A physics-based compact device model for GaN HEMT power devices

Ramchandra M. Kotecha, Yuzhi Zhang, A. Rashid, T. Vrotsos, H. Mantooth
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引用次数: 13

Abstract

A physics-based analytical compact device model for an enhancement-mode Gallium Nitride (GaN) High Electron Mobility Transistor (HEMT) lateral power device structure is presented. The model was implemented in the Saber® simulator and the physics-based model parameters are specifically crafted so that they can easily be extracted from dc I-V and C-V data typically available in a datasheet. An 80 V, 90 A (420 A, pulse rated), 2.5 mQ commercial EPC device datasheet is used as an example in this paper to demonstrate the parameter extraction procedure for the compact model. The model has been validated against the turn-on and turn-off characteristics of a commercial EPC GaN device. The model is scalable and can be used for a wide range of commercial GaN devices by using the extraction procedure detailed in this work.
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GaN HEMT功率器件的基于物理的紧凑器件模型
提出了一种基于物理的解析紧凑器件模型,用于增强模式氮化镓(GaN)高电子迁移率晶体管(HEMT)横向功率器件结构。该模型是在Saber®模拟器中实现的,基于物理的模型参数是专门制作的,以便可以轻松地从数据表中通常可用的dc I-V和C-V数据中提取。本文以80v, 90a (420 A,额定脉冲),2.5 mQ商用EPC设备数据表为例,演示了紧凑型模型的参数提取过程。该模型已针对商用EPC GaN器件的通断特性进行了验证。该模型是可扩展的,并且可以通过使用本工作中详细的提取程序用于广泛的商用GaN器件。
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