An Artificial Intelligence Driven Method for Power System Control Based on the Cloud-Edge Collaboration Architecture

Wenchen Li, Yanhao Huang, Chunjiang He, Chenglong Xu, Peidong Xu, Tianlu Gao, Jun Zhang
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Abstract

The new-type power system with the high penetration of renewable energy accessed is of strong uncertainty and complexity, which can be challenging for the traditional methods to control. It's significant to introduce artificial intelligence to meet the challenge. This paper proposes a cloud-edge collaborative framework based on multi-agent deep reinforcement learning for power system regulation. Using an unsupervised clustering algorithm, the power grid is decomposed into several sub-networks according to the geographical relationship. Then, edge computing platforms are set up on each sub-network, where agents are deployed. The distributed control problem of each subnetwork can be modeled as a Markov decision model. The global observation information of the system is delivered to each edge platform through the cloud computing center, and all agents are trained to learn the best regulation strategy according to the global information. The proposed method can effectively decompose the centralized tasks and transfer them to the edge side, alleviating the pressure on the cloud center and enhancing the robustness of system operation.
基于云边缘协同架构的电力系统控制人工智能驱动方法
具有高可再生能源接入渗透率的新型电力系统具有很强的不确定性和复杂性,对传统的控制方法提出了挑战。引入人工智能来应对这一挑战意义重大。提出了一种基于多智能体深度强化学习的电力系统调节云边缘协同框架。采用无监督聚类算法,根据地理关系将电网分解为若干个子网络。然后,在每个子网上建立边缘计算平台,并在其中部署代理。每个子网的分布式控制问题可以用马尔可夫决策模型来建模。系统的全局观测信息通过云计算中心传递到各个边缘平台,并训练所有agent根据全局信息学习最佳的调控策略。该方法可以有效地分解集中式任务并将其转移到边缘端,减轻了云中心的压力,增强了系统运行的鲁棒性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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