采用pcb嵌入式变压器基板的2w栅极驱动电源设计

Bingyao Sun, R. Burgos, D. Boroyevich
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引用次数: 16

摘要

随着碳化硅(SiC)和氮化镓(GaN)器件的商业化,高开关频率操作成为提高功率变换器效率和功率密度的流行方法。这些增益的一个关键代价是不断增加的电磁干扰(EMI)噪声。为了衰减从电源环路进入辅助源的电磁干扰噪声,期望隔离栅驱动电源中的隔离电容尽可能小。为此,提出了一种专用于驱动两个650 V GaN器件的栅极驱动电源,该电源以pcb嵌入式变压器为衬底,实现了超低间电容1.6 pF,高效率83%和高功率密度72 W/in3。该电源采用有源钳位反激拓扑,在1mhz下使用软开关技术切换,并具有两个隔离输出,每个输出产生1w。提出了一种PCB嵌入式变压器,其环形铁芯和三个绕组完全嵌入PCB中,采用标准的层压工艺,有利于高集成度转换器的设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
2 W Gate drive power supply design with PCB-embedded transformer substrate
As silicon carbide (SiC) and gallium nitride (GaN) devices become commercially available nowadays, high switching frequency operation becomes a popular way to increase the power converter efficiency and power density. A key trade-off of these gains is the increasing electromagnetic inference (EMI) noise. In order to attenuate the EMI noise from the power loop into the auxiliary sources, the isolation capacitance in the isolated gate drive power supply is expected to be as small as possible. To this end, a gate drive power supply dedicated to driving two 650 V GaN devices in a phase leg is presented with a PCB-embedded transformer as substrate, achieving an ultra-low inter-capacitance 1.6 pF, high efficiency 83% and high power density 72 W/in3. The power supply uses active-clamp flyback topology, switching at 1 MHz with soft-switching technique, and owns two isolated outputs, generating 1 W each. A PCB-embedded transformer is proposed, whose toroidal core and three windings are fully embedded into PCB, using standard lamination process, in favor of high-integration converter design.
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