Spacecraft self- and soft-docking control approach with electromagnetic/magnetic flux-pinning synergy

Yuan‐wen Zhang, Le-ping Yang, Yanwei Zhu
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引用次数: 2

Abstract

Spacecraft docking controlled by inter-craft electromagnetic fields actuation not only hasn’t propellant consumption and plume contamination, but also provides high-precision control capability of continuous, reversible, synchronous and non-contacting. In addition, with electromagnetic/magnetic flux-pinning synergy, spacecraft docking has 6-DOF passive stability, stiffness and damping effect. This paper deals with the optimized electromagnetic moment design for magnetic flux-pinning and the handover control approach between the two actuation phases. Finally, several numerical simulations are utilized to verify the theoretical design.
电磁/磁通量钉钉协同作用下航天器自与软对接控制方法
飞船间电磁场驱动控制飞船对接不仅不消耗推进剂,不污染羽流,而且具有连续、可逆、同步、非接触的高精度控制能力。此外,在电磁/磁通量钉钉协同作用下,航天器对接具有六自由度被动稳定性、刚度和阻尼效应。本文研究了磁通钉销的优化磁矩设计和两驱动相的切换控制方法。最后,通过数值模拟对理论设计进行了验证。
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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