复杂网络中的级联失效研究进展

doi:10.3976/j.issn.1002-4026.20230179

Abstract

Abstract:

With the development of network science and the emergence of complex systems theory, scholars have embarked on in-depth research on the structural and dynamic properties of complex networks. Among the dynamic properties of complex networks, cascading failures, as one of the most important research areas, describe a situation where a fault or error in a system or process leads to the failures of other related components or links. Various models and recovery strategies have been proposed for cascading failures in complex networks. This study analyzes the mechanisms of cascading failures, provides a comprehensive summary on the development of domestic and international cascading failure in complex networks, outlines the recovery strategies for addressing cascading failures, and highlights the existing issues and shortcomings in current research, providing valuable insights for future studies.

Key words: cascading failure, complex networks, multilayer networks, propagation properties, recovery strategies, percolation, network robustness

CLC Number:

N945.17

ZHANG Duyu, WU Jianjun, YANG Xin, MA Zhi’ao, ZHU Tianlei. Research progress on cascading failures in complex networks[J].Shandong Science, 2024, 37(2): 85-96.

Figures/Tables 4

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发生机理	机理定义	机理特点
网络拓扑结构	复杂网络通常具有复杂的拓扑结构,包括小世界网络、无标度网络等。这些网络结构具有高度的连通性和鲁棒性,但也存在脆弱性。当一个节点或边故障时,其相邻节点或连边可能受到影响,从而引发级联失效	网络拓扑结构复杂,具有高度的连通性和鲁棒性,但也存在脆弱性,容易引发级联失效^[20-21]
动态耦合和反馈效应	复杂网络中的节点和连边通常相互耦合,并且存在着反馈效应。当一个节点或边故障时,其故障信息可能通过网络传播并影响其他节点。同时,其他节点的响应和调整可能会反过来影响故障节点,形成正反馈循环,导致级联失效的扩散	节点和连边相互耦合,存在反馈效应,容易形成正反馈循环,导致级联失效的扩散^[22-23]
网络动力学和系统失衡	复杂网络中的节点和连边通常具有自适应和动态调整的特性。当一个节点或连边故障时,它可能会破坏网络的平衡状态,引发系统的失衡。失衡状态可能导致其他节点或连边的过载或不稳定,从而引发级联失效	节点和连边具有自适应和动态调整的特性,故障可能会破坏网络平衡状态,引发系统失衡,导致级联失效^[24-25]

Research progress on cascading failures in complex networks

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