AlN Self-Rolled-Up Microtube Resonators with Multimode Resonances for On-Chip Optomechanical Sensing

Yuncong Liu, Apratim Khandelwal, Zhongjie Ren, Allen T. Wang, Xiuling Li, Philip X.-L. Feng
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Abstract

This digest paper reports on the first experimental demonstration of optomechanical characteristics of three-dimensional (3D) aluminum nitride (AlN) self-rolled-up membrane (S-RuM) resonators with multimode resonances transduced via optical interferometry. For a full single-turn AlN S-RuM microtube, we have identified multimode resonances in the ~1–20MHz range with quality factors Qs ~800. For an unclosed AlN microtube with a longitudinal opening, we have observed up to 20 modes in ~0.5–110 MHz with Qs up to ~1200. Modeling of cross-sectional micro-ring cavity optomechanical coupling reveals a ~3.2kHz vacuum coupling rate and ~34fN radiation pressure force, in a 7μm-diameter, 10-turn AlN microtube. Numerical calculations suggest that the AlN microtube optomechanical resonator will yield a mass responsivity of ~3.3kHz/pg at the desired loading location. Understanding of the optomechanical properties facilitates the engineering of AlN S-RuM resonators for sensitive physical detection on chip, opening new avenues in optomechanical systems for precision sensing applications.
用于片上光机械传感的具有多模共振的 AlN 自卷绕微管谐振器
本文摘报告首次通过实验证明了三维(3D)氮化铝(AlN)自卷起膜(S-RuM)谐振器的光机械特性,并通过光学干涉测量传递了多模谐振。对于全单圈氮化铝 S-RuM 微管,我们已经确定了 ~1-20MHz 范围内的多模共振,品质因数 Qs ~800。对于具有纵向开口的非封闭 AlN 微管,我们观察到在 ~0.5-110 MHz 频率范围内有多达 20 个模式,Qs 高达 ~1200。横截面微环腔光机耦合模型显示,在直径为 7μm 的 10 圈氮化铝微管中,真空耦合率约为 3.2kHz,辐射压力力约为 34fN。数值计算表明,AlN 微管光机械谐振器在所需的加载位置将产生 ~3.3kHz/pg 的质量响应率。对光机械特性的了解有助于在芯片上设计用于灵敏物理检测的 AlN S-RuM 谐振器,为精密传感应用的光机械系统开辟了新的途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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