Low-thrust trajectories about planetary bodies characteristically span a high count of orbital revolutions. Directing the thrust vector over many revolutions presents a challenging optimization problem for any conventional strategy. This paper demonstrates the tractability of low-thrust trajectory optimization about planetary bodies by applying a Sundman transformation to change the independent variable of the spacecraft equations of motion to the eccentric anomaly and performing the optimization with differential dynamic programming. Fuel-optimal geocentric transfers are shown in excess of 1000 revolutions while subject to Earths J2 perturbation and lunar gravity.


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    Titel :

    Low-Thrust Many-Revolution Trajectory Optimization via Differential Dynamic Programming and a Sundman Transformation


    Beteiligte:
    Aziz, Jonathan (Autor:in) / Parker, Jeffrey (Autor:in) / Scheeres, Daniel (Autor:in) / Englander, Jacob (Autor:in)

    Kongress:

    AAS/AIAA Space Flight Mechanics Meeting ; 2017 ; San Antonio, TX, United States


    Erscheinungsdatum :

    2017-02-05


    Medientyp :

    Sonstige


    Format :

    Keine Angabe


    Sprache :

    Englisch


    Schlagwörter :