论文标题

基于大气呼吸推进(ABEP)的新型任务场景的开发和分析

Development and analysis of novel mission scenarios based on Atmosphere-Breathing Electric Propulsion (ABEP)

论文作者

Vaidya, S., Traub, C., Romano, F., Herdrich, G., Chan, Y. -A., Fasoulas, S., Roberts, P. C. E., Crisp, N., Edmondson, S., Haigh, S., Holmes, B. A., Macario-Rojas, A., Oiko, V. T. Abrao, Smith, K., Sinpetru, L., Becedas, J., Sulliotti-Linner, V., Christensen, S., Hanessian, V., Jensen, T. K., Nielsen, J., Bisgaard, M., Garcia-Alminana, D., Rodriguez-Donaire, S., Suerda, M., Garcia-Berenguer, M., Kataria, D., Villain, R., Seminari, S., Conte, A., Belkouchi, B.

论文摘要

在非常低的地球轨道(VLEO)中的操作卫星受益于已经扩展的新空间行业,包括地球观察及其他产品。但是,在这种低海拔地区的长期操作需要推进系统来补偿大型空气动力阻力。当使用常规推进系统时,可存储的推进剂量限制了最大的任务寿命。可以通过采用大气 - 呼吸推进(ABEP)系统来避免后者,该系统收集残留的大气颗粒并将其用作电推进器的推进剂。因此,理想情况下,板载推进剂存储的要求可以无效。在Stuttgart大学的太空系统研究所(IRS),摄入量和基于RF Helicon的血浆推进器(IPT)的ABEP系统是在Horizo​​ns 2020资助的Discovers Project中开发的。为了评估可能的未来用例,本文提出并分析了几种基于ABEP的新型任务方案。从VLEO的技术演示任务开始,详细得出了更复杂的任务场景。其中包括在火星周围的轨道维护以及加油和太空拖船任务。结果表明,ABEP系统不仅能够补偿轨道维护的阻力,而且还能够进行轨道操纵,并为诸如太空拖船和加油等应用收集推进剂。因此,显示了许多未来的任务应用程序。

Operating satellites in Very Low Earth Orbit (VLEO) benefits the already expanding New Space industry in applications including Earth Observation and beyond. However, long-term operations at such low altitudes require propulsion systems to compensate for the large aerodynamic drag forces. When using conventional propulsion systems, the amount of storable propellant limits the maximum mission lifetime. The latter can be avoided by employing Atmosphere-Breathing Electric Propulsion (ABEP) system, which collects the residual atmospheric particles and uses them as propellant for an electric thruster. Thus, the requirement of on-board propellant storage can ideally be nullified. At the Institute of Space Systems (IRS) of the University of Stuttgart, an intake, and a RF Helicon-based Plasma Thruster (IPT) for ABEP system are developed within the Horizons 2020 funded DISCOVERER project. In order to assess possible future use cases, this paper proposes and analyzes several novel ABEP based mission scenarios. Beginning with technology demonstration mission in VLEO, more complex mission scenarios are derived and discussed in detail. These include, amongst others, orbit maintenance around Mars as well as refuelling and space tug missions. The results show that the ABEP system is not only able to compensate drag for orbit maintenance but also capable of performing orbital maneuvers and collect propellant for applications such as Space Tug and Refuelling. Thus, showing a multitude of different future mission applications.

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