soi - cmos兼容硅纳米机电双箝位波束的特征共振特性,最高可达330 MHz

Y. Tsuchiya, Yilin Feng, C. Giotis, N. Harada, M. Shikida, C. Dupré, E. Ollier, F. Hassani, H. Mizuta
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引用次数: 3

摘要

本文报道了采用自顶向下混合EB/DUV光刻技术,采用SOI-CMOS兼容工艺制备热钝化硅纳米机电(NEM)光束的新特性。不同长度NEM梁的测量结果与有限元模拟结果的共振频率有较大差异,表明亚微米梁的支撑侧切影响较为严重。据我们所知,在800 nm长的波束中观测到的332.57 MHz的共振频率是有史以来光刻定义的Si NEM波束的最高基本共振模式。首次观察到谐振频率随光束长度变化的温度依赖性明显变化,可以通过考虑高温下长光束的热致应变效应来解释。
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Characteristic resonance features of SOI-CMOS-compatible silicon nanoelectromechanical doubly-clamped beams up to 330 MHz
This paper reports novel characteristic features of thermally-passivated Si nanoelectromechanical (NEM) beams fabricated via SOI-CMOS compatible processes with top-down hybrid EB/DUV lithography. Considerable difference of the resonance frequencies between the measurement results of the NEM beams with various lengths and the finite element simulation results suggests that effects of the undercut of the beam supports are serious for sub-micron beams. The resonance frequency of 332.57 MHz observed for an 800-nm-long beam is, to our knowledge, the highest ever as the fundamental resonance mode of lithographically-defined Si NEM beams. Clear change of the temperature dependence of the resonance frequencies with the varied beam lengths, observed for the first time, can be explained by considering effects of thermally-induced strain on the longer beams at higher temperatures.
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