南通大学信息科学技术学院;
文章设计了一款基于氮化镓（GaN）的微机械谐振器。该器件采用氮化镓具有较高的声速和优异的压电系数性质及其二维电子气（two-dimensional electron gas,2DEG）作为可开关嵌入电极，通过压电材料薄膜内正交应力（σx和σy）产生厚度剪切振动模式实现增强器件振荡特性；采用平面和微机械工艺进行流片，详细说明了器件工艺过程，特别是肖特基和欧姆接触工艺，得到了尺寸为70μm×100μm谐振单元物理。该器件由电极、压电薄膜、电极组成高迁移率晶体管（high electron mobility transition,HEMT）结构，使得谐振器增加了机电共振效果。测试结果表明器件的谐振频率为26.3 MHz，品质因数为2 620。通过实验对器件施加不同的栅极电压，在AlGaN/GaN界面上由于自发极化和压电极化而能够产生较大电荷密度和较高速的电子迁移率的二维电子气层。实验结果表明：HEMT的栅极电压引起的沟道的2DEG对谐振器的机电转换特性具有一定的影响，提高了谐振器的性能。该研究对于谐振器的研制具有一定的指导意义。
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基本信息:
DOI：10.12194/j.ntu.20211130001
中图分类号:TN386;TN751.2
引用信息:
[1]郭兴龙,朱友华,葛梅等.基于高迁移率晶体管的氮化镓微机械谐振器[J],2022,21(02):65-72.DOI:10.12194/j.ntu.20211130001.
基金信息:
国家自然科学基金面上项目（62074086,61874168）;国家自然科学基金青年科学基金项目（62004109）;; 江苏省产学研项目（21ZH626）