利用系留光学机械装置进行准确、精确的压力传感

Olivia R. Green, Yiliang Bao, John R. Lawall, Jason J. Gorman, Daniel S. Barker
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引用次数: 0

摘要

通过与压力传递标准的比较,我们发现光学机械系统可以成为主要压力传感器,其不确定性可低至读数的 1.1%。我们的氮化硅和碳化硅传感器具有短期和长期稳定性,显示的阿伦偏差精度优于 1%,基线漂移明显低于转移标准。我们还研究了光机械装置作为校准测量仪的性能,发现它们的总不确定性可小于 1%。校准程序还能以最先进的精度得出我们传感器的薄膜密度,有助于开发其他无需校准的光机械传感器。我们的研究结果表明,光学机械压力传感器可以达到足以取代高性能传统压力计的准确度、精确度和漂移。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Accurate, precise pressure sensing with tethered optomechanics
We show that optomechanical systems can be primary pressure sensors with uncertainty as low as 1.1 % of reading via comparison with a pressure transfer standard. Our silicon nitride and silicon carbide sensors are short-term and long-term stable, displaying Allan deviations compatible with better than 1 % precision and baseline drift significantly lower than the transfer standard. We also investigate the performance of optomechanical devices as calibrated gauges, finding that they can achieve total uncertainty less than 1 %. The calibration procedure also yields the thin-film density of our sensors with state-of-the-art precision, aiding development of other calibration-free optomechanical sensors. Our results demonstrate that optomechanical pressure sensors can achieve accuracy, precision, and drift sufficient to replace high performance legacy gauges.
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