VARIOUS PROBLEMS IN LUNAR HABITAT CONSTRUCTION SCENARIOS

被引:2
|
作者
NITTA, K
OHTSUBO, K
OGUCHI, M
OHYA, H
KANBE, S
ASHIDA, A
SANO, K
机构
[1] National Aerospace Laboratory, Chofu, Tokyo, 182, 7-44-1 Jindaiji, Higashimachi
[2] Yokohama National University, 240, 156 Tokiwadai, Hodogayaku, Yokahama
[3] Hitachi Ltd, Chiyodaku, Tokyo, 101, 4-6 Kanda, Surugadai
[4] Mitsui Engineering Shipbuilding Co. Ltd, Akishima Laboratory, Akishima, Tokyo, 196
关键词
D O I
10.1016/0094-5765(91)90010-3
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Many papers describing the lunar base construction have been published previously. Lunar base has been considered to be a useful facility to conduct future scientific programs and to get new nuclear energy resource, namely He-3, for defending the environmental collapse on Earth and also to develop lunar resources such as oxygen and nitrogen for extending human activities in space more economically. The scale of the lunar base and the construction methods adopted are determined by the scenario of a lunar utilization program but constrained by the availability of the established space transportation technologies. As indicated in the scenarios described in papers regarding lunar base construction, the first steps of lunar missions are the investigation of lunar itself for conducting scientific research and for surveying the lunar base construction sites, the second steps are the outpost construction for conducting man-tended missions, for more precise scientific research and studying the lunar base construction methods, and third steps are the construction of a permanent base and the expansion of this lunar base for exploiting lunar resources. The missions within the first and second steps are all possible using the ferry (OTV) similar to the service and command modules of Apollo Spacecraft because all necessary weights to be landed on the lunar surface for these missions seem to be under the equivalent weight of the Apollo Lunar Lander. On the other hand, the permanent facilities constructed on the lunar surface in the third step requires larger quantities of construction materials to be transported from Earth, and a new ferry (advanced OTV) having higher transportation ability, at least above 6 times, compared with Apollo Service and Command Modules, are to be developed. The largest problems in the permament lunar base construction are related to the food production facilities, 30-40 m2 plant cultivation area per person are required for providing the nutrition requirement and the necessary electric power per person for producing high energy foods, such as wheat, rice and potato, are now estimated ranging from 30 to 40 kW. The extension program of crew numbers under the limitation of usable transportation capability anticipated at present and the construction scenarios, including the numbers of facilities to be constructed every year, are to be determined based upon the requirements of plant cultivation area and of electric power for producing necessary and sufficient foods in order to accelerate the feasibility studies of each subsystem to be installed in the permanent lunar base in future.
引用
收藏
页码:647 / 657
页数:11
相关论文
共 50 条
  • [21] Lunar transportation scenarios utilising the Space Elevator
    Engel, KA
    ACTA ASTRONAUTICA, 2005, 57 (2-8) : 277 - 287
  • [22] Political feasibility of lunar base mission scenarios
    Magelssen, TC
    Sadeh, E
    PROCEEDINGS OF THE INTERNATIONAL LUNAR CONFERENCE 2003/ INTERNATIONAL LUNAR EXPLORATION WORKING GROUP 5 - ILC2003/ILEWG 5, 2004, 108 : 359 - 373
  • [23] Lunar Base Construction Planning
    Mueller, Robert P.
    Earth and Space 2022: Space Exploration, Utilization, Engineering, and Construction in Extreme Environments - Selected Papers from the 18th Biennial International Conference on Engineering, Science, Construction, and Operations in Challenging Environments, 2023, : 858 - 870
  • [24] Solar bricks for lunar construction
    Miranda, Luana Varela
    Valdes, Julio R.
    Cortes, Douglas D.
    CONSTRUCTION AND BUILDING MATERIALS, 2017, 139 : 241 - 246
  • [25] Lunar lavatube base construction
    Billings, TL
    Walden, B
    York, CL
    SPACE 2000, PROCEEDINGS, 2000, : 631 - 637
  • [26] An overnight habitat for expanding lunar surface exploration
    Schreiner, Samuel S.
    Setterfield, Timothy P.
    Roberson, Daniel R.
    Putbrese, Benjamin
    Kotowick, Kyle
    Vanegas, Morris D.
    Curry, Mike
    Geiger, Lynn M.
    Barmore, David
    Foley, Jordan J.
    LaTour, Paul A.
    Hoffman, Jeffrey A.
    Head, James W.
    ACTA ASTRONAUTICA, 2015, 112 : 158 - 170
  • [27] Lunar Base Construction Planning
    Mueller, Robert P.
    SPACE EXPLORATION, UTILIZATION, ENGINEERING, AND CONSTRUCTION IN EXTREME ENVIRONMENTS (EARTH AND SPACE 2022), 2023, : 858 - 870
  • [28] Environment - Lunar habitat gets Antarctic test
    Wagner, Cynthia G.
    FUTURIST, 2008, 42 (02) : 10 - 10
  • [29] A testbed for evaluating lunar habitat autonomy architectures
    Kortenkamp, David
    Tzygon, Michel
    Lawler, Dennis
    Schreckenghost, Debra
    Bonasso, R. Peter
    Wang, Lui
    Kennedy, Kriss
    SPACE TECHNOLOGY AND APPLICATIONS INTERNATIONAL FORUM STAIF 2008, 2008, 969 : 741 - +
  • [30] Human lunar return: An analysis of human lunar exploration scenarios within the upcoming decade
    Braun, Max
    Gollins, Nick
    Trivino, Veronica
    Hosseini, Shahrzad
    Schonenborg, Rogier
    Landgraf, Markus
    ACTA ASTRONAUTICA, 2020, 177 : 737 - 748