考虑量子阱载流子寿命效应的改进小信号QWITT二极管模型

D. Whitson, M. Paulus, C. E. Stutz, E. Koenig, R. Neidhard, E. Davis
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引用次数: 1

摘要

作者提出了一种新的量子阱注入传递时间二极管的小信号模型,该模型将最近提出的量子阱二极管等效电路与漂移区的分布阻抗模型相结合。QWD模型和QWITT模型都考虑了准束缚态和漂移区载流子延迟的影响。为了测试QWD和QWITT模型,作者通过分子束外延生长了三种不同的5.1 nm- algaas /5.1 nm- gaas /5.1 nm- algaas双势垒结构,并具有不同的阳极漂移层长度。他们使用带有级联探头的HP 8510B自动网络分析仪获得了制造二极管的实验阻抗参数,并使用分析和数值技术将QWD和QWITT等效电路与数据拟合。结果表明,QWD和QWITT本质上是相同的器件,可以使用QWD或QWITT等效电路进行建模,具有相同的精度。QWITT模型比QWD模型更适合作为设计工具,因为漂移区域是单独处理的
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An improved small signal QWITT diode model including quantum well carrier lifetime effects
The authors present a novel small-signal model for the QWITT (quantum-well injection transit time) diode, which combines a recently proposed QWD (quantum-well diode) equivalent circuit with the distributed impedance model for the drift region. Both the QWD model and the QWITT model consider the effect of carrier delays in the quasi-bound state and drift region. To test QWD and QWITT models, the authors grew three different 5.1-nm-AlGaAs/5.1-nm-GaAs/5.1-nm-AlGaAs double-barrier structures by molecular beam epitaxy with different anode drift layer lengths. They obtained experimental impedance parameters for the fabricated diodes using an HP 8510B Automated Network Analyzer with cascade probes and fit the QWD and QWITT equivalent circuits to the data using analytical and numerical techniques. It is shown that QWDs and QWITTs are essentially the same device and may be modeled using the QWD or QWITT equivalent circuit with equal accuracy. The QWITT model is found to be preferable to the QWD model as a design tool because the drift region is treated separately.<>
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