Efficient Computation of \({f}\)-Centralities and Nonbacktracking Centrality for Temporal Networks

Abstract. We discuss efficient computation of [Formula: see text]-centralities and nonbacktracking centralities for time-evolving networks with nonnegative weights. We present a node-level formula for its combinatorially exact computation which proves to be more tractable than previously existing formulae at edge-level for dense networks. Additionally, we investigate the impact of the online updating of such a time-evolving network, analyzing its effect on the resulting nonbacktracking Katz centrality. Finally, we demonstrate by means of computational experiments that the node-level formula presented is much more efficient for dense networks than the previously known edge-level formula. As a tool for our goals, in an appendix of the paper, we develop a spectral theory of matrices whose elements are vectors.

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Publication Details

Journal
SIAM Journal on Applied Mathematics
Published
2026-07-22
DOI
https://doi.org/10.1137/24m1706323
Primary Topic
Complex Network Analysis Techniques
Type
article
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article

Efficient Computation of \({f}\)-Centralities and Nonbacktracking Centrality for Temporal Networks

Vanni Noferini, Spyridon D. Vrontos, Ryan Wood
SIAM Journal on Applied Mathematics
Complex Network Analysis Techniques
article

Efficient Computation of \({f}\)-Centralities and Nonbacktracking Centrality for Temporal Networks

Vanni Noferini, Spyridon D. Vrontos, Ryan Wood
article en

Abstract

Abstract. We discuss efficient computation of [Formula: see text]-centralities and nonbacktracking centralities for time-evolving networks with nonnegative weights. We present a node-level formula for its combinatorially exact computation which proves to be more tractable than previously existing formulae at edge-level for dense networks. Additionally, we investigate the impact of the online updating of such a time-evolving network, analyzing its effect on the resulting nonbacktracking Katz centrality. Finally, we demonstrate by means of computational experiments that the node-level formula presented is much more efficient for dense networks than the previously known edge-level formula. As a tool for our goals, in an appendix of the paper, we develop a spectral theory of matrices whose elements are vectors.

SIAM Journal on Applied MathematicsVol. 86(4)
University of Essex (GB), University of Eastern Finland (FI), Aalto University (FI)
Openalex Percentile: Top 8%
Complex Network Analysis Techniques
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