声子晶体传感器

R. Lucklum
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引用次数: 26

摘要

本文首次介绍了一种新的声学微传感器原理。它是基于声波带隙材料,即所谓的声子晶体。传感器利用带隙的特征来确定构成声子晶体的一个元件的特性。这里,带隙内特定谐振模式频率的依赖关系与液体材料性质相关。对声速变化和小间隙内液体密度变化的灵敏度比传统的超声测量方法要高得多。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Phononic crystal sensor
A new acoustic microsensor principle is introduced for the first time. It is based on acoustic band gap materials, so-called phononic crystals. The sensor employs features of the band gap to determine properties of one component that builds the phononic crystal. Here the dependence of the frequency of specific resonant modes within the band gap is correlated to liquid material properties. The sensitivity to variations in speed of sound and density of the liquid confined in a small gap has been found to be much higher than achievable with traditional ultrasonic measurements.
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