基于深度学习的电力系统级联事件序列在线识别

IF 5 2区 工程技术 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Georgios A. Nakas , Panagiotis N. Papadopoulos
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引用次数: 0

摘要

本文提出的框架主要研究可再生能源发电系统级联事件序列原因的在线识别问题。级联事件涉及高度复杂的动态现象,在某些情况下会严重危及现代电力系统的安全性,甚至导致停电。拟议的框架考虑了与电网运行条件、突发事件和可再生能源发电相关的不确定性。通过利用测量数据,所提出的框架内的方法可以接近实时地预测即将发生的级联事件的原因,级联事件是由保护装置捕获与电压、频率或暂态不稳定相关的动态现象的动作来定义的。该框架是在IEEE-39总线模型的修改版本上进行评估的,该模型增加了可再生发电和保护装置。结果表明,所提出的方法能够成功地预测出级联事件以序列形式出现的原因,平均准确率为97.4%,平均在线计算时间为1.09ms。该方法的可扩展性在IEEE-118总线系统的改进版本上得到了展示。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Online identification of cascading event sequences in power systems using deep learning
The framework proposed in this paper focuses on the online identification of the reason of cascading event sequences in power systems with renewable generation. Cascading events involve highly complex dynamic phenomena and can in some cases severely compromise the security of modern power systems, leading even to blackouts. The proposed framework takes into account uncertainties associated with network operating conditions, contingencies and renewable generation. By utilizing measurement data, the methods within the proposed framework can predict in close to real time the reason of upcoming cascading events, as defined by the action of protection devices capturing dynamic phenomena related to voltage, frequency or transient instability. The framework is evaluated on a modified version of the IEEE-39 bus model, augmented with renewable generation and protection devices. The results demonstrate that the proposed method can successfully predict the reason of cascading events as they appear in a sequence with a mean accuracy of 97.4% with an online computation time of 1.09ms on average. The scalability of the method is showcased on a modified version of the IEEE-118 bus system.
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来源期刊
International Journal of Electrical Power & Energy Systems
International Journal of Electrical Power & Energy Systems 工程技术-工程:电子与电气
CiteScore
12.10
自引率
17.30%
发文量
1022
审稿时长
51 days
期刊介绍: The journal covers theoretical developments in electrical power and energy systems and their applications. The coverage embraces: generation and network planning; reliability; long and short term operation; expert systems; neural networks; object oriented systems; system control centres; database and information systems; stock and parameter estimation; system security and adequacy; network theory, modelling and computation; small and large system dynamics; dynamic model identification; on-line control including load and switching control; protection; distribution systems; energy economics; impact of non-conventional systems; and man-machine interfaces. As well as original research papers, the journal publishes short contributions, book reviews and conference reports. All papers are peer-reviewed by at least two referees.
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