Space optical navigation techniques: an overview

J. Rebordão
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引用次数: 13

Abstract

Optical or vision-based navigation is an enabling technology for satellite autonomous navigation associated to different navigation approaches such as cruising, fly-by, terrain relative navigation, landing, rendezvous and docking between spacecrafts, rigidity of multi-satellite constellations. Since 2001, in many different ESA projects, the author and his team (at INETI and currently at FCUL) have been associated to most of the developments of the optical components of autonomous navigation, in cooperation with space primes or GNC subsystems suppliers. A unique experience related to seemingly simple photonic concepts associated to computational vision, photonic noises, camera tradeoffs and system concepts has emerged, and deserves a synthesis especially because some of these concepts are being implemented in the ESA Proba 3 mission and ESA is currently updating the technology in view of forthcoming planetary missions to Jupiter, Jupiter moons and asteroids. It is important to note that the US have already flown several missions relying on autonomous navigation and that NASA experience is at least one decade old. System approaches, sources of difficulty, some tradeoffs in both (and between) hardware and software, critical interface issues between the imaging and GNC (Guidance, Navigation and Control) subsystems, image processing techniques, utilization of apriori or to be estimated information, uncertainties, simulation of the imaging chain and non-cooperative environments will be addressed synthetically for both passive (optical) and active (lidar) systems.
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空间光学导航技术综述
光学或视觉导航是卫星自主导航的一种使能技术,它与巡航、飞越、地形相对导航、着陆、航天器之间的交会对接、多卫星星座的刚性等不同导航方式相关联。自2001年以来,在许多不同的欧空局项目中,作者和他的团队(在INETI和目前在FCUL)与空间素体或GNC子系统供应商合作,参与了自主导航光学组件的大部分开发。与计算视觉,光子噪声,相机权衡和系统概念相关的看似简单的光子概念相关的独特经验已经出现,值得综合,特别是因为其中一些概念正在欧空局Proba 3任务中实施,欧空局目前正在更新技术鉴于即将到来的行星任务木星,木星卫星和小行星。值得注意的是,美国已经完成了几次依赖自主导航的飞行任务,而NASA的经验至少有十年之久。系统方法、困难的来源、硬件和软件之间的一些权衡、成像和GNC(制导、导航和控制)子系统之间的关键接口问题、图像处理技术、先验或待估计信息的利用、不确定性、成像链的模拟和非合作环境将在无源(光学)和有源(激光雷达)系统中综合解决。
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