The problem of control command and maneuver induced structural loads is an important aspect of any control system design. The aircraft structure and the control architecture must be designed to achieve desired piloted control responses while limiting the imparted structural loads. The classical approach is to utilize high structural margins, restrict control surface commands to a limited set of analyzed combinations, and train pilots to follow procedural maneuvering limitations. With recent advances in structural sensing and the continued desire to improve safety and vehicle fuel efficiency, it is both possible and desirable to develop control architectures that enable lighter vehicle weights while maintaining and improving protection against structural damage. An optimal control technique has been explored and shown to achieve desirable vehicle control performance while limiting sensed structural loads. The subject of this paper is the design of the optimal control architecture, and provides the reader with some techniques for tailoring the architecture, along with detailed simulation results.


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    Title :

    Optimal Control Allocation with Load Sensor Feedback for Active Load Suppression, Experiment Development


    Contributors:
    C. J. Miller (author) / D. Goodrick (author)

    Publication date :

    2017


    Size :

    36 pages


    Type of media :

    Report


    Type of material :

    No indication


    Language :

    English