The DC Power Flow Model Based Analysis on Failure of Power Grid Communication Network

Jiaqi Huang, Qi-xin Wang, Z. Sang, Jie Yang, He Lei, Junyao Liu, Jiong Yan, Yin-xiang Wang
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Abstract

The study of cascading fault is of great significance in dealing with sudden large-scale blackouts. However, the traditional study of cascading fault seldom considers the influence of information network communication optical cable on the cascading fault of power network. From the point of view of information network edge, under the DC power flow model, the influence of information network on power network cascading fault is established, and the IEEE 30 node system is taken as an example to study the influence of random fault of communication optical cable and different information network topology on power network cascading fault. The simulation results indicate that due to the introduction of the information network, the number of vulnerable points in the power system increases, resulting in an increase in the risk of large-scale blackouts. With the increase of the fault scale of the communication optical cable in the information network, the impact of the information network on the chain fault of the power network becomes weak from strong to stable. At the same time, the topological structure of the information network has a significant impact on the chain fault of the power network. The wider degree distribution of the information network increases the vulnerability of the power network. In a regular network, the greater the degree of information nodes, the smaller the impact of the communication optical cable fault on the chain fault of the power network.
基于电网通信网故障分析的直流潮流模型
研究级联故障在处理突发性大规模停电事故中具有重要意义。然而,传统的级联故障研究很少考虑信息网络通信光缆对电网级联故障的影响。从信息网络边缘的角度出发,在直流潮流模型下,建立了信息网络对电网级联故障的影响,并以IEEE 30节点系统为例,研究了通信光缆随机故障和不同信息网络拓扑对电网级联故障的影响。仿真结果表明,由于信息网络的引入,电力系统中的脆弱点数量增加,导致大规模停电的风险增加。随着信息网络中通信光缆故障规模的增大,信息网络对电网链式故障的影响由强到稳定变弱。同时,信息网络的拓扑结构对电网的链式故障有着重要的影响。信息网络的分布程度越广,电网的脆弱性越大。在规则网络中,信息节点的程度越大,通信光缆故障对电网连锁故障的影响就越小。
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