An Overview of Ground Semi-Physical Verification Technology for On-Orbit Services

Zhihua Yi, Jiu Lin Xie, Wang Min Yi, Rui Qin Hu
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Abstract

On-orbit servicing is generally referred to as space assembly, maintenance, and service for spacecraft life extension of capacity enhancement in space by humans, robots, or both. The United States, Japan, Canada and ESA have included on-orbit service technologies in their space development plans. In order to make the on-orbit service system developed to adapt to space environment effects such as microgravity, thermal vacuum, and irradiation, full test verification on the ground is an effective measure to improve the success rate of space flight. In the orbital service task, docking and arresting are the key links which need to be verified on the ground. For such verification, semi-physical simulation methods are generally used abroad, and the motion of the space mechanism in microgravity environment is caculated by a precise dynamic model, and then the motion is realized by a prototype in three dimensional space. Compared with other microgravity simulation methods, the semi-physical simulation method has the advantages of low cost, good flexibility and scalability, can simulate three dimensional motion in microgravity environment, and has no time limit, which is a important test method for future on-orbit service technology. At present, the major space agencies and companies in United States and ESA all adopt semi-physical simulation methods. This paper investegates and summarizes the related projects, systems, key technologies and application methods, which can provide reference for relevat work.
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在轨服务地面半物理验证技术综述
在轨服务通常被称为空间组装、维护和服务,以延长航天器的寿命或提高空间能力,由人类、机器人或两者。美国、日本、加拿大和欧空局已将在轨服务技术纳入其空间发展计划。为了使在轨服务系统能够适应微重力、热真空、辐照等空间环境效应,进行地面全面试验验证是提高空间飞行成功率的有效措施。在轨服务任务中,对接与拦阻是需要在地面进行验证的关键环节。对于这种验证,国外一般采用半物理仿真方法,通过精确的动力学模型计算空间机构在微重力环境下的运动,然后通过样机在三维空间中实现该运动。与其他微重力仿真方法相比,半物理仿真方法具有成本低、灵活性和可扩展性好、能够模拟微重力环境下的三维运动、不受时间限制等优点,是未来在轨服务技术的重要测试方法。目前,美国和欧空局的主要航天机构和公司都采用半物理仿真方法。本文对相关项目、系统、关键技术和应用方法进行了研究和总结,可为相关工作提供参考。
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