A1W power consumption GaN-based isolated gate driver for a 1.0 MHz GaN power system

Songbek Che, S. Nagai, N. Negoro, Yasufumi Kawai, O. Tabata, S. Enomoto, Y. Anda, T. Hatsuda
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引用次数: 2

Abstract

Fast switching operation of power electronics systems is significantly advantageous for reducing volume of passive components and increasing power density in the systems. Next generation power devices, such as GaN gate-injection transistor (GIT), are promising for high frequency operations and isolated gate driving is also highly recommended owing to its noise robustness. In this paper, we propose a GaN Hetero Junction Field-Effect Transistor (HFET)-based isolated gate driver for GaN power devices with Drive-by-Microwave (DBM) technology, which can provide very compact GaN-GIT power systems owing to a gate driving by a wireless power transfer without an additional isolated voltage source. The proposed DBM gate driver can drive GaN-GIT power devices at a high switching frequency of 3 MHz with relatively low power consumption (∼1 W) and provides a short propagation delay less than 20 nsec.
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用于1.0 MHz GaN电源系统的A1W功耗GaN隔离栅驱动器
电力电子系统的快速开关操作对于减小系统无源元件体积和提高系统功率密度具有重要的优势。下一代功率器件,如氮化镓栅极注入晶体管(GIT),有望用于高频操作,隔离栅极驱动也因其噪声稳健性而受到强烈推荐。在本文中,我们提出了一种基于GaN异质结场效应晶体管(HFET)的隔离栅极驱动器,用于GaN功率器件,采用微波驱动(DBM)技术,由于栅极驱动由无线电力传输而无需额外的隔离电压源,因此可以提供非常紧凑的GaN- git功率系统。所提出的DBM栅极驱动器可以以3mhz的高开关频率驱动GaN-GIT功率器件,功耗相对较低(~ 1w),并且提供小于20nsec的短传播延迟。
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