Intercontinental rovers servicing automated solar-powered Rodriguez Wells can supply water for Human Exploration on Mars. This paper describes a solar-powered multivehicle concept that can turn water resources obtained from mid-latitude glacier ice into a sustained water supply. A robotic drilling platform is proposed that can access relatively pure water ice in mid-latitude Martian glaciers through 1-10m of loose regolith, whereupon longdistance tanker rovers continually traverse terrain between the drilling operation and human outposts located in Mars equatorial zones. Robotically deployed solar-thermal panels will be able to passively heat warm water that is delivered into a Rodriguez Well (a melted cavity in an expanse of water ice such as a glacier). Newly melted water will be pumped up out of the well and cycled through the solar panels to fill tankers. The tankers will consist of multiple four-wheeled linked cars in a tram-like configuration that can overcome steep terrain and obstacles. The system will be able to deliver its own landed mass of water to the human explorers every ~74 Mars days. The resources, power, vehicle configurations, and detailed functions are described.


    Access

    Access via TIB

    Check availability in my library


    Export, share and cite



    Title :

    Robotic Infrastructure for Mars Outpost Water Supply


    Contributors:

    Publication date :

    2018-03-03


    Type of media :

    Preprint


    Type of material :

    No indication


    Language :

    English



    Robotic infrastructure for Mars outpost water supply

    Wilcox, Brian H. / Howe, A. Scott | IEEE | 2018


    Future Mars outpost architecture

    Williams, T. D. / Owens, J. / Polko, C. et al. | NTRS | 2001


    Future Mars outpost architecture

    Williams, T. D. / Owens, J. M. / Easter, R. W. et al. | NTRS | 2001


    Future Mars outpost architecture

    Williams, T. D. / Owens, J. / Easter, R. W. et al. | NTRS | 2000


    Future Mars Outpost architecture

    Williams, T.D. / Owens, J.M. / Easter, R.W. et al. | IEEE | 2001