Inductor Design and ZVS Control for a GaN-Based High Efficiency CRM Totem-Pole PFC Converter

Jingjing Sun, Xingxuan Huang, Nathan N. Strain, D. Costinett, L. Tolbert
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引用次数: 20

Abstract

This paper details the inductor design and zero-voltage-switching (ZVS) control of a single-phase GaN-based critical-conduction-mode (CRM) totem-pole rectifier with power factor correction (PFC). A full-line-cycle ZVS strategy is derived, and an analytical converter model with ZVS margin is proposed. The boost inductor design is critical for the operation performance of the CRM totem-pole PFC. Based on analytical loss models, the inductor is designed and implemented using a toroidal powder core and litz wire to minimize converter loss and inductor size. Digital on-time control with real-time calculation and zero current detection (ZCD) is used to implement CRM. A 1.5 kW single-phase GaN-based CRM totem-pole PFC prototype is built and tested. With the on-time control, both the inductor current and the output voltage are well regulated. ZVS is realized for the whole line cycle, and the tested efficiency is 98.8% at full load.
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基于gan的高效CRM图腾极PFC变换器的电感设计与零电压控制
本文详细介绍了基于氮化镓的单相临界导通模式(CRM)图腾极整流器的电感设计和零电压开关(ZVS)控制。推导了全线循环ZVS策略,并提出了考虑ZVS余量的解析转炉模型。升压电感的设计对CRM图腾柱pfc的工作性能至关重要。基于分析损耗模型,该电感采用环形粉末芯和litz线设计和实现,以最大限度地减少转换器损耗和电感尺寸。采用带实时计算和零电流检测(ZCD)的数字准时控制实现CRM。建立并测试了一个1.5 kW单相gan型CRM图腾柱PFC原型。通过实时控制,可以很好地调节电感电流和输出电压。实现了全线路循环零电压,试验效率为98.8%。
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