• DocumentCode
    189081
  • Title

    Design of missile autopilot using PI and approximate feedback linearization control with time-delay adaptation scheme

  • Author

    Chang-Hun Lee ; Yong-woo Lee ; Byung-Eul Jun ; Min-jea Tahk

  • Author_Institution
    Agency for Defense Dev., Daejeon, South Korea
  • fYear
    2014
  • fDate
    24-27 June 2014
  • Firstpage
    2762
  • Lastpage
    2767
  • Abstract
    A straight forward application of feedback linearization to the missile autopilot design for acceleration control may be limited due to the nonminimum characteristics and the model uncertainties. As a remedy, this paper presents a cascade structure of an acceleration controller based on approximate feedback linearization methodology with a time-delay adaptation scheme. The inner loop controller is constructed by applying feedback linearization to the approximate system which is a minimum phase system and provides the desired acceleration signal caused by the angle-of-attack. This controller is augmented by the time-delay adaptive scheme and the outer loop PI (proportional-integral) controller in order to adaptively compensate for feedback linearization error because of model uncertainty and in order to track the desired acceleration signal. The performance of the proposed method is examined through numerical simulations.
  • Keywords
    PI control; acceleration control; adaptive control; cascade control; compensation; control system synthesis; delay systems; feedback; linearisation techniques; missile control; numerical analysis; remotely operated vehicles; uncertain systems; acceleration controller; acceleration signal; adaptive compensation; angle-of-attack; approximate feedback linearization methodology; cascade structure; feedback linearization error; inner loop controller; minimum phase system; missile autopilot design; model uncertainties; model uncertainty; nonminimum characteristics; numerical simulations; outer loop PI controller; proportional-integral controller; time-delay adaptation scheme; Acceleration; Adaptation models; Aerodynamics; Approximation methods; Mathematical model; Missiles; Uncertainty;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Control Conference (ECC), 2014 European
  • Conference_Location
    Strasbourg
  • Print_ISBN
    978-3-9524269-1-3
  • Type

    conf

  • DOI
    10.1109/ECC.2014.6862341
  • Filename
    6862341