Accurate MOSFET Modeling Approach with Equivalent Series Resistance of Output Capacitance for Simulating Turn-OFF Oscillation

Ryo Shirai, Shinichiro Hayashi, K. Wada
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引用次数: 1

Abstract

High-speed switching of power semiconductors facilitates the achievement of high efficient and compact power converters. On the other hand, a high dv/dt switching easily causes a damped oscillation, which leads to increase power loss and EMI noise. Hence, the device models to simulate the oscillation are necessary for theoretical understandings. However, conventional MOSFET models often lack an equivalent series resistance of output capacitance, which is called $R_{\text{oss}}$. This paper proposes a MOSFET simulation model, including the $R_{\text{oss}}$ which has the potential to damp a turn-off oscillation waveform. Extracting an $R_{\text{oss}}$ value by using an impedance analyzer, circuit simulation and experimental verifications are performed to validate the MOSFET simulation model. Compared to a conventional modeling approach, the proposed model significantly suppresses a deviation in the damping factor of oscillation waveform.
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用输出电容等效串联电阻的MOSFET精确建模方法模拟关断振荡
功率半导体的高速开关有助于实现高效率和紧凑的功率变换器。另一方面,高dv/dt开关容易引起阻尼振荡,从而导致功率损耗和EMI噪声增加。因此,模拟振荡的器件模型对于理论理解是必要的。然而,传统的MOSFET模型往往缺乏输出电容的等效串联电阻,称为$R_{\text{oss}}$。本文提出了一个MOSFET仿真模型,其中$R_{\text{oss}}$具有抑制关断振荡波形的潜力。利用阻抗分析仪提取$R_{\text{oss}}$值,进行电路仿真和实验验证,对MOSFET仿真模型进行验证。与传统的建模方法相比,该模型显著地抑制了振荡波形阻尼因子的偏差。
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