面向市场、基于强化学习的智能微电网电动汽车集成方法

Abdelrahman Abdelkader, I. Sychev, Riccardo Bonetto, F. Fitzek
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引用次数: 3

摘要

在能源有限的独立自持微电网(MG)中,插电式电动汽车(EV)必须竞争可用的剩余电力供应或需求,并将其建模为随机变量。本文提出了一种基于马尔可夫决策过程(MDP)和非合作博弈论的分布式机器学习算法,在满足电动汽车车主特定的电池约束条件下,在未来MG供需状态不确定的情况下,实现电动汽车利润最大化。对该算法的性能评估表明,即使不知道未来MG供需状态的先验知识,其平均利润也仅比全局最优利润低43%。结果还表明,使用该算法的合作版本可以使平均利润增加12%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Market Oriented, Reinforcement Learning Based Approach for Electric Vehicles Integration in Smart Micro Grids
In an independent self-sustained micro grid (MG) with limited energy resources, plugged-in electric vehicles (EV) must compete for available excess power supply or demand, modeled as a random variable. This paper proposes a distributed machine learning algorithm based on a Markov decision process (MDP) and non-cooperative game theory, that maximizes the EV’s profit under uncertainty of future MG supply/demand states, while satisfying specific battery constraints imposed by the EV owner. Performance evaluation of the proposed algorithm shows that even with no a priori knowledge of future MG supply/demand states, it achieves average profits of only 43% less than the global optimal profit. Results also show that using a cooperative version of the algorithm leads to a 12% increase in average profits.
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