Novel concepts for a planetary surface exploration rover

被引:5
|
作者
Bouloubasis, Antonios [1 ]
McKee, Gerard [1 ]
Tolson, Peter [1 ]
机构
[1] Univ Reading, Sch Syst Engn, Reading RG6 2AH, Berks, England
关键词
motion; space technology; robotics;
D O I
10.1108/01439910710727450
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Purpose - This paper aims to address some of the needs of present and upcoming rover designs, and introduces novel concepts incorporated in a planetary surface exploration rover design that is currently under development. Design/methodology/approach - The Multitasking Rover (MTR) is a highly re-configurable system that aims to demonstrate functionality that will cover many of the current and future needs such as rough-terrain mobility, modularity and upgradeability. It comprises a surface mobility platform which is highly re-configurable, which offers centre of mass re-allocation and rough terrain stability, and also a set of science/tool packs - individual subsystems encapsulated in packs which the rover picks up, transports and deploys. Findings - Early testing of the suspension system suggests exceptional performance characteristics. Originality/value - Principles employed in the design of the MTR can be used in future rover systems to reduce associated mission costs and at the same time provide multiples the functionality.
引用
收藏
页码:116 / 121
页数:6
相关论文
共 50 条
  • [1] Rover-Based Surface and Subsurface Modeling for Planetary Exploration
    Furgale, Paul
    Barfoot, Tim
    Ghafoor, Nadeem
    [J]. FIELD AND SERVICE ROBOTICS, 2010, 62 : 499 - +
  • [2] AMBLER - AN AUTONOMOUS ROVER FOR PLANETARY EXPLORATION
    BARES, J
    HEBERT, M
    KANADE, T
    KROTKOV, E
    MITCHELL, T
    SIMMONS, R
    WHITTAKER, W
    [J]. COMPUTER, 1989, 22 (06) : 18 - 26
  • [3] A small wheeled robotic rover for planetary exploration
    Tao, Jianguo
    Deng, Zongquan
    Hu, Ming
    Liu, Jicheng
    Bi, Zhenfa
    [J]. ISSCAA 2006: 1ST INTERNATIONAL SYMPOSIUM ON SYSTEMS AND CONTROL IN AEROSPACE AND ASTRONAUTICS, VOLS 1AND 2, 2006, : 413 - +
  • [4] Planetary Rover Simulation for Lunar Exploration Missions
    Allan, Mark
    Wong, Uland
    Furlong, P. Michael
    Rogg, Arno
    McMichael, Scott
    Welsh, Terry
    Chen, Ian
    Peters, Steven
    Gerkey, Brian
    Quigley, Morgan
    Shirley, Mark
    Deans, Matthew
    Cannon, Howard
    Fong, Terry
    [J]. 2019 IEEE AEROSPACE CONFERENCE, 2019,
  • [5] Walking rover with multiple legs for planetary exploration
    Kubota, T
    Katoh, H
    Nakatani, I
    [J]. PROCEEDINGS OF THE THIRD INTERNATIONAL CONFERENCE ON CLIMBING AND WALKING ROBOTS, 2000, : 795 - 802
  • [6] Payload support for planetary exploration - Monitoring and control of a tethered micro-rover for planetary exploration
    Fontaine, B
    Steinicke, L
    Vergauwen, M
    [J]. CLIMBING AND WALKING ROBOTS: AND THEIR SUPPORTING TECHNOLOGIES, 2003, : 731 - 743
  • [7] Robotic Exploration of Planetary Surfaces - Rover Technologies Developed for Space Exploration
    Klinkner, S.
    Lee, C.
    Roeser, H. -P.
    Klingelhoefer, G.
    Bernhardt, B.
    Fleischer, I.
    Rodionov, D.
    Blumers, M.
    [J]. RESEARCH AND EDUCATION IN ROBOTICS - EUROBOT 2008, 2009, 33 : 193 - +
  • [8] Integrated optimization of planetary rover layout and exploration routes
    Lee, Dongoo
    Ahn, Jaemyung
    [J]. ENGINEERING OPTIMIZATION, 2018, 50 (01) : 164 - 182
  • [9] Stereo vision and rover navigation software for Planetary Exploration
    Goldberg, SB
    Maimone, MW
    Matthies, L
    [J]. 2002 IEEE AEROSPACE CONFERENCE PROCEEDINGS, VOLS 1-7, 2002, : 2025 - 2036
  • [10] Centralized payload control method for planetary rover exploration
    Wang L.
    Zhu Y.
    Ma M.
    Rao J.
    Liang Y.
    Wang W.
    [J]. Guofang Keji Daxue Xuebao/Journal of National University of Defense Technology, 2019, 41 (02): : 8 - 16