LEMON/LEMON-official Changeset - r490:a1155a9e8e09

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Changeset - r490:a1155a9e8e09

« 489:4f1431
« 485:9b082b

492:04c063 »

r490:a1155a9e8e09

Mon, 12 Jan 2009 14:18:03

[Not Reviewed]

0 comments (0 inline)

alpar (Alpar Juttner)
alpar@cs.elte.hu

Merge

1 4 1

merge default

3 files changed with 880 insertions and 355 deletions:

lemon/adaptors.h

test/CMakeLists.txt

test/Makefile.am

test/adaptors_test.cc

841

339

tools/lemon-0.x-to-1.x.sh

↑ Collapse diff ↑

lemon/adaptors.h

Show inline comments

@@ -1901,1706 +1901,1705 @@
 		        a._forward = true;
+		      }
+		    }
 		    void nextOut(Arc &a) const {
 		      if (!a._forward) {
 		        Node n = _digraph->target(a);
 		        _digraph->nextIn(a);
 		        if (static_cast<const Edge&>(a) == INVALID ) {
 		          _digraph->firstOut(a, n);
 		          a._forward = true;
+		        }
+		      }
 		      else {
 		        _digraph->nextOut(a);
+		      }
+		    }
 		    void firstIn(Arc &a, const Node &n) const {
 		      _digraph->firstOut(a, n);
 		      if (static_cast<const Edge&>(a) != INVALID ) {
 		        a._forward = false;
 		      } else {
 		        _digraph->firstIn(a, n);
 		        a._forward = true;
+		      }
+		    }
 		    void nextIn(Arc &a) const {
 		      if (!a._forward) {
 		        Node n = _digraph->source(a);
 		        _digraph->nextOut(a);
 		        if( static_cast<const Edge&>(a) == INVALID ) {
 		          _digraph->firstIn(a, n);
 		          a._forward = true;
+		        }
+		      }
 		      else {
 		        _digraph->nextIn(a);
+		      }
+		    }
 		    void firstInc(Edge &e, bool &d, const Node &n) const {
 		      d = true;
 		      _digraph->firstOut(e, n);
 		      if (e != INVALID) return;
 		      d = false;
 		      _digraph->firstIn(e, n);
+		    }
 		    void nextInc(Edge &e, bool &d) const {
 		      if (d) {
 		        Node s = _digraph->source(e);
 		        _digraph->nextOut(e);
 		        if (e != INVALID) return;
 		        d = false;
 		        _digraph->firstIn(e, s);
 		      } else {
 		        _digraph->nextIn(e);
+		      }
+		    }
 		    Node u(const Edge& e) const {
 		      return _digraph->source(e);
+		    }
 		    Node v(const Edge& e) const {
 		      return _digraph->target(e);
+		    }
 		    Node source(const Arc &a) const {
 		      return a._forward ? _digraph->source(a) : _digraph->target(a);
+		    }
 		    Node target(const Arc &a) const {
 		      return a._forward ? _digraph->target(a) : _digraph->source(a);
+		    }
 		    static Arc direct(const Edge &e, bool d) {
 		      return Arc(e, d);
+		    }
 		    Arc direct(const Edge &e, const Node& n) const {
 		      return Arc(e, _digraph->source(e) == n);
+		    }
 		    static bool direction(const Arc &a) { return a._forward; }
 		    Node nodeFromId(int ix) const { return _digraph->nodeFromId(ix); }
 		    Arc arcFromId(int ix) const {
 		      return direct(_digraph->arcFromId(ix >> 1), bool(ix & 1));
+		    }
 		    Edge edgeFromId(int ix) const { return _digraph->arcFromId(ix); }
 		    int id(const Node &n) const { return _digraph->id(n); }
 		    int id(const Arc &a) const {
 		      return  (_digraph->id(a) << 1) | (a._forward ? 1 : 0);
+		    }
 		    int id(const Edge &e) const { return _digraph->id(e); }
 		    int maxNodeId() const { return _digraph->maxNodeId(); }
 		    int maxArcId() const { return (_digraph->maxArcId() << 1) | 1; }
 		    int maxEdgeId() const { return _digraph->maxArcId(); }
 		    Node addNode() { return _digraph->addNode(); }
 		    Edge addEdge(const Node& u, const Node& v) {
 		      return _digraph->addArc(u, v);
+		    }
 		    void erase(const Node& i) { _digraph->erase(i); }
 		    void erase(const Edge& i) { _digraph->erase(i); }
 		    void clear() { _digraph->clear(); }
 		    typedef NodeNumTagIndicator<Digraph> NodeNumTag;
 		    int nodeNum() const { return _digraph->nodeNum(); }
 		    typedef ArcNumTagIndicator<Digraph> ArcNumTag;
 		    int arcNum() const { return 2 * _digraph->arcNum(); }
 		    typedef ArcNumTag EdgeNumTag;
 		    int edgeNum() const { return _digraph->arcNum(); }
 		    typedef FindArcTagIndicator<Digraph> FindArcTag;
 		    Arc findArc(Node s, Node t, Arc p = INVALID) const {
 		      if (p == INVALID) {
 		        Edge arc = _digraph->findArc(s, t);
 		        if (arc != INVALID) return direct(arc, true);
 		        arc = _digraph->findArc(t, s);
 		        if (arc != INVALID) return direct(arc, false);
 		      } else if (direction(p)) {
 		        Edge arc = _digraph->findArc(s, t, p);
 		        if (arc != INVALID) return direct(arc, true);
 		        arc = _digraph->findArc(t, s);
 		        if (arc != INVALID) return direct(arc, false);
 		      } else {
 		        Edge arc = _digraph->findArc(t, s, p);
 		        if (arc != INVALID) return direct(arc, false);
+		      }
 		      return INVALID;
+		    }
 		    typedef FindArcTag FindEdgeTag;
 		    Edge findEdge(Node s, Node t, Edge p = INVALID) const {
 		      if (s != t) {
 		        if (p == INVALID) {
 		          Edge arc = _digraph->findArc(s, t);
 		          if (arc != INVALID) return arc;
 		          arc = _digraph->findArc(t, s);
 		          if (arc != INVALID) return arc;
 		        } else if (_digraph->source(p) == s) {
 		          Edge arc = _digraph->findArc(s, t, p);
 		          if (arc != INVALID) return arc;
 		          arc = _digraph->findArc(t, s);
 		          if (arc != INVALID) return arc;
 		        } else {
 		          Edge arc = _digraph->findArc(t, s, p);
 		          if (arc != INVALID) return arc;
+		        }
 		      } else {
 		        return _digraph->findArc(s, t, p);
+		      }
 		      return INVALID;
+		    }
 		  private:
 		    template <typename _Value>
 		    class ArcMapBase {
 		    private:
 		      typedef typename Digraph::template ArcMap<_Value> MapImpl;
 		    public:
 		      typedef typename MapTraits<MapImpl>::ReferenceMapTag ReferenceMapTag;
 		      typedef _Value Value;
 		      typedef Arc Key;
 		      typedef typename MapTraits<MapImpl>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<MapImpl>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<MapImpl>::ConstReturnValue ConstReference;
 		      typedef typename MapTraits<MapImpl>::ReturnValue Reference;
 		      ArcMapBase(const Adaptor& adaptor) :
 		        _forward(*adaptor._digraph), _backward(*adaptor._digraph) {}
 		      ArcMapBase(const Adaptor& adaptor, const Value& v)
 		        : _forward(*adaptor._digraph, v), _backward(*adaptor._digraph, v) {}
 		      void set(const Arc& a, const Value& v) {
 		        if (direction(a)) {
 		          _forward.set(a, v);
 		        } else {
 		          _backward.set(a, v);
+		        }
+		      }
 		      ConstReturnValue operator[](const Arc& a) const {
 		        if (direction(a)) {
 		          return _forward[a];
 		        } else {
 		          return _backward[a];
+		        }
+		      }
 		      ReturnValue operator[](const Arc& a) {
 		        if (direction(a)) {
 		          return _forward[a];
 		        } else {
 		          return _backward[a];
+		        }
+		      }
 		    protected:
 		      MapImpl _forward, _backward;
 		    };
 		  public:
 		    template <typename _Value>
 		    class NodeMap : public Digraph::template NodeMap<_Value> {
 		    public:
 		      typedef _Value Value;
 		      typedef typename Digraph::template NodeMap<Value> Parent;
 		      explicit NodeMap(const Adaptor& adaptor)
 		        : Parent(*adaptor._digraph) {}
 		      NodeMap(const Adaptor& adaptor, const _Value& value)
 		        : Parent(*adaptor._digraph, value) { }
 		    private:
 		      NodeMap& operator=(const NodeMap& cmap) {
 		        return operator=<NodeMap>(cmap);
+		      }
 		      template <typename CMap>
 		      NodeMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		    template <typename _Value>
 		    class ArcMap
 		      : public SubMapExtender<Adaptor, ArcMapBase<_Value> >
+		    {
 		    public:
 		      typedef _Value Value;
 		      typedef SubMapExtender<Adaptor, ArcMapBase<Value> > Parent;
 		      explicit ArcMap(const Adaptor& adaptor)
 		        : Parent(adaptor) {}
 		      ArcMap(const Adaptor& adaptor, const Value& value)
 		        : Parent(adaptor, value) {}
 		    private:
 		      ArcMap& operator=(const ArcMap& cmap) {
 		        return operator=<ArcMap>(cmap);
+		      }
 		      template <typename CMap>
 		      ArcMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		    template <typename _Value>
 		    class EdgeMap : public Digraph::template ArcMap<_Value> {
 		    public:
 		      typedef _Value Value;
 		      typedef typename Digraph::template ArcMap<Value> Parent;
 		      explicit EdgeMap(const Adaptor& adaptor)
 		        : Parent(*adaptor._digraph) {}
 		      EdgeMap(const Adaptor& adaptor, const Value& value)
 		        : Parent(*adaptor._digraph, value) {}
 		    private:
 		      EdgeMap& operator=(const EdgeMap& cmap) {
 		        return operator=<EdgeMap>(cmap);
+		      }
 		      template <typename CMap>
 		      EdgeMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		    typedef typename ItemSetTraits<Digraph, Node>::ItemNotifier NodeNotifier;
 		    NodeNotifier& notifier(Node) const { return _digraph->notifier(Node()); }
 		    typedef typename ItemSetTraits<Digraph, Edge>::ItemNotifier EdgeNotifier;
 		    EdgeNotifier& notifier(Edge) const { return _digraph->notifier(Edge()); }
 		  protected:
 		    UndirectorBase() : _digraph(0) {}
 		    Digraph* _digraph;
 		    void setDigraph(Digraph& digraph) {
 		      _digraph = &digraph;
+		    }
 		  };
 		  /// \ingroup graph_adaptors
 		  ///
 		  /// \brief Adaptor class for viewing a digraph as an undirected graph.
 		  ///
 		  /// Undirector adaptor can be used for viewing a digraph as an undirected
 		  /// graph. All arcs of the underlying digraph are showed in the
 		  /// adaptor as an edge (and also as a pair of arcs, of course).
 		  /// This adaptor conforms to the \ref concepts::Graph "Graph" concept.
 		  ///
 		  /// The adapted digraph can also be modified through this adaptor
 		  /// by adding or removing nodes or edges, unless the \c GR template
 		  /// parameter is set to be \c const.
 		  ///
 		  /// \tparam GR The type of the adapted digraph.
 		  /// It must conform to the \ref concepts::Digraph "Digraph" concept.
 		  /// It can also be specified to be \c const.
 		  ///
 		  /// \note The \c Node type of this adaptor and the adapted digraph are
 		  /// convertible to each other, moreover the \c Edge type of the adaptor
 		  /// and the \c Arc type of the adapted digraph are also convertible to
 		  /// each other.
 		  /// (Thus the \c Arc type of the adaptor is convertible to the \c Arc type
 		  /// of the adapted digraph.)
 		  template<typename GR>
 		#ifdef DOXYGEN
 		  class Undirector {
 		#else
 		  class Undirector :
 		    public GraphAdaptorExtender<UndirectorBase<GR> > {
 		#endif
 		  public:
 		    /// The type of the adapted digraph.
 		    typedef GR Digraph;
 		    typedef GraphAdaptorExtender<UndirectorBase<GR> > Parent;
 		  protected:
 		    Undirector() { }
 		  public:
 		    /// \brief Constructor
 		    ///
 		    /// Creates an undirected graph from the given digraph.
 		    Undirector(Digraph& digraph) {
 		      setDigraph(digraph);
+		    }
 		    /// \brief Arc map combined from two original arc maps
 		    ///
 		    /// This map adaptor class adapts two arc maps of the underlying
 		    /// digraph to get an arc map of the undirected graph.
 		    /// Its value type is inherited from the first arc map type
 		    /// (\c %ForwardMap).
 		    template <typename ForwardMap, typename BackwardMap>
 		    class CombinedArcMap {
 		    public:
 		      /// The key type of the map
 		      typedef typename Parent::Arc Key;
 		      /// The value type of the map
 		      typedef typename ForwardMap::Value Value;
 		      typedef typename MapTraits<ForwardMap>::ReferenceMapTag ReferenceMapTag;
 		      typedef typename MapTraits<ForwardMap>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<ForwardMap>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<ForwardMap>::ReturnValue Reference;
 		      typedef typename MapTraits<ForwardMap>::ConstReturnValue ConstReference;
 		      /// Constructor
 		      CombinedArcMap(ForwardMap& forward, BackwardMap& backward)
 		        : _forward(&forward), _backward(&backward) {}
 		      /// Sets the value associated with the given key.
 		      void set(const Key& e, const Value& a) {
 		        if (Parent::direction(e)) {
 		          _forward->set(e, a);
 		        } else {
 		          _backward->set(e, a);
+		        }
+		      }
 		      /// Returns the value associated with the given key.
 		      ConstReturnValue operator[](const Key& e) const {
 		        if (Parent::direction(e)) {
 		          return (*_forward)[e];
 		        } else {
 		          return (*_backward)[e];
+		        }
+		      }
 		      /// Returns a reference to the value associated with the given key.
 		      ReturnValue operator[](const Key& e) {
 		        if (Parent::direction(e)) {
 		          return (*_forward)[e];
 		        } else {
 		          return (*_backward)[e];
+		        }
+		      }
 		    protected:
 		      ForwardMap* _forward;
 		      BackwardMap* _backward;
 		    };
 		    /// \brief Returns a combined arc map
 		    ///
 		    /// This function just returns a combined arc map.
 		    template <typename ForwardMap, typename BackwardMap>
 		    static CombinedArcMap<ForwardMap, BackwardMap>
 		    combinedArcMap(ForwardMap& forward, BackwardMap& backward) {
 		      return CombinedArcMap<ForwardMap, BackwardMap>(forward, backward);
+		    }
 		    template <typename ForwardMap, typename BackwardMap>
 		    static CombinedArcMap<const ForwardMap, BackwardMap>
 		    combinedArcMap(const ForwardMap& forward, BackwardMap& backward) {
 		      return CombinedArcMap<const ForwardMap,
 		        BackwardMap>(forward, backward);
+		    }
 		    template <typename ForwardMap, typename BackwardMap>
 		    static CombinedArcMap<ForwardMap, const BackwardMap>
 		    combinedArcMap(ForwardMap& forward, const BackwardMap& backward) {
 		      return CombinedArcMap<ForwardMap,
 		        const BackwardMap>(forward, backward);
+		    }
 		    template <typename ForwardMap, typename BackwardMap>
 		    static CombinedArcMap<const ForwardMap, const BackwardMap>
 		    combinedArcMap(const ForwardMap& forward, const BackwardMap& backward) {
 		      return CombinedArcMap<const ForwardMap,
 		        const BackwardMap>(forward, backward);
+		    }
 		  };
 		  /// \brief Returns a read-only Undirector adaptor
 		  ///
 		  /// This function just returns a read-only \ref Undirector adaptor.
 		  /// \ingroup graph_adaptors
 		  /// \relates Undirector
 		  template<typename GR>
 		  Undirector<const GR> undirector(const GR& digraph) {
 		    return Undirector<const GR>(digraph);
+		  }
 		  template <typename _Graph, typename _DirectionMap>
 		  class OrienterBase {
 		  public:
 		    typedef _Graph Graph;
 		    typedef _DirectionMap DirectionMap;
 		    typedef typename Graph::Node Node;
 		    typedef typename Graph::Edge Arc;
 		    void reverseArc(const Arc& arc) {
 		      _direction->set(arc, !(*_direction)[arc]);
+		    }
 		    void first(Node& i) const { _graph->first(i); }
 		    void first(Arc& i) const { _graph->first(i); }
 		    void firstIn(Arc& i, const Node& n) const {
 		      bool d = true;
 		      _graph->firstInc(i, d, n);
 		      while (i != INVALID && d == (*_direction)[i]) _graph->nextInc(i, d);
+		    }
 		    void firstOut(Arc& i, const Node& n ) const {
 		      bool d = true;
 		      _graph->firstInc(i, d, n);
 		      while (i != INVALID && d != (*_direction)[i]) _graph->nextInc(i, d);
+		    }
 		    void next(Node& i) const { _graph->next(i); }
 		    void next(Arc& i) const { _graph->next(i); }
 		    void nextIn(Arc& i) const {
 		      bool d = !(*_direction)[i];
 		      _graph->nextInc(i, d);
 		      while (i != INVALID && d == (*_direction)[i]) _graph->nextInc(i, d);
+		    }
 		    void nextOut(Arc& i) const {
 		      bool d = (*_direction)[i];
 		      _graph->nextInc(i, d);
 		      while (i != INVALID && d != (*_direction)[i]) _graph->nextInc(i, d);
+		    }
 		    Node source(const Arc& e) const {
 		      return (*_direction)[e] ? _graph->u(e) : _graph->v(e);
+		    }
 		    Node target(const Arc& e) const {
 		      return (*_direction)[e] ? _graph->v(e) : _graph->u(e);
+		    }
 		    typedef NodeNumTagIndicator<Graph> NodeNumTag;
 		    int nodeNum() const { return _graph->nodeNum(); }
 		    typedef EdgeNumTagIndicator<Graph> ArcNumTag;
 		    int arcNum() const { return _graph->edgeNum(); }
 		    typedef FindEdgeTagIndicator<Graph> FindArcTag;
 		    Arc findArc(const Node& u, const Node& v,
 		                const Arc& prev = INVALID) const {
 		      Arc arc = _graph->findEdge(u, v, prev);
 		      while (arc != INVALID && source(arc) != u) {
 		        arc = _graph->findEdge(u, v, arc);
+		      }
 		      return arc;
+		    }
 		    Node addNode() {
 		      return Node(_graph->addNode());
+		    }
 		    Arc addArc(const Node& u, const Node& v) {
 		      Arc arc = _graph->addEdge(u, v);
 		      _direction->set(arc, _graph->u(arc) == u);
 		      return arc;
+		    }
 		    void erase(const Node& i) { _graph->erase(i); }
 		    void erase(const Arc& i) { _graph->erase(i); }
 		    void clear() { _graph->clear(); }
 		    int id(const Node& v) const { return _graph->id(v); }
 		    int id(const Arc& e) const { return _graph->id(e); }
 		    Node nodeFromId(int idx) const { return _graph->nodeFromId(idx); }
 		    Arc arcFromId(int idx) const { return _graph->edgeFromId(idx); }
 		    int maxNodeId() const { return _graph->maxNodeId(); }
 		    int maxArcId() const { return _graph->maxEdgeId(); }
 		    typedef typename ItemSetTraits<Graph, Node>::ItemNotifier NodeNotifier;
 		    NodeNotifier& notifier(Node) const { return _graph->notifier(Node()); }
 		    typedef typename ItemSetTraits<Graph, Arc>::ItemNotifier ArcNotifier;
 		    ArcNotifier& notifier(Arc) const { return _graph->notifier(Arc()); }
 		    template <typename _Value>
 		    class NodeMap : public _Graph::template NodeMap<_Value> {
 		    public:
 		      typedef typename _Graph::template NodeMap<_Value> Parent;
 		      explicit NodeMap(const OrienterBase& adapter)
 		        : Parent(*adapter._graph) {}
 		      NodeMap(const OrienterBase& adapter, const _Value& value)
 		        : Parent(*adapter._graph, value) {}
 		    private:
 		      NodeMap& operator=(const NodeMap& cmap) {
 		        return operator=<NodeMap>(cmap);
+		      }
 		      template <typename CMap>
 		      NodeMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		    template <typename _Value>
 		    class ArcMap : public _Graph::template EdgeMap<_Value> {
 		    public:
 		      typedef typename Graph::template EdgeMap<_Value> Parent;
 		      explicit ArcMap(const OrienterBase& adapter)
 		        : Parent(*adapter._graph) { }
 		      ArcMap(const OrienterBase& adapter, const _Value& value)
 		        : Parent(*adapter._graph, value) { }
 		    private:
 		      ArcMap& operator=(const ArcMap& cmap) {
 		        return operator=<ArcMap>(cmap);
+		      }
 		      template <typename CMap>
 		      ArcMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		  protected:
 		    Graph* _graph;
 		    DirectionMap* _direction;
 		    void setDirectionMap(DirectionMap& direction) {
 		      _direction = &direction;
+		    }
 		    void setGraph(Graph& graph) {
 		      _graph = &graph;
+		    }
 		  };
 		  /// \ingroup graph_adaptors
 		  ///
 		  /// \brief Adaptor class for orienting the edges of a graph to get a digraph
 		  ///
 		  /// Orienter adaptor can be used for orienting the edges of a graph to
 		  /// get a digraph. A \c bool edge map of the underlying graph must be
 		  /// specified, which define the direction of the arcs in the adaptor.
 		  /// The arcs can be easily reversed by the \c reverseArc() member function
 		  /// of the adaptor.
 		  /// This class conforms to the \ref concepts::Digraph "Digraph" concept.
 		  ///
 		  /// The adapted graph can also be modified through this adaptor
 		  /// by adding or removing nodes or arcs, unless the \c GR template
 		  /// parameter is set to be \c const.
 		  ///
 		  /// \tparam GR The type of the adapted graph.
 		  /// It must conform to the \ref concepts::Graph "Graph" concept.
 		  /// It can also be specified to be \c const.
 		  /// \tparam DM The type of the direction map.
 		  /// It must be a \c bool (or convertible) edge map of the
 		  /// adapted graph. The default type is
 		  /// \ref concepts::Graph::EdgeMap "GR::EdgeMap<bool>".
 		  ///
 		  /// \note The \c Node type of this adaptor and the adapted graph are
 		  /// convertible to each other, moreover the \c Arc type of the adaptor
 		  /// and the \c Edge type of the adapted graph are also convertible to
 		  /// each other.
 		#ifdef DOXYGEN
 		  template<typename GR,
 		           typename DM>
 		  class Orienter {
 		#else
 		  template<typename GR,
 		           typename DM = typename GR::template EdgeMap<bool> >
 		  class Orienter :
 		    public DigraphAdaptorExtender<OrienterBase<GR, DM> > {
 		#endif
 		  public:
 		    /// The type of the adapted graph.
 		    typedef GR Graph;
 		    /// The type of the direction edge map.
 		    typedef DM DirectionMap;
 		    typedef DigraphAdaptorExtender<OrienterBase<GR, DM> > Parent;
 		    typedef typename Parent::Arc Arc;
 		  protected:
 		    Orienter() { }
 		  public:
 		    /// \brief Constructor
 		    ///
 		    /// Constructor of the adaptor.
 		    Orienter(Graph& graph, DirectionMap& direction) {
 		      setGraph(graph);
 		      setDirectionMap(direction);
+		    }
 		    /// \brief Reverses the given arc
 		    ///
 		    /// This function reverses the given arc.
 		    /// It is done by simply negate the assigned value of \c a
 		    /// in the direction map.
 		    void reverseArc(const Arc& a) {
 		      Parent::reverseArc(a);
+		    }
 		  };
 		  /// \brief Returns a read-only Orienter adaptor
 		  ///
 		  /// This function just returns a read-only \ref Orienter adaptor.
 		  /// \ingroup graph_adaptors
 		  /// \relates Orienter
 		  template<typename GR, typename DM>
 		  Orienter<const GR, DM>
 		  orienter(const GR& graph, DM& direction_map) {
 		    return Orienter<const GR, DM>(graph, direction_map);
+		  }
 		  template<typename GR, typename DM>
 		  Orienter<const GR, const DM>
 		  orienter(const GR& graph, const DM& direction_map) {
 		    return Orienter<const GR, const DM>(graph, direction_map);
+		  }
 		  namespace _adaptor_bits {
 		    template<typename Digraph,
 		             typename CapacityMap,
 		             typename FlowMap,
 		             typename Tolerance>
 		    class ResForwardFilter {
 		    public:
 		      typedef typename Digraph::Arc Key;
 		      typedef bool Value;
 		    private:
 		      const CapacityMap* _capacity;
 		      const FlowMap* _flow;
 		      Tolerance _tolerance;
 		    public:
 		      ResForwardFilter(const CapacityMap& capacity, const FlowMap& flow,
 		                       const Tolerance& tolerance = Tolerance())
 		        : _capacity(&capacity), _flow(&flow), _tolerance(tolerance) { }
 		      bool operator[](const typename Digraph::Arc& a) const {
 		        return _tolerance.positive((*_capacity)[a] - (*_flow)[a]);
+		      }
 		    };
 		    template<typename Digraph,
 		             typename CapacityMap,
 		             typename FlowMap,
 		             typename Tolerance>
 		    class ResBackwardFilter {
 		    public:
 		      typedef typename Digraph::Arc Key;
 		      typedef bool Value;
 		    private:
 		      const CapacityMap* _capacity;
 		      const FlowMap* _flow;
 		      Tolerance _tolerance;
 		    public:
 		      ResBackwardFilter(const CapacityMap& capacity, const FlowMap& flow,
 		                        const Tolerance& tolerance = Tolerance())
 		        : _capacity(&capacity), _flow(&flow), _tolerance(tolerance) { }
 		      bool operator[](const typename Digraph::Arc& a) const {
 		        return _tolerance.positive((*_flow)[a]);
+		      }
 		    };
+		  }
 		  /// \ingroup graph_adaptors
 		  ///
 		  /// \brief Adaptor class for composing the residual digraph for directed
 		  /// flow and circulation problems.
 		  ///
 		  /// Residual can be used for composing the \e residual digraph for directed
 		  /// flow and circulation problems. Let \f$ G=(V, A) \f$ be a directed graph
 		  /// and let \f$ F \f$ be a number type. Let \f$ flow, cap: A\to F \f$ be
 		  /// functions on the arcs.
 		  /// ResidualDigraph can be used for composing the \e residual digraph
 		  /// for directed flow and circulation problems. Let \f$ G=(V, A) \f$
 		  /// be a directed graph and let \f$ F \f$ be a number type.
 		  /// Let \f$ flow, cap: A\to F \f$ be functions on the arcs.
 		  /// This adaptor implements a digraph structure with node set \f$ V \f$
 		  /// and arc set \f$ A_{forward}\cup A_{backward} \f$,
 		  /// where \f$ A_{forward}=\{uv : uv\in A, flow(uv)<cap(uv)\} \f$ and
 		  /// \f$ A_{backward}=\{vu : uv\in A, flow(uv)>0\} \f$, i.e. the so
 		  /// called residual digraph.
 		  /// When the union \f$ A_{forward}\cup A_{backward} \f$ is taken,
 		  /// multiplicities are counted, i.e. the adaptor has exactly
 		  /// \f$ |A_{forward}| + |A_{backward}|\f$ arcs (it may have parallel
 		  /// arcs).
 		  /// This class conforms to the \ref concepts::Digraph "Digraph" concept.
 		  ///
 		  /// \tparam GR The type of the adapted digraph.
 		  /// It must conform to the \ref concepts::Digraph "Digraph" concept.
 		  /// It is implicitly \c const.
 		  /// \tparam CM The type of the capacity map.
 		  /// It must be an arc map of some numerical type, which defines
 		  /// the capacities in the flow problem. It is implicitly \c const.
 		  /// The default type is
 		  /// \ref concepts::Digraph::ArcMap "GR::ArcMap<int>".
 		  /// \tparam FM The type of the flow map.
 		  /// It must be an arc map of some numerical type, which defines
 		  /// the flow values in the flow problem. The default type is \c CM.
 		  /// \tparam TL The tolerance type for handling inexact computation.
 		  /// The default tolerance type depends on the value type of the
 		  /// capacity map.
 		  ///
 		  /// \note This adaptor is implemented using Undirector and FilterArcs
 		  /// adaptors.
 		  ///
 		  /// \note The \c Node type of this adaptor and the adapted digraph are
 		  /// convertible to each other, moreover the \c Arc type of the adaptor
 		  /// is convertible to the \c Arc type of the adapted digraph.
 		#ifdef DOXYGEN
 		  template<typename GR, typename CM, typename FM, typename TL>
-		  class Residual
+		  class ResidualDigraph
 		#else
 		  template<typename GR,
 		           typename CM = typename GR::template ArcMap<int>,
 		           typename FM = CM,
 		           typename TL = Tolerance<typename CM::Value> >
-		  class Residual :
+		  class ResidualDigraph :
 		    public FilterArcs<
 		      Undirector<const GR>,
 		      typename Undirector<const GR>::template CombinedArcMap<
 		        _adaptor_bits::ResForwardFilter<const GR, CM, FM, TL>,
 		        _adaptor_bits::ResBackwardFilter<const GR, CM, FM, TL> > >
 		#endif
+		  {
 		  public:
 		    /// The type of the underlying digraph.
 		    typedef GR Digraph;
 		    /// The type of the capacity map.
 		    typedef CM CapacityMap;
 		    /// The type of the flow map.
 		    typedef FM FlowMap;
 		    /// The tolerance type.
 		    typedef TL Tolerance;
 		    typedef typename CapacityMap::Value Value;
-		    typedef Residual Adaptor;
+		    typedef ResidualDigraph Adaptor;
 		  protected:
 		    typedef Undirector<const Digraph> Undirected;
 		    typedef _adaptor_bits::ResForwardFilter<const Digraph, CapacityMap,
 		                                            FlowMap, Tolerance> ForwardFilter;
 		    typedef _adaptor_bits::ResBackwardFilter<const Digraph, CapacityMap,
 		                                             FlowMap, Tolerance> BackwardFilter;
 		    typedef typename Undirected::
 		      template CombinedArcMap<ForwardFilter, BackwardFilter> ArcFilter;
 		    typedef FilterArcs<Undirected, ArcFilter> Parent;
 		    const CapacityMap* _capacity;
 		    FlowMap* _flow;
 		    Undirected _graph;
 		    ForwardFilter _forward_filter;
 		    BackwardFilter _backward_filter;
 		    ArcFilter _arc_filter;
 		  public:
 		    /// \brief Constructor
 		    ///
 		    /// Constructor of the residual digraph adaptor. The parameters are the
 		    /// digraph, the capacity map, the flow map, and a tolerance object.
 		    Residual(const Digraph& digraph, const CapacityMap& capacity,
 		             FlowMap& flow, const Tolerance& tolerance = Tolerance())
 		    ResidualDigraph(const Digraph& digraph, const CapacityMap& capacity,
 		                    FlowMap& flow, const Tolerance& tolerance = Tolerance())
 		      : Parent(), _capacity(&capacity), _flow(&flow), _graph(digraph),
 		        _forward_filter(capacity, flow, tolerance),
 		        _backward_filter(capacity, flow, tolerance),
 		        _arc_filter(_forward_filter, _backward_filter)
+		    {
 		      Parent::setDigraph(_graph);
 		      Parent::setArcFilterMap(_arc_filter);
+		    }
 		    typedef typename Parent::Arc Arc;
 		    /// \brief Returns the residual capacity of the given arc.
 		    ///
 		    /// Returns the residual capacity of the given arc.
 		    Value residualCapacity(const Arc& a) const {
 		      if (Undirected::direction(a)) {
 		        return (*_capacity)[a] - (*_flow)[a];
 		      } else {
 		        return (*_flow)[a];
+		      }
+		    }
 		    /// \brief Augments on the given arc in the residual digraph.
 		    ///
 		    /// Augments on the given arc in the residual digraph. It increases
 		    /// or decreases the flow value on the original arc according to the
 		    /// direction of the residual arc.
 		    void augment(const Arc& a, const Value& v) const {
 		      if (Undirected::direction(a)) {
 		        _flow->set(a, (*_flow)[a] + v);
 		      } else {
 		        _flow->set(a, (*_flow)[a] - v);
+		      }
+		    }
 		    /// \brief Returns \c true if the given residual arc is a forward arc.
 		    ///
 		    /// Returns \c true if the given residual arc has the same orientation
 		    /// as the original arc, i.e. it is a so called forward arc.
 		    static bool forward(const Arc& a) {
 		      return Undirected::direction(a);
+		    }
 		    /// \brief Returns \c true if the given residual arc is a backward arc.
 		    ///
 		    /// Returns \c true if the given residual arc has the opposite orientation
 		    /// than the original arc, i.e. it is a so called backward arc.
 		    static bool backward(const Arc& a) {
 		      return !Undirected::direction(a);
+		    }
 		    /// \brief Returns the forward oriented residual arc.
 		    ///
 		    /// Returns the forward oriented residual arc related to the given
 		    /// arc of the underlying digraph.
 		    static Arc forward(const typename Digraph::Arc& a) {
 		      return Undirected::direct(a, true);
+		    }
 		    /// \brief Returns the backward oriented residual arc.
 		    ///
 		    /// Returns the backward oriented residual arc related to the given
 		    /// arc of the underlying digraph.
 		    static Arc backward(const typename Digraph::Arc& a) {
 		      return Undirected::direct(a, false);
+		    }
 		    /// \brief Residual capacity map.
 		    ///
 		    /// This map adaptor class can be used for obtaining the residual
 		    /// capacities as an arc map of the residual digraph.
 		    /// Its value type is inherited from the capacity map.
 		    class ResidualCapacity {
 		    protected:
 		      const Adaptor* _adaptor;
 		    public:
 		      /// The key type of the map
 		      typedef Arc Key;
 		      /// The value type of the map
 		      typedef typename CapacityMap::Value Value;
 		      /// Constructor
 		      ResidualCapacity(const Adaptor& adaptor) : _adaptor(&adaptor) {}
 		      /// Returns the value associated with the given residual arc
 		      Value operator[](const Arc& a) const {
 		        return _adaptor->residualCapacity(a);
+		      }
 		    };
 		    /// \brief Returns a residual capacity map
 		    ///
 		    /// This function just returns a residual capacity map.
 		    ResidualCapacity residualCapacity() const {
 		      return ResidualCapacity(*this);
+		    }
 		  };
 		  /// \brief Returns a (read-only) Residual adaptor
 		  ///
 		  /// This function just returns a (read-only) \ref Residual adaptor.
 		  /// \ingroup graph_adaptors
 		  /// \relates Residual
 		  template<typename GR, typename CM, typename FM>
 		  Residual<GR, CM, FM> residual(const GR& digraph,
 		                                const CM& capacity_map,
 		                                FM& flow_map) {
 		    return Residual<GR, CM, FM> (digraph, capacity_map, flow_map);
 		  ResidualDigraph<GR, CM, FM>
 		  residualDigraph(const GR& digraph, const CM& capacity_map, FM& flow_map) {
 		    return ResidualDigraph<GR, CM, FM> (digraph, capacity_map, flow_map);
+		  }
 		  template <typename _Digraph>
 		  class SplitNodesBase {
 		  public:
 		    typedef _Digraph Digraph;
 		    typedef DigraphAdaptorBase<const _Digraph> Parent;
 		    typedef SplitNodesBase Adaptor;
 		    typedef typename Digraph::Node DigraphNode;
 		    typedef typename Digraph::Arc DigraphArc;
 		    class Node;
 		    class Arc;
 		  private:
 		    template <typename T> class NodeMapBase;
 		    template <typename T> class ArcMapBase;
 		  public:
 		    class Node : public DigraphNode {
 		      friend class SplitNodesBase;
 		      template <typename T> friend class NodeMapBase;
 		    private:
 		      bool _in;
 		      Node(DigraphNode node, bool in)
 		        : DigraphNode(node), _in(in) {}
 		    public:
 		      Node() {}
 		      Node(Invalid) : DigraphNode(INVALID), _in(true) {}
 		      bool operator==(const Node& node) const {
 		        return DigraphNode::operator==(node) && _in == node._in;
+		      }
 		      bool operator!=(const Node& node) const {
 		        return !(*this == node);
+		      }
 		      bool operator<(const Node& node) const {
 		        return DigraphNode::operator<(node) ||
 		          (DigraphNode::operator==(node) && _in < node._in);
+		      }
 		    };
 		    class Arc {
 		      friend class SplitNodesBase;
 		      template <typename T> friend class ArcMapBase;
 		    private:
 		      typedef BiVariant<DigraphArc, DigraphNode> ArcImpl;
 		      explicit Arc(const DigraphArc& arc) : _item(arc) {}
 		      explicit Arc(const DigraphNode& node) : _item(node) {}
 		      ArcImpl _item;
 		    public:
 		      Arc() {}
 		      Arc(Invalid) : _item(DigraphArc(INVALID)) {}
 		      bool operator==(const Arc& arc) const {
 		        if (_item.firstState()) {
 		          if (arc._item.firstState()) {
 		            return _item.first() == arc._item.first();
+		          }
 		        } else {
 		          if (arc._item.secondState()) {
 		            return _item.second() == arc._item.second();
+		          }
+		        }
 		        return false;
+		      }
 		      bool operator!=(const Arc& arc) const {
 		        return !(*this == arc);
+		      }
 		      bool operator<(const Arc& arc) const {
 		        if (_item.firstState()) {
 		          if (arc._item.firstState()) {
 		            return _item.first() < arc._item.first();
+		          }
 		          return false;
 		        } else {
 		          if (arc._item.secondState()) {
 		            return _item.second() < arc._item.second();
+		          }
 		          return true;
+		        }
+		      }
 		      operator DigraphArc() const { return _item.first(); }
 		      operator DigraphNode() const { return _item.second(); }
 		    };
 		    void first(Node& n) const {
 		      _digraph->first(n);
 		      n._in = true;
+		    }
 		    void next(Node& n) const {
 		      if (n._in) {
 		        n._in = false;
 		      } else {
 		        n._in = true;
 		        _digraph->next(n);
+		      }
+		    }
 		    void first(Arc& e) const {
 		      e._item.setSecond();
 		      _digraph->first(e._item.second());
 		      if (e._item.second() == INVALID) {
 		        e._item.setFirst();
 		        _digraph->first(e._item.first());
+		      }
+		    }
 		    void next(Arc& e) const {
 		      if (e._item.secondState()) {
 		        _digraph->next(e._item.second());
 		        if (e._item.second() == INVALID) {
 		          e._item.setFirst();
 		          _digraph->first(e._item.first());
+		        }
 		      } else {
 		        _digraph->next(e._item.first());
+		      }
+		    }
 		    void firstOut(Arc& e, const Node& n) const {
 		      if (n._in) {
 		        e._item.setSecond(n);
 		      } else {
 		        e._item.setFirst();
 		        _digraph->firstOut(e._item.first(), n);
+		      }
+		    }
 		    void nextOut(Arc& e) const {
 		      if (!e._item.firstState()) {
 		        e._item.setFirst(INVALID);
 		      } else {
 		        _digraph->nextOut(e._item.first());
+		      }
+		    }
 		    void firstIn(Arc& e, const Node& n) const {
 		      if (!n._in) {
 		        e._item.setSecond(n);
 		      } else {
 		        e._item.setFirst();
 		        _digraph->firstIn(e._item.first(), n);
+		      }
+		    }
 		    void nextIn(Arc& e) const {
 		      if (!e._item.firstState()) {
 		        e._item.setFirst(INVALID);
 		      } else {
 		        _digraph->nextIn(e._item.first());
+		      }
+		    }
 		    Node source(const Arc& e) const {
 		      if (e._item.firstState()) {
 		        return Node(_digraph->source(e._item.first()), false);
 		      } else {
 		        return Node(e._item.second(), true);
+		      }
+		    }
 		    Node target(const Arc& e) const {
 		      if (e._item.firstState()) {
 		        return Node(_digraph->target(e._item.first()), true);
 		      } else {
 		        return Node(e._item.second(), false);
+		      }
+		    }
 		    int id(const Node& n) const {
 		      return (_digraph->id(n) << 1) | (n._in ? 0 : 1);
+		    }
 		    Node nodeFromId(int ix) const {
 		      return Node(_digraph->nodeFromId(ix >> 1), (ix & 1) == 0);
+		    }
 		    int maxNodeId() const {
 		      return 2 * _digraph->maxNodeId() + 1;
+		    }
 		    int id(const Arc& e) const {
 		      if (e._item.firstState()) {
 		        return _digraph->id(e._item.first()) << 1;
 		      } else {
 		        return (_digraph->id(e._item.second()) << 1) | 1;
+		      }
+		    }
 		    Arc arcFromId(int ix) const {
 		      if ((ix & 1) == 0) {
 		        return Arc(_digraph->arcFromId(ix >> 1));
 		      } else {
 		        return Arc(_digraph->nodeFromId(ix >> 1));
+		      }
+		    }
 		    int maxArcId() const {
 		      return std::max(_digraph->maxNodeId() << 1,
 		                      (_digraph->maxArcId() << 1) | 1);
+		    }
 		    static bool inNode(const Node& n) {
 		      return n._in;
+		    }
 		    static bool outNode(const Node& n) {
 		      return !n._in;
+		    }
 		    static bool origArc(const Arc& e) {
 		      return e._item.firstState();
+		    }
 		    static bool bindArc(const Arc& e) {
 		      return e._item.secondState();
+		    }
 		    static Node inNode(const DigraphNode& n) {
 		      return Node(n, true);
+		    }
 		    static Node outNode(const DigraphNode& n) {
 		      return Node(n, false);
+		    }
 		    static Arc arc(const DigraphNode& n) {
 		      return Arc(n);
+		    }
 		    static Arc arc(const DigraphArc& e) {
 		      return Arc(e);
+		    }
 		    typedef True NodeNumTag;
 		    int nodeNum() const {
 		      return  2 * countNodes(*_digraph);
+		    }
 		    typedef True ArcNumTag;
 		    int arcNum() const {
 		      return countArcs(*_digraph) + countNodes(*_digraph);
+		    }
 		    typedef True FindArcTag;
 		    Arc findArc(const Node& u, const Node& v,
 		                const Arc& prev = INVALID) const {
 		      if (inNode(u) && outNode(v)) {
 		        if (static_cast<const DigraphNode&>(u) ==
 		            static_cast<const DigraphNode&>(v) && prev == INVALID) {
 		          return Arc(u);
+		        }
+		      }
 		      else if (outNode(u) && inNode(v)) {
 		        return Arc(::lemon::findArc(*_digraph, u, v, prev));
+		      }
 		      return INVALID;
+		    }
 		  private:
 		    template <typename _Value>
 		    class NodeMapBase
 		      : public MapTraits<typename Parent::template NodeMap<_Value> > {
 		      typedef typename Parent::template NodeMap<_Value> NodeImpl;
 		    public:
 		      typedef Node Key;
 		      typedef _Value Value;
 		      typedef typename MapTraits<NodeImpl>::ReferenceMapTag ReferenceMapTag;
 		      typedef typename MapTraits<NodeImpl>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<NodeImpl>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<NodeImpl>::ReturnValue Reference;
 		      typedef typename MapTraits<NodeImpl>::ConstReturnValue ConstReference;
 		      NodeMapBase(const Adaptor& adaptor)
 		        : _in_map(*adaptor._digraph), _out_map(*adaptor._digraph) {}
 		      NodeMapBase(const Adaptor& adaptor, const Value& value)
 		        : _in_map(*adaptor._digraph, value),
 		          _out_map(*adaptor._digraph, value) {}
 		      void set(const Node& key, const Value& val) {
 		        if (Adaptor::inNode(key)) { _in_map.set(key, val); }
 		        else {_out_map.set(key, val); }
+		      }
 		      ReturnValue operator[](const Node& key) {
 		        if (Adaptor::inNode(key)) { return _in_map[key]; }
 		        else { return _out_map[key]; }
+		      }
 		      ConstReturnValue operator[](const Node& key) const {
 		        if (Adaptor::inNode(key)) { return _in_map[key]; }
 		        else { return _out_map[key]; }
+		      }
 		    private:
 		      NodeImpl _in_map, _out_map;
 		    };
 		    template <typename _Value>
 		    class ArcMapBase
 		      : public MapTraits<typename Parent::template ArcMap<_Value> > {
 		      typedef typename Parent::template ArcMap<_Value> ArcImpl;
 		      typedef typename Parent::template NodeMap<_Value> NodeImpl;
 		    public:
 		      typedef Arc Key;
 		      typedef _Value Value;
 		      typedef typename MapTraits<ArcImpl>::ReferenceMapTag ReferenceMapTag;
 		      typedef typename MapTraits<ArcImpl>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<ArcImpl>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<ArcImpl>::ReturnValue Reference;
 		      typedef typename MapTraits<ArcImpl>::ConstReturnValue ConstReference;
 		      ArcMapBase(const Adaptor& adaptor)
 		        : _arc_map(*adaptor._digraph), _node_map(*adaptor._digraph) {}
 		      ArcMapBase(const Adaptor& adaptor, const Value& value)
 		        : _arc_map(*adaptor._digraph, value),
 		          _node_map(*adaptor._digraph, value) {}
 		      void set(const Arc& key, const Value& val) {
 		        if (Adaptor::origArc(key)) {
 		          _arc_map.set(key._item.first(), val);
 		        } else {
 		          _node_map.set(key._item.second(), val);
+		        }
+		      }
 		      ReturnValue operator[](const Arc& key) {
 		        if (Adaptor::origArc(key)) {
 		          return _arc_map[key._item.first()];
 		        } else {
 		          return _node_map[key._item.second()];
+		        }
+		      }
 		      ConstReturnValue operator[](const Arc& key) const {
 		        if (Adaptor::origArc(key)) {
 		          return _arc_map[key._item.first()];
 		        } else {
 		          return _node_map[key._item.second()];
+		        }
+		      }
 		    private:
 		      ArcImpl _arc_map;
 		      NodeImpl _node_map;
 		    };
 		  public:
 		    template <typename _Value>
 		    class NodeMap
 		      : public SubMapExtender<Adaptor, NodeMapBase<_Value> >
+		    {
 		    public:
 		      typedef _Value Value;
 		      typedef SubMapExtender<Adaptor, NodeMapBase<Value> > Parent;
 		      NodeMap(const Adaptor& adaptor)
 		        : Parent(adaptor) {}
 		      NodeMap(const Adaptor& adaptor, const Value& value)
 		        : Parent(adaptor, value) {}
 		    private:
 		      NodeMap& operator=(const NodeMap& cmap) {
 		        return operator=<NodeMap>(cmap);
+		      }
 		      template <typename CMap>
 		      NodeMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		    template <typename _Value>
 		    class ArcMap
 		      : public SubMapExtender<Adaptor, ArcMapBase<_Value> >
+		    {
 		    public:
 		      typedef _Value Value;
 		      typedef SubMapExtender<Adaptor, ArcMapBase<Value> > Parent;
 		      ArcMap(const Adaptor& adaptor)
 		        : Parent(adaptor) {}
 		      ArcMap(const Adaptor& adaptor, const Value& value)
 		        : Parent(adaptor, value) {}
 		    private:
 		      ArcMap& operator=(const ArcMap& cmap) {
 		        return operator=<ArcMap>(cmap);
+		      }
 		      template <typename CMap>
 		      ArcMap& operator=(const CMap& cmap) {
 		        Parent::operator=(cmap);
 		        return *this;
+		      }
 		    };
 		  protected:
 		    SplitNodesBase() : _digraph(0) {}
 		    Digraph* _digraph;
 		    void setDigraph(Digraph& digraph) {
 		      _digraph = &digraph;
+		    }
 		  };
 		  /// \ingroup graph_adaptors
 		  ///
 		  /// \brief Adaptor class for splitting the nodes of a digraph.
 		  ///
 		  /// SplitNodes adaptor can be used for splitting each node into an
 		  /// \e in-node and an \e out-node in a digraph. Formaly, the adaptor
 		  /// replaces each node \f$ u \f$ in the digraph with two nodes,
 		  /// namely node \f$ u_{in} \f$ and node \f$ u_{out} \f$.
 		  /// If there is a \f$ (v, u) \f$ arc in the original digraph, then the
 		  /// new target of the arc will be \f$ u_{in} \f$ and similarly the
 		  /// source of each original \f$ (u, v) \f$ arc will be \f$ u_{out} \f$.
 		  /// The adaptor adds an additional \e bind \e arc from \f$ u_{in} \f$
 		  /// to \f$ u_{out} \f$ for each node \f$ u \f$ of the original digraph.
 		  ///
 		  /// The aim of this class is running an algorithm with respect to node
 		  /// costs or capacities if the algorithm considers only arc costs or
 		  /// capacities directly.
 		  /// In this case you can use \c SplitNodes adaptor, and set the node
 		  /// costs/capacities of the original digraph to the \e bind \e arcs
 		  /// in the adaptor.
 		  ///
 		  /// \tparam GR The type of the adapted digraph.
 		  /// It must conform to the \ref concepts::Digraph "Digraph" concept.
 		  /// It is implicitly \c const.
 		  ///
 		  /// \note The \c Node type of this adaptor is converible to the \c Node
 		  /// type of the adapted digraph.
 		  template <typename GR>
 		#ifdef DOXYGEN
 		  class SplitNodes {
 		#else
 		  class SplitNodes
 		    : public DigraphAdaptorExtender<SplitNodesBase<const GR> > {
 		#endif
 		  public:
 		    typedef GR Digraph;
 		    typedef DigraphAdaptorExtender<SplitNodesBase<const GR> > Parent;
 		    typedef typename Digraph::Node DigraphNode;
 		    typedef typename Digraph::Arc DigraphArc;
 		    typedef typename Parent::Node Node;
 		    typedef typename Parent::Arc Arc;
 		    /// \brief Constructor
 		    ///
 		    /// Constructor of the adaptor.
 		    SplitNodes(const Digraph& g) {
 		      Parent::setDigraph(g);
+		    }
 		    /// \brief Returns \c true if the given node is an in-node.
 		    ///
 		    /// Returns \c true if the given node is an in-node.
 		    static bool inNode(const Node& n) {
 		      return Parent::inNode(n);
+		    }
 		    /// \brief Returns \c true if the given node is an out-node.
 		    ///
 		    /// Returns \c true if the given node is an out-node.
 		    static bool outNode(const Node& n) {
 		      return Parent::outNode(n);
+		    }
 		    /// \brief Returns \c true if the given arc is an original arc.
 		    ///
 		    /// Returns \c true if the given arc is one of the arcs in the
 		    /// original digraph.
 		    static bool origArc(const Arc& a) {
 		      return Parent::origArc(a);
+		    }
 		    /// \brief Returns \c true if the given arc is a bind arc.
 		    ///
 		    /// Returns \c true if the given arc is a bind arc, i.e. it connects
 		    /// an in-node and an out-node.
 		    static bool bindArc(const Arc& a) {
 		      return Parent::bindArc(a);
+		    }
 		    /// \brief Returns the in-node created from the given original node.
 		    ///
 		    /// Returns the in-node created from the given original node.
 		    static Node inNode(const DigraphNode& n) {
 		      return Parent::inNode(n);
+		    }
 		    /// \brief Returns the out-node created from the given original node.
 		    ///
 		    /// Returns the out-node created from the given original node.
 		    static Node outNode(const DigraphNode& n) {
 		      return Parent::outNode(n);
+		    }
 		    /// \brief Returns the bind arc that corresponds to the given
 		    /// original node.
 		    ///
 		    /// Returns the bind arc in the adaptor that corresponds to the given
 		    /// original node, i.e. the arc connecting the in-node and out-node
 		    /// of \c n.
 		    static Arc arc(const DigraphNode& n) {
 		      return Parent::arc(n);
+		    }
 		    /// \brief Returns the arc that corresponds to the given original arc.
 		    ///
 		    /// Returns the arc in the adaptor that corresponds to the given
 		    /// original arc.
 		    static Arc arc(const DigraphArc& a) {
 		      return Parent::arc(a);
+		    }
 		    /// \brief Node map combined from two original node maps
 		    ///
 		    /// This map adaptor class adapts two node maps of the original digraph
 		    /// to get a node map of the split digraph.
 		    /// Its value type is inherited from the first node map type
 		    /// (\c InNodeMap).
 		    template <typename InNodeMap, typename OutNodeMap>
 		    class CombinedNodeMap {
 		    public:
 		      /// The key type of the map
 		      typedef Node Key;
 		      /// The value type of the map
 		      typedef typename InNodeMap::Value Value;
 		      typedef typename MapTraits<InNodeMap>::ReferenceMapTag ReferenceMapTag;
 		      typedef typename MapTraits<InNodeMap>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<InNodeMap>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<InNodeMap>::ReturnValue Reference;
 		      typedef typename MapTraits<InNodeMap>::ConstReturnValue ConstReference;
 		      /// Constructor
 		      CombinedNodeMap(InNodeMap& in_map, OutNodeMap& out_map)
 		        : _in_map(in_map), _out_map(out_map) {}
 		      /// Returns the value associated with the given key.
 		      Value operator[](const Key& key) const {
 		        if (Parent::inNode(key)) {
 		          return _in_map[key];
 		        } else {
 		          return _out_map[key];
+		        }
+		      }
 		      /// Returns a reference to the value associated with the given key.
 		      Value& operator[](const Key& key) {
 		        if (Parent::inNode(key)) {
 		          return _in_map[key];
 		        } else {
 		          return _out_map[key];
+		        }
+		      }
 		      /// Sets the value associated with the given key.
 		      void set(const Key& key, const Value& value) {
 		        if (Parent::inNode(key)) {
 		          _in_map.set(key, value);
 		        } else {
 		          _out_map.set(key, value);
+		        }
+		      }
 		    private:
 		      InNodeMap& _in_map;
 		      OutNodeMap& _out_map;
 		    };
 		    /// \brief Returns a combined node map
 		    ///
 		    /// This function just returns a combined node map.
 		    template <typename InNodeMap, typename OutNodeMap>
 		    static CombinedNodeMap<InNodeMap, OutNodeMap>
 		    combinedNodeMap(InNodeMap& in_map, OutNodeMap& out_map) {
 		      return CombinedNodeMap<InNodeMap, OutNodeMap>(in_map, out_map);
+		    }
 		    template <typename InNodeMap, typename OutNodeMap>
 		    static CombinedNodeMap<const InNodeMap, OutNodeMap>
 		    combinedNodeMap(const InNodeMap& in_map, OutNodeMap& out_map) {
 		      return CombinedNodeMap<const InNodeMap, OutNodeMap>(in_map, out_map);
+		    }
 		    template <typename InNodeMap, typename OutNodeMap>
 		    static CombinedNodeMap<InNodeMap, const OutNodeMap>
 		    combinedNodeMap(InNodeMap& in_map, const OutNodeMap& out_map) {
 		      return CombinedNodeMap<InNodeMap, const OutNodeMap>(in_map, out_map);
+		    }
 		    template <typename InNodeMap, typename OutNodeMap>
 		    static CombinedNodeMap<const InNodeMap, const OutNodeMap>
 		    combinedNodeMap(const InNodeMap& in_map, const OutNodeMap& out_map) {
 		      return CombinedNodeMap<const InNodeMap,
 		        const OutNodeMap>(in_map, out_map);
+		    }
 		    /// \brief Arc map combined from an arc map and a node map of the
 		    /// original digraph.
 		    ///
 		    /// This map adaptor class adapts an arc map and a node map of the
 		    /// original digraph to get an arc map of the split digraph.
 		    /// Its value type is inherited from the original arc map type
 		    /// (\c ArcMap).
 		    template <typename ArcMap, typename NodeMap>
 		    class CombinedArcMap {
 		    public:
 		      /// The key type of the map
 		      typedef Arc Key;
 		      /// The value type of the map
 		      typedef typename ArcMap::Value Value;
 		      typedef typename MapTraits<ArcMap>::ReferenceMapTag ReferenceMapTag;
 		      typedef typename MapTraits<ArcMap>::ReturnValue ReturnValue;
 		      typedef typename MapTraits<ArcMap>::ConstReturnValue ConstReturnValue;
 		      typedef typename MapTraits<ArcMap>::ReturnValue Reference;
 		      typedef typename MapTraits<ArcMap>::ConstReturnValue ConstReference;
 		      /// Constructor
 		      CombinedArcMap(ArcMap& arc_map, NodeMap& node_map)
 		        : _arc_map(arc_map), _node_map(node_map) {}
 		      /// Returns the value associated with the given key.
 		      Value operator[](const Key& arc) const {
 		        if (Parent::origArc(arc)) {
 		          return _arc_map[arc];
 		        } else {
 		          return _node_map[arc];
+		        }
+		      }
 		      /// Returns a reference to the value associated with the given key.
 		      Value& operator[](const Key& arc) {
 		        if (Parent::origArc(arc)) {
 		          return _arc_map[arc];
 		        } else {
 		          return _node_map[arc];
+		        }
+		      }
 		      /// Sets the value associated with the given key.
 		      void set(const Arc& arc, const Value& val) {
 		        if (Parent::origArc(arc)) {
 		          _arc_map.set(arc, val);
 		        } else {
 		          _node_map.set(arc, val);
+		        }
+		      }
 		    private:
 		      ArcMap& _arc_map;
 		      NodeMap& _node_map;
 		    };
 		    /// \brief Returns a combined arc map
 		    ///
 		    /// This function just returns a combined arc map.
 		    template <typename ArcMap, typename NodeMap>
 		    static CombinedArcMap<ArcMap, NodeMap>
 		    combinedArcMap(ArcMap& arc_map, NodeMap& node_map) {
 		      return CombinedArcMap<ArcMap, NodeMap>(arc_map, node_map);
+		    }
 		    template <typename ArcMap, typename NodeMap>
 		    static CombinedArcMap<const ArcMap, NodeMap>
 		    combinedArcMap(const ArcMap& arc_map, NodeMap& node_map) {
 		      return CombinedArcMap<const ArcMap, NodeMap>(arc_map, node_map);
+		    }
 		    template <typename ArcMap, typename NodeMap>
 		    static CombinedArcMap<ArcMap, const NodeMap>
 		    combinedArcMap(ArcMap& arc_map, const NodeMap& node_map) {
 		      return CombinedArcMap<ArcMap, const NodeMap>(arc_map, node_map);
+		    }
 		    template <typename ArcMap, typename NodeMap>
 		    static CombinedArcMap<const ArcMap, const NodeMap>
 		    combinedArcMap(const ArcMap& arc_map, const NodeMap& node_map) {
 		      return CombinedArcMap<const ArcMap, const NodeMap>(arc_map, node_map);
+		    }
 		  };
 		  /// \brief Returns a (read-only) SplitNodes adaptor
 		  ///
 		  /// This function just returns a (read-only) \ref SplitNodes adaptor.
 		  /// \ingroup graph_adaptors
 		  /// \relates SplitNodes
 		  template<typename GR>
 		  SplitNodes<GR>
 		  splitNodes(const GR& digraph) {
 		    return SplitNodes<GR>(digraph);
+		  }
 		} //namespace lemon
 		#endif //LEMON_ADAPTORS_H

test/CMakeLists.txt

Show inline comments

 		INCLUDE_DIRECTORIES(${CMAKE_SOURCE_DIR})
 		LINK_DIRECTORIES(${CMAKE_BINARY_DIR}/lemon)
 		SET(TESTS
 		  adaptors_test
 		  bfs_test
 		  circulation_test
 		  counter_test
 		  dfs_test
 		  digraph_test
 		  dijkstra_test
 		  dim_test
 		  error_test
 		  graph_adaptor_test
 		  graph_copy_test
 		  graph_test
 		  graph_utils_test
 		  hao_orlin_test
 		  heap_test
 		  kruskal_test
 		  lp_test
 		  mip_test
 		  maps_test
 		  max_matching_test
 		  radix_sort_test
 		  path_test
 		  preflow_test
 		  random_test
 		  suurballe_test
 		  time_measure_test
 		  unionfind_test)
 		FOREACH(TEST_NAME ${TESTS})
 		  ADD_EXECUTABLE(${TEST_NAME} ${TEST_NAME}.cc)
 		  TARGET_LINK_LIBRARIES(${TEST_NAME} lemon)
 		  ADD_TEST(${TEST_NAME} ${TEST_NAME})
 		ENDFOREACH(TEST_NAME)

test/Makefile.am

Show inline comments

 		EXTRA_DIST += \
 			test/CMakeLists.txt
 		noinst_HEADERS += \
 			test/graph_test.h \
 			test/test_tools.h
 		check_PROGRAMS += \
 			test/adaptors_test \
 			test/bfs_test \
 			test/circulation_test \
 			test/counter_test \
 			test/dfs_test \
 			test/digraph_test \
 			test/dijkstra_test \
 			test/dim_test \
 			test/error_test \
 			test/graph_adaptor_test \
 			test/graph_copy_test \
 			test/graph_test \
 			test/graph_utils_test \
 			test/hao_orlin_test \
 			test/heap_test \
 			test/kruskal_test \
 			test/maps_test \
 			test/max_matching_test \
 			test/path_test \
 			test/preflow_test \
 			test/radix_sort_test \
 			test/random_test \
 			test/suurballe_test \
 			test/test_tools_fail \
 			test/test_tools_pass \
 			test/time_measure_test \
 			test/unionfind_test
 		if HAVE_LP
 		check_PROGRAMS += test/lp_test
 		endif HAVE_LP
 		if HAVE_MIP
 		check_PROGRAMS += test/mip_test
 		endif HAVE_MIP
 		TESTS += $(check_PROGRAMS)
 		XFAIL_TESTS += test/test_tools_fail$(EXEEXT)
 		test_adaptors_test_SOURCES = test/adaptors_test.cc
 		test_bfs_test_SOURCES = test/bfs_test.cc
 		test_circulation_test_SOURCES = test/circulation_test.cc
 		test_counter_test_SOURCES = test/counter_test.cc
 		test_dfs_test_SOURCES = test/dfs_test.cc
 		test_digraph_test_SOURCES = test/digraph_test.cc
 		test_dijkstra_test_SOURCES = test/dijkstra_test.cc
 		test_dim_test_SOURCES = test/dim_test.cc
 		test_error_test_SOURCES = test/error_test.cc
 		test_graph_adaptor_test_SOURCES = test/graph_adaptor_test.cc
 		test_graph_copy_test_SOURCES = test/graph_copy_test.cc
 		test_graph_test_SOURCES = test/graph_test.cc
 		test_graph_utils_test_SOURCES = test/graph_utils_test.cc
 		test_heap_test_SOURCES = test/heap_test.cc
 		test_kruskal_test_SOURCES = test/kruskal_test.cc
 		test_hao_orlin_test_SOURCES = test/hao_orlin_test.cc
 		test_lp_test_SOURCES = test/lp_test.cc
 		test_maps_test_SOURCES = test/maps_test.cc
 		test_mip_test_SOURCES = test/mip_test.cc
 		test_max_matching_test_SOURCES = test/max_matching_test.cc
 		test_path_test_SOURCES = test/path_test.cc
 		test_preflow_test_SOURCES = test/preflow_test.cc
 		test_radix_sort_test_SOURCES = test/radix_sort_test.cc
 		test_suurballe_test_SOURCES = test/suurballe_test.cc
 		test_random_test_SOURCES = test/random_test.cc
 		test_test_tools_fail_SOURCES = test/test_tools_fail.cc
 		test_test_tools_pass_SOURCES = test/test_tools_pass.cc
 		test_time_measure_test_SOURCES = test/time_measure_test.cc
 		test_unionfind_test_SOURCES = test/unionfind_test.cc

test/adaptors_test.cc

Show inline comments

 		/* -*- mode: C++; indent-tabs-mode: nil; -*-
+		 *
 		 * This file is a part of LEMON, a generic C++ optimization library.
+		 *
 		 * Copyright (C) 2003-2009
 		 * 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.
+		 *
 		 */
 		#include<iostream>
 		#include<lemon/concept_check.h>
 		#include <iostream>
 		#include <limits>
 		#include<lemon/list_graph.h>
 		#include<lemon/smart_graph.h>
 		#include<lemon/concepts/digraph.h>
 		#include<lemon/concepts/graph.h>
 		#include<lemon/adaptors.h>
-		#include <limits>
+		#include <lemon/list_graph.h>
 		#include <lemon/grid_graph.h>
 		#include <lemon/bfs.h>
 		#include <lemon/path.h>
 		#include"test/test_tools.h"
 		#include"test/graph_test.h"
 		#include <lemon/concepts/digraph.h>
 		#include <lemon/concepts/graph.h>
 		#include <lemon/concepts/graph_components.h>
 		#include <lemon/concepts/maps.h>
 		#include <lemon/concept_check.h>
 		#include <lemon/adaptors.h>
 		#include "test/test_tools.h"
 		#include "test/graph_test.h"
 		using namespace lemon;
 		void checkReverseDigraph() {
 		  // Check concepts
 		  checkConcept<concepts::Digraph, ReverseDigraph<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, ReverseDigraph<ListDigraph> >();
 		  checkConcept<concepts::AlterableDigraphComponent<>,
 		               ReverseDigraph<ListDigraph> >();
 		  checkConcept<concepts::ExtendableDigraphComponent<>,
 		               ReverseDigraph<ListDigraph> >();
 		  checkConcept<concepts::ErasableDigraphComponent<>,
 		               ReverseDigraph<ListDigraph> >();
 		  checkConcept<concepts::ClearableDigraphComponent<>,
 		               ReverseDigraph<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef ReverseDigraph<Digraph> Adaptor;
 		  Digraph digraph;
 		  Adaptor adaptor(digraph);
 		  // Add nodes and arcs to the original digraph
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Digraph::Node n3 = digraph.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Digraph::Arc a3 = digraph.addArc(n2, n3);
 		  // Check the adaptor
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 0);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n1, 2);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check the orientation of the arcs
 		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
 		    check(adaptor.source(a) == digraph.target(a), "Wrong reverse");
 		    check(adaptor.target(a) == digraph.source(a), "Wrong reverse");
+		  }
 		  // Add and erase nodes and arcs in the digraph through the adaptor
 		  Adaptor::Node n4 = adaptor.addNode();
 		  Adaptor::Arc a4 = adaptor.addArc(n4, n3);
 		  Adaptor::Arc a5 = adaptor.addArc(n2, n4);
 		  Adaptor::Arc a6 = adaptor.addArc(n2, n4);
 		  Adaptor::Arc a7 = adaptor.addArc(n1, n4);
 		  Adaptor::Arc a8 = adaptor.addArc(n1, n2);
 		  adaptor.erase(a1);
 		  adaptor.erase(n3);
 		  // Check the adaptor
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 4);
 		  checkGraphConArcList(adaptor, 4);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n4, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n4, 3);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check the digraph
 		  checkGraphNodeList(digraph, 3);
 		  checkGraphArcList(digraph, 4);
 		  checkGraphConArcList(digraph, 4);
 		  checkGraphOutArcList(digraph, n1, 0);
 		  checkGraphOutArcList(digraph, n2, 1);
 		  checkGraphOutArcList(digraph, n4, 3);
 		  checkGraphInArcList(digraph, n1, 2);
 		  checkGraphInArcList(digraph, n2, 2);
 		  checkGraphInArcList(digraph, n4, 0);
 		  checkNodeIds(digraph);
 		  checkArcIds(digraph);
 		  checkGraphNodeMap(digraph);
 		  checkGraphArcMap(digraph);
 		  // Check the conversion of nodes and arcs
 		  Digraph::Node nd = n4;
 		  nd = n4;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = a4;
 		  ad = a5;
 		  Adaptor::Arc aa = a1;
 		  aa = a2;
+		}
 		void checkSubDigraph() {
 		  checkConcept<concepts::Digraph,
 		    SubDigraph<concepts::Digraph,
 		    concepts::Digraph::NodeMap<bool>,
 		    concepts::Digraph::ArcMap<bool> > >();
 		  // Check concepts
 		  checkConcept<concepts::Digraph, SubDigraph<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, SubDigraph<ListDigraph> >();
 		  checkConcept<concepts::AlterableDigraphComponent<>,
 		               SubDigraph<ListDigraph> >();
 		  checkConcept<concepts::ExtendableDigraphComponent<>,
 		               SubDigraph<ListDigraph> >();
 		  checkConcept<concepts::ErasableDigraphComponent<>,
 		               SubDigraph<ListDigraph> >();
 		  checkConcept<concepts::ClearableDigraphComponent<>,
 		               SubDigraph<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::NodeMap<bool> NodeFilter;
 		  typedef Digraph::ArcMap<bool> ArcFilter;
 		  typedef SubDigraph<Digraph, NodeFilter, ArcFilter> Adaptor;
 		  Digraph digraph;
 		  NodeFilter node_filter(digraph);
 		  ArcFilter arc_filter(digraph);
 		  Adaptor adaptor(digraph, node_filter, arc_filter);
 		  // Add nodes and arcs to the original digraph and the adaptor
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
-		  Digraph::Node n3 = digraph.addNode();
+		  Adaptor::Node n3 = adaptor.addNode();
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = true;
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Digraph::Arc a3 = digraph.addArc(n2, n3);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = true;
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = true;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  arc_filter[a2] = false;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 2);
 		  checkGraphConArcList(adaptor, 2);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  node_filter[n1] = false;
 		  checkGraphNodeList(adaptor, 2);
 		  checkGraphArcList(adaptor, 1);
 		  checkGraphConArcList(adaptor, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n2, 0);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = false;
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
+		}
 		void checkFilterNodes1() {
 		  checkConcept<concepts::Digraph,
 		    FilterNodes<concepts::Digraph,
 		      concepts::Digraph::NodeMap<bool> > >();
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::NodeMap<bool> NodeFilter;
 		  typedef FilterNodes<Digraph, NodeFilter> Adaptor;
 		  Digraph digraph;
 		  NodeFilter node_filter(digraph);
 		  Adaptor adaptor(digraph, node_filter);
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Digraph::Node n3 = digraph.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Digraph::Arc a3 = digraph.addArc(n2, n3);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = true;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  node_filter[n1] = false;
 		  checkGraphNodeList(adaptor, 2);
 		  checkGraphArcList(adaptor, 1);
 		  checkGraphConArcList(adaptor, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n2, 0);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
+		}
 		void checkFilterArcs() {
 		  checkConcept<concepts::Digraph,
 		    FilterArcs<concepts::Digraph,
 		    concepts::Digraph::ArcMap<bool> > >();
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::ArcMap<bool> ArcFilter;
 		  typedef FilterArcs<Digraph, ArcFilter> Adaptor;
 		  Digraph digraph;
 		  ArcFilter arc_filter(digraph);
 		  Adaptor adaptor(digraph, arc_filter);
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Digraph::Node n3 = digraph.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
-		  Digraph::Arc a3 = digraph.addArc(n2, n3);
+		  Adaptor::Arc a3 = adaptor.addArc(n2, n3);
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = true;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
-		  arc_filter[a2] = false;
+		  // Hide an arc
 		  adaptor.status(a2, false);
 		  adaptor.disable(a3);
 		  if (!adaptor.status(a3)) adaptor.enable(a3);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 2);
 		  checkGraphConArcList(adaptor, 2);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide a node
 		  adaptor.status(n1, false);
 		  adaptor.disable(n3);
 		  if (!adaptor.status(n3)) adaptor.enable(n3);
 		  checkGraphNodeList(adaptor, 2);
 		  checkGraphArcList(adaptor, 1);
 		  checkGraphConArcList(adaptor, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n2, 0);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide all nodes and arcs
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = false;
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check the conversion of nodes and arcs
 		  Digraph::Node nd = n3;
 		  nd = n3;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = a3;
 		  ad = a3;
 		  Adaptor::Arc aa = a1;
 		  aa = a2;
+		}
 		void checkFilterNodes1() {
 		  // Check concepts
 		  checkConcept<concepts::Digraph, FilterNodes<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, FilterNodes<ListDigraph> >();
 		  checkConcept<concepts::AlterableDigraphComponent<>,
 		               FilterNodes<ListDigraph> >();
 		  checkConcept<concepts::ExtendableDigraphComponent<>,
 		               FilterNodes<ListDigraph> >();
 		  checkConcept<concepts::ErasableDigraphComponent<>,
 		               FilterNodes<ListDigraph> >();
 		  checkConcept<concepts::ClearableDigraphComponent<>,
 		               FilterNodes<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::NodeMap<bool> NodeFilter;
 		  typedef FilterNodes<Digraph, NodeFilter> Adaptor;
 		  Digraph digraph;
 		  NodeFilter node_filter(digraph);
 		  Adaptor adaptor(digraph, node_filter);
 		  // Add nodes and arcs to the original digraph and the adaptor
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Adaptor::Node n3 = adaptor.addNode();
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = true;
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Adaptor::Arc a3 = adaptor.addArc(n2, n3);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide a node
 		  adaptor.status(n1, false);
 		  adaptor.disable(n3);
 		  if (!adaptor.status(n3)) adaptor.enable(n3);
 		  checkGraphNodeList(adaptor, 2);
 		  checkGraphArcList(adaptor, 1);
 		  checkGraphConArcList(adaptor, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n2, 0);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide all nodes
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check the conversion of nodes and arcs
 		  Digraph::Node nd = n3;
 		  nd = n3;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = a3;
 		  ad = a3;
 		  Adaptor::Arc aa = a1;
 		  aa = a2;
+		}
 		void checkFilterArcs() {
 		  // Check concepts
 		  checkConcept<concepts::Digraph, FilterArcs<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, FilterArcs<ListDigraph> >();
 		  checkConcept<concepts::AlterableDigraphComponent<>,
 		               FilterArcs<ListDigraph> >();
 		  checkConcept<concepts::ExtendableDigraphComponent<>,
 		               FilterArcs<ListDigraph> >();
 		  checkConcept<concepts::ErasableDigraphComponent<>,
 		               FilterArcs<ListDigraph> >();
 		  checkConcept<concepts::ClearableDigraphComponent<>,
 		               FilterArcs<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::ArcMap<bool> ArcFilter;
 		  typedef FilterArcs<Digraph, ArcFilter> Adaptor;
 		  Digraph digraph;
 		  ArcFilter arc_filter(digraph);
 		  Adaptor adaptor(digraph, arc_filter);
 		  // Add nodes and arcs to the original digraph and the adaptor
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Adaptor::Node n3 = adaptor.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Adaptor::Arc a3 = adaptor.addArc(n2, n3);
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = true;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide an arc
 		  adaptor.status(a2, false);
 		  adaptor.disable(a3);
 		  if (!adaptor.status(a3)) adaptor.enable(a3);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 2);
 		  checkGraphConArcList(adaptor, 2);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Hide all arcs
 		  arc_filter[a1] = arc_filter[a2] = arc_filter[a3] = false;
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check the conversion of nodes and arcs
 		  Digraph::Node nd = n3;
 		  nd = n3;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = a3;
 		  ad = a3;
 		  Adaptor::Arc aa = a1;
 		  aa = a2;
+		}
 		void checkUndirector() {
 		  // Check concepts
 		  checkConcept<concepts::Graph, Undirector<concepts::Digraph> >();
 		  checkConcept<concepts::Graph, Undirector<ListDigraph> >();
 		  checkConcept<concepts::AlterableGraphComponent<>,
 		               Undirector<ListDigraph> >();
 		  checkConcept<concepts::ExtendableGraphComponent<>,
 		               Undirector<ListDigraph> >();
 		  checkConcept<concepts::ErasableGraphComponent<>,
 		               Undirector<ListDigraph> >();
 		  checkConcept<concepts::ClearableGraphComponent<>,
 		               Undirector<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef Undirector<Digraph> Adaptor;
 		  Digraph digraph;
 		  Adaptor adaptor(digraph);
 		  // Add nodes and arcs/edges to the original digraph and the adaptor
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
-		  Digraph::Node n3 = digraph.addNode();
+		  Adaptor::Node n3 = adaptor.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
-		  Digraph::Arc a3 = digraph.addArc(n2, n3);
+		  Adaptor::Edge e3 = adaptor.addEdge(n2, n3);
 		  // Check the original digraph
 		  checkGraphNodeList(digraph, 3);
 		  checkGraphArcList(digraph, 3);
 		  checkGraphConArcList(digraph, 3);
 		  checkGraphOutArcList(digraph, n1, 2);
 		  checkGraphOutArcList(digraph, n2, 1);
 		  checkGraphOutArcList(digraph, n3, 0);
 		  checkGraphInArcList(digraph, n1, 0);
 		  checkGraphInArcList(digraph, n2, 1);
 		  checkGraphInArcList(digraph, n3, 2);
 		  checkNodeIds(digraph);
 		  checkArcIds(digraph);
 		  checkGraphNodeMap(digraph);
 		  checkGraphArcMap(digraph);
 		  // Check the adaptor
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphEdgeList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphConEdgeList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n1, 2);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphIncEdgeList(adaptor, n1, 2);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
-		  checkGraphIncEdgeList(adaptor, n3, 2);
+		  checkGraphIncEdgeArcLists(adaptor, n1, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Check the edges of the adaptor
 		  for (Adaptor::EdgeIt e(adaptor); e != INVALID; ++e) {
 		    check(adaptor.u(e) == digraph.source(e), "Wrong undir");
 		    check(adaptor.v(e) == digraph.target(e), "Wrong undir");
+		  }
 		  // Check CombinedArcMap
 		  typedef Adaptor::CombinedArcMap
 		    <Digraph::ArcMap<int>, Digraph::ArcMap<int> > IntCombinedMap;
 		  typedef Adaptor::CombinedArcMap
 		    <Digraph::ArcMap<bool>, Digraph::ArcMap<bool> > BoolCombinedMap;
 		  checkConcept<concepts::ReferenceMap<Adaptor::Arc, int, int&, const int&>,
 		    IntCombinedMap>();
 		  checkConcept<concepts::ReferenceMap<Adaptor::Arc, bool, bool&, const bool&>,
 		    BoolCombinedMap>();
 		  Digraph::ArcMap<int> fw_map(digraph), bk_map(digraph);
 		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    fw_map[a] = digraph.id(a);
 		    bk_map[a] = -digraph.id(a);
+		  }
 		  Adaptor::CombinedArcMap<Digraph::ArcMap<int>, Digraph::ArcMap<int> >
 		    comb_map(fw_map, bk_map);
 		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
 		    if (adaptor.source(a) == digraph.source(a)) {
 		      check(comb_map[a] == fw_map[a], "Wrong combined map");
 		    } else {
 		      check(comb_map[a] == bk_map[a], "Wrong combined map");
+		    }
+		  }
 		  // Check the conversion of nodes and arcs/edges
 		  Digraph::Node nd = n3;
 		  nd = n3;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = e3;
 		  ad = e3;
 		  Adaptor::Edge ea = a1;
 		  ea = a2;
+		}
 		void checkResidual() {
 		  checkConcept<concepts::Digraph,
 		    Residual<concepts::Digraph,
 		    concepts::Digraph::ArcMap<int>,
-		    concepts::Digraph::ArcMap<int> > >();
+		void checkResidualDigraph() {
 		  // Check concepts
 		  checkConcept<concepts::Digraph, ResidualDigraph<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, ResidualDigraph<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef Digraph::ArcMap<int> IntArcMap;
-		  typedef Residual<Digraph, IntArcMap> Adaptor;
+		  typedef ResidualDigraph<Digraph, IntArcMap> Adaptor;
 		  Digraph digraph;
 		  IntArcMap capacity(digraph), flow(digraph);
 		  Adaptor adaptor(digraph, capacity, flow);
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Digraph::Node n3 = digraph.addNode();
 		  Digraph::Node n4 = digraph.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Digraph::Arc a3 = digraph.addArc(n1, n4);
 		  Digraph::Arc a4 = digraph.addArc(n2, n3);
 		  Digraph::Arc a5 = digraph.addArc(n2, n4);
 		  Digraph::Arc a6 = digraph.addArc(n3, n4);
 		  capacity[a1] = 8;
 		  capacity[a2] = 6;
 		  capacity[a3] = 4;
 		  capacity[a4] = 4;
 		  capacity[a5] = 6;
 		  capacity[a6] = 10;
-		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
+		  // Check the adaptor with various flow values
 		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    flow[a] = 0;
+		  }
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphOutArcList(adaptor, n1, 3);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 1);
 		  checkGraphOutArcList(adaptor, n4, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 3);
-		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
+		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    flow[a] = capacity[a] / 2;
+		  }
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 12);
 		  checkGraphConArcList(adaptor, 12);
 		  checkGraphOutArcList(adaptor, n1, 3);
 		  checkGraphOutArcList(adaptor, n2, 3);
 		  checkGraphOutArcList(adaptor, n3, 3);
 		  checkGraphOutArcList(adaptor, n4, 3);
 		  checkGraphInArcList(adaptor, n1, 3);
 		  checkGraphInArcList(adaptor, n2, 3);
 		  checkGraphInArcList(adaptor, n3, 3);
 		  checkGraphInArcList(adaptor, n4, 3);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
-		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
+		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    flow[a] = capacity[a];
+		  }
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphOutArcList(adaptor, n1, 0);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphOutArcList(adaptor, n4, 3);
 		  checkGraphInArcList(adaptor, n1, 3);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkGraphInArcList(adaptor, n4, 0);
 		  // Saturate all backward arcs
 		  // (set the flow to zero on all forward arcs)
 		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
-		    flow[a] = 0;
+		    if (adaptor.backward(a))
 		      adaptor.augment(a, adaptor.residualCapacity(a));
+		  }
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphOutArcList(adaptor, n1, 3);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 1);
 		  checkGraphOutArcList(adaptor, n4, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 3);
 		  // Find maximum flow by augmenting along shortest paths
 		  int flow_value = 0;
 		  Adaptor::ResidualCapacity res_cap(adaptor);
 		  while (true) {
 		    Bfs<Adaptor> bfs(adaptor);
 		    bfs.run(n1, n4);
 		    if (!bfs.reached(n4)) break;
 		    Path<Adaptor> p = bfs.path(n4);
 		    int min = std::numeric_limits<int>::max();
 		    for (Path<Adaptor>::ArcIt a(p); a != INVALID; ++a) {
 		      if (adaptor.residualCapacity(a) < min)
 		        min = adaptor.residualCapacity(a);
 		      if (res_cap[a] < min) min = res_cap[a];
+		    }
 		    for (Path<Adaptor>::ArcIt a(p); a != INVALID; ++a) {
 		      adaptor.augment(a, min);
+		    }
 		    flow_value += min;
+		  }
 		  check(flow_value == 18, "Wrong flow with res graph adaptor");
 		  // Check forward() and backward()
 		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
 		    check(adaptor.forward(a) != adaptor.backward(a),
 		          "Wrong forward() or backward()");
 		    check((adaptor.forward(a) && adaptor.forward(Digraph::Arc(a)) == a) ||
 		          (adaptor.backward(a) && adaptor.backward(Digraph::Arc(a)) == a),
 		          "Wrong forward() or backward()");
+		  }
 		  // Check the conversion of nodes and arcs
 		  Digraph::Node nd = Adaptor::NodeIt(adaptor);
 		  nd = ++Adaptor::NodeIt(adaptor);
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Digraph::Arc ad = Adaptor::ArcIt(adaptor);
 		  ad = ++Adaptor::ArcIt(adaptor);
+		}
 		void checkSplitNodes() {
 		  // Check concepts
 		  checkConcept<concepts::Digraph, SplitNodes<concepts::Digraph> >();
 		  checkConcept<concepts::Digraph, SplitNodes<ListDigraph> >();
 		  // Create a digraph and an adaptor
 		  typedef ListDigraph Digraph;
 		  typedef SplitNodes<Digraph> Adaptor;
 		  Digraph digraph;
 		  Adaptor adaptor(digraph);
 		  Digraph::Node n1 = digraph.addNode();
 		  Digraph::Node n2 = digraph.addNode();
 		  Digraph::Node n3 = digraph.addNode();
 		  Digraph::Arc a1 = digraph.addArc(n1, n2);
 		  Digraph::Arc a2 = digraph.addArc(n1, n3);
 		  Digraph::Arc a3 = digraph.addArc(n2, n3);
 		  checkGraphNodeList(adaptor, 6);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphOutArcList(adaptor, adaptor.inNode(n1), 1);
 		  checkGraphOutArcList(adaptor, adaptor.outNode(n1), 2);
 		  checkGraphOutArcList(adaptor, adaptor.inNode(n2), 1);
 		  checkGraphOutArcList(adaptor, adaptor.outNode(n2), 1);
 		  checkGraphOutArcList(adaptor, adaptor.inNode(n3), 1);
 		  checkGraphOutArcList(adaptor, adaptor.outNode(n3), 0);
 		  checkGraphInArcList(adaptor, adaptor.inNode(n1), 0);
 		  checkGraphInArcList(adaptor, adaptor.outNode(n1), 1);
 		  checkGraphInArcList(adaptor, adaptor.inNode(n2), 1);
 		  checkGraphInArcList(adaptor, adaptor.outNode(n2), 1);
 		  checkGraphInArcList(adaptor, adaptor.inNode(n3), 2);
 		  checkGraphInArcList(adaptor, adaptor.outNode(n3), 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check split
 		  for (Adaptor::ArcIt a(adaptor); a != INVALID; ++a) {
 		    if (adaptor.origArc(a)) {
 		      Digraph::Arc oa = a;
 		      check(adaptor.source(a) == adaptor.outNode(digraph.source(oa)),
 		            "Wrong split");
 		      check(adaptor.target(a) == adaptor.inNode(digraph.target(oa)),
 		            "Wrong split");
 		    } else {
 		      Digraph::Node on = a;
 		      check(adaptor.source(a) == adaptor.inNode(on), "Wrong split");
 		      check(adaptor.target(a) == adaptor.outNode(on), "Wrong split");
+		    }
+		  }
 		  // Check combined node map
 		  typedef Adaptor::CombinedNodeMap
 		    <Digraph::NodeMap<int>, Digraph::NodeMap<int> > IntCombinedNodeMap;
 		  typedef Adaptor::CombinedNodeMap
 		    <Digraph::NodeMap<bool>, Digraph::NodeMap<bool> > BoolCombinedNodeMap;
 		  checkConcept<concepts::ReferenceMap<Adaptor::Node, int, int&, const int&>,
 		    IntCombinedNodeMap>();
 		//checkConcept<concepts::ReferenceMap<Adaptor::Node, bool, bool&, const bool&>,
 		//  BoolCombinedNodeMap>();
 		  checkConcept<concepts::ReadWriteMap<Adaptor::Node, bool>,
 		    BoolCombinedNodeMap>();
 		  Digraph::NodeMap<int> in_map(digraph), out_map(digraph);
 		  for (Digraph::NodeIt n(digraph); n != INVALID; ++n) {
 		    in_map[n] = digraph.id(n);
 		    out_map[n] = -digraph.id(n);
+		  }
 		  Adaptor::CombinedNodeMap<Digraph::NodeMap<int>, Digraph::NodeMap<int> >
 		    node_map(in_map, out_map);
 		  for (Adaptor::NodeIt n(adaptor); n != INVALID; ++n) {
 		    if (adaptor.inNode(n)) {
 		      check(node_map[n] == in_map[n], "Wrong combined node map");
 		    } else {
 		      check(node_map[n] == out_map[n], "Wrong combined node map");
+		    }
+		  }
 		  // Check combined arc map
 		  typedef Adaptor::CombinedArcMap
 		    <Digraph::ArcMap<int>, Digraph::NodeMap<int> > IntCombinedArcMap;
 		  typedef Adaptor::CombinedArcMap
 		    <Digraph::ArcMap<bool>, Digraph::NodeMap<bool> > BoolCombinedArcMap;
 		  checkConcept<concepts::ReferenceMap<Adaptor::Arc, int, int&, const int&>,
 		    IntCombinedArcMap>();
 		//checkConcept<concepts::ReferenceMap<Adaptor::Arc, bool, bool&, const bool&>,
 		//  BoolCombinedArcMap>();
 		  checkConcept<concepts::ReadWriteMap<Adaptor::Arc, bool>,
 		    BoolCombinedArcMap>();
 		  Digraph::ArcMap<int> a_map(digraph);
 		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    a_map[a] = digraph.id(a);
+		  }
 		  Adaptor::CombinedArcMap<Digraph::ArcMap<int>, Digraph::NodeMap<int> >
 		    arc_map(a_map, out_map);
 		  for (Digraph::ArcIt a(digraph); a != INVALID; ++a) {
 		    check(arc_map[adaptor.arc(a)] == a_map[a],  "Wrong combined arc map");
+		  }
 		  for (Digraph::NodeIt n(digraph); n != INVALID; ++n) {
 		    check(arc_map[adaptor.arc(n)] == out_map[n],  "Wrong combined arc map");
+		  }
 		  // Check the conversion of nodes
 		  Digraph::Node nd = adaptor.inNode(n1);
 		  check (nd == n1, "Wrong node conversion");
 		  nd = adaptor.outNode(n2);
 		  check (nd == n2, "Wrong node conversion");
+		}
 		void checkSubGraph() {
 		  checkConcept<concepts::Graph,
 		    SubGraph<concepts::Graph,
 		    concepts::Graph::NodeMap<bool>,
 		    concepts::Graph::EdgeMap<bool> > >();
 		  // Check concepts
 		  checkConcept<concepts::Graph, SubGraph<concepts::Graph> >();
 		  checkConcept<concepts::Graph, SubGraph<ListGraph> >();
 		  checkConcept<concepts::AlterableGraphComponent<>,
 		               SubGraph<ListGraph> >();
 		  checkConcept<concepts::ExtendableGraphComponent<>,
 		               SubGraph<ListGraph> >();
 		  checkConcept<concepts::ErasableGraphComponent<>,
 		               SubGraph<ListGraph> >();
 		  checkConcept<concepts::ClearableGraphComponent<>,
 		               SubGraph<ListGraph> >();
 		  // Create a graph and an adaptor
 		  typedef ListGraph Graph;
 		  typedef Graph::NodeMap<bool> NodeFilter;
 		  typedef Graph::EdgeMap<bool> EdgeFilter;
 		  typedef SubGraph<Graph, NodeFilter, EdgeFilter> Adaptor;
 		  Graph graph;
 		  NodeFilter node_filter(graph);
 		  EdgeFilter edge_filter(graph);
 		  Adaptor adaptor(graph, node_filter, edge_filter);
 		  // Add nodes and edges to the original graph and the adaptor
 		  Graph::Node n1 = graph.addNode();
 		  Graph::Node n2 = graph.addNode();
 		  Graph::Node n3 = graph.addNode();
 		  Graph::Node n4 = graph.addNode();
 		  Adaptor::Node n3 = adaptor.addNode();
 		  Adaptor::Node n4 = adaptor.addNode();
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = true;
 		  Graph::Edge e1 = graph.addEdge(n1, n2);
 		  Graph::Edge e2 = graph.addEdge(n1, n3);
 		  Graph::Edge e3 = graph.addEdge(n2, n3);
 		  Graph::Edge e4 = graph.addEdge(n3, n4);
 		  Adaptor::Edge e3 = adaptor.addEdge(n2, n3);
 		  Adaptor::Edge e4 = adaptor.addEdge(n3, n4);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = true;
 		  edge_filter[e1] = edge_filter[e2] = edge_filter[e3] = edge_filter[e4] = true;
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 8);
 		  checkGraphEdgeList(adaptor, 4);
 		  checkGraphConArcList(adaptor, 8);
 		  checkGraphConEdgeList(adaptor, 4);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 3);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n1, 2);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 3);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n1, 2);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
 		  checkGraphIncEdgeList(adaptor, n3, 3);
 		  checkGraphIncEdgeList(adaptor, n4, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n1, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 3);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
-		  edge_filter[e2] = false;
+		  // Hide an edge
 		  adaptor.status(e2, false);
 		  adaptor.disable(e3);
 		  if (!adaptor.status(e3)) adaptor.enable(e3);
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphEdgeList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphConEdgeList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n1, 1);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n1, 1);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
 		  checkGraphIncEdgeList(adaptor, n3, 2);
 		  checkGraphIncEdgeList(adaptor, n4, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n1, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
-		  node_filter[n1] = false;
+		  // Hide a node
 		  adaptor.status(n1, false);
 		  adaptor.disable(n3);
 		  if (!adaptor.status(n3)) adaptor.enable(n3);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 4);
 		  checkGraphEdgeList(adaptor, 2);
 		  checkGraphConArcList(adaptor, 4);
 		  checkGraphConEdgeList(adaptor, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n2, 1);
 		  checkGraphIncEdgeList(adaptor, n3, 2);
-		  checkGraphIncEdgeList(adaptor, n4, 1);
+		  checkGraphIncEdgeArcLists(adaptor, n2, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Hide all nodes and edges
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = false;
 		  edge_filter[e1] = edge_filter[e2] = edge_filter[e3] = edge_filter[e4] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphEdgeList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkGraphConEdgeList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Check the conversion of nodes and edges
 		  Graph::Node ng = n3;
 		  ng = n4;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Graph::Edge eg = e3;
 		  eg = e4;
 		  Adaptor::Edge ea = e1;
 		  ea = e2;
+		}
 		void checkFilterNodes2() {
 		  checkConcept<concepts::Graph,
 		    FilterNodes<concepts::Graph,
-		      concepts::Graph::NodeMap<bool> > >();
+		  // Check concepts
 		  checkConcept<concepts::Graph, FilterNodes<concepts::Graph> >();
 		  checkConcept<concepts::Graph, FilterNodes<ListGraph> >();
 		  checkConcept<concepts::AlterableGraphComponent<>,
 		               FilterNodes<ListGraph> >();
 		  checkConcept<concepts::ExtendableGraphComponent<>,
 		               FilterNodes<ListGraph> >();
 		  checkConcept<concepts::ErasableGraphComponent<>,
 		               FilterNodes<ListGraph> >();
 		  checkConcept<concepts::ClearableGraphComponent<>,
 		               FilterNodes<ListGraph> >();
 		  // Create a graph and an adaptor
 		  typedef ListGraph Graph;
 		  typedef Graph::NodeMap<bool> NodeFilter;
 		  typedef FilterNodes<Graph, NodeFilter> Adaptor;
 		  // Add nodes and edges to the original graph and the adaptor
 		  Graph graph;
 		  NodeFilter node_filter(graph);
 		  Adaptor adaptor(graph, node_filter);
 		  Graph::Node n1 = graph.addNode();
 		  Graph::Node n2 = graph.addNode();
 		  Graph::Node n3 = graph.addNode();
 		  Graph::Node n4 = graph.addNode();
 		  Adaptor::Node n3 = adaptor.addNode();
 		  Adaptor::Node n4 = adaptor.addNode();
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = true;
 		  Graph::Edge e1 = graph.addEdge(n1, n2);
 		  Graph::Edge e2 = graph.addEdge(n1, n3);
 		  Graph::Edge e3 = graph.addEdge(n2, n3);
 		  Graph::Edge e4 = graph.addEdge(n3, n4);
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = true;
 		  Adaptor::Edge e3 = adaptor.addEdge(n2, n3);
 		  Adaptor::Edge e4 = adaptor.addEdge(n3, n4);
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 8);
 		  checkGraphEdgeList(adaptor, 4);
 		  checkGraphConArcList(adaptor, 8);
 		  checkGraphConEdgeList(adaptor, 4);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 3);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n1, 2);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 3);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n1, 2);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
 		  checkGraphIncEdgeList(adaptor, n3, 3);
 		  checkGraphIncEdgeList(adaptor, n4, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n1, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 3);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
-		  node_filter[n1] = false;
+		  // Hide a node
 		  adaptor.status(n1, false);
 		  adaptor.disable(n3);
 		  if (!adaptor.status(n3)) adaptor.enable(n3);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 4);
 		  checkGraphEdgeList(adaptor, 2);
 		  checkGraphConArcList(adaptor, 4);
 		  checkGraphConEdgeList(adaptor, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n2, 1);
 		  checkGraphIncEdgeList(adaptor, n3, 2);
-		  checkGraphIncEdgeList(adaptor, n4, 1);
+		  checkGraphIncEdgeArcLists(adaptor, n2, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Hide all nodes
 		  node_filter[n1] = node_filter[n2] = node_filter[n3] = node_filter[n4] = false;
 		  checkGraphNodeList(adaptor, 0);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphEdgeList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkGraphConEdgeList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Check the conversion of nodes and edges
 		  Graph::Node ng = n3;
 		  ng = n4;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Graph::Edge eg = e3;
 		  eg = e4;
 		  Adaptor::Edge ea = e1;
 		  ea = e2;
+		}
 		void checkFilterEdges() {
 		  checkConcept<concepts::Graph,
 		    FilterEdges<concepts::Graph,
-		    concepts::Graph::EdgeMap<bool> > >();
+		  // Check concepts
 		  checkConcept<concepts::Graph, FilterEdges<concepts::Graph> >();
 		  checkConcept<concepts::Graph, FilterEdges<ListGraph> >();
 		  checkConcept<concepts::AlterableGraphComponent<>,
 		               FilterEdges<ListGraph> >();
 		  checkConcept<concepts::ExtendableGraphComponent<>,
 		               FilterEdges<ListGraph> >();
 		  checkConcept<concepts::ErasableGraphComponent<>,
 		               FilterEdges<ListGraph> >();
 		  checkConcept<concepts::ClearableGraphComponent<>,
 		               FilterEdges<ListGraph> >();
 		  // Create a graph and an adaptor
 		  typedef ListGraph Graph;
 		  typedef Graph::EdgeMap<bool> EdgeFilter;
 		  typedef FilterEdges<Graph, EdgeFilter> Adaptor;
 		  Graph graph;
 		  EdgeFilter edge_filter(graph);
 		  Adaptor adaptor(graph, edge_filter);
 		  // Add nodes and edges to the original graph and the adaptor
 		  Graph::Node n1 = graph.addNode();
 		  Graph::Node n2 = graph.addNode();
 		  Graph::Node n3 = graph.addNode();
 		  Graph::Node n4 = graph.addNode();
 		  Adaptor::Node n3 = adaptor.addNode();
 		  Adaptor::Node n4 = adaptor.addNode();
 		  Graph::Edge e1 = graph.addEdge(n1, n2);
 		  Graph::Edge e2 = graph.addEdge(n1, n3);
 		  Graph::Edge e3 = graph.addEdge(n2, n3);
 		  Graph::Edge e4 = graph.addEdge(n3, n4);
 		  Adaptor::Edge e3 = adaptor.addEdge(n2, n3);
 		  Adaptor::Edge e4 = adaptor.addEdge(n3, n4);
 		  edge_filter[e1] = edge_filter[e2] = edge_filter[e3] = edge_filter[e4] = true;
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 8);
 		  checkGraphEdgeList(adaptor, 4);
 		  checkGraphConArcList(adaptor, 8);
 		  checkGraphConEdgeList(adaptor, 4);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 3);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n1, 2);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 3);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n1, 2);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
 		  checkGraphIncEdgeList(adaptor, n3, 3);
 		  checkGraphIncEdgeList(adaptor, n4, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n1, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 3);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
-		  edge_filter[e2] = false;
+		  // Hide an edge
 		  adaptor.status(e2, false);
 		  adaptor.disable(e3);
 		  if (!adaptor.status(e3)) adaptor.enable(e3);
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 6);
 		  checkGraphEdgeList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 6);
 		  checkGraphConEdgeList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 2);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphOutArcList(adaptor, n4, 1);
 		  checkGraphInArcList(adaptor, n1, 1);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n4, 1);
 		  checkGraphIncEdgeList(adaptor, n1, 1);
 		  checkGraphIncEdgeList(adaptor, n2, 2);
 		  checkGraphIncEdgeList(adaptor, n3, 2);
 		  checkGraphIncEdgeList(adaptor, n4, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n1, 1);
 		  checkGraphIncEdgeArcLists(adaptor, n2, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n3, 2);
 		  checkGraphIncEdgeArcLists(adaptor, n4, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Hide all edges
 		  edge_filter[e1] = edge_filter[e2] = edge_filter[e3] = edge_filter[e4] = false;
 		  checkGraphNodeList(adaptor, 4);
 		  checkGraphArcList(adaptor, 0);
 		  checkGraphEdgeList(adaptor, 0);
 		  checkGraphConArcList(adaptor, 0);
 		  checkGraphConEdgeList(adaptor, 0);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkEdgeIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  checkGraphEdgeMap(adaptor);
 		  // Check the conversion of nodes and edges
 		  Graph::Node ng = n3;
 		  ng = n4;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Graph::Edge eg = e3;
 		  eg = e4;
 		  Adaptor::Edge ea = e1;
 		  ea = e2;
+		}
 		void checkOrienter() {
 		  checkConcept<concepts::Digraph,
 		    Orienter<concepts::Graph, concepts::Graph::EdgeMap<bool> > >();
 		  // Check concepts
 		  checkConcept<concepts::Digraph, Orienter<concepts::Graph> >();
 		  checkConcept<concepts::Digraph, Orienter<ListGraph> >();
 		  checkConcept<concepts::AlterableDigraphComponent<>,
 		               Orienter<ListGraph> >();
 		  checkConcept<concepts::ExtendableDigraphComponent<>,
 		               Orienter<ListGraph> >();
 		  checkConcept<concepts::ErasableDigraphComponent<>,
 		               Orienter<ListGraph> >();
 		  checkConcept<concepts::ClearableDigraphComponent<>,
 		               Orienter<ListGraph> >();
 		  // Create a graph and an adaptor
 		  typedef ListGraph Graph;
 		  typedef ListGraph::EdgeMap<bool> DirMap;
 		  typedef Orienter<Graph> Adaptor;
 		  Graph graph;
-		  DirMap dir(graph, true);
 		  DirMap dir(graph);
 		  Adaptor adaptor(graph, dir);
 		  // Add nodes and edges to the original graph and the adaptor
 		  Graph::Node n1 = graph.addNode();
 		  Graph::Node n2 = graph.addNode();
-		  Graph::Node n3 = graph.addNode();
+		  Adaptor::Node n3 = adaptor.addNode();
 		  Graph::Edge e1 = graph.addEdge(n1, n2);
 		  Graph::Edge e2 = graph.addEdge(n1, n3);
-		  Graph::Edge e3 = graph.addEdge(n2, n3);
+		  Adaptor::Arc e3 = adaptor.addArc(n2, n3);
 		  dir[e1] = dir[e2] = dir[e3] = true;
 		  // Check the original graph
 		  checkGraphNodeList(graph, 3);
 		  checkGraphArcList(graph, 6);
 		  checkGraphConArcList(graph, 6);
 		  checkGraphEdgeList(graph, 3);
 		  checkGraphConEdgeList(graph, 3);
 		  checkGraphIncEdgeArcLists(graph, n1, 2);
 		  checkGraphIncEdgeArcLists(graph, n2, 2);
 		  checkGraphIncEdgeArcLists(graph, n3, 2);
 		  checkNodeIds(graph);
 		  checkArcIds(graph);
 		  checkEdgeIds(graph);
 		  checkGraphNodeMap(graph);
 		  checkGraphArcMap(graph);
 		  checkGraphEdgeMap(graph);
 		  // Check the adaptor
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 2);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 0);
 		  checkGraphInArcList(adaptor, n1, 0);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check direction changing
+		  {
 		    dir[e1] = true;
 		    Adaptor::Node u = adaptor.source(e1);
 		    Adaptor::Node v = adaptor.target(e1);
 		    dir[e1] = false;
 		    check (u == adaptor.target(e1), "Wrong dir");
 		    check (v == adaptor.source(e1), "Wrong dir");
 		    check ((u == n1 && v == n2) || (u == n2 && v == n1), "Wrong dir");
 		    dir[e1] = n1 == u;
+		  }
+		  {
 		    dir[e2] = true;
 		    Adaptor::Node u = adaptor.source(e2);
 		    Adaptor::Node v = adaptor.target(e2);
 		    dir[e2] = false;
 		    check (u == adaptor.target(e2), "Wrong dir");
 		    check (v == adaptor.source(e2), "Wrong dir");
 		    check ((u == n1 && v == n3) || (u == n3 && v == n1), "Wrong dir");
 		    dir[e2] = n3 == u;
+		  }
+		  {
 		    dir[e3] = true;
 		    Adaptor::Node u = adaptor.source(e3);
 		    Adaptor::Node v = adaptor.target(e3);
 		    dir[e3] = false;
 		    check (u == adaptor.target(e3), "Wrong dir");
 		    check (v == adaptor.source(e3), "Wrong dir");
 		    check ((u == n2 && v == n3) || (u == n3 && v == n2), "Wrong dir");
 		    dir[e3] = n2 == u;
+		  }
 		  // Check the adaptor again
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 1);
 		  checkGraphOutArcList(adaptor, n3, 1);
 		  checkGraphInArcList(adaptor, n1, 1);
 		  checkGraphInArcList(adaptor, n2, 1);
 		  checkGraphInArcList(adaptor, n3, 1);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check reverseArc()
 		  adaptor.reverseArc(e2);
 		  adaptor.reverseArc(e3);
 		  adaptor.reverseArc(e2);
 		  checkGraphNodeList(adaptor, 3);
 		  checkGraphArcList(adaptor, 3);
 		  checkGraphConArcList(adaptor, 3);
 		  checkGraphOutArcList(adaptor, n1, 1);
 		  checkGraphOutArcList(adaptor, n2, 0);
 		  checkGraphOutArcList(adaptor, n3, 2);
 		  checkGraphInArcList(adaptor, n1, 1);
 		  checkGraphInArcList(adaptor, n2, 2);
 		  checkGraphInArcList(adaptor, n3, 0);
 		  // Check the conversion of nodes and arcs/edges
 		  Graph::Node ng = n3;
 		  ng = n3;
 		  Adaptor::Node na = n1;
 		  na = n2;
 		  Graph::Edge eg = e3;
 		  eg = e3;
 		  Adaptor::Arc aa = e1;
 		  aa = e2;
+		}
 		void checkCombiningAdaptors() {
 		  // Create a grid graph
 		  GridGraph graph(2,2);
 		  GridGraph::Node n1 = graph(0,0);
 		  GridGraph::Node n2 = graph(0,1);
 		  GridGraph::Node n3 = graph(1,0);
 		  GridGraph::Node n4 = graph(1,1);
 		  GridGraph::EdgeMap<bool> dir_map(graph);
 		  dir_map[graph.right(n1)] = graph.u(graph.right(n1)) == n1;
 		  dir_map[graph.up(n1)] = graph.u(graph.up(n1)) != n1;
 		  dir_map[graph.left(n4)] = graph.u(graph.left(n4)) != n4;
 		  dir_map[graph.down(n4)] = graph.u(graph.down(n4)) != n4;
 		  // Apply several adaptors on the grid graph
 		  typedef SplitNodes< ReverseDigraph< const Orienter<
 		            const GridGraph, GridGraph::EdgeMap<bool> > > >
 		    RevSplitGridGraph;
 		  typedef ReverseDigraph<const RevSplitGridGraph> SplitGridGraph;
 		  typedef Undirector<const SplitGridGraph> USplitGridGraph;
 		  typedef Undirector<const USplitGridGraph> UUSplitGridGraph;
 		  checkConcept<concepts::Digraph, RevSplitGridGraph>();
 		  checkConcept<concepts::Digraph, SplitGridGraph>();
 		  checkConcept<concepts::Graph, USplitGridGraph>();
 		  checkConcept<concepts::Graph, UUSplitGridGraph>();
 		  RevSplitGridGraph rev_adaptor =
 		    splitNodes(reverseDigraph(orienter(graph, dir_map)));
 		  SplitGridGraph adaptor = reverseDigraph(rev_adaptor);
 		  USplitGridGraph uadaptor = undirector(adaptor);
 		  UUSplitGridGraph uuadaptor = undirector(uadaptor);
 		  // Check adaptor
 		  checkGraphNodeList(adaptor, 8);
 		  checkGraphArcList(adaptor, 8);
 		  checkGraphConArcList(adaptor, 8);
 		  checkGraphOutArcList(adaptor, rev_adaptor.inNode(n1), 1);
 		  checkGraphOutArcList(adaptor, rev_adaptor.outNode(n1), 1);
 		  checkGraphOutArcList(adaptor, rev_adaptor.inNode(n2), 2);
 		  checkGraphOutArcList(adaptor, rev_adaptor.outNode(n2), 1);
 		  checkGraphOutArcList(adaptor, rev_adaptor.inNode(n3), 1);
 		  checkGraphOutArcList(adaptor, rev_adaptor.outNode(n3), 1);
 		  checkGraphOutArcList(adaptor, rev_adaptor.inNode(n4), 0);
 		  checkGraphOutArcList(adaptor, rev_adaptor.outNode(n4), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.inNode(n1), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.outNode(n1), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.inNode(n2), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.outNode(n2), 0);
 		  checkGraphInArcList(adaptor, rev_adaptor.inNode(n3), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.outNode(n3), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.inNode(n4), 1);
 		  checkGraphInArcList(adaptor, rev_adaptor.outNode(n4), 2);
 		  checkNodeIds(adaptor);
 		  checkArcIds(adaptor);
 		  checkGraphNodeMap(adaptor);
 		  checkGraphArcMap(adaptor);
 		  // Check uadaptor
 		  checkGraphNodeList(uadaptor, 8);
 		  checkGraphEdgeList(uadaptor, 8);
 		  checkGraphArcList(uadaptor, 16);
 		  checkGraphConEdgeList(uadaptor, 8);
 		  checkGraphConArcList(uadaptor, 16);
 		  checkNodeIds(uadaptor);
 		  checkEdgeIds(uadaptor);
 		  checkArcIds(uadaptor);
 		  checkGraphNodeMap(uadaptor);
 		  checkGraphEdgeMap(uadaptor);
 		  checkGraphArcMap(uadaptor);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.inNode(n1), 2);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.outNode(n1), 2);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.inNode(n2), 3);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.outNode(n2), 1);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.inNode(n3), 2);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.outNode(n3), 2);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.inNode(n4), 1);
 		  checkGraphIncEdgeArcLists(uadaptor, rev_adaptor.outNode(n4), 3);
 		  // Check uuadaptor
 		  checkGraphNodeList(uuadaptor, 8);
 		  checkGraphEdgeList(uuadaptor, 16);
 		  checkGraphArcList(uuadaptor, 32);
 		  checkGraphConEdgeList(uuadaptor, 16);
 		  checkGraphConArcList(uuadaptor, 32);
 		  checkNodeIds(uuadaptor);
 		  checkEdgeIds(uuadaptor);
 		  checkArcIds(uuadaptor);
 		  checkGraphNodeMap(uuadaptor);
 		  checkGraphEdgeMap(uuadaptor);
 		  checkGraphArcMap(uuadaptor);
+		}
 		int main(int, const char **) {
+		  // Check the digraph adaptors (using ListDigraph)
 		  checkReverseDigraph();
 		  checkSubDigraph();
 		  checkFilterNodes1();
 		  checkFilterArcs();
 		  checkUndirector();
-		  checkResidual();
+		  checkResidualDigraph();
 		  checkSplitNodes();
 		  // Check the graph adaptors (using ListGraph)
 		  checkSubGraph();
 		  checkFilterNodes2();
 		  checkFilterEdges();
 		  checkOrienter();
 		  // Combine adaptors (using GridGraph)
 		  checkCombiningAdaptors();
 		  return 0;
+		}

tools/lemon-0.x-to-1.x.sh

Show inline comments

 		#!/bin/bash
 		set -e
 		if [ $# -eq 0 -o x$1 = "x-h" -o x$1 = "x-help" -o x$1 = "x--help" ]; then
 		    echo "Usage:"
 		    echo "  $0 source-file(s)"
 		    exit
 		fi
 		for i in $@
 		do
 		    echo Update $i...
 		    TMP=`mktemp`
 		    sed -e "s/\<undirected graph\>/_gr_aph_label_/g"\
 		        -e "s/\<undirected graphs\>/_gr_aph_label_s/g"\
 		        -e "s/\<undirected edge\>/_ed_ge_label_/g"\
 		        -e "s/\<undirected edges\>/_ed_ge_label_s/g"\
 		        -e "s/\<directed graph\>/_digr_aph_label_/g"\
 		        -e "s/\<directed graphs\>/_digr_aph_label_s/g"\
 		        -e "s/\<directed edge\>/_ar_c_label_/g"\
 		        -e "s/\<directed edges\>/_ar_c_label_s/g"\
 		        -e "s/UGraph/_Gr_aph_label_/g"\
 		        -e "s/u[Gg]raph/_gr_aph_label_/g"\
 		        -e "s/\<Graph\>/_Digr_aph_label_/g"\
 		        -e "s/\<graph\>/_digr_aph_label_/g"\
 		        -e "s/\<Graphs\>/_Digr_aph_label_s/g"\
 		        -e "s/\<graphs\>/_digr_aph_label_s/g"\
 		        -e "s/_Graph/__Gr_aph_label_/g"\
 		        -e "s/\([Gg]\)raph\([a-z_]\)/_\1r_aph_label_\2/g"\
 		        -e "s/\([a-z_]\)graph/\1_gr_aph_label_/g"\
 		        -e "s/Graph/_Digr_aph_label_/g"\
 		        -e "s/graph/_digr_aph_label_/g"\
 		        -e "s/UEdge/_Ed_ge_label_/g"\
 		        -e "s/u[Ee]dge/_ed_ge_label_/g"\
 		        -e "s/IncEdgeIt/_In_cEd_geIt_label_/g"\
 		        -e "s/\<Edge\>/_Ar_c_label_/g"\
 		        -e "s/\<edge\>/_ar_c_label_/g"\
 		        -e "s/\<Edges\>/_Ar_c_label_s/g"\
 		        -e "s/\<edges\>/_ar_c_label_s/g"\
 		        -e "s/_Edge/__Ed_ge_label_/g"\
 		        -e "s/Edge\([a-z_]\)/_Ed_ge_label_\1/g"\
 		        -e "s/edge\([a-z_]\)/_ed_ge_label_\1/g"\
 		        -e "s/\([a-z_]\)edge/\1_ed_ge_label_/g"\
 		        -e "s/Edge/_Ar_c_label_/g"\
 		        -e "s/edge/_ar_c_label_/g"\
 		        -e "s/A[Nn]ode/_Re_d_label_/g"\
 		        -e "s/B[Nn]ode/_Blu_e_label_/g"\
 		        -e "s/A-[Nn]ode/_Re_d_label_/g"\
 		        -e "s/B-[Nn]ode/_Blu_e_label_/g"\
 		        -e "s/a[Nn]ode/_re_d_label_/g"\
 		        -e "s/b[Nn]ode/_blu_e_label_/g"\
 		        -e "s/\<UGRAPH_TYPEDEFS\([ \t]*([ \t]*\)typename[ \t]/TEMPLATE__GR_APH_TY_PEDE_FS_label_\1/g"\
 		        -e "s/\<GRAPH_TYPEDEFS\([ \t]*([ \t]*\)typename[ \t]/TEMPLATE__DIGR_APH_TY_PEDE_FS_label_\1/g"\
 		        -e "s/\<UGRAPH_TYPEDEFS\>/_GR_APH_TY_PEDE_FS_label_/g"\
 		        -e "s/\<GRAPH_TYPEDEFS\>/_DIGR_APH_TY_PEDE_FS_label_/g"\
 		        -e "s/_Digr_aph_label_/Digraph/g"\
 		        -e "s/_digr_aph_label_/digraph/g"\
 		        -e "s/_Gr_aph_label_/Graph/g"\
 		        -e "s/_gr_aph_label_/graph/g"\
 		        -e "s/_Ar_c_label_/Arc/g"\
 		        -e "s/_ar_c_label_/arc/g"\
 		        -e "s/_Ed_ge_label_/Edge/g"\
 		        -e "s/_ed_ge_label_/edge/g"\
 		        -e "s/_In_cEd_geIt_label_/IncEdgeIt/g"\
 		        -e "s/_Re_d_label_/Red/g"\
 		        -e "s/_Blu_e_label_/Blue/g"\
 		        -e "s/_re_d_label_/red/g"\
 		        -e "s/_blu_e_label_/blue/g"\
 		        -e "s/_GR_APH_TY_PEDE_FS_label_/GRAPH_TYPEDEFS/g"\
 		        -e "s/_DIGR_APH_TY_PEDE_FS_label_/DIGRAPH_TYPEDEFS/g"\
 		        -e "s/DigraphToEps/GraphToEps/g"\
 		        -e "s/digraphToEps/graphToEps/g"\
 		        -e "s/\<DefPredMap\>/SetPredMap/g"\
 		        -e "s/\<DefDistMap\>/SetDistMap/g"\
 		        -e "s/\<DefReachedMap\>/SetReachedMap/g"\
 		        -e "s/\<DefProcessedMap\>/SetProcessedMap/g"\
 		        -e "s/\<DefHeap\>/SetHeap/g"\
 		        -e "s/\<DefStandardHeap\>/SetStandradHeap/g"\
 		        -e "s/\<DefOperationTraits\>/SetOperationTraits/g"\
 		        -e "s/\<DefProcessedMapToBeDefaultMap\>/SetStandardProcessedMap/g"\
 		        -e "s/\<copyGraph\>/graphCopy/g"\
 		        -e "s/\<copyDigraph\>/digraphCopy/g"\
 		        -e "s/\<HyperCubeDigraph\>/HypercubeGraph/g"\
 		        -e "s/\<IntegerMap\>/RangeMap/g"\
 		        -e "s/\<integerMap\>/rangeMap/g"\
 		        -e "s/\<\([sS]\)tdMap\>/\1parseMap/g"\
 		        -e "s/\<\([Ff]\)unctorMap\>/\1unctorToMap/g"\
 		        -e "s/\<\([Mm]\)apFunctor\>/\1apToFunctor/g"\
 		        -e "s/\<\([Ff]\)orkWriteMap\>/\1orkMap/g"\
 		        -e "s/\<StoreBoolMap\>/LoggerBoolMap/g"\
 		        -e "s/\<storeBoolMap\>/loggerBoolMap/g"\
 		        -e "s/\<BoundingBox\>/Box/g"\
 		        -e "s/\<readNauty\>/readNautyGraph/g"\
 		        -e "s/\<RevDigraphAdaptor\>/ReverseDigraph/g"\
 		        -e "s/\<revDigraphAdaptor\>/reverseDigraph/g"\
 		        -e "s/\<SubDigraphAdaptor\>/SubDigraph/g"\
 		        -e "s/\<subDigraphAdaptor\>/subDigraph/g"\
 		        -e "s/\<SubGraphAdaptor\>/SubGraph/g"\
 		        -e "s/\<subGraphAdaptor\>/subGraph/g"\
 		        -e "s/\<NodeSubDigraphAdaptor\>/FilterNodes/g"\
 		        -e "s/\<nodeSubDigraphAdaptor\>/filterNodes/g"\
 		        -e "s/\<ArcSubDigraphAdaptor\>/FilterArcs/g"\
 		        -e "s/\<arcSubDigraphAdaptor\>/filterArcs/g"\
 		        -e "s/\<UndirDigraphAdaptor\>/Undirector/g"\
 		        -e "s/\<undirDigraphAdaptor\>/undirector/g"\
 		        -e "s/\<ResDigraphAdaptor\>/ResidualDigraph/g"\
 		        -e "s/\<resDigraphAdaptor\>/residualDigraph/g"\
 		        -e "s/\<SplitDigraphAdaptor\>/SplitNodes/g"\
 		        -e "s/\<splitDigraphAdaptor\>/splitNodes/g"\
 		        -e "s/\<SubGraphAdaptor\>/SubGraph/g"\
 		        -e "s/\<subGraphAdaptor\>/subGraph/g"\
 		        -e "s/\<NodeSubGraphAdaptor\>/FilterNodes/g"\
 		        -e "s/\<nodeSubGraphAdaptor\>/filterNodes/g"\
 		        -e "s/\<ArcSubGraphAdaptor\>/FilterEdges/g"\
 		        -e "s/\<arcSubGraphAdaptor\>/filterEdges/g"\
 		        -e "s/\<DirGraphAdaptor\>/Orienter/g"\
 		        -e "s/\<dirGraphAdaptor\>/orienter/g"\
 		    <$i > $TMP
 		    mv $TMP $i
 		done

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