电动汽车换电池多类型充电站动态调度

Weifeng Zhong, Kan Xie, Yi Liu, Chao Yang, Shengli Xie, Yan Zhang
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引用次数: 5

摘要

研究了为电动汽车电池交换服务提供充满电电池的自利充电站的动态调度问题。充电站接收来自需求方的多类型电池订单,根据系统当前状态,可以拒绝订单,也可以接受部分订单。如果允许,电池订单必须在预定的截止日期之前完全送达。基于Lyapunov优化框架,提出了一种动态调度方法,使充电站能够实时观察系统状态并在线进行调度决策。理论分析证明了该方法的可行性和次优性。在此基础上,导出了算法参数的可行范围,保证了电池订单能在截止日期前完成。在仿真中,采用了实际的实时电力数据。结果表明,该方法满足工期约束,且比其他基准方法获得更高的利润。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamic Scheduling of Multi-Type Battery Charging Stations for EV Battery Swapping
This paper studies dynamic scheduling of a self-interested battery charging station that provides fully-charged batteries for electric vehicle (EV) battery swapping services. The charging station receives multi-type battery orders from the demand side, and it can refuse the orders or admit part of the orders according to current system states. If admitted, battery orders have to be served completely before predefined deadlines. Based on Lyapunov optimization framework, a dynamic scheduling approach is developed, which allows the charging station to observe real-time system states and make scheduling decisions in an online fashion. In theoretical analysis, the feasibility and suboptimality of the proposed approach are proven. Based on the analysis, the feasible ranges of algorithm parameters are derived, ensuring that battery orders can be completed before deadlines. In simulation, actual real-time electricity data is used. The results show that the proposed approach satisfies the deadline constraints and achieves higher profit than other benchmark approaches.
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