可持续电动汽车能源管理系统的风电感知车辆到电网算法

Nils Masuch, Jan Keiser, Marco Lützenberger, S. Albayrak
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引用次数: 37

摘要

风能或太阳辐射等可再生能源是化石能源和核能生产的重要替代品。然而,由于其波动特性,其在电网中的应用给系统运营商带来了新的挑战。这包括能源的中间储存,这就需要安装新的系统或方法。其中之一是电动汽车电池的使用,它可以聚合到虚拟发电厂。本文提出了一种能量管理算法,该算法根据电网内可再生能源的预期比例来调度电动汽车电池的最佳充放电时间。同时考虑了其他利益相关者(司机、充电站基础设施提供商)的约束,使算法能够根据用户的日常出行需求支持用户的充电决策。在本文中,我们详细描述了该算法,基于该方法的仿真结果,并讨论了其在我们最近进行的现场测试中的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wind power-aware vehicle-to-grid algorithms for sustainable EV energy management systems
Renewable energy carriers such as wind or solar radiation turn out to be serious alternatives to fossil and nuclear energy production. However, due to its fluctuating characteristics its application within power grids leads to new challenges for system operators. That includes the intermediate storage of the energy which necessitates the installation of new systems or approaches. One of them is the usage of electric vehicle batteries which can be aggregated to virtual power plants. In this paper we propose an energy management algorithm which schedules the optimal charging and discharging times of an electric vehicle battery according to the expected fraction of regenerative energy within the power grid. At the same time the constraints of other stakeholders (driver, charging station infrastructure provider) are taken into account, enabling the algorithm to support the user in his charging decisions upon his daily mobility requirements. In the course of the paper we provide a detailed description of the algorithm, simulation results based on this approach and discuss its application in a field test we have performed, recently.
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