Sub-100 nm Gate Length GaAs MESFETs Fabricated By Molecular Beam Epitaxy And Electron Beam Lithography

D. Allee, P. de la Houssaye, D. Schlom, B. Langley, J. Harris, R. Pease
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引用次数: 4

Abstract

Ultra-high resolution electron beam lithography (UHREBL) has been used for many years to write nanometer scale patterns in various materials. In 1960, sub-100 nm features were made in thin membranes1. Only recently has UHREBL been applied to fabrication of electronic devices2. Our laboratory is very interested in investigating the device physics of traditional electronic devices with nanometer features and novel devices that depend on the nanometer features for proper operation. Here we describe the fabrication and the device characterization of the former, specifically MESFETs with recessed gates as short as 65 nm. The high frequency performance of MESFETs is improved primarily by reducing the gate length, parasitic source and gate resistances, and the gate capacitance. An optimized short gate length device will reduce the noise figure and increase fmax for microwave amplifiers. In this paper, we also discuss the advantages of using a high Tc superconducting gate electrode for ultra-submicron FETs as a means to reduce the gate resistance.
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用分子束外延和电子束光刻技术制备亚100nm栅长GaAs mesfet
超高分辨率电子束光刻技术(UHREBL)多年来一直用于在各种材料上刻写纳米尺度的图案。1960年,在薄膜中制备了亚100nm特征。直到最近,UHREBL才被应用于电子设备的制造。我们的实验室非常有兴趣研究具有纳米特征的传统电子器件和依赖纳米特征正常运行的新型器件的器件物理。在这里,我们描述了前者的制造和器件特性,特别是具有短至65nm的凹槽栅极的mesfet。mesfet的高频性能主要通过减小栅极长度、寄生源电阻和栅极电阻以及栅极电容来提高。优化后的短门长器件可以降低噪声系数,提高微波放大器的fmax。本文还讨论了在超亚微米场效应管中使用高Tc超导栅极来降低栅极电阻的优点。
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