论文标题
审查电动汽车充电技术,配置和架构
Review of Electric Vehicle Charging Technologies, Configurations, and Architectures
论文作者
论文摘要
由于电动汽车(EV)的迅速扩展,电动汽车(EV)被预计是全球运输中能源过渡的主要贡献者之一。电动汽车将通过减少化石燃料依赖性和温室气体(GHG)排放来实现可持续运输系统中发挥至关重要的作用。但是,由于负载需求的增加,功率质量影响和功率损失,高水平的电动汽车集成到分销网格中为电网操作,安全性和网络计划带来了许多挑战。越来越多的电动机机队需要高级充电系统来提高充电效率和电网支持。创新的电动汽车充电技术在最近的研究中引起了很多关注,旨在在提供辅助服务的同时加强电动汽车采用。因此,对电动汽车充电技术状态的分析对于通过高级控制策略加速采用EV是重要的,以发现负面电网影响的补救解决方案,增强所需的充电效率和网格支持。本文对EV充电系统,国际标准,充电配置,电动汽车电池技术,EV充电站的体系结构以及新兴的技术挑战的当前部署进行了全面综述。充电系统需要专门的转换器拓扑,一种控制策略和国际标准,以充电和电网互连,以确保最佳操作并增强电网支持。评估了不同充电系统的概述,评估了板载充电器,AC-DC和DC-DC转换器拓扑以及基于AC和DC的充电站体系结构。
Electric Vehicles (EVs) are projected to be one of the major contributors to energy transition in the global transportation due to their rapid expansion. The EVs will play a vital role in achieving a sustainable transportation system by reducing fossil fuel dependency and greenhouse gas (GHG) emissions. However, high level of EVs integration into the distribution grid has introduced many challenges for the power grid operation, safety, and network planning due to the increase in load demand, power quality impacts and power losses. An increasing fleet of electric mobility requires the advanced charging systems to enhance charging efficiency and utility grid support. Innovative EV charging technologies are obtaining much attention in recent research studies aimed at strengthening EV adoption while providing ancillary services. Therefore, analysis of the status of EV charging technologies is significant to accelerate EV adoption with advanced control strategies to discover a remedial solution for negative grid impacts, enhance desired charging efficiency and grid support. This paper presents a comprehensive review of the current deployment of EV charging systems, international standards, charging configurations, EV battery technologies, architecture of EV charging stations, and emerging technical challenges. The charging systems require a dedicated converter topology, a control strategy and international standards for charging and grid interconnection to ensure optimum operation and enhance grid support. An overview of different charging systems in terms of onboard and off-board chargers, AC-DC and DC-DC converter topologies, and AC and DC-based charging station architectures are evaluated.