Side Effects in a HEMT Performance with InAlN/GaN

Z. Kourdi, B. Bouazza, A. Guen-Bouazza, M. Khaouani
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引用次数: 1

Abstract

We present a simulation of a HEMT (high electron mobility transistor) structure. We extract the device characteristics through the analysis of DC, AC and high frequency regimes, as shown in this paper. This work demonstrates the optimal device with a gate length of 30 nm, and InAlN/GaN heterostructure for minimizing side effects. The simulated with Silvaco software of the HEMT devices with the materials InAlN show very good scalability in different application. We have demonstrated an excellent current density, as high as 644 mA/mm, a peak extrinsic transconductance of 710 mS/mm at VDS=2 V, and cutting frequency cutoffs of 385 GHZ, maximum frequency of 810 GHz, maximum efficiency of 23% for x-Band, maximum breakdown voltage of 365 V, and an ON/OFF current density ratio higher than 8 x 108. These values were determined through the simulation by hydrodynamics models, which makes that optimize the design is the future of this technology.

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氮化铟/氮化镓对HEMT性能的副作用
我们提出了一个模拟的HEMT(高电子迁移率晶体管)结构。我们通过分析直流、交流和高频状态提取器件特性,如图所示。本工作证明了栅极长度为30 nm的最佳器件,以及最小化副作用的InAlN/GaN异质结构。利用Silvaco软件对采用InAlN材料的HEMT器件进行了仿真,结果表明该器件在不同的应用中具有良好的可扩展性。我们已经证明了优异的电流密度,高达644 mA/mm, VDS=2 V时的峰值外部跨导为710 mS/mm,切割频率截止为385 GHZ,最大频率为810 GHZ, x波段的最大效率为23%,最大击穿电压为365 V,开/关电流密度比高于8 × 108。这些数值是通过流体动力学模型模拟确定的,这表明优化设计是该技术的未来。
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