• DocumentCode
    1284972
  • Title

    Autopilots for Ultra Lightweight Robotic Birds: Automatic Altitude Control and System Integration of a Sub-10 g Weight Flapping-Wing Micro Air Vehicle

  • Author

    Hsiao, Fu-Yuen ; Yang, Lung-Jieh ; Lin, Sen-Huang ; Chen, Cheng-Lin ; Shen, Jeng-Fu

  • Author_Institution
    Dept. of Aerosp. Eng., Tamkang Univ., New Taipei, Taiwan
  • Volume
    32
  • Issue
    5
  • fYear
    2012
  • Firstpage
    35
  • Lastpage
    48
  • Abstract
    This article described a control law for stabilizing the vertical motion of a flapping-wing MAV and developed a system architecture that is potentially beneficial in realizing the autonomous flight of flapping-wing MAVs fewer than 10 g. The article began with a brief introduction to the Golden Snitch, including its development history and the development of the overall system. The vertical dynamics were given for altitude control. The use of wind tunnel tests to obtain aerodynamical parameters was described. Due to the limited payload-carrying capability, the control architecture was modified so that automatic control of flight altitude of a flapping-wing MAV fewer than 10 g is possible using current technology. Taking the hardware constraint into account, it was shown that the modified P-control can stabilize the vertical motion and track altitude commands. Numerical simulations and flight tests were presented that demonstrate the function of the developed control law and the system architecture. We believe this flapping-wing MAV to be the first under 10 g able to automatically maintain its flight altitude.
  • Keywords
    aerodynamics; aerospace components; aerospace robotics; aerospace simulation; aerospace testing; attitude control; microrobots; mobile robots; wind tunnels; Golden Snitch; aerodynamical parameters; automatic altitude control; automatic control; autonomous flight; autopilots; control law; control system architecture; flapping wing MAV; flapping wing micro air vehicle; flight test; numerical simulation; payload carrying capability; system integration; ultra lightweight robotic birds; vertical motion; wind tunnel test; Aerodynamics; Aerospace control; Remotely operated vehicles; Robots; Unmanned aerial vehicles;
  • fLanguage
    English
  • Journal_Title
    Control Systems, IEEE
  • Publisher
    ieee
  • ISSN
    1066-033X
  • Type

    jour

  • DOI
    10.1109/MCS.2012.2205475
  • Filename
    6302313