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Evolutionary Space Communications Architectures for Human/Robotic Exploration and Science Missions

机译:用于人类/机器人探索和科学任务的进化空间通信体系结构

摘要

NASA enterprises have growing needs for an advanced, integrated, communications infrastructure that will satisfy the capabilities needed for multiple human, robotic and scientific missions beyond 2015. Furthermore, the reliable, multipoint infrastructure is required to provide continuous, maximum coverage of areas of concentrated activities, such as around Earth and in the vicinity of the Moon or Mars, with access made available on demand of the human or robotic user. As a first step, the definitions of NASA's future space communications and networking architectures are underway. Architectures that describe the communications and networking needed between the nodal regions consisting of Earth, Moon, Lagrange points, Mars, and the places of interest within the inner and outer solar system have been laid out. These architectures will need the modular flexibility that must be included in the communication and networking technologies to enable the infrastructure to grow in capability with time and to transform from supporting robotic missions in the solar system to supporting human ventures to Mars, Jupiter, Jupiter's moons, and beyond. The protocol-based networking capability seamlessly connects the backbone, access, inter-spacecraft and proximity network elements of the architectures employed in the infrastructure. In this paper, we present the summary of NASA's near and long term needs and capability requirements that were gathered by participative methods. We describe an integrated architecture concept and model that will enable communications for evolutionary robotic and human science missions. We then define the communication nodes, their requirements, and various options to connect them.
机译:NASA企业对先进的集成通信基础设施的需求不断增长,这些基础设施将能够满足2015年之后的多个人类,机器人和科学任务所需的能力。此外,需要可靠的多点基础设施来提供连续的,最大范围的集中活动区域(例如地球周围以及月球或火星附近),并且可以根据人类或机器人用户的需求进行访问。第一步,正在定义NASA未来的太空通信和网络架构。已经设计出了描述节点区域(包括地球,月球,拉格朗日点,火星)以及内部和外部太阳系内的感兴趣位置之间所需的通信和联网的体系结构。这些架构将需要模块化的灵活性,该灵活性必须包含在通信和网络技术中,以使基础架构的能力随着时间的增长而增长,并从支持太阳系中的机器人任务转变为支持火星,木星,木星卫星的人类冒险活动,超越。基于协议的联网功能可无缝连接基础架构中使用的架构的骨干网,接入网,航天器之间和邻近网络元素。在本文中,我们总结了通过参与性方法收集到的NASA的近期和长期需求以及能力要求。我们描述了一个集成的体系结构概念和模型,该模型和模型将实现用于进化型机器人和人类科学任务的通信。然后,我们定义通信节点,它们的要求以及连接它们的各种选项。

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