LazyPath where edges are selected by taking the first one fitting.
Represents a component of this graph by a lazy implementation.
Controls the properties of consecutive graph traversals with no specific root.
Represents a cycle in this graph listing the nodes and connecting edges on it with the following syntax:
Type alias for entries in degree maps returned by degreeSeqMap.
Type alias for entries in degree maps returned by degreeSeqMap.
Decreasing ordering of nodes with respect to their degree.
Base trait for graph Orderings.
Template for extended node visitors.
Properties and methods for creating modified properties in a fluent-interface manner.
Controls the properties of inner-edge graph traversals.
Controls the properties of inner-element graph traversals.
Controls the properties of inner-node down-up graph traversals.
Controls the properties of inner-node graph traversals.
Path based on the passed collection of nodes with lazy evaluation of edges.
Enables lazy traversing of a Map with key = source, value = target.
LazyPath with edges selected by minimal weight.
LazyPath with edge selection such that there exists no duplicate edge in the path.
The empty ElemOrdering.
Ordering for the path dependent type NodeT.
Controls the properties of outer-edge graph traversals.
Controls the properties of outer-element graph traversals.
Controls the properties of outer-node down-up graph traversals.
Controls the properties of outer-node graph traversals.
Represents a path in this graph listing the nodes and connecting edges on it with the following syntax:
Properties controlling traversals.
Efficient reverse foreach overcoming ArrayStack's deficiency
not to overwrite reverseIterator.
LazyPath with deferred edges selection.
Abstract class for functional traversals.
Controls the properties of consecutive graph traversals starting at a root node.
The root-related methods Traverser will inherit.
Shrinks this graph to its intersection with coll.
Shrinks this graph to its intersection with coll.
Collection of nodes and/or edges to intersect with;
this graph shrinked by the nodes and edges not contained in coll.
Creates a new supergraph with an additional node, unless the node passed is already present.
Creates a new supergraph with an additional node or edge, unless the node or edge passed is already present.
Creates a new supergraph with an additional node or edge, unless the node or edge passed is already present.
This method purely wraps +(node: N) respectively +(edge: E[N])
granting the same behavior.
the wrapped node or edge to be added; ; if elem is of type N,
the wrapped object is added to the node set otherwise to the edge set.
a new supergraph containing all nodes and edges of this graph
plus elem.
Creates a new supergraph with an additional edge, unless the edge passed is already present.
Same as addWLEdge(node_1, node_2, nodes)(weight, label) except for the returned result.
Same as addWLEdge(node_1, node_2, nodes)(weight, label) except for the returned result.
This mutable graph containing the hyperedge that has been created or found.
to be created equals to an already existing hyperedge.
Same as addWLEdge(node_1, node_2)(weight, label) except for the returned result.
Same as addWLEdge(node_1, node_2)(weight, label) except for the returned result.
This mutable graph containing the edge that has been created or found.
Same as addWEdge(node_1, node_2, nodes)(weight) except for the returned result.
Same as addWEdge(node_1, node_2, nodes)(weight) except for the returned result.
This mutable graph containing the hyperedge that has been created or found.
to be created equals to an already existing hyperedge.
Same as addWEdge(node_1, node_2)(weight) except for the returned result.
Same as addWEdge(node_1, node_2)(weight) except for the returned result.
This mutable graph containing the edge that has been created or found.
Same as addLEdge(node_1, node_2, nodes)(label) except for the returned result.
Same as addLEdge(node_1, node_2, nodes)(label) except for the returned result.
This mutable graph containing the hyperedge that has been created or found.
to be created equals to an already existing hyperedge.
Same as addLEdge(node_1, node_2)(label) except for the returned result.
Same as addLEdge(node_1, node_2)(label) except for the returned result.
This mutable graph containing the edge that has been created or found.
Same as addEdge(node_1, node_2, nodes) except for the returned result.
Same as addEdge(node_1, node_2, nodes) except for the returned result.
This mutable graph containing the hyperedge that has been created or found.
to be created equals to an already existing hyperedge.
Same as addEdge(node_1, node_2) except for the returned result.
Same as addEdge(node_1, node_2) except for the returned result.
This mutable graph containing the edge that has been created or found.
Creates a new subgraph consisting of all nodes and edges of this graph except node
and those edges which node is incident with.
Creates a new subgraph consisting of all nodes and edges of this graph except elem.
Creates a new subgraph consisting of all nodes and edges of this graph except elem.
If elem is of type N, this method maps to -(node: N). Otherwise the edge is deleted
leaving the node set unchanged.
node or edge to be removed.
the new subgraph of this graph after the "ripple" deletion of the passed node or the simple deletion of the passed edge.
Creates a new subgraph consisting of all nodes and edges of this graph except elem.
Creates a new subgraph consisting of all nodes and edges of this graph except elem.
If elem is of type N, this method maps to -(node: N). Otherwise the edge is deleted
along with those incident nodes which would become edge-less after deletion.
node or edge to be removed.
a new subgraph of this graph after the "ripple" deletion of the passed node or edge.
Creates a new subgraph consisting of all nodes and edges of this graph except edge
and those nodes which are incident with edge and would become edge-less after deletion.
Creates a new subgraph consisting of all nodes and edges of this graph except edge
and those nodes which are incident with edge and would become edge-less after deletion.
the edge to be removed.
a new subgraph of this graph after the "ripple" deletion of edge from
this graph.
Creates a new subgraph consisting of all nodes and edges of this graph but edge.
Creates a new subgraph consisting of all nodes and edges of this graph but edge.
The node set remains unchanged.
the edge to be removed.
a new subgraph of this graph that contains all nodes and edges of this graph
except of edge.
Creates a new subgraph consisting of all nodes and edges of this graph but the elements
of coll which will be unconditionally removed.
Creates a new subgraph consisting of all nodes and edges of this graph but the elements
of coll which will be unconditionally removed. This operation differs from --
in that edges are deleted along with those incident nodes which would become isolated
after deletion.
the new subgraph containing all nodes and edges of this graph
after the "ripple" deletion of nodes and the simple deletion of edges in coll .
Removes all elements of coll from this graph.
Removes all elements of coll from this graph. Edges will be
ripple removed.
Collection of nodes and/or edges to be removed; if the element type is N, it is removed from the node set otherwise from the edge set.
this graph shrinked by the nodes and edges contained in coll.
Creates a new subgraph consisting of all nodes and edges of this graph but node
which is conditionally removed from this graph.
Creates a new subgraph consisting of all nodes and edges of this graph but node
which is conditionally removed from this graph. The removal only succeeds if the node
is not incident with any edges or it is only incident with hooks.
the node to be gently removed.
the new subgraph of this graph after the "gentle" deletion of node.
If node could not be deleted, the new graph is a copy of this graph.
Ordering for the path dependent type EdgeT.
Decreasing ordering of integers.
Adds a node to this graph.
Adds a node to this graph.
true if the node was not yet present in the graph, false otherwise.
Adds the given edge if not yet present and returns it as an inner edge.
Adds the given edge if not yet present and returns it as an inner edge.
the edge to add.
the inner edge containing the added edge.
Adds the given node if not yet present and returns it as an inner node.
Adds the given node if not yet present and returns it as an inner node.
the node to add.
inner node containing the added node.
Same as addEdge(node_1, node_2, nodes) except for the returned result.
Same as addEdge(node_1, node_2, nodes) except for the returned result.
The new hyperedge or the corresponding contained hyperedge if the hyperedge
to be created equals to an already existing hyperedge.
Same as addEdge(node_1, node_2) except for the returned result.
Same as addEdge(node_1, node_2) except for the returned result.
The new edge or the corresponding contained edge if the edge
to be created equals to an already existing edge.
Same as addLEdge(node_1, node_2, nodes)(label) except for the returned result.
Same as addLEdge(node_1, node_2, nodes)(label) except for the returned result.
The new hyperedge or the corresponding contained hyperedge if the hyperedge
to be created equals to an already existing hyperedge.
Same as addLEdge(node_1, node_2)(label) except for the returned result.
Same as addLEdge(node_1, node_2)(label) except for the returned result.
The new edge or the corresponding contained edge if the edge
to be created equals to an already existing edge.
Same as addWEdge(node_1, node_2, nodes)(weight) except for the returned result.
Same as addWEdge(node_1, node_2, nodes)(weight) except for the returned result.
The new hyperedge or the corresponding contained hyperedge if the hyperedge
to be created equals to an already existing hyperedge.
Same as addWEdge(node_1, node_2)(weight) except for the returned result.
Same as addWEdge(node_1, node_2)(weight) except for the returned result.
The new edge or the corresponding contained edge if the edge
to be created equals to an already existing edge.
Same as addWLEdge(node_1, node_2, nodes)(weight, label) except for the returned result.
Same as addWLEdge(node_1, node_2, nodes)(weight, label) except for the returned result.
The new hyperedge or the corresponding contained hyperedge if the hyperedge
to be created equals to an already existing hyperedge.
Same as addWLEdge(node_1, node_2)(weight, label) except for the returned result.
Same as addWLEdge(node_1, node_2)(weight, label) except for the returned result.
The new edge or the corresponding contained edge if the edge
to be created equals to an already existing edge.
Creates a new inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Creates a new inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The third and possibly more inner or outer nodes to be incident with the hyperedge to be created. In case of a directed edge, these become targets.
An edge companion who's from is to serve as the edge factory.
true if a new hyperedge has been created. false if no new hyperedge could be
created because there exists a corresponding equaling hyperedge.
Creates a new inner edge between node_1 and node_2 using edgeFactory
and adds it to the edge set of this graph.
Creates a new inner edge between node_1 and node_2 using edgeFactory
and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
An edge companion who's from is to serve as the edge factory.
true if a new edge has been created. false if no new edge could be
created because there exists a corresponding equaling edge.
Creates a new weighted and labeled inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Creates a new weighted and labeled inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The third and possibly more inner or outer nodes to be incident with the hyperedge to be created. In case of a directed edge, these become targets.
The value the labeled edge to be created should have as its label.
An edge companion who's from is to serve as the edge factory.
true if a new hyperedge has been created. false if no new hyperedge could be
created because there exists a corresponding equaling hyperedge.
Creates a new labeled inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Creates a new labeled inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The value the labeled edge to be created should have as its label.
An edge companion who's from is to serve as the edge factory.
true if a new edge has been created. false if no new edge could be
created because there exists a corresponding equaling edge.
Creates a new weighted inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Creates a new weighted inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The third and possibly more inner or outer nodes to be incident with the hyperedge to be created. In case of a directed edge, these become targets.
The number the weighted edge to be created should have as its weight.
An edge companion who's from is to serve as the edge factory.
true if a new hyperedge has been created. false if no new hyperedge could be
created because there exists a corresponding equaling hyperedge.
Creates a new weighted inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Creates a new weighted inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The number the weighted edge to be created should have as its weight.
An edge companion who's from is to serve as the edge factory.
true if a new edge has been created. false if no new edge could be
created because there exists a corresponding equaling edge.
Creates a new weighted and labeled inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Creates a new weighted and labeled inner hyperedge between node_1, node_2 and nodes
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The third and possibly more inner or outer nodes to be incident with the hyperedge to be created. In case of a directed edge, these become targets.
The number the weighted edge to be created should have as its weight.
The value the labeled edge to be created should have as its label.
An edge companion who's from is to serve as the edge factory.
true if a new hyperedge has been created. false if no new hyperedge could be
created because there exists a corresponding equaling hyperedge.
Creates a new weighted and labeled inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Creates a new weighted and labeled inner edge between node_1 and node_2
using edgeFactory and adds it to the edge set of this graph.
Node arguments not yet contained in this graph will be added to the node set.
The first outer node to be incident with the edge to be created. In case of a directed edge, this becomes the source.
The second outer node to be incident with the edge to be created. In case of a directed edge, this becomes the target.
The number the weighted edge to be created should have as its weight.
The value the labeled edge to be created should have as its label.
An edge companion who's from is to serve as the edge factory.
true if a new edge has been created. false if no new edge could be
created because there exists a corresponding equaling edge.
Default edge filter letting path all edges (non-filter).
Default edge filter letting path all edges (non-filter).
Default node filter letting path all nodes (non-filter).
Default node filter letting path all nodes (non-filter).
Sorts all nodes of this graph by ordNode followed by all edges sorted by ordEdge
and concatinates their string representation nodeSeparator and edgeSeparator
respectively.
Sorts all nodes of this graph by ordNode followed by all edges sorted by ordEdge
and concatinates their string representation nodeSeparator and edgeSeparator
respectively.
to separate nodes by.
to separate edges by.
to separate nodes from edges by.
whether the node and edge set should be prefixed.
the node ordering defaulting to defaultNodeOrdering.
the edge ordering defaulting to defaultEdgeOrdering.
Prepares and calls plusPlus or minusMinus.
Prepares and calls plusPlus or minusMinus.
Creates a ComponentTraverser responsible for invoking graph traversal methods that cover all components of this possibly disconnected graph.
Creates a ComponentTraverser responsible for invoking graph traversal methods that cover all components of this possibly disconnected graph.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Checks whether a given node or edge is contained in this graph.
Checks whether a given node or edge is contained in this graph.
the node or edge the existence of which is to be checked
true if elem is contained in this graph
The degree set of this graph projected onto a map.
The degree set of this graph projected onto a map. The keys of the map are the degrees in decreasing order while the values are the number of inner nodes having the degree of the corresponding key.
The degree sequence of this graph projected onto a sequence of tuples.
The degree sequence of this graph projected onto a sequence of tuples. The first elements of the tuples are the degrees in non-increasing order while the second elements are the corresponding inner nodes.
The degree set of this graph projected onto a map.
The degree set of this graph projected onto a map. The keys of the map are the degrees in decreasing order while the values are sets of the corresponding inner nodes.
The degree sequence of this graph, that is the non-increasing sequence of degrees over all nodes.
The degree sequence of this graph, that is the non-increasing sequence of degrees over all nodes.
The degree set of this graph, that is the decreasing set of unique degrees over all nodes.
The degree set of this graph, that is the decreasing set of unique degrees over all nodes. Same as degreeSeq without duplicates.
Returns a copy of the current dirty-flags for dump purposes.
Returns a copy of the current dirty-flags for dump purposes.
Returns a copy of the current inUse-flags for dump purposes.
Returns a copy of the current inUse-flags for dump purposes.
The edge set of this Graph commonly referred to as E(G).
The edge set of this Graph commonly referred to as E(G).
Set of all contained edges.
Graph instances are equal if their nodes and edges turned
to outer nodes and outer edges are equal.
Graph instances are equal if their nodes and edges turned
to outer nodes and outer edges are equal. Any TraversableOnce
instance may also be equal to this graph if its set representation
contains equalling outer nodes and outer edges. Thus the following
expressions hold:
Graph(1~2, 3) == List(1~2, 3) Graph(1~2, 3) == List(1, 2, 2, 3, 2~1)
The first test is false because of the failing nodes 1 and 2.
The second is true because of duplicate elimination and undirected edge equivalence.
Searches for an edge node equaling to outerEdge in this graph.
Searches for an edge node equaling to outerEdge in this graph.
the outer edge to search for in this graph.
Some of the inner edge found or None.
Searches for an inner node equaling to outerNode in this graph.
Searches for an inner node equaling to outerNode in this graph.
Some of the inner node found or None.
Finds a cycle in this graph and calls visitor for each inner element
visited during the search.
Finds a cycle in this graph and calls visitor for each inner element
visited during the search.
Use componentTraverser to pass non-default arguments.
Finds a cycle in this graph.
Finds a cycle in this graph.
Use componentTraverser to pass non-default arguments.
Populates this graph with the nodes and edges read from nodeStream and edgeStream.
Populates this graph with the nodes and edges read from nodeStream and edgeStream.
Populates this graph with nodes and the edges to be created through edgeStream.
Populates this graph with nodes and the edges to be created through edgeStream.
The implementing class will typically have a constructor with the same parameters
which is invoked through a call to from of the companion object.
list of node input streams to be processed. All nodes read from any
of these streams will be added to this graph. Note that only isolated nodes
must be included in a stream or in nodes, non-isolated nodes are optional.
The isolated (and optionally any other) outer nodes that the node set of
this graph is to be populated with. This parameter may be used as an alternative
or in addition to nodeStreams.
list of edge input streams, each with its own edge factory, to be processed. All edges and edge ends (nodes) read from any of these streams will be added to this graph.
The outer edges that the edge set of this graph is to be populated with.
Nodes being the end of any of these edges will be added to the node set.
This parameter is meant be used as an alternative or in addition to edgeStreams.
Searches for an inner edge equaling to outerEdge in this graph
which must exist in this graph.
Searches for an inner edge equaling to outerEdge in this graph
which must exist in this graph.
the outer edge to search for in this graph.
the inner edge if found. Otherwise NoSuchElementException is thrown.
Searches for an inner node equaling to outerNode in this graph
which must exist in this graph.
Searches for an inner node equaling to outerNode in this graph
which must exist in this graph.
the outer node to search for in this graph.
the inner node if found. Otherwise NoSuchElementException is thrown.
Searches for an inner edge equaling to outerEdge in this graph.
Searches for an inner edge equaling to outerEdge in this graph.
the outer edge to search for in this graph.
the inner edge to return if outerEdge cannot be found.
the inner edge looked up or default if no inner edge
equaling to edge could be found.
Searches for an inner node equaling to outerNode in this graph.
Searches for an inner node equaling to outerNode in this graph.
the outer node to search for in this graph.
the inner node to return if outerNode is not contained.
The inner node looked up or default if no inner node
equaling to outerNode could be found.
The companion object of This.
The companion object of This.
The size - commonly referred to as ||G|| - of this graph equaling to the number of edges.
The size - commonly referred to as ||G|| - of this graph equaling to the number of edges.
Method size is reserved for the number of nodes and edges
because Graph is also SetLike with set elements being nodes or edges.
Provides a shortcut for predicates involving any graph element.
Provides a shortcut for predicates involving any graph element.
In order to compute a subgraph of this graph, the result of this method
may be passed to any graph-level method requiring a predicate such as
count, exists, filter, filterNot, forall etc. For instance
val g = Graph(2~>3, 3~>1, 5) g filter g.having(nodes = _ >= 2) // yields Graph(2, 3, 5, 2~>3)
The predicate that must hold for the nodes.
The predicate that must hold for the edges. If omitted, all edges
between nodes to be included by nodes will also be included.
A partial function combining the passed predicates.
Populates this graph with nodes and edges.
Populates this graph with nodes and edges.
The implementing class will typically have a constructor with the same parameters
which is invoked by from of the companion object.
The isolated (and optionally any other) outer nodes that the node set of
this graph is to be populated with. This parameter may be used as an alternative
or in addition to nodeStreams.
The outer edges that the edge set of this graph is to be populated with.
Nodes being the end of any of these edges will be added to the node set.
This parameter is meant be used as an alternative or in addition to edgeStreams.
Creates a InnerEdgeTraverser based on scala.collection.Traversable[EdgeT].
Creates a InnerEdgeTraverser based on scala.collection.Traversable[EdgeT].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a InnerElemTraverser based on scala.collection.Traversable[InnerElem].
Creates a InnerElemTraverser based on scala.collection.Traversable[InnerElem].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a InnerNodeDownUpTraverser based on scala.collection.Traversable[(Boolean, NodeT)]
where the Boolean parameter is true if the traversal takes place
in downward and false if it takes place in upward direction.
Creates a InnerNodeDownUpTraverser based on scala.collection.Traversable[(Boolean, NodeT)]
where the Boolean parameter is true if the traversal takes place
in downward and false if it takes place in upward direction.
The node where subsequent graph traversals start.
The properties controlling subsequent traversals. A kind different from DepthFirst will be ignored.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a InnerNodeTraverser based on scala.collection.Traversable[NodeT].
Creates a InnerNodeTraverser based on scala.collection.Traversable[NodeT].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Whether this graph has no cycle.
Whether this graph has no cycle.
Whether all nodes are pairwise adjacent.
Whether all nodes are pairwise adjacent.
true if this graph is complete, false if this graph contains any
independent nodes.
Whether this graph is connected if it is undirected or
weakly connected if it is directed.
Whether this graph is connected if it is undirected or
weakly connected if it is directed.
true if f is not equivalent to anyEdge.
true if f is not equivalent to anyEdge.
true if v is not equivalent to noEdgeAction.
true if v is not equivalent to noEdgeAction.
true if f is not equivalent to anyNode.
true if f is not equivalent to anyNode.
true if v is not equivalent to noNodeUpAction.
true if v is not equivalent to noNodeUpAction.
true if v is not equivalent to noNodeAction.
true if v is not equivalent to noNodeAction.
Whether this graph has at least one cycle.
Whether this graph has at least one cycle.
true if this graph has at most 1 node.
true if this graph has at most 1 node.
Iterates over all nodes and all edges.
Iterates over all nodes and all edges.
iterator containing all nodes and all edges
(Changed in version 2.8.0) Set.map now returns a Set, so it will discard duplicate values.
The degree of the node having the highest degree or 0 if
this graph is empty.
The degree of the node having the highest degree or 0 if
this graph is empty.
The degree of the node having the least degree or 0 if
this graph is empty.
The degree of the node having the least degree or 0 if
this graph is empty.
Implements the heart of -- calling the from factory method of the companion object.
Implements the heart of -- calling the from factory method of the companion object.
Note that this method must be reimplemented in each module
having its own factory methods such as constrained does.
Calculates the nodes and edges arguments to be passed to a factory method
when delNodes and delEdges are to be deleted by --.
Calculates the nodes and edges arguments to be passed to a factory method
when delNodes and delEdges are to be deleted by --.
Creates a Traversal instance allowing subsequent traversals with
constant filters and visitors.
Creates a Traversal instance allowing subsequent traversals with
constant filters and visitors.
Determines which connected nodes the traversal has to follow.
The default value is Successors.
Predicate to filter the nodes to be visited during traversal.
The default value is anyNode, that is no filtering.
A return of true signals that the traversal is to be canceled.
Predicate to filter the edges to be visited during traversal.
The default value is anyEdge meaning that no filtering takes place.
Function to be called on visiting a node for the first time
during a traversal. It can mutate the node or carry out any other side effect.
The default value is the empty function noNodeAction. Alternatively, an instance of ExtendedNodeVisitor
may be passed to obtain additional state information such as the current
depth. The concrete type of the last argument, the informer
depends on the underlying implementation so you need to match against it. Concerning this method please match against
scalax.collection.GraphTraversalImpl.DfsInformer or
scalax.collection.GraphTraversalImpl.BfsInformer depending on the
breadthFirst argument.
Function to be called on visiting an edge.
It can mutate the node or carry out any other side effect.
The default value is the empty function noEdgeAction.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Avoid calling this directly, prefer withHandle instead.
Avoid calling this directly, prefer withHandle instead.
Default edge visitor doing nothing (non-visitor).
Default edge visitor doing nothing (non-visitor).
Node predicate always returning false.
Node predicate always returning false.
Default node visitor doing nothing (non-visitor).
Default node visitor doing nothing (non-visitor).
Default node-up visitor doing nothing (non-visitor).
Default node-up visitor doing nothing (non-visitor).
The node (vertex) set of this Graph commonly referred to as V(G).
The node (vertex) set of this Graph commonly referred to as V(G).
Set of all contained nodes.
true if this graph has at least 2 nodes.
true if this graph has at least 2 nodes.
The order - commonly referred to as |G| - of this graph equaling to the number of nodes.
The order - commonly referred to as |G| - of this graph equaling to the number of nodes.
Creates a OuterEdgeTraverser based on scala.collection.Traversable[E[N]].
Creates a OuterEdgeTraverser based on scala.collection.Traversable[E[N]].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a OuterElemTraverser based on scala.collection.Traversable[OuterElem].
Creates a OuterElemTraverser based on scala.collection.Traversable[OuterElem].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a OuterNodeDownUpTraverser based on scala.collection.Traversable[(Boolean, N)]
where the Boolean parameter is true if the traversal takes place
in downward and false if it takes place in upward direction.
Creates a OuterNodeDownUpTraverser based on scala.collection.Traversable[(Boolean, N)]
where the Boolean parameter is true if the traversal takes place
in downward and false if it takes place in upward direction.
The node where subsequent graph traversals start.
The properties controlling subsequent traversals. A kind different from DepthFirst will be ignored.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Creates a OuterNodeTraverser based on scala.collection.Traversable[N].
Creates a OuterNodeTraverser based on scala.collection.Traversable[N].
The node where subsequent graph traversals start.
The properties controlling subsequent traversals.
Restricts subsequent graph traversals to visit only nodes holding this predicate.
Restricts subsequent graph traversals to walk only along edges that hold this predicate.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
Implements the heart of ++ calling the from factory method of the companion object.
Implements the heart of ++ calling the from factory method of the companion object.
Note that this method must be reimplemented in each module
having its own factory methods such as constrained does.
Avoid calling this directly, prefer withHandle instead.
Avoid calling this directly, prefer withHandle instead.
(Changed in version 2.9.0) The behavior of scanRight has changed. The previous behavior can be reproduced with scanRight.reverse.
Same as asSortedString but additionally prefixed and parenthesized by stringPrefix.
Same as asSortedString but additionally prefixed and parenthesized by stringPrefix.
Ensures sorted nodes/edges unless this Graph has more than 100 elements.
Ensures sorted nodes/edges unless this Graph has more than 100 elements.
See also asSortedString and toSortedString.
The total degree of this graph equaling to the sum
of the degrees over all nodes or 0 if this graph is empty.
The total degree of this graph equaling to the sum
of the degrees over all nodes or 0 if this graph is empty.
the degree function to apply
to the nodes defaulting to Degree. Non-default predefined
degree functions are InDegree and OutDegree.
selects nodes to be included by their degree.
(Changed in version 2.9.0) transpose throws an IllegalArgumentException if collections are not uniformly sized.
If an inner edge equaling to edge is present in this graph, it is replaced
by edge, otherwise edge will be inserted.
If an inner edge equaling to edge is present in this graph, it is replaced
by edge, otherwise edge will be inserted. Such an update may be useful
whenever non-key parts of an immutable edge are to be modified.
The edge to add to this graph.
true if edge has been inserted.
Executes a code block in the context of a new or reused state handler.
Executes a code block in the context of a new or reused state handler.
The result of the code block executed.
Executes a code block in the context nr new state handlers
or alternatively in the context of the state handlers reuse.
Executes a code block in the context nr new state handlers
or alternatively in the context of the state handlers reuse.
The result of the code block executed.
(defaultGraphImpl: StringAdd).+(other)
(defaultGraphImpl: (Param[Param[N, E], EI]) ⇒ Boolean).andThen(g)
(defaultGraphImpl: (Param[Param[N, E], EI]) ⇒ Boolean).apply(v1)
(defaultGraphImpl: (Param[Param[N, E], EI]) ⇒ Boolean).compose(g)
(defaultGraphImpl: MonadOps[Param[N, E]]).filter(p)
(defaultGraphImpl: MonadOps[Param[N, E]]).flatMap(f)
(defaultGraphImpl: MonadOps[Param[N, E]]).map(f)
(defaultGraphImpl: StringAdd).self
(defaultGraphImpl: StringFormat).self
(defaultGraphImpl: OuterNode[DefaultGraphImpl[N, E]]).stringPrefix
(defaultGraphImpl: OuterNode[DefaultGraphImpl[N, E]]).toString()
(defaultGraphImpl: (Param[Param[N, E], EI]) ⇒ Boolean).toString()
(defaultGraphImpl: MonadOps[Param[N, E]]).withFilter(p)
(Since version 2.10.0) use fold instead
Finds a cycle in this graph taking optional filters and visitors into account.
Finds a cycle in this graph taking optional filters and visitors into account., if any.
Predicate to filter the nodes to be visited during traversal.
The default value is anyNode, that is no filtering.
A return of true signals that the traversal is to be canceled.
Predicate to filter the edges to be visited during traversal.
The default value is anyEdge meaning that no filtering takes place.
A positive value limiting the number of layers for Bfs respectively
the number of consecutive child visits before siblings are visited for Dfs.
0, the default value, indicates that the traversal should have
an unlimited depth meaning that it will be continued until either
it's canceled or all nodes have been visited.
Function to be called on visiting a node for the first time
during a traversal. It can mutate the node or carry out any other side effect.
The default value is the empty function noNodeAction. Alternatively, an instance of ExtendedNodeVisitor
may be passed to obtain additional state information such as the current
depth. The concrete type of the last argument, the informer
depends on the underlying implementation so you need to match against it. Concerning this method please match against
scalax.collection.GraphTraversalImpl.WgbInformer.
Function to be called on visiting an edge.
It can mutate the node or carry out any other side effect.
The default value is the empty function noEdgeAction.
If a NodeOrdering or EdgeOrdering different from noOrdering is supplied
neighbor nodes will be sorted during the traversal. Thus it is guaranteed that
the smaller an element's ranking the sooner it will be processed. In case of
EdgeOrdering it is guaranteed that the smaller an edge's ranking the sooner
its relevant end(s) will be processed.
A cycle or None if either
this graph orthis graph but due to the given
filtering conditions or a Cancel return by a visitor this cycle
had to be disregarded.
(Since version 1.8.0) Use componentTraverser instead.
(defaultGraphImpl: ArrowAssoc[DefaultGraphImpl[N, E]]).x
(Since version 2.10.0) Use leftOfArrow instead
(defaultGraphImpl: Ensuring[DefaultGraphImpl[N, E]]).x
(Since version 2.10.0) Use resultOfEnsuring instead