Robotic On-Orbit Servicing - DLR's Experience and Perspective

K. Landzettel, C. Preusche, A. Albu-Schäffer, D. Reintsema, B. Rebele, G. Hirzinger
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引用次数: 97

Abstract

The increasing number of launched satellites per year, calls for solutions to keep free operational space for telecommunication systems in geo-synchronized orbit, as well as to avoid the endangering of space systems in LEO (low-Earth orbit) and of the public living in the habited parts on Earth. Examples for such dangerous stranded space systems in the past are Skylab and MIR. In the future, the uncontrolled and accidental de-orbiting of other huge satellites is expected, where parts of these will hit the surface of the Earth. A feasible way to handle such problems might be to enforce the operational requirement to use some dedicated residual fuel for a controlled de-orbiting, or in case of GEO (geostationary orbit), to lift the satellites at their end of life into the graveyard orbit. Despite these measures, malfunctions of solar generators, control systems or thrusters cannot be avoided. Therefore, on-orbit servicing (OOS) will be a mandatory and challenging topic for space robotics in the near future. The outcome of national German projects like ROTEX, ESS and GETEX/ETS-VII represent a know-how which can be directly applied for the development of OOS-robotic systems. Control structures and several possible operational modes are discussed within this paper. The recently started national project ROKVISS already provides the necessary space-qualified hardware as well as the very powerful telepresence operational mode. The paper will concentrate on a description of the ROKVISS mission
机器人在轨服务——DLR的经验与展望
由于每年发射的卫星数量不断增加,需要采取解决办法,为地球同步轨道上的电信系统保持自由的运行空间,并避免对近地轨道空间系统和生活在地球上有人居住地区的公众造成危害。过去这种危险的搁浅空间系统的例子是太空实验室和和平号。在未来,预计其他大型卫星将不受控制地意外脱离轨道,其中部分卫星将撞击地球表面。处理这类问题的一种可行方法可能是强制执行操作要求,使用一些专用的剩余燃料进行受控的离轨,或者在地球静止轨道的情况下,在卫星寿命结束时将其送入墓地轨道。尽管采取了这些措施,太阳能发电机、控制系统或推进器的故障还是无法避免。因此,在轨服务在不久的将来将是空间机器人的一个强制性和挑战性的课题。ROTEX, ESS和GETEX/ETS-VII等德国国家项目的成果代表了可以直接应用于oos机器人系统开发的专有技术。本文讨论了控制结构和几种可能的操作模式。最近启动的国家项目ROKVISS已经提供了必要的空间合格硬件以及非常强大的远程呈现操作模式。这篇论文将集中描述ROKVISS任务
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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