rule The pivot rule that will be used during the
@@ -863 +814 @@
     ///
     /// \see ProblemType, PivotRule
+    /// \see resetParams(), reset()
     ProblemType run(PivotRule pivot_rule = BLOCK_SEARCH) {
       if (!init()) return INFEASIBLE;
@@ -874 +826 @@
     /// \ref costMap(), \ref supplyMap(), \ref stSupply(), \ref supplyType().
     ///
-    /// It is useful for multiple run() calls. If this function is not
-    /// used, all the parameters given before are kept for the next
-    /// \ref run() call.
-    /// However, the underlying digraph must not be modified after this
-    /// class have been constructed, since it copies and extends the graph.
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
     ///
     /// For example,
@@ -888 +841 @@
     ///     .supplyMap(sup).run();
     ///
-    ///   // Run again with modified cost map (reset() is not called,
+    ///   // Run again with modified cost map (resetParams() is not called,
     ///   // so only the cost map have to be set again)
     ///   cost[e] += 100;
     ///   ns.costMap(cost).run();
     ///
-    ///   // Run again from scratch using reset()
+    ///   // Run again from scratch using resetParams()
     ///   // (the lower bounds will be set to zero on all arcs)
-    ///   ns.reset();
+    ///   ns.resetParams();
     ///   ns.upperMap(capacity).costMap(cost)
     ///     .supplyMap(sup).run();
@@ -901 +854 @@
     ///
     /// \return <tt>(*this)</tt>
-    NetworkSimplex& reset() {
+    ///
+    /// \see reset(), run()
+    NetworkSimplex& resetParams() {
       for (int i = 0; i != _node_num; ++i) {
         _supply[i] = 0;
@@ -915 +870 @@
     }
 
+    /// \brief Reset the internal data structures and all the parameters
+    /// that have been given before.
+    ///
+    /// This function resets the internal data structures and all the
+    /// paramaters that have been given before using functions \ref lowerMap(),
+    /// \ref upperMap(), \ref costMap(), \ref supplyMap(), \ref stSupply(),
+    /// \ref supplyType().
+    ///
+    /// It is useful for multiple \ref run() calls. Basically, all the given
+    /// parameters are kept for the next \ref run() call, unless
+    /// \ref resetParams() or \ref reset() is used.
+    /// If the underlying digraph was also modified after the construction
+    /// of the class or the last \ref reset() call, then the \ref reset()
+    /// function must be used, otherwise \ref resetParams() is sufficient.
+    ///
+    /// See \ref resetParams() for examples.
+    ///
+    /// \return <tt>(*this)</tt>
+    ///
+    /// \see resetParams(), run()
+    NetworkSimplex& reset() {
+      // Resize vectors
+      _node_num = countNodes(_graph);
+      _arc_num = countArcs(_graph);
+      int all_node_num = _node_num + 1;
+      int max_arc_num = _arc_num + 2 * _node_num;
+
+      _source.resize(max_arc_num);
+      _target.resize(max_arc_num);
+
+      _lower.resize(_arc_num);
+      _upper.resize(_arc_num);
+      _cap.resize(max_arc_num);
+      _cost.resize(max_arc_num);
+      _supply.resize(all_node_num);
+      _flow.resize(max_arc_num);
+      _pi.resize(all_node_num);
+
+      _parent.resize(all_node_num);
+      _pred.resize(all_node_num);
+      _forward.resize(all_node_num);
+      _thread.resize(all_node_num);
+      _rev_thread.resize(all_node_num);
+      _succ_num.resize(all_node_num);
+      _last_succ.resize(all_node_num);
+      _state.resize(max_arc_num);
+
+      // Copy the graph
+      int i = 0;
+      for (NodeIt n(_graph); n != INVALID; ++n, ++i) {
+        _node_id[n] = i;
+      }
+      if (_arc_mixing) {
+        // Store the arcs in a mixed order
+        int k = std::max(int(std::sqrt(double(_arc_num))), 10);
+        int i = 0, j = 0;
+        for (ArcIt a(_graph); a != INVALID; ++a) {
+          _arc_id[a] = i;
+          _source[i] = _node_id[_graph.source(a)];
+          _target[i] = _node_id[_graph.target(a)];
+          if ((i += k) >= _arc_num) i = ++j;
+        }
+      } else {
+        // Store the arcs in the original order
+        int i = 0;
+        for (ArcIt a(_graph); a != INVALID; ++a, ++i) {
+          _arc_id[a] = i;
+          _source[i] = _node_id[_graph.source(a)];
+          _target[i] = _node_id[_graph.target(a)];
+        }
+      }
+      
+      // Reset parameters
+      resetParams();
+      return *this;
+    }
+    
     /// @}
 

lemon/planarity.h

@@ -519 +519 @@
   ///
   /// This function implements the Boyer-Myrvold algorithm for
-  /// planarity checking of an undirected graph. It is a simplified
+  /// planarity checking of an undirected simple graph. It is a simplified
   /// version of the PlanarEmbedding algorithm class because neither
-  /// the embedding nor the kuratowski subdivisons are not computed.
+  /// the embedding nor the Kuratowski subdivisons are computed.
   template <typename GR>
   bool checkPlanarity(const GR& graph) {
@@ -533 +533 @@
   ///
   /// This class implements the Boyer-Myrvold algorithm for planar
-  /// embedding of an undirected graph. The planar embedding is an
+  /// embedding of an undirected simple graph. The planar embedding is an
   /// ordering of the outgoing edges of the nodes, which is a possible
   /// configuration to draw the graph in the plane. If there is not
-  /// such ordering then the graph contains a \f$ K_5 \f$ (full graph
-  /// with 5 nodes) or a \f$ K_{3,3} \f$ (complete bipartite graph on
-  /// 3 ANode and 3 BNode) subdivision.
+  /// such ordering then the graph contains a K<sub>5</sub> (full graph
+  /// with 5 nodes) or a K<sub>3,3</sub> (complete bipartite graph on
+  /// 3 Red and 3 Blue nodes) subdivision.
   ///
   /// The current implementation calculates either an embedding or a
-  /// Kuratowski subdivision. The running time of the algorithm is 
-  /// \f$ O(n) \f$.
+  /// Kuratowski subdivision. The running time of the algorithm is O(n).
+  ///
+  /// \see PlanarDrawing, checkPlanarity()
   template <typename Graph>
   class PlanarEmbedding {
@@ -592 +593 @@
   public:
 
-    /// \brief The map for store of embedding
+    /// \brief The map type for storing the embedding
+    ///
+    /// The map type for storing the embedding.
+    /// \see embeddingMap()
     typedef typename Graph::template ArcMap<Arc> EmbeddingMap;
 
     /// \brief Constructor
     ///
-    /// \note The graph should be simple, i.e. parallel and loop arc
-    /// free.
+    /// Constructor.
+    /// \pre The graph must be simple, i.e. it should not
+    /// contain parallel or loop arcs.
     PlanarEmbedding(const Graph& graph)
       : _graph(graph), _embedding(_graph), _kuratowski(graph, false) {}
 
-    /// \brief Runs the algorithm.
+    /// \brief Run the algorithm.
     ///
-    /// Runs the algorithm.
-    /// \param kuratowski If the parameter is false, then the
+    /// This function runs the algorithm.
+    /// \param kuratowski If this parameter is set to \c false, then the
     /// algorithm does not compute a Kuratowski subdivision.
-    ///\return %True when the graph is planar.
+    /// \return \c true if the graph is planar.
     bool run(bool kuratowski = true) {
       typedef _planarity_bits::PlanarityVisitor<Graph> Visitor;
@@ -700 +705 @@
     }
 
-    /// \brief Gives back the successor of an arc
+    /// \brief Give back the successor of an arc
     ///
-    /// Gives back the successor of an arc. This function makes
+    /// This function gives back the successor of an arc. It makes
     /// possible to query the cyclic order of the outgoing arcs from
     /// a node.
@@ -709 +714 @@
     }
 
-    /// \brief Gives back the calculated embedding map
+    /// \brief Give back the calculated embedding map
     ///
-    /// The returned map contains the successor of each arc in the
-    /// graph.
+    /// This function gives back the calculated embedding map, which
+    /// contains the successor of each arc in the cyclic order of the
+    /// outgoing arcs of its source node.
     const EmbeddingMap& embeddingMap() const {
       return _embedding;
     }
 
-    /// \brief Gives back true if the undirected arc is in the
-    /// kuratowski subdivision
+    /// \brief Give back \c true if the given edge is in the Kuratowski
+    /// subdivision
     ///
-    /// Gives back true if the undirected arc is in the kuratowski
-    /// subdivision
-    /// \note The \c run() had to be called with true value.
-    bool kuratowski(const Edge& edge) {
+    /// This function gives back \c true if the given edge is in the found
+    /// Kuratowski subdivision.
+    /// \pre The \c run() function must be called with \c true parameter
+    /// before using this function.
+    bool kuratowski(const Edge& edge) const {
       return _kuratowski[edge];
     }
@@ -2060 +2067 @@
   ///
   /// The planar drawing algorithm calculates positions for the nodes
-  /// in the plane which coordinates satisfy that if the arcs are
-  /// represented with straight lines then they will not intersect
+  /// in the plane. These coordinates satisfy that if the edges are
+  /// represented with straight lines, then they will not intersect
   /// each other.
   ///
-  /// Scnyder's algorithm embeds the graph on \c (n-2,n-2) size grid,
-  /// i.e. each node will be located in the \c [0,n-2]x[0,n-2] square.
+  /// Scnyder's algorithm embeds the graph on an \c (n-2)x(n-2) size grid,
+  /// i.e. each node will be located in the \c [0..n-2]x[0..n-2] square.
   /// The time complexity of the algorithm is O(n).
+  ///
+  /// \see PlanarEmbedding
   template <typename Graph>
   class PlanarDrawing {
@@ -2073 +2082 @@
     TEMPLATE_GRAPH_TYPEDEFS(Graph);
 
-    /// \brief The point type for store coordinates
+    /// \brief The point type for storing coordinates
     typedef dim2::Point<int> Point;
-    /// \brief The map type for store coordinates
+    /// \brief The map type for storing the coordinates of the nodes
     typedef typename Graph::template NodeMap<Point> PointMap;
 
@@ -2082 +2091 @@
     ///
     /// Constructor
-    /// \pre The graph should be simple, i.e. loop and parallel arc free.
+    /// \pre The graph must be simple, i.e. it should not
+    /// contain parallel or loop arcs.
     PlanarDrawing(const Graph& graph)
       : _graph(graph), _point_map(graph) {}
@@ -2367 +2377 @@
   public:
 
-    /// \brief Calculates the node positions
+    /// \brief Calculate the node positions
     ///
-    /// This function calculates the node positions.
-    /// \return %True if the graph is planar.
+    /// This function calculates the node positions on the plane.
+    /// \return \c true if the graph is planar.
     bool run() {
       PlanarEmbedding<Graph> pe(_graph);
@@ -2379 +2389 @@
     }
 
-    /// \brief Calculates the node positions according to a
+    /// \brief Calculate the node positions according to a
     /// combinatorical embedding
     ///
-    /// This function calculates the node locations. The \c embedding
-    /// parameter should contain a valid combinatorical embedding, i.e.
-    /// a valid cyclic order of the arcs.
+    /// This function calculates the node positions on the plane.
+    /// The given \c embedding map should contain a valid combinatorical
+    /// embedding, i.e. a valid cyclic order of the arcs.
+    /// It can be computed using PlanarEmbedding.
     template <typename EmbeddingMap>
     void run(const EmbeddingMap& embedding) {
@@ -2424 +2435 @@
     /// \brief The coordinate of the given node
     ///
-    /// The coordinate of the given node.
+    /// This function returns the coordinate of the given node.
     Point operator[](const Node& node) const {
       return _point_map[node];
     }
 
-    /// \brief Returns the grid embedding in a \e NodeMap.
+    /// \brief Return the grid embedding in a node map
     ///
-    /// Returns the grid embedding in a \e NodeMap of \c dim2::Point<int> .
+    /// This function returns the grid embedding in a node map of
+    /// \c dim2::Point<int> coordinates.
     const PointMap& coords() const {
       return _point_map;
@@ -2471 +2483 @@
   ///
   /// The graph coloring problem is the coloring of the graph nodes
-  /// that there are not adjacent nodes with the same color. The
-  /// planar graphs can be always colored with four colors, it is
-  /// proved by Appel and Haken and their proofs provide a quadratic
+  /// so that there are no adjacent nodes with the same color. The
+  /// planar graphs can always be colored with four colors, which is
+  /// proved by Appel and Haken. Their proofs provide a quadratic
   /// time algorithm for four coloring, but it could not be used to
-  /// implement efficient algorithm. The five and six coloring can be
-  /// made in linear time, but in this class the five coloring has
+  /// implement an efficient algorithm. The five and six coloring can be
+  /// made in linear time, but in this class, the five coloring has
   /// quadratic worst case time complexity. The two coloring (if
   /// possible) is solvable with a graph search algorithm and it is
   /// implemented in \ref bipartitePartitions() function in LEMON. To
-  /// decide whether the planar graph is three colorable is
-  /// NP-complete.
+  /// decide whether a planar graph is three colorable is NP-complete.
   ///
   /// This class contains member functions for calculate colorings
   /// with five and six colors. The six coloring algorithm is a simple
   /// greedy coloring on the backward minimum outgoing order of nodes.
-  /// This order can be computed as in each phase the node with least
-  /// outgoing arcs to unprocessed nodes is chosen. This order
+  /// This order can be computed by selecting the node with least
+  /// outgoing arcs to unprocessed nodes in each phase. This order
   /// guarantees that when a node is chosen for coloring it has at
   /// most five already colored adjacents. The five coloring algorithm
@@ -2500 +2511 @@
     TEMPLATE_GRAPH_TYPEDEFS(Graph);
 
-    /// \brief The map type for store color indexes
+    /// \brief The map type for storing color indices
     typedef typename Graph::template NodeMap<int> IndexMap;
-    /// \brief The map type for store colors
+    /// \brief The map type for storing colors
+    ///
+    /// The map type for storing colors.
+    /// \see Palette, Color
     typedef ComposeMap<Palette, IndexMap> ColorMap;
 
     /// \brief Constructor
     ///
-    /// Constructor
-    /// \pre The graph should be simple, i.e. loop and parallel arc free.
+    /// Constructor.
+    /// \pre The graph must be simple, i.e. it should not
+    /// contain parallel or loop arcs.
     PlanarColoring(const Graph& graph)
       : _graph(graph), _color_map(graph), _palette(0) {
@@ -2519 +2534 @@
     }
 
-    /// \brief Returns the \e NodeMap of color indexes
+    /// \brief Return the node map of color indices
     ///
-    /// Returns the \e NodeMap of color indexes. The values are in the
-    /// range \c [0..4] or \c [0..5] according to the coloring method.
+    /// This function returns the node map of color indices. The values are
+    /// in the range \c [0..4] or \c [0..5] according to the coloring method.
     IndexMap colorIndexMap() const {
       return _color_map;
     }
 
-    /// \brief Returns the \e NodeMap of colors
+    /// \brief Return the node map of colors
     ///
-    /// Returns the \e NodeMap of colors. The values are five or six
-    /// distinct \ref lemon::Color "colors".
+    /// This function returns the node map of colors. The values are among
+    /// five or six distinct \ref lemon::Color "colors".
     ColorMap colorMap() const {
       return composeMap(_palette, _color_map);
     }
 
-    /// \brief Returns the color index of the node
+    /// \brief Return the color index of the node
     ///
-    /// Returns the color index of the node. The values are in the
-    /// range \c [0..4] or \c [0..5] according to the coloring method.
+    /// This function returns the color index of the given node. The value is
+    /// in the range \c [0..4] or \c [0..5] according to the coloring method.
     int colorIndex(const Node& node) const {
       return _color_map[node];
     }
 
-    /// \brief Returns the color of the node
+    /// \brief Return the color of the node
     ///
-    /// Returns the color of the node. The values are five or six
-    /// distinct \ref lemon::Color "colors".
+    /// This function returns the color of the given node. The value is among
+    /// five or six distinct \ref lemon::Color "colors".
     Color color(const Node& node) const {
       return _palette[_color_map[node]];
@@ -2552 +2567 @@
 
 
-    /// \brief Calculates a coloring with at most six colors
+    /// \brief Calculate a coloring with at most six colors
     ///
     /// This function calculates a coloring with at most six colors. The time
     /// complexity of this variant is linear in the size of the graph.
-    /// \return %True when the algorithm could color the graph with six color.
-    /// If the algorithm fails, then the graph could not be planar.
-    /// \note This function can return true if the graph is not
-    /// planar but it can be colored with 6 colors.
+    /// \return \c true if the algorithm could color the graph with six colors.
+    /// If the algorithm fails, then the graph is not planar.
+    /// \note This function can return \c true if the graph is not
+    /// planar, but it can be colored with at most six colors.
     bool runSixColoring() {
 
@@ -2661 +2676 @@
   public:
 
-    /// \brief Calculates a coloring with at most five colors
+    /// \brief Calculate a coloring with at most five colors
     ///
     /// This function calculates a coloring with at most five
     /// colors. The worst case time complexity of this variant is
     /// quadratic in the size of the graph.
+    /// \param embedding This map should contain a valid combinatorical
+    /// embedding, i.e. a valid cyclic order of the arcs.
+    /// It can be computed using PlanarEmbedding.
     template <typename EmbeddingMap>
     void runFiveColoring(const EmbeddingMap& embedding) {
@@ -2712 +2730 @@
     }
 
-    /// \brief Calculates a coloring with at most five colors
+    /// \brief Calculate a coloring with at most five colors
     ///
     /// This function calculates a coloring with at most five
     /// colors. The worst case time complexity of this variant is
     /// quadratic in the size of the graph.
-    /// \return %True when the graph is planar.
+    /// \return \c true if the graph is planar.
     bool runFiveColoring() {
       PlanarEmbedding<Graph> pe(_graph);

lemon/preflow.h

@@ -120 +120 @@
   /// \tparam CAP The type of the capacity map. The default map
   /// type is \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
+  /// \tparam TR The traits class that defines various types used by the
+  /// algorithm. By default, it is \ref PreflowDefaultTraits
+  /// "PreflowDefaultTraits<GR, CAP>".
+  /// In most cases, this parameter should not be set directly,
+  /// consider to use the named template parameters instead.
 #ifdef DOXYGEN
   template <typename GR, typename CAP, typename TR>

scripts/bib2dox.py

@@ -1 @@
-#!/usr/bin/env /usr/local/Python/bin/python2.1
+#! /usr/bin/env python
 """
   BibTeX to Doxygen converter
   Usage: python bib2dox.py bibfile.bib > bibfile.dox
 
+  This file is a part of LEMON, a generic C++ optimization library.
+
+  **********************************************************************
+
   This code is the modification of the BibTeX to XML converter
-  by Vidar Bronken Gundersen et al. See the original copyright notices below. 
+  by Vidar Bronken Gundersen et al.
+  See the original copyright notices below. 
 
   **********************************************************************

test/min_cost_flow_test.cc

@@ -158 +158 @@
       const MCF& const_mcf = mcf;
 
-      b = mcf.reset()
+      b = mcf.reset().resetParams()
              .lowerMap(me.lower)
              .upperMap(me.upper)
@@ -347 +347 @@
   checkMcf(mcf1, mcf1.run(param), gr, l2, u, c, s2,
            mcf1.OPTIMAL, true,     8010, test_str + "-4");
-  mcf1.reset().supplyMap(s1);
+  mcf1.resetParams().supplyMap(s1);
   checkMcf(mcf1, mcf1.run(param), gr, l1, cu, cc, s1,
            mcf1.OPTIMAL, true,       74, test_str + "-5");
@@ -364 +364 @@
 
   // Tests for the GEQ form
-  mcf1.reset().upperMap(u).costMap(c).supplyMap(s5);
+  mcf1.resetParams().upperMap(u).costMap(c).supplyMap(s5);
   checkMcf(mcf1, mcf1.run(param), gr, l1, u, c, s5,
            mcf1.OPTIMAL, true,     3530, test_str + "-10", GEQ);
@@ -381 +381 @@
   checkMcf(mcf2, mcf2.run(param), neg1_gr, neg1_l1, neg1_u2, neg1_c, neg1_s,
            mcf2.OPTIMAL, true,   -40000, test_str + "-14");
-  mcf2.reset().lowerMap(neg1_l2).costMap(neg1_c).supplyMap(neg1_s);
+  mcf2.resetParams().lowerMap(neg1_l2).costMap(neg1_c).supplyMap(neg1_s);
   checkMcf(mcf2, mcf2.run(param), neg1_gr, neg1_l2, neg1_u1, neg1_c, neg1_s,
            mcf2.UNBOUNDED, false,     0, test_str + "-15");