DLR's Optical Communication Terminals for CubeSats

C. Schmidt, Benjamin Rödiger, Jorge Rosano, C. Papadopoulos, Marie-Theres Hahn, F. Moll, C. Fuchs
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引用次数: 4

Abstract

Free space optical communication (FSO) overcomes the challenges of traditional RF-communication in space. With its high data-rates, robustness against electromagnetic influences and being free from organizational regulations, FSO provides solutions for high-rated Direct to Earth (DTE) and Intersatellite (ISL) communication. With the raising CubeSat market and the increasing number of satellite constellations, the request for compact and efficient designs increases as well. Thus, German Aerospace Center (DLR) developed the world's smallest laser communication terminal for CubeSats (OSIRIS4CubeSat, O4C). O4C is flying on the CubeL satellite in the PIXL-1 mission. The payload itself has a modular design which allows to transfer the technology into other fields of satellite communication. The basic payload can be adapted and/or extended by different subsystems to provide solutions for intersatellite communication or Quantum Key Distribution (QKD). This paper gives an overview of the first results of the PIXL-1 mission. After the Launch and Early Orbit Phase (LEOP) the first contact between the laser terminal and DLR's Transportable Optical Ground Station (TOGS) could be established. Afterwards, further experiments were done to demonstrate the performance of the O4C terminal. Furthermore, this paper shows the ongoing and upcoming developments. Based in the O4C dedicated terminals towards higher data rates, optical intersatellite links and QKD on CubeSats are and will be developed.
DLR公司用于立方体卫星的光通信终端
自由空间光通信(FSO)克服了传统空间射频通信的挑战。凭借其高数据速率、抗电磁影响的鲁棒性和不受组织法规的限制,FSO为高额定的直接对地通信(DTE)和卫星间通信(ISL)提供了解决方案。随着立方体卫星市场的增长和卫星星座数量的增加,对紧凑和高效设计的要求也在增加。因此,德国航空航天中心(DLR)为立方体卫星开发了世界上最小的激光通信终端(OSIRIS4CubeSat, O4C)。O4C在PIXL-1任务的CubeL卫星上飞行。有效载荷本身具有模块化设计,允许将技术转移到卫星通信的其他领域。基本有效载荷可以由不同的子系统调整和/或扩展,为卫星间通信或量子密钥分发(QKD)提供解决方案。本文概述了PIXL-1任务的初步成果。在发射和早期轨道阶段(LEOP)之后,激光终端与DLR的可移动光学地面站(TOGS)之间可以建立第一次接触。随后,通过进一步的实验验证了O4C端子的性能。此外,本文还展示了正在进行的和即将进行的发展。基于面向更高数据速率的O4C专用终端,光学卫星间链路和立方体卫星上的QKD正在并将得到发展。
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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