纳米硅纳米线用作纳米机电系统压敏电阻的特性

T. Toriyama, Y. Tanimoto, Susumu Sugiyama
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引用次数: 15

摘要

为了验证硅纳米线压敏电阻作为机械传感器传感元件的能力,研究了硅纳米线压敏电阻的电流-电压特性和压阻效应。采用电子束直写法和RIE法制备。制备的多晶硅(多晶硅)纳米线压敏电阻具有三角形或梯形截面。最小宽度为53纳米,厚度为32纳米。人们观察到一个了不起的现象。纵向压阻系数/spl pi//sub - l/随横截面面积的减小而增大,而横向压阻系数/spl pi//sub - t/随横截面面积的变化而近似为零且不变。杂质浓度N=5/spl倍/10/sup - 19/ (cm/sup -3/)时,/spl pi// subl /的最大值为22/spl倍/10/sup -5/ (1/MPa)。
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Characteristics of silicon nano wire as piezoresistor for nano electro mechanical systems
In order to confirm ability of silicon nano wire piezoresistors as sensing element of mechanical sensors, current-voltage (I-V) characteristics and the piezoresistive effect were investigated. Electron beam (EB) direct writing and RIE were used for fabrication. Fabricated polycrystalline Si (poly-Si) nano wire piezoresistors have triangular or trapezoid cross sections. The minimum width is 53 nm and thickness is 32 nm. A remarkable phenomenon was observed. The longitudinal piezoresistive coefficient /spl pi//sub l/ of the nano wire piezoresistor increased with a decrease in the cross section area, while the transverse piezoresistive coefficient /spl pi//sub t/ was approximately zero and invariant despite variation of the cross section area. The maximum value of /spl pi//sub l/ was 22/spl times/10/sup -5/ (1/MPa) at impurity concentration N=5/spl times/10/sup 19/ (cm/sup -3/).
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