Feasibility Study on Handling Lunar Regolith Using Magnetic Force

被引:0
|
作者
Kawamoto, Hiroyuki [1 ]
Egawa, Rieko [2 ]
Ayukawa, Takamasa [2 ]
Iwatsubo, Risa [2 ]
机构
[1] Waseda Univ, Res Inst Sci & Engn, 17 Kikuicho, Tokyo 1620044, Japan
[2] Waseda Univ, Dept Appl Mech & Aerosp Engn, 3-4-1 Okubo, Tokyo 1698555, Japan
关键词
Lunar exploration; Regolith; Nano-phase iron; Magnetic force; In situ resource utilization; Coil gun; Magnetic permeability; SITU RESOURCE UTILIZATION; ELECTROSTATIC BENEFICIATION; EXPLORATION; SYSTEMS;
D O I
10.1061/JAEEEZ.ASENG-6037
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Lunar regolith is magnetic due to the nanophase iron trapped in the surface rim of the regolith. Therefore, technologies are being developed to capture and transport regolith using magnetic force for future in situ resource utilization on the Moon. However, the lack of detailed data on the magnetic properties of regolith hinders the development of efficient regolith handling technologies. Hence, in this study, we conducted experiments to determine the magnetic permeability that would enable the capture and transport of regolith utilizing the magnetic force. A magnetic capture and transport system that utilizes a coil gun principle was developed for this purpose. In addition, we assessed the feasibility of magnetic capture and transport in the low-gravity and vacuum environment of the lunar surface by numerical simulations using the discrete element method. We predicted that the relative magnetic permeability must be higher than approximately 2.0 for magnetic handling of regolith on Earth. However, the magnetic transport of regolith was possible in the lunar environment, even if the magnetic permeability of the lunar regolith was as low as 1.3.
引用
收藏
页数:7
相关论文
共 50 条
  • [31] Sample handling concept for in-situ lunar regolith analysis by laser-based mass spectrometry
    Schmidt, Peter Keresztes
    Hayoz, Sebastien
    Piazza, Daniele
    Bandy, Timothy
    Mandli, Patrik
    Blaukovitsch, Matthias
    Althaus, Michael
    Plet, Benoit Gabriel
    Riedo, Sven
    Studer, Simon
    Studer, Olivier
    Bieri, Michael
    Tulej, Marek
    Riedo, Andreas
    Wurz, Peter
    2024 IEEE AEROSPACE CONFERENCE, 2024,
  • [32] Detection of Lunar Regolith Acquired by Excavator Using Radiofrequency (RF) Sensors
    Kurek, Krzysztof
    Seweryn, Karol
    Tkacz, Arkadiusz
    Just, Gunter
    SENSORS, 2025, 25 (03)
  • [33] Development of a New Lunar Regolith Simulant using an Automated Program Framework
    Kwon, GyeongRok
    Kim, Kyeong Ja
    Yi, Eungseok
    JOURNAL OF ASTRONOMY AND SPACE SCIENCES, 2024, 41 (02) : 79 - 85
  • [34] Vertical Transportation of Lunar Regolith and Ice Particles Using Vibrating Tube
    Kawamoto, Hiroyuki
    Kubo, Keita
    Kikumiya, Ryo
    Adachi, Masato
    Journal of Aerospace Engineering, 2021, 34 (06):
  • [35] Generation of a lunar regolith agglutinate simulant using friction welding apparatus
    Spray, John G.
    PLANETARY AND SPACE SCIENCE, 2010, 58 (14-15) : 1771 - 1774
  • [36] Vertical Transportation of Lunar Regolith and Ice Particles Using Vibrating Tube
    Kawamoto, Hiroyuki
    Kubo, Keita
    Kikumiya, Ryo
    Adachi, Masato
    JOURNAL OF AEROSPACE ENGINEERING, 2021, 34 (06)
  • [37] Study on the feasibility of preparing a continuous fibre using lunar soil simulant
    Xing D.
    Xi X.
    Guo Z.
    Yue X.
    Hao B.
    Liang C.
    Gu Y.
    Chen T.
    Wang R.
    Ma P.
    Ma, Pengcheng (mapc@ms.xjb.ac.cn), 1625, Chinese Academy of Sciences (50): : 1625 - 1633
  • [38] Lunar Landing and Launch Pad Construction Using Concentrated Solar Energy to Fuse Lunar Regolith Feedstock
    Carter, Alan
    Brewer, Andrew
    Garvey, Ryan
    EARTH AND SPACE 2024: ENGINEERING FOR EXTREME ENVIRONMENTS, 2024, : 912 - 923
  • [39] X-RAY ELECTRON STUDY OF METALLIC IRON IN LUNAR REGOLITH
    VINOGRAD.AP
    URUSOV, VS
    ZHAVORON.NM
    NEFEDOV, VI
    DOKLADY AKADEMII NAUK SSSR, 1972, 207 (02): : 433 - &
  • [40] A study of high-velocity penetration on icy lunar regolith simulants
    Xiao, Junxiao
    Jiang, Shengyuan
    Tang, Junyue
    Sun, Miao
    Zhang, Weiwei
    Chi, Runqiang
    Chi, Cheng
    Lu, Zixiao
    Chi, Guanxin
    Zhang, Rong
    INTERNATIONAL JOURNAL OF MECHANICAL SCIENCES, 2024, 271