响应式空间任务的制导、导航和控制元素的层次结构

Jane Hansen, P. Graven
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摘要

在过去7年中,“响应空间”一词已得到普遍使用,但其定义、实施方法和关键任务应用仍在不断变化。大多数人会同意,响应意味着能够在近期内对不断变化的世界事件作出反应,并满足作战人员的近期需求。然而,近期的定义,特别是当应用于航天器时,并没有得到普遍同意。响应航天器可以在几天内创建,正如AFRL所描述的那样,他们的6天航天器广泛使用即插即用(PnP)技术,或者在几周到几个月内创建,如ORS Tier II要求的那样,通过快速集成现成的组件和子系统。一般来说,为了使航天器具有响应性,航天器的一些元件必须是“按库存建造”的,这样航天器就可以用现成的部件建造并迅速集成到准备发射的航天器中。同样,关于构建库存组件的粒度也存在不同的观点:1)完整的,准备起飞的航天器,2)航天器总线和有效载荷分别存放在库存中,3)功能子系统元素组合以创建功能服务,然后储存在货架上并组合在一起以创建完整的航天器,或者4)在配置向导的帮助下快速组装低级组件,该向导确定创建满足特定任务要求的航天器所需的部件。在任何这些场景中,都有一些技术,当它们一起使用时,将增强响应空间的成功。这些技术包括使用PnP接口、机器可解析接口控制文档(icd)以及创建自配置和/或重新配置网络。本文将讨论microcosmos与合作伙伴HRP系统公司探索的方法,以分层方式提供制导、导航和控制(GN&C)组件,作为交钥匙子系统或服务,或作为最低级别的单个组件,以响应作战人员的近期需求。1 2
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A hierarchy of Guidance, Navigation, and Control elements for responsive space missions
Over the past 7 years, the term “responsive space” has come into common use, yet the definition, the implementation approach, and the key mission applications are still in flux. Most will agree that responsive implies being able to respond in the near-term to changing world events and to meet the near-term needs of the warfighter. However, the definition of near-term, especially when applied to spacecraft, is not generally agreed to. Responsive spacecraft can be created in days, as described by AFRL with their 6-day spacecraft that makes extensive use of plug-and-play (PnP) technologies, or in weeks to months, as required by ORS Tier II, through rapid integration of readily available components and subsystems. In general, for a spacecraft to be available responsively, some elements of the vehicle must be “built-to-inventory”, such that the spacecraft can be constructed from off-the-shelf components and rapidly integrated into a launch ready spacecraft. Again, there are differing opinions as to the granularity of the built-to-inventory components: 1) complete, ready-to-fly spacecraft, 2) spacecraft busses and payloads held separately in inventory, 3) functional subsystem elements combined to create functional services, then stocked on shelves and snapped together to create a complete spacecraft, or 4) lower-level components being rapidly assembled with the aid of a configuration wizard that determines the parts that are needed to create a spacecraft that will meet specific mission requirements. In any of these scenarios, there are a few technologies, that when used together, will enhance the success of responsive space. These technologies include the use of PnP interfaces, machine parsable interface control documentation (ICDs), and the creation of self-configuring and/or re-configuring networks. This paper will address the approach explored by Microcosm, with partner HRP Systems, to have Guidance, Navigation, and Control (GN&C) components available in a hierarchical fashion, as a turn-key subsystem or services, or as the lowest level, individual components, to respond to the near-term needs of the warfighter. 1 2
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