Evolutionary Deep Reinforcement Learning for Volt-VAR Control in Distribution Network

Ruiqi Si, Tianlu Gao, Yuxin Dai, Yuyang Bai, Yuqi Jiang, Jun Zhang
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Abstract

As an important form of renewable energy integrated to the power system, distribution network is being challenged by voltage violation and network loss increase. Currently, model-based Vol-Var control (VVC) methods are widely used to reduce voltage violation and network loss. However, model-based methods need accurate parameters of distribution network. In practice, accurate model is difficult to obtain. In this paper, we propose a model-free evolutionary deep reinforcement learning (E-DRL) algorithm to solve the VVC problem. Based on E-DRL, the agent evolves autonomously by continuously interacting with the environment learning control strategy. Inverter-based PVs and SVGs are used to provide fast and continuous control. VVC problem is solved by soft actor-critic algorithm, which uses the maximum entropy technique to balance the exploration and exploitation. Numerical simulations on IEEE 13-bus system demonstrate that the proposed method has satisfied performance.
配电网电压无功控制的进化深度强化学习
配电网作为可再生能源并网的重要形式,正面临着电压违和和网损增加的挑战。目前,基于模型的电压无功控制(VVC)方法被广泛用于降低电压违和和网络损耗。然而,基于模型的方法需要准确的配电网参数。在实际应用中,很难得到准确的模型。在本文中,我们提出了一种无模型进化深度强化学习(E-DRL)算法来解决VVC问题。基于E-DRL,智能体通过不断与环境交互,学习控制策略,实现自主进化。基于逆变器的pv和svg用于提供快速和连续的控制。利用最大熵技术平衡探索和开发的软角色评价算法来解决VVC问题。在IEEE 13总线系统上的仿真结果表明,该方法具有良好的性能。
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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