View source: R/centrality-batch46.R
| centrality_ehcc | R Documentation |
The extended hybrid characteristic centrality of Liu and Zheng is the
closed-neighborhood sum of centrality_hcc:
EHCC(u)=HCC(u)+\sum_{v\in\phi(u)}HCC(v), the focal node counted
once and each neighbor of the open 1-order neighborhood once. It
rewards a node whose neighbors are themselves high in both the extended
degree and the E-shell hierarchy, which a node can be without being high
itself.
centrality_ehcc(x, ...)
x |
Network input accepted by |
... |
Additional arguments to |
Everything recorded on centrality_hcc carries over
unchanged: the source's \arg\max/\arg\min typo in step 3 of
the E-shell procedure, the original-graph reading of k^{ex} and
k^{ex}_{max} against the residual-graph peel, the global and
therefore not component-local normalizers, the hcc_delta domain
[0,1], the 0/0 of an edgeless graph written as zero, the
simple undirected unweighted skeleton, and the ignored weights, mode,
cutoff and inversion. Because HCC lies in [0,2], EHCC lies in
[0,2(1+k_{max})], and an isolate scores exactly its own HCC.
Named numeric vector in input node order.
Liu, J. and Zheng, J. (2023). Identifying important nodes in complex networks based on extended degree and E-shell hierarchy decomposition. Scientific Reports, 13, 3197. \Sexpr[results=rd]{tools:::Rd_expr_doi("10.1038/s41598-023-30308-5")}.
centrality_hcc for the summand and
list_centralities for the catalogue.
# On a regular graph every node scores 2, so EHCC is 2 (1 + k).
centrality_ehcc(igraph::make_ring(6))
# The star's center collects every leaf's score as well as its own.
centrality_ehcc(igraph::make_star(6, mode = "undirected"))
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