锂离子聚合物电池电动汽车双向潮流快速充电系统控制算法

Taewon Kang, Beomseok Chae, Y. Suh
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引用次数: 12

摘要

本文介绍了一种简单、经济的30kW电动汽车独立快速充电系统。该系统主要由中性点箝位型三电平有源前端整流器和多相交错半桥拓扑的非隔离双向dc-dc变换器组成。充电系统的设计适用于锂聚合物电池和锂离子电池。完整的充电顺序由三个子间隔运行模式组成;预充电模式,恒流模式,恒压模式。预充电模式采用阶梯状电流剖面,在保持电池可靠运行的同时,缩短充电时间。该系统在8kWh的电池容量下,通过提供78A的充电电流,在16min内达到完全充电状态。由于该方案的功率转换方案简单紧凑,因此具有良好的模块友好型机械结构,这是在非常大电流的快速充电系统中实现灵活的功率扩展能力所必需的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Control algorithm of bi-directional power flow rapid charging system for electric vehicle using Li-Ion polymer battery
This paper presents a simple and cost-effective stand-alone rapid battery charging system of 30kW for electric vehicles. The proposed system mainly consists of active front-end rectifier of neutral point clamped 3-level type and non-isolated bi-directional dc-dc converter of multi-phase interleaved half-bridge topology. The charging system is designed to operate for both lithium-polymer and lithium-ion batteries. The complete charging sequence is made up of three sub-interval operating modes; pre-charge mode, constant-current mode, and constant-voltage mode. The pre-charge mode employs the stair-case shaped current profile to accomplish shorter charging time while maintaining the reliable operation of the battery. The proposed system is specified to reach the full-charge state within less than 16min for the battery capacity of 8kWh by supplying the charging current of 78A. Owing to the simple and compact power conversion scheme, the proposed solution has superior module-friendly mechanical structure which is absolutely required to realize flexible power expansion capability in a very high-current rapid charging system.
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