The thermal control system for a network mission on Mars: The experience of the Netlander mission

被引:15
|
作者
Nadalini, R
Bodendieck, F
机构
[1] DLR, Inst Planetary Explorat, D-12489 Berlin, Germany
[2] OHB Syst AG, D-28359 Bremen, Germany
关键词
D O I
10.1016/j.actaastro.2006.01.013
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The Netlander mission wants to establish an operating network of stations on the surface of Mars. Each one of four identical landers is equipped with science payloads dedicated to study the atmosphere and geosphere of Mars; operating together their objective is to investigate the Martian meteorology, ionosphere, ground and subsurface. Landing locations spread over two hemispheres and a mission duration of one Martian year, expose the surface modules and its sensitive electronics to a wide range of hostile conditions. Additional constraints come from the transporting spacecraft, where heat can be exchanged only across small interfaces. The purpose of the thermal control system is to maintain nevertheless the electronics and battery temperatures within a narrow band. Contrasting demands of reduced heat leaks and effective dump of surplus heat require new technologies and advanced design concepts to be satisfied under strict mass limits imposed. The paper describes the design, development and testing activities of a thermal control concept including high-performance insulation combined with an innovative loop heat pipe system. Extensive thermal analyses have been run and hardware has been built, qualified and tested. Results of the test are fairly positive, even in presence of some problematic issues. A post-fit numerical simulation has been initiated but further developments are needed. (C) 2006 Elsevier Ltd. All rights reserved.
引用
收藏
页码:564 / 575
页数:12
相关论文
共 50 条
  • [1] Entry system development for Mars Netlander mission
    Plotard, P
    Labaste, V
    ACTA ASTRONAUTICA, 2004, 55 (3-9) : 677 - 686
  • [2] Thermal analysis of a small-RPS concept for the Mars NetLander network mission
    Balint, TS
    Emis, N
    SPACE TECHNOLOGY AND APPLICATIONS INTERNATIONAL FORUM-STAIF 2005, 2005, 746 : 402 - 409
  • [3] Network science, NetLander:: a european mission to study the planet Mars
    Dehant, V
    Lognonné, P
    Sotin, C
    PLANETARY AND SPACE SCIENCE, 2004, 52 (11) : 977 - 985
  • [4] The NetLander geophysical network on the surface of Mars: General mission description and technical design status
    Marsal, O
    Venet, M
    Counil, JL
    Ferri, F
    Harri, AM
    Spohn, T
    Block, J
    ACTA ASTRONAUTICA, 2002, 51 (1-9) : 379 - 386
  • [5] The ground penetrating radar of the netlander mission
    Ney, R
    Berthelier, JJ
    Ciarletti, V
    Martinat, B
    Hamelin, M
    Rodriguez-Cassola, M
    Dolon, F
    Bonaime, S
    Reineix, A
    Nevejans, D
    Duvanaud, C
    Costard, F
    Paillou, P
    GPR 2002: NINTH INTERNATIONAL CONFERENCE ON GROUND PENETRATING RADAR, 2002, 4758 : 197 - 202
  • [6] Planetary protection requirements for orbiter and netlander elements of the CNES/NASA Mars sample return mission
    Debus, A
    SPACE LIFE SCIENCES: EXTRATERRESTRIAL ORGANIC CHEMISTRY, UV RADIATION ON BIOLOGICAL EVOLUTION, AND PLANETARY PROTECTION, 2002, 30 (06): : 1607 - 1616
  • [7] The Experience of Presence in the Mars Exploration Rover Mission
    Chiappe, Dan
    Vervaeke, John
    PRESENCE-VIRTUAL AND AUGMENTED REALITY, 2018, 27 (04): : 400 - 409
  • [8] The experience of presence in the mars exploration rover mission
    Chiappe D.
    Vervaeke J.
    Presence: Teleoperators and Virtual Environments, 2021, 27 (04) : 400 - 409
  • [9] MISSION DESIGN FOR THE EMIRATES MARS MISSION
    Parker, Jeffrey S.
    Hussain, Omar
    Parrish, Nathan
    Loucks, Michel
    ASTRODYNAMICS 2017, PTS I-IV, 2018, 162 : 1019 - 1036
  • [10] Mission to Mars
    Viola, Vic
    AMERICAN SCHOLAR, 2019, 88 (04): : 3 - 3