Deep-space optical communications

R. Cesarone, D. Abraham, S. Shambayati, J. Rush
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引用次数: 170

Abstract

Current key initiatives in deep-space optical communications are treated in terms of historical context, contemporary trends, and prospects for the future. An architectural perspective focusing on high-level drivers, systems, and related operations concepts is provided. Detailed subsystem and component topics are not addressed. A brief overview of past ideas and architectural concepts sets the stage for current developments. Current requirements that might drive a transition from radio frequencies to optical communications are examined. These drivers include mission demand for data rates and/or data volumes; spectrum to accommodate such data rates; and desired power, mass, and cost benefits. As is typical, benefits come with associated challenges. For optical communications, these include atmospheric effects, link availability, pointing, and background light. The paper describes how NASA's Space Communication and Navigation Office will respond to the drivers, achieve the benefits, and mitigate the challenges, as documented in its Optical Communications Roadmap. Some nontraditional architectures and operations concepts are advanced in an effort to realize benefits and mitigate challenges as quickly as possible. Radio frequency communications is considered as both a competitor to and a partner with optical communications. The paper concludes with some suggestions for two affordable first steps that can yet evolve into capable architectures that will fulfill the vision inherent in optical communications.
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深空光通信
从历史背景、当代趋势和未来前景的角度来看待当前深空光通信的关键举措。提供了关注高级驱动程序、系统和相关操作概念的体系结构透视图。没有讨论详细的子系统和组件主题。对过去的想法和建筑概念的简要概述为当前的发展奠定了基础。研究了可能促使从无线电频率向光通信过渡的当前需求。这些驱动因素包括任务对数据速率和/或数据量的需求;适应这种数据速率的频谱;以及所需的功率、质量和成本效益。通常,好处伴随着挑战。对于光通信,这些因素包括大气效应、链路可用性、指向和背景光。该论文描述了NASA的空间通信和导航办公室将如何应对驱动因素,实现收益,并减轻挑战,如其光通信路线图所述。一些非传统的体系结构和操作概念是为了尽可能快地实现收益和减轻挑战而提出的。射频通信被认为是光通信的竞争对手和合作伙伴。本文最后提出了两个可负担得起的第一步的建议,这两个步骤可以演变成能够实现光通信固有愿景的有能力的架构。
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