Multi agent double deep Q-network with multiple reward functions for electric vehicle charge control

M. Kelker, Lars Quakernack, J. Haubrock, D. Westermann
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引用次数: 1

Abstract

Even today, electric vehicles (EVs) can endanger grid stability by overloading equipment at the low-voltage (LV) level due to high charging power at private charging points and simultaneity. With a high share ofEVs in the future, it is therefore necessary to control their charging power in such a way that congestion of equipment in the LV grid is avoided. In order to increase the user acceptance of EVs, a fast charging time of the EVs has to be guaranteed despite the control of the charging power. For achieving this, an autonomously acting control algorithm using a multi agent double deep Q-network (MADDQN) has been defined and validated in simulation in the following paper. For this purpose, multiple reward functions have been defined. In the validation on the modified CIGRE LV grid with a share of 100% EVs, it has been shown that the MADDQN can reduce the transformer utilization by up to 50 % relative to the uncontrolled case. At the same time, the charging time can be increased by 51 % relative to the minimum EV charging power of 1.4 kW.
基于多智能体双深度q网络的电动汽车充电控制
即使在今天,由于私人充电点的高充电功率和同时充电,电动汽车也会因低压(LV)水平的设备过载而危及电网的稳定性。由于未来电动汽车的份额较高,因此有必要对其充电功率进行控制,以避免低压电网设备的拥塞。为了提高用户对电动汽车的接受度,在控制充电功率的前提下,必须保证电动汽车的快速充电时间。为了实现这一目标,本文定义了一种使用多智能体双深度q网络(MADDQN)的自主行为控制算法,并在仿真中进行了验证。为此,我们定义了多种奖励功能。在对电动汽车占比100%的改进CIGRE低压电网的验证中,结果表明,与不受控制的情况相比,MADDQN可将变压器利用率降低50%。与此同时,相对于电动汽车充电功率最小值1.4 kW,充电时间可增加51%。
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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