微重力条件下纳米卫星太阳能电池板自动部署的验证

Akram Abdellatif, Ali H. Ali, Mohamed E. El-sayed, Nermine M. Elhusseiny, Youmna Mabrouk, Youssef M. Fathy
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引用次数: 0

摘要

安装在立方体卫星上的太阳能电池板被认为是纳米卫星的主要能源。必须对太阳能电池板的展开机制进行广泛的分析和测试。任何建议的太阳能电池板设计都应该提供一种低振动的自由旋转部署机制。本文研究了各种类型的太阳能电池板,以得出在1U或2U单元上部署时的有效设计结论。然而,计算、分析和模拟并不总是能全面了解卫星在部署过程中的表现。因此,在微重力环境中进行测试可以更准确地回答卫星的行为。在我们的工作中,开发了各种太阳能电池板机制,并最终在微重力条件下进行了测试。美国国家研究委员会猎鹰20飞机在微重力环境中进行了抛物线飞行,测试了1U结构的第一个手风琴结构。对结果进行记录和分析,以优化下一步的设计。第二种设计是基于2U结构的拖曳帆机构。该设计是在下一次抛物线飞行的第一次实验结果的基础上改进的。模拟的轨道发电量也是我们评估的一个主要因素。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Verification of Nanosatellites Solar Panels Automatic Deployment in Microgravity Conditions

The solar panels installed on a CubeSat are considered the main energy source of a nanosatellites. The deployment mechanism of a solar panel must be analyzed and tested extensively. Any suggested solar panel design should present a low vibrating free spinning deployment mechanism. This paper examines various types of solar panels to reach a conclusion of the efficient design when deployed on a 1U or 2U unit. However, calculations, analysis, simulations do not always give an extensive picture of how the satellite shall behave during deployment. Thus, testing in a microgravity environment gives a more accurate answer of how the satellite shall behave. In our work, various solar panels mechanisms are developed and eventually tested in microgravity. The first accordion structure for a 1U structure is tested in a microgravity environment through a parabolic flight with the National Research Council Falcon 20 aircraft. The results are recorded and analyzed to optimize the next design. The second design is based on a drag-sail mechanism for a 2U structure. The design is improved upon the first experiment results for the next parabolic flight. The simulated amount of power generated in orbit is also a main factor in our evaluation.

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