原子干涉重力传感器系统

D. Brown, L. Mauser, B. Young, M. Kasevich, H. Rice, V. Benischek
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引用次数: 5

摘要

实时重力测量提供了精确的、高分辨率的本地重力特征快照。从重力特征中获得的信息可以对战斗空间态势感知做出重要贡献,可以增强对当地作战环境和该环境中每个作战参与者位置的了解。战略系统计划(SSP)导航分部(SP24)和洛·马公司海事系统和传感器(MS2)在开发和使用重力测量仪器方面拥有丰富的经验。作为三叉戟潜艇改进精度计划的一部分,SP24资助洛克希德·马丁公司开发第一种潜艇实时重力梯度系统(大约1990年)。该系统用于修正惯性导航仪的重力误差。在完成这项工作后,SP24赞助洛克希德马丁公司开发和演示额外的重力导航增强功能。这些增强功能目前被称为重力导航和重力碰撞避免(大约2000年)。近年来,SP24一直赞助洛克希德·马丁公司、斯坦福大学和斯坦福大学下属的AOSense公司,研究原子干涉测量技术的潜力,为下一代低成本重力传感器系统奠定技术基础。本文介绍了原子干涉(AI)理论、AI重力传感器现状、AI重力系统机械化概念以及重力导航和避碰等基于重力的导航增强技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Atom interferometric gravity sensor system
Real-time gravity measurements provide an accurate, high-resolution snapshot of the local gravity signature. Information developed from the gravity signature can be a significant contributor to battle space situational awareness, providing enhanced knowledge of the local operating environment and of the location of each operational participant in that environment. The Strategic Systems Programs (SSP) Navigation Branch (SP24) and Lockheed Martin, Maritime Systems and Sensors (MS2) have extensive experience in the development and use of gravity-measuring instrumentation. As part of the Trident Submarine Improved Accuracy Program, SP24 sponsored Lockheed Martin to develop the first submarine real-time gravity gradient system (circa 1990). This system was designed to correct an inertial navigator for gravity induced error. Following completion of this effort SP24 sponsored Lockheed Martin to develop and demonstrate additional gravity based navigation enhancements. These enhancements are currently referred to as gravity navigation and gravity collision avoidance (circa 2000). In more recent years, SP24 has been sponsoring Lockheed Martin, Stanford University, and AOSense, a Stanford University spin off, to investigate the potential of atomic interferometry to be the technology foundation for the next generation, low cost gravity sensor system. This paper describes Atom Interferometric (AI) theory, AI gravity sensor status, AI gravity system mechanization concepts and gravity based navigation enhancements such as gravity navigation and collision avoidance.
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