非对称半桥谐振变换器具有较低的传导损耗,适用于低输入电压的DC/DC电力系统

Yeonho Jeong, Jae-Bum Lee, C. Yeon, C. Lim, Jung-Kyu Han, G. Moon
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引用次数: 3

摘要

提出了一种适用于低宽输入电压DC/DC电源系统的新型非对称半桥谐振变换器。该变换器基于开关集成技术,融合了有源箝位正向(ACF)电路和HB LLC谐振变换器。通过在HB LLC谐振变换器前采用ACF电路,可以实现更高的LLC谐振变换器级输入电压。因此,初级传导损耗可以显著降低。此外,非对称脉宽调制(APWM)控制应用于覆盖宽输入电压范围,减轻设计限制,实现高效率和高效率。因此,所提出的变换器不仅可以实现小导通损耗和高效率的优化设计,而且由于开关集成技术,可以实现高功率密度和低成本。通过一台输入36-72VDC,输出300W (12V/25A)的样机的实验结果,验证了所提变换器的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Asymmetric half-bridge resonant converter having a reduced conduction loss for DC/DC power systems with a low input voltage
A new asymmetric half-bridge (HB) resonant converter for DC/DC power system with a low and wide input voltage is proposed in this paper. The proposed converter is based on the switch integration technique, merging the Active-Clamp Forward (ACF) circuit and the HB LLC resonant converter. By adopting the ACF circuit in front of the HB LLC resonant converter, higher input voltage of LLC resonant converter stage can be achieved. As a result, the primary conduction loss can be significantly reduced. In addition, an asymmetric pulse width modulation (APWM) control is applied to cover wide input voltage range and to mitigate the design limitation for a high efficiency and. Consequently, the proposed converter can achieve not only the small conduction loss and the optimal design for high efficiency, but also high power density and low cost due to the switch integration technique. The validity of the proposed converter is confirmed by the experimental results of a prototype converter with 36-72VDC input and 300W (12V/25A) output.
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