The communication experiment result of Small Optical Link for ISS (SOLISS) to the first commercial optical ground station in Greece

Hiroaki Yamazoe, H. Henniger, K. Iwamoto
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引用次数: 3

Abstract

Free-space optical communication (FSOC) in low-Earth orbit (LEO) is one of the most active areas of research and development in space communication technology. Since LEO has narrower coverage than higher orbits, optical communication terminals need to support multiple optical ground stations (OGSs) for sufficient link opportunities. In addition, considering that optical lasers are more susceptible to bad weather than radio waves, supporting multiple stations is also effective in terms of site diversity. Recently, Sony Computer Science Laboratories (Sony CSL) and Kongsberg Satellite Services (KSAT) conducted a successful experiment to downlink data from an optical communication terminal attached to the International Space Station (ISS) to an OGS in Nemea, Greece. In this paper, we report the results of the demonstration. The space terminal used in the experiment is the same individual used in a previous demonstration of Sony CSL that achieved optical communication with an OGS in Japan, indicating that our space terminal is compatible with independently designed multiple OGSs. More to the point, KSAT designed their OGS for commercial use, with low complexity and cost-competitive to radio ground stations. Our terminal is compatible not only with OGSs established for specific missions but also with such small and generic commercial OGSs, which could contribute to the widespread use of our optical communication terminals in orbit. In the future, the OGS used in this study will be connected to the Optical Nucleus Network, which is a network of OGSs. Since it is significant to be able to utilize such terrestrial resources, we plan to continue our development while maintaining compatibility with various OGSs.
国际空间站小型光链路(SOLISS)与希腊首个商用光学地面站的通信实验结果
近地轨道自由空间光通信(FSOC)是空间通信技术研究和发展最活跃的领域之一。由于低轨道比高轨道覆盖范围窄,光通信终端需要支持多个光地面站(OGSs)以获得足够的链路机会。此外,考虑到光学激光器比无线电波更容易受到恶劣天气的影响,支持多个站点在站点多样性方面也是有效的。最近,索尼计算机科学实验室(Sony CSL)和康士伯卫星服务公司(Kongsberg Satellite Services)进行了一次成功的实验,将连接到国际空间站(ISS)的光通信终端的数据下行到位于希腊Nemea的OGS。在本文中,我们报告了证明的结果。实验中使用的空间终端与索尼CSL之前在日本与OGS实现光通信的演示中使用的相同,表明我们的空间终端与独立设计的多个OGS兼容。更重要的是,KSAT设计了他们的OGS用于商业用途,具有低复杂性和成本竞争力的无线电地面站。我们的终端不仅可以与为特定任务而建立的ogs兼容,也可以与此类小型和通用的商业ogs兼容,这可以促进我们的光通信终端在轨道上的广泛使用。未来,本研究中使用的OGS将连接到光核网络,这是一个OGS网络。由于能够利用这些地面资源非常重要,我们计划在继续发展的同时,保持与各OGSs的兼容性。
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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