edge.betweenness.community (graph, weights = E(graph)$weight,
directed = TRUE, edge.betweenness = TRUE, merges = TRUE,
bridges = TRUE, modularity = TRUE, membership = TRUE)NULL to omit edge
weights. By default the weightmerges, even if the community
structure algorithm itself is divisive and not agglomeratedge.betweenness.community returns a communities
object, please see the communities manual page for
details.edge.betweenness for details. The
idea of the edge betweenness based community structure detection is
that it is likely that edges connecting separate modules have high
edge betweenness as all the shortest paths from one module to another
must traverse through them. So if we gradually remove the edge with
the highest edge betweenness score we will get a hierarchical map, a
rooted tree, called a dendrogram of the graph. The leafs of the tree
are the individual vertices and the root of the tree represents the
whole graph. edge.betweenness.community performs this algorithm by
calculating the edge betweenness of the graph, removing the edge with
the highest edge betweenness score, then recalculating edge
betweenness of the edges and again removing the one with the highest
score, etc.
edge.betweeness.community returns various information collected
throught the run of the algorithm. See the return value down here.
edge.betweenness for the definition and
calculation of the edge betweenness,
walktrap.community, fastgreedy.community,
leading.eigenvector.community for other community
detection methods. See communities for extracting the results of the
community detection.
g <- barabasi.game(100,m=2)
eb <- edge.betweenness.community(g)
g <- graph.full(10) %du% graph.full(10)
g <- add.edges(g, c(1,11))
eb <- edge.betweenness.community(g)
ebRun the code above in your browser using DataLab