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arXiv 2407.04522cs.LG
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电力网络中的图强化学习:综合综述

Graph Reinforcement Learning for Power Grids: A Comprehensive Survey

Fraunhofer Institute for Energy Economics and Energy System Technology (IEE)(弗劳恩霍夫能源经济与能源系统技术研究所(IEE));University of Kassel(卡塞尔大学);University of Greifswald(格赖夫斯瓦尔德大学)

Mohamed Hassouna, Clara Holzhüter, Pawel Lytaev, Josephine Thomas, Bernhard Sick, Christoph Scholz

AI总结:

本文综述了图强化学习在电力网络中的应用,探讨了其在表示学习和决策制定中的改进,并指出现阶段仍处于概念验证阶段,需进一步解决实际应用中的挑战。

摘要:

随着可再生能源和分布式发电在能源结构中的比例不断上升,开发深度学习方法以应对传统电力网络方法固有的灵活性不足成为迫切需求。在此背景下,图神经网络(GNN)因其能够从图结构数据中学习的能力,成为具有前景的解决方案。结合强化学习,它们可以作为控制方法来确定补救措施。本文综述了图强化学习如何改进电力网络应用中的表示学习和决策制定,特别是输电和配电网络。我们从图结构、图神经网络架构和强化学习方法三个方面分析了所审查的方法。尽管图强化学习已显示出对不可预测事件和噪声数据的适应性,但其当前阶段主要是概念验证,尚未能够部署到实际应用中。本文还突出了实际应用中的开放挑战和限制。

英文摘要:

The increasing share of renewable energy and distributed electricity generation requires the development of deep learning approaches to address the lack of flexibility inherent in traditional power grid methods. In this context, Graph Neural Networks are a promising solution due to their ability to learn from graph-structured data. Combined with Reinforcement Learning, they can be used as control approaches to determine remedial actions. This review analyses how Graph Reinforcement Learning can improve representation learning and decision-making in power grid applications, particularly transmission and distribution grids. We analyze the reviewed approaches in terms of the graph structure, the Graph Neural Network architecture, and the Reinforcement Learning approach. Although Graph Reinforcement Learning has demonstrated adaptability to unpredictable events and noisy data, its current stage is primarily proof-of-concept, and it is not yet deployable to real-world applications. We highlight the open challenges and limitations for real-world applications.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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