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Cascading failures with coupled map lattices on Watts–Strogatz networks

In this paper, we present a cascading failure model based on coupled map lattices, in which a given number of crucial nodes are perturbed at the same time. By comparing the effect of five attacking strategies: random strategy, high-degree strategy, high-clustering coefficient strategy, high-betweenn...

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Bibliographic Details
Published in:Physica A 2019-07, Vol.525, p.1038-1045
Main Authors: Wang, Er-Shen, Hong, Chen, Zhang, Xu-Hong, He, Ning
Format: Article
Language:English
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Summary:In this paper, we present a cascading failure model based on coupled map lattices, in which a given number of crucial nodes are perturbed at the same time. By comparing the effect of five attacking strategies: random strategy, high-degree strategy, high-clustering coefficient strategy, high-betweenness strategy and high-closeness strategy (HCS) on Watts–Strogatz (WS) small-world networks, we found that HCS outperforms the other attacking strategies with different number of perturbed nodes. The efficiency of HCS on WS small-world networks is explored extensively. The results show that increasing the rewiring probability can reduce the range of cascading failures, but it will enhance the propagation speed of cascades. Furthermore, a more compact network structure will lead to a faster cascading failure propagation speed, and the propagation speed of cascades is inversely proportional to the characteristic path length of WS small-world networks. Our work will highlight a better understanding of cascading failures on complex networks. •We propose a CML-based cascading failure model where a given number of nodes are perturbed.•The influence of high-closeness strategy on Watts–Strogatz networks is investigated extensively.•The range of cascading failures and the propagation speed of cascades are investigated.
ISSN:0378-4371
1873-2119
DOI:10.1016/j.physa.2019.04.031