冷原子干涉测量传感器能成为未来的惯性传感器吗?-首次模拟结果

M. Bochkati, S. Schön, D. Schlippert, C. Schubert, E. Rasel
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引用次数: 5

摘要

与传统的机械传感器相比,量子技术由于其对惯性力的极端敏感性和对漂移的强免疫力,近年来引起了人们的强烈兴趣。本文从工程角度介绍了冷原子传感器作为六轴惯性传感器。为了突出该技术在惯性导航中所需要的潜力,开发了捷联闭环仿真。在此基础上,我们建立了量子传感器的误差模型,该模型考虑了参考激光的量子散粒噪声和相位噪声等因素。考虑到这种固有的随机特性,我们还与其他常规惯性测量单元进行了比较。分析表明,具有与静态测量局部重力相同灵敏度的量子传感器即使在一小时后也能以一米级别的精度确定其位置,而其他灵敏度较低的量子传感器在相同的持续时间内表现出高达1公里的振幅,与传统传感器相似。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Could cold atom interferometry sensors be the future inertial sensors? — First simulation results
Quantum technology have attracted strong interest in recent years thanks to its extreme sensitivity to inertial forces and its strong immunity to drifts compared to conventional mechanical sensors. This paper introduces cold atom sensors as six-axis inertial sensors from the engineering point of view. In order to highlight the potential of this technology as needed for inertial navigation, a strapdown closed-loop-simulation has been developed. Furthermore, we present an error model for quantum sensors that includes terms such as quantum shot noise and phase noise of the reference laser. Considering this inherent stochastic characteristics, we made also a comparison with other conventional inertial measurement units. The analysis shows that quantum sensors with the same sensitivity as of for static measuring local gravity can determine their position with accuracy of one-meter level even after one hour, while other quantum sensors with less sensitivity exhibit for the same duration an amplitude up to 1 km, similar to conventional sensors.
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