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arXiv 1305.0983eess.SYcs.PFcs.SYmath.OC
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动态聚合器-电动汽车系统中实时的福利最大化调节分配

Real-Time Welfare-Maximizing Regulation Allocation in Dynamic Aggregator-EVs System

University of Toronto(多伦多大学);University of Ontario Institute of Technology(安大略理工大学)

Sun Sun, Min Dong, Ben Liang

AI总结:

本文提出了一种实时福利最大化调节分配算法,用于动态聚合器-电动汽车系统中公平分配调节量,考虑了电动汽车动态、电池容量限制、电池退化成本和聚合器外部能源使用成本,理论证明其与最优解的差距为O(1/V)。

摘要:

车辆到电网(V2G)的概念近年来因越来越多的电动汽车(EVs)被使用而受到关注。本文考虑了一个动态聚合器-电动汽车系统,其中聚合器集中协调大量动态电动汽车以提供调节服务。我们提出了一种福利最大化调节分配(WMRA)算法,用于公平分配调节量。与先前工作相比,WMRA考虑了广泛的重要系统特性,包括电动汽车的动态、电动汽车电池容量限制、电动汽车电池退化成本以及聚合器使用外部能源源的成本。该算法在实时运行,不需要任何系统统计信息的先验知识。理论上,我们证明WMRA与最优解的差距为O(1/V),其中V是取决于电动汽车电池容量的控制参数。此外,我们的仿真结果表明,WMRA可以显著优于次优贪心算法。

英文摘要:

The concept of vehicle-to-grid (V2G) has gained recent interest as more and more electric vehicles (EVs) are put to use. In this paper, we consider a dynamic aggregator-EVs system, where an aggregator centrally coordinates a large number of dynamic EVs to perform regulation service. We propose a Welfare-Maximizing Regulation Allocation (WMRA) algorithm for the aggregator to fairly allocate the regulation amount among its EVs. Compared to previous works, WMRA accommodates a wide spectrum of vital system characteristics, including dynamics of EV, limited EV battery size, EV battery degradation cost, and the cost of using external energy sources for the aggregator. The algorithm operates in real time and does not require any prior knowledge of the statistical information of the system. Theoretically, we demonstrate that WMRA is away from the optimum by O(1/V), where V is a controlling parameter depending on EV's battery size. In addition, our simulation results indicate that WMRA can substantially outperform a suboptimal greedy algorithm.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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