用于定义立方体卫星行为的基于模型的系统工程(MBSE)方法

D. Kaslow, B. Ayres, P. T. Cahill, L. Hart, Rose Yntema
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引用次数: 25

摘要

本文描述了一种定义立方体卫星行为的八步方法,该方法从任务需求开始,以使用对象管理组(OMG)系统建模语言(SysML)建模为活动层次结构的功能体系结构结束。这种方法可以应用于其他卫星开发工作,但这里的重点是立方体卫星,因为它们的任务失败率历来很高,而且在过去几年中这些任务的数量迅速增长。此外,这种方法补充了国际系统工程理事会(INCOSE)空间系统工作组(SSWG)开发立方体卫星参考模型的努力。这种方法为CubeSat开发团队提供了一种可重复的、一般化的方法,该方法结合了标准的系统工程实践,例如:自顶向下的方法、需求分析、用例开发和功能分析。这项工作使用了基于模型的系统工程(MBSE)方法。与传统的基于文档的方法相比,使用MBSE方法的一些好处是:增强通信、减少开发风险、改进质量和增强知识转移[1]。使用这种方法产生的系统工程工件,例如任务域元素、需求、用例和活动的定义,被捕获在系统模型中,该模型作为CubeSat开发团队成员的单一事实来源。本文提供了一些例子,说明了这种方法在CubeSat开发工作中的应用。由于大多数空间任务都与信息的产生或流动有关,因此示例集中于收集和分发任务数据的需求,最后定义了满足这些需求所需的系统功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Model-Based Systems Engineering (MBSE) approach for defining the behaviors of CubeSats
This paper describes an eight-step approach for defining the behaviors of CubeSats that begins with mission requirements and ends with a functional architecture modeled as an activity hierarchy using the Object Management Group's (OMG) Systems Modeling Language (SysML). This approach could be applied to other satellite development efforts but the emphasis here is on CubeSats because of their historically high mission failure rate and the rapid growth in the number of these missions over the last few years. In addition, this approach complements the International Council on Systems Engineering's (INCOSE) Space Systems Working Group's (SSWG) efforts to develop a CubeSat Reference Model. This approach provides a repeatable, generalized method for CubeSat development teams to follow that incorporates standard systems engineering practices such as: a top-down approach, requirements analysis, use case development, and functional analysis. This effort uses a Model-Based Systems Engineering (MBSE) approach. Some of the benefits of using an MBSE approach over a traditional document-based approach are: enhanced communications, reduced development risk, improved quality, and enhanced knowledge transfer [1]. Systems engineering artifacts produced using this approach, such as definitions of the mission domain elements, requirements, use cases, and activities, are captured in a system model which serves as a single-source-of-truth for members of the CubeSat development team. Examples are provided throughout the paper which illustrates the application of this approach to a CubeSat development effort. Since most space missions are concerned with the generation or flow of information, the examples focus on requirements to collect and distribute mission data ending with a definition of the required system functionality to satisfy those requirements.
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