ERMES: Design and preliminary simulations for an autonomous docking manoeuvre

Alessandro Bortotto, Giuliano degli Agli, Federico Favotto, Fabio Mattiazzi, Miroljub Mihailovic, N. Pozzato, Francesco Branz, L. Olivieri, Alex Caon, A. Francesconi
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Abstract

In the last decades, small satellites have played an important role in space missions. Due to their reduced dimension and costs, they became affordable to smaller companies and research laboratories to conduct scientific experiments and technological demonstrations in space. In addition, the number of these satellites has considerably increased due to their wide use in technological, scientific and commercial domains. In this scenario, autonomous architectures, as well as miniaturized mechanical subsystems for small satellites, are continuously investigated. Experimental Rendezvous in Microgravity Environment Study (ERMES) is a student project that focuses on the simulation of an autonomous docking manoeuvres between two CubeSats mock-ups equipped with miniaturized Guidance Navigation and Control systems and mechanical docking interfaces. ERMES aims to integrate different subsystems for autonomous docking, to increase the Technology Readiness Level and to study possible applications for in-orbit servicing. This paper deals with the design and development of the tests for autonomous docking manoeuvres between two CubeSats mock-ups to be performed in a reduced-gravity environment during a parabolic flight. A Target-Chaser configuration has been selected, where the Chaser is fully active and the Target is cooperative. The Chaser is equipped with a miniaturized cold gas propulsion system with eight thrusters to control its attitude and position; in contrast, the Target has a set of three reaction wheels to control only its attitude. The tested miniaturized mechanical docking interfaces employs a probe-drogue configuration. The most demanding aspect of the development phase will be the dedicated software for the proximity navigation. The reduced-gravity conditions will be achieved during a campaign of parabolic flights thanks to the participation to the European Space Agency “Fly Your Thesis!” programme 2022.
自主对接机动的设计和初步模拟
在过去的几十年里,小型卫星在太空任务中发挥了重要作用。由于它们的尺寸和成本降低,小型公司和研究实验室可以负担得起在太空进行科学实验和技术演示。此外,由于这些卫星广泛用于技术、科学和商业领域,它们的数目已大大增加。在这种情况下,自主架构以及小型卫星的小型化机械子系统将不断得到研究。微重力环境下的实验交会研究(ERMES)是一个学生项目,重点是模拟两个立方体卫星模型之间的自主对接机动,这些立方体卫星模型配备了小型化的制导导航和控制系统以及机械对接接口。ERMES旨在集成不同的子系统进行自主对接,提高技术准备水平,并研究在轨服务的可能应用。本文讨论了两颗立方体卫星模型在抛物线飞行的失重环境下的自主对接试验的设计和开发。已经选择了目标-追逐者配置,其中追逐者是完全活动的,目标是合作的。“追逐者”配备了一个小型的冷气体推进系统,有8个推进器来控制它的姿态和位置;相比之下,塔吉特有一组三个反作用轮,只控制它的姿态。测试的小型化机械对接接口采用探针-螺旋结构。开发阶段最苛刻的方面将是用于近距离导航的专用软件。失重条件将在抛物线飞行运动中实现,这要归功于欧洲航天局“放飞你的论文!”2022年计划。
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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