Human-Machine System Design for Autonomous Distributed Satellite Operations

S. Hilton, A. Gardi, R. Sabatini, Neta Ezer, Shivani Desai
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引用次数: 2

Abstract

Distributed Satellite Systems (DSS) provide a promising solution in increasing the sustainability of both the space and terrestrial environment through responsive Earth Observation (EO) and Space Domain Awareness (SDA) operations. To exploit the advantages of DSS mission architectures, a technical evolution is required from the deliberative methodologies of traditional ground station operations to approaches that are more suited to autonomous, reactive space mission architectures. At its core, this transition is directly reflected in the design, and development of new, more autonomous Mission Planning Systems that adopt the Adaptive Multi-Agent System (AMAS) framework. With a view towards trusted autonomy, this paper explores the required evolution towards a more supervisory role of future ground station operations. In doing so, this paper provides an initial analysis of a conceptual goal-based distributed space-based SDA application within the Observe Orient Decide and Act (OODA) decision loop framework.
自主分布式卫星作业的人机系统设计
分布式卫星系统(DSS)通过响应式地球观测(EO)和空间域感知(SDA)操作,为提高空间和地面环境的可持续性提供了一个有希望的解决方案。为了利用DSS任务架构的优势,需要从传统地面站操作的深思熟虑方法发展到更适合自主、反应性空间任务架构的方法。在其核心,这种转变直接反映在采用自适应多智能体系统(AMAS)框架的新型、更自主的任务规划系统的设计和开发中。从可信自治的角度出发,本文探讨了未来地面站操作中更多监督角色的必要演变。在此过程中,本文提供了在观察、东方、决定和行动(OODA)决策循环框架中基于概念目标的分布式基于空间的SDA应用程序的初步分析。
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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