高频有源电桥功率变换器的谐振栅极驱动

IF 1 4区 工程技术 Q4 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS Compel-The International Journal for Computation and Mathematics in Electrical and Electronic Engineering Pub Date : 2023-06-25 DOI:10.1109/COMPEL52896.2023.10221065
Udit Pratap Singh Tanwar, Chandan Suthar, P. Kyaw, Inder Kumar Vedula, D. Maksimović
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引用次数: 0

摘要

本文设计了一种谐振栅极驱动器(RGD),可用于各种高频功率变换器,有源电桥工作在50%占空比。RGD设计基于LCLC谐振槽和小型栅极驱动隔离变压器。所提出的RGD易于实现,不需要辅助电源或高侧栅极驱动器,具有低损耗,并提供隔离和固有死区时间。建立了硬件原型,验证了RGD在基于gan的全桥逆变器上的功能,该逆变器驱动500W, 6.78 MHz无线功率传输(WPT)系统。整个系统在电阻性负载下测试直流输入电压为300V。实验结果表明,谐振栅驱动器产生的死区时间足以实现功率级逆变gan - fet在所有工作点的零电压电压。它还显示了RGD如何减少栅极驱动损失几乎是传统栅极驱动器的三倍。
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Resonant Gate Drive for High Frequency Active-Bridge Power Converters
The paper presents the design of a resonant gate drive (RGD), which can be employed in various high-frequency power converters where active bridges operate at ~50% duty cycle. The RGD design is based on an LCLC resonant tank and a small gate-drive isolation transformer. The proposed RGD is simple to implement, does not require auxiliary supplies or high-side gate drivers, has low losses, and provides isolation and intrinsic dead time. A hardware prototype is set up to validate the functionality of RGD on a GaN-based full-bridge inverter, which drives a 500W, 6.78 MHz wireless power transfer (WPT) system. The complete system is tested up to a DC input voltage of 300V with a resistive load. The experimental results show that the dead time generated by the resonant gate driver is sufficient to achieve the ZVS of the power-stage inverter GaN-FETs at all operating points. It is also shown how the RGD reduces gate drive losses almost three times compared to the conventional gate driver.
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来源期刊
CiteScore
1.60
自引率
0.00%
发文量
124
审稿时长
4.2 months
期刊介绍: COMPEL exists for the discussion and dissemination of computational and analytical methods in electrical and electronic engineering. The main emphasis of papers should be on methods and new techniques, or the application of existing techniques in a novel way. Whilst papers with immediate application to particular engineering problems are welcome, so too are papers that form a basis for further development in the area of study. A double-blind review process ensures the content''s validity and relevance.
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