15 nm diameter InAs nanowire MOSFETs

A. Dey, C. Thelander, M. Borgstrom, B. Borg, E. Lind, L. Wernersson
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Abstract

InAs is an attractive channel material for III–V nanowire MOSFETs and early prototype high performance nanowire transistors have been demonstrated1. As the gate length is reduced, the nanowire diameter must be scaled quite aggressively in order to suppress short-channel effects2. However, a reduction in transconductance (gm) and drive current (ION) could be expected due to increased surface scattering for thin wires. We present data for the device properties of thin InAs nanowires, with diameters in the 15 nm range, and investigate possible improvements of the performance focusing on transistor applications. In order to boost ION, the source and drain resistance need to be reduced. Several doping sources were therefore evaluated in the study, among them selenium (Se), tin (Sn) and sulphur (S) to form n-i-n structures. We report very high current densities, up to 33 MA/cm2, comparable to modern HEMTs3, and a normalized transconductance of 1.8 S/mm for a nanowire with an intrinsic segment of nominally 150 nm and a diameter of 15 nm.
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直径15nm的InAs纳米线mosfet
InAs是III-V级纳米线mosfet的极具吸引力的沟道材料,早期的高性能纳米线晶体管原型已经被证明1。随着栅极长度的减小,为了抑制短沟道效应,纳米线的直径必须大幅缩小。然而,由于细线的表面散射增加,可以预期跨导(gm)和驱动电流(ION)的减少。我们提供了直径在15纳米范围内的细InAs纳米线的器件性能数据,并研究了聚焦于晶体管应用的性能改进的可能性。为了提高离子,需要降低源极和漏极电阻。因此,在研究中评估了几种掺杂源,其中包括硒(Se),锡(Sn)和硫(S),以形成n-i-n结构。我们报告了非常高的电流密度,高达33 MA/cm2,与现代HEMTs3相当,并且具有1.8 S/mm的归一化跨导纳米线,其名义上的固有段为150 nm,直径为15 nm。
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