Abstract Before an active debris removal process is carried out, the attitude stabilization of the debris needs to be executed to ensure security. Fortunately, for the tethered system, a full despun is not always necessary; a stabilization of the motion of the tether attachment point is usually sufficient. This paper discusses the way to stabilize the motion of the tether attachment point of a captured noncooperative space debris without any auxiliary mechanisms. The debris possesses unknown inertia information and states after capture, while the tether tension is the only input to manipulate its attitude. The direction and value of the tension is regulated based on the continuous dissipation of the rotational energy of the debris. Moreover, the range of the tether direction is restricted to a small conical region, in order to reduce the tether libration motion and the orbit maneuver of the main satellite. The motion of the tether attachment point is desired to be observed instead of measuring the attitude motion of the debris in the feedback loop, which might be easier to attain in practical applications. Numerical simulations are carried out to validate the effectiveness of the control method and to check the performance of the controller with different parameters.]

    Highlights The motion of the tether attachment point is stabilized by the tether tension. No inertia information concerning the debris or the measure of its attitude motion is needed. The range of the tension direction and convergence rate can be adjusted by choosing proper control parameters. Different equilibrium states are discussed by theoretical analyses.


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    Title :

    Tether attachment point stabilization of noncooperative debris captured by a tethered space system


    Contributors:
    Sun, Xin (author) / Zhong, Rui (author)

    Published in:

    Acta Astronautica ; 177 ; 784-797


    Publication date :

    2019-12-09


    Size :

    14 pages




    Type of media :

    Article (Journal)


    Type of material :

    Electronic Resource


    Language :

    English







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