Impact of InxGa1−x composition and source Zn diffusion temperature on intrinsic voltage gain in InGaAs TFETs

C. Bordallo, J. Martino, P. Agopian, A. Alian, Y. Mois, R. Rooyackers, A. Vandooren, A. Verhulst, E. Simoen, C. Claeys, N. Collaert, A. Thean
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引用次数: 1

Abstract

This work reports for the first time on the experimental study of the intrinsic voltage gain of InGaAs nTFET. The influence of Indium/Gallium composition and Zn diffusion temperature is analyzed. For a higher Indium amount (In0.7Ga0.3As compared to In0.53Ga0.47As) the band to band tunneling (BTBT) is improved due to bandgap narrowing. A higher Zn diffusion temperature gives rise to a higher source doping, resulting in a smaller tunneling length, which also increases BTBT. In both devices the intrinsic voltage gain is improved. One interesting characteristic of these devices is that they present good analog performance at low voltages (VGS=VDS=0.6V), which is promising for low power/low voltage analog applications. High-temperature operation increases in all cases more the output conductance than the transconductance, resulting in a lower intrinsic voltage gain.
InxGa1−x成分和源Zn扩散温度对InGaAs tfet本征电压增益的影响
本文首次报道了InGaAs非管场效应晶体管本征电压增益的实验研究。分析了铟镓组成和锌扩散温度对反应的影响。当铟含量较高时(In0.7Ga0.3As与In0.53Ga0.47As相比),由于带隙缩小,带间隧道效应(BTBT)得到改善。Zn扩散温度越高,源掺杂越高,隧道长度越小,BTBT也随之增加。这两种器件的固有电压增益都得到了提高。这些器件的一个有趣的特点是它们在低电压(VGS=VDS=0.6V)下具有良好的模拟性能,这对于低功耗/低电压模拟应用很有希望。在所有情况下,高温操作增加的输出电导都大于跨导,导致固有电压增益较低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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