用于电动汽车电池充电的交/直流四开关升压降压变换器

Mamoud Nassary, E. Vidal‐Idiarte, J. Calvente
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摘要

车载充电器是目前研究的一个高度主导的趋势。对于AC/DC阶段,世界范围内提出了许多拓扑结构,但在这些不同的结构之间没有真正的基准。传统的单开关降压-升压变换器在各种应用中使用较早。但在大功率应用中,由于元件应力较大,可靠性较低,不能满足车载电池充电器的要求。因此,交流/直流四开关升压降压转换器是可取的,其中升压级联降压是优越的,因为具有连续输入电流的主要好处。此外,它们更可靠,效率更高,并且根据电池充电状态具有显着的降压或升压模式操作能力。本文将通过比较四种开关的输入电流纹波和磁体设计来研究四种不同类型的升压降压。此外,将选择输入电流最小的纹波变换器进行建模并进行实验验证。
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AC/DC Four-Switches Boost Buck Converter for EV Battery Charging
Nowadays, the on-board battery charger is a high dominant trend in research. For the AC/DC stage, many topologies are proposed worldwide without having true benchmarks among these different structures. Conventional single switch buck-boost converters were utilized earlier in various applications. However, it could not meet the requirements of the on-board battery charger due to higher component stresses and low reliability in high-power applications. Thus, AC/DC four switches boost buck converters are desirable, in which the boost cascaded with buck is superior because of the primary benefit of having a continuous input current. Moreover, they are more reliable, highly efficient, and have a significant operating capability as buck or boost mode according to the battery state of charge. This paper will examine four different kinds of four switches boost buck by comparing their input current ripple and magnet design. Furthermore, the lowest input current ripple converter will be selected for modeling and validate it experimentally.
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