带机械共振传感器的声耦合无源无线传感器系统

T. Schaechtle, Bibhu Kar, George Fischer, Andrea Gabbrielli, Fabian Höflinger, U. Wallrabe, S. Rupitsch
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引用次数: 0

摘要

航空和航天领域对仪器仪表技术的应用具有挑战性。在这些恶劣的环境条件下,无源无线传感器技术已经证明了自己的功能。然而,如果在读出单元和无线传感器之间存在导电介质,则电磁波将被强烈衰减。相比之下,声波在流体或固体介质中具有良好的传输特性,因此适用于这种条件。在这篇文章中,我们提出了一种声学耦合无源无线传感器系统的新概念,该系统具有鲁棒的纯机械谐振器作为传感元件。这一新颖的概念将无源传感器技术与声学通信通道相结合,并将坚固的机械谐振器作为传感元件,可以直接被声波激发。这个概念是用一个机电换能器和一个工作频率为33kHz的机械谐振器来实现的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Acoustically Coupled Passive Wireless Sensor System With Mechanical Resonant Sensor
Aviation and aerospace are challenging applications for instrumentation technologies. Under these harsh environmental conditions, passive wireless sensor technology has proven itself to be functional. However, if an electrically conductive media is present between the read-out unit and the wireless sensor, electromagnetic waves will be strongly attenuated. In contrast, acoustic waves have good transmission properties through fluid or solid media and are, therefore, suitable under such conditions. In this contribution, we propose a novel concept of an acoustically coupled passive wireless sensor system with a robust, purely mechanical resonator as sensing element. The novel concept combines the passive sensor technology with an acoustic communication channel and a robust mechanical resonator serves as sensing element, which can be directly excited with an acoustic wave. The concept is implemented with an electromechanical transducer and a mechanical resonator at an operation frequency of 33kHz.
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