Aircraft maneuver design using bifurcation analysis and sliding mode control techniques

Khatri, AK and Jatinder, Singh and Sinha, NK (2012) Aircraft maneuver design using bifurcation analysis and sliding mode control techniques. Journal of Guidance, Control and Dynamics, 35 (5). pp. 1435-1449. ISSN 0731-5090

Full text available as:
[img] PDF
Restricted to CSIR-NAL Registered users only

Download (1403Kb) | Request a copy

    Abstract

    In this paper, bifurcation analysis-based methodology is used in conjunction with a sliding-mode-based control algorithm to construct and simulate maneuvers for a nonlinear, 6 degree-of-freedom, F-18 high-alpha research vehicle aircraft model. Three different types of maneuvers, namely, a minimum-radius level turn, velocity vector roll, and spin recovery to a level flight condition, are attempted to demonstrate the usefulness of the proposed approach. The procedure involves constructing the desired maneuvers using constrained bifurcation analysis-based methodology. The results obtained from bifurcation analysis provide the reference inputs for the sliding mode controller to switch the aircraft between desired flight conditions. Robustness of the sliding mode controller is also examined by introducing uncertainties in aerodynamic parameters. Closed-loop simulation results are later presented to show the effectiveness of the proposed technique.

    Item Type: Journal Article
    Additional Information: Copyright to this article belongs to M/s. American Institute of Aeronautics and Astronautics
    Uncontrolled Keywords: Velocity vector roll maneuver;Fighter aircraft;Aircraft maneuver design;Analysis mode;Sliding mode control techniques
    Subjects: AERONAUTICS > Aeronautics (General)
    AERONAUTICS > Aircraft Design, Testing & Performance
    Division/Department: C-CADD, Flight Mechanics and Control Division, Other
    Depositing User: Ms. Alphones Mary
    Date Deposited: 07 Jan 2013 13:24
    Last Modified: 07 Jan 2013 13:24
    URI: http://nal-ir.nal.res.in/id/eprint/11426

    Actions (login required)

    View Item