Development of a microchannel in situ propellant production system

被引:0
|
作者
Brooks, K [1 ]
Rassat, S
Hu, J
Stenkamp, S
Schlahta, S
Bontha, J
Holladay, J
Simon, T
Romig, K
Howard, C
机构
[1] Battelle Mem Inst, Pacific NW Div, Richland, WA 99352 USA
[2] NASA, Lyndon B Johnson Space Ctr, Houston, TX 77058 USA
关键词
microchannel; microtechnology; in-situ propellant production; in-situ resource utilization; adsorption; Sabatier; reverse water gas shift; Mars;
D O I
暂无
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
A microchannel-based system is being developed for NASA to produce propellants from atmospheric CO2 on Mars. This system will provide a means of reducing the earth-based launch mass for both sample return and human exploration missions. The atmospheric CO2 will be collected, separated, and compressed with a microchannel thermal swing adsorption system. It will be reacted with hydrogen that has either been electrolyzed from the available subsurface water or brought from earth. Methane and water will be produced by using microchannel Sabatier and Reverse Water Gas Shift reactors, respectively. The water will then separated with a microchannel condenser/phase separator and electrolyzed to produce oxygen and hydrogen. Feed gases will be separated from the products and recycled. The system design requirements will be presented in this paper. The design and fabrication methods of the microchannel CO2 sorption pump, reactors, and phase separators will be described, and the advantages of microchannel architecture will be delineated for each component. Estimates of system mass and volume will also be provided in comparison to conventional hardware. The testing and integration proposed during this project to meet NASA's Technology Readiness Level 5 will also be presented.
引用
收藏
页码:1111 / +
页数:2
相关论文
共 50 条
  • [41] Development of time-of-flight RBS system using multi microchannel plates
    Nguyen, N. V.
    Abo, S.
    Lohner, T.
    Sawaragi, H.
    Wakaya, F.
    Takai, M.
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION B-BEAM INTERACTIONS WITH MATERIALS AND ATOMS, 2007, 260 (01): : 105 - 108
  • [42] Development of a continuous steroid biotransformation process and product extraction within microchannel system
    Znidarsic-Plazl, P.
    Plazl, I.
    CATALYSIS TODAY, 2010, 157 (1-4) : 315 - 320
  • [43] In situ delivery and production system of trastuzumab scFv with Bifidobacterium
    Kikuchi, Takeshi
    Shimizu, Hitomi
    Akiyama, Yasuto
    Taniguchi, Shun'ichiro
    BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS, 2017, 493 (01) : 306 - 312
  • [44] Microchannel System Simulation for a Neutron Production Target to be used in the Boron Neutron Capture Therapy
    Gagetti, Leonardo
    Suarez Anzorena, Manuel
    del Grosso, Mariela
    Kreiner, Andres J.
    INTERNATIONAL CONGRESS OF SCIENCE AND TECHNOLOGY OF METALLURGY AND MATERIALS, SAM - CONAMET 2013, 2015, 8 : 461 - 470
  • [45] Simulated Propellant Loading System: Testbed for cryogenic component and control systems research & development
    Medina, J. Toro
    Sass, J.
    Youney, J.
    Schmitz, W.
    ADVANCES IN CRYOGENIC ENGINEERING, 2015, 101
  • [46] EXTRUDED COMPOSITE PROPELLANT TECHNOLOGY DEVELOPMENT
    HAFF, CE
    JOURNAL OF SPACECRAFT AND ROCKETS, 1984, 21 (06) : 587 - 592
  • [47] Solar heat for biodiesel production in microchannel
    Biabani, Arash
    Khoshhal, Abbas
    Aghel, Babak
    FUEL, 2023, 333
  • [48] Some viewpoints about development of both gun propellant and solid propellant techniques
    Wang, ZS
    RARE METAL MATERIALS AND ENGINEERING, 2001, 30 : 322 - 326
  • [49] Development of an automatic analyzer for liquid propellant
    Huang, ZY
    Chen, YP
    Wang, XJ
    ISTM/2005: 6th International Symposium on Test and Measurement, Vols 1-9, Conference Proceedings, 2005, : 8301 - 8303
  • [50] Gas-generator pressurization system experimental development method of the LV propellant tanks
    Logvinenko, A.
    ACTA ASTRONAUTICA, 2009, 64 (01) : 84 - 87