用于MEMS谐振器温度补偿的硅横向扩散掺杂

D. D. Shin, D. Heinz, Hyun-Keun Kwon, Yunhan Chen, T. Kenny
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引用次数: 6

摘要

本文报道了一种基于扩散掺杂控制MEMS谐振腔频率温度系数的方法。在这项工作中,一组来自两个不同晶圆的谐振器-一个有扩散掺杂,一个没有扩散掺杂-被表征和比较。在外延多晶硅封装工艺中,通过将掺杂剂扩散到硅谐振器暴露的侧壁,该技术证明了谐振器的频率-温度灵敏度的显著降低,这是硅作为谐振器材料的一个显着缺点。此外,由于较厚的几何结构受横向扩散的影响较小,该方法提供了独立操纵在同一晶圆上制造的不同谐振系统的频率-温度行为的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Lateral diffusion doping of silicon for temperature compensation of MEMS resonators
This paper reports the results of a diffusion doping-based method of controlling the temperature coefficient of frequency (TCf) of MEMS resonators. In this work, a suite of resonators from two different wafers — one with and one without diffusion doping — is characterized and compared. By diffusing dopants through exposed sidewalls of silicon resonators within an epitaxial polysilicon encapsulation process, this technique demonstrates a dramatic reduction in the resonator's frequency-temperature sensitivity, one of the significant disadvantages of silicon as a resonator material. Moreover, because thicker geometries are less affected by lateral diffusion, this method provides capability to independently manipulate frequency-temperature behaviors of different resonant systems fabricated on the same wafer.
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