In this paper, the viability of general aviation aircraft with serial hybrid-electric powertrains is examined. They will be compared to conventionally powered aircraft with similar specifications, by the means of initial sizing results. Studies on battery specific energy and aerodynamic efficiency will be analyzed, the latter in the scope of a distributed electric propulsion concept, to see their influence on the viability of serial hybrid aircraft. Results show that a serial hybrid-electric aircraft with an optimized distributed electric propulsion concept is competitive to todays conventionally powered light general aviation aircraft, while enabling significant fuel savings. Additionally parameter variation studies are conducted to see the influence of take-off distance, aircraft range and cruise speed on the optimal design point. The finding is that the conventional design rule is not valid anymore and for every new hybrid-electric aircraft a design space exploration should be conducted.


    Access

    Download

    Check availability in my library


    Export, share and cite



    Title :

    Sizing Studies of Light Aircraft with Serial Hybrid Propulsion Systems


    Contributors:
    Ludowicy, J. (author) / Rings, R. (author) / Finger, D.F. (author) / Braun, C. (author)

    Publication date :

    2018



    Type of media :

    Miscellaneous


    Type of material :

    Electronic Resource


    Language :

    Unknown




    Sizing Studies of Light Aircraft with Parallel Hybrid Propulsion Systems

    Rings, R. / Ludowicy, J. / Finger, D.F. et al. | DataCite | 2018



    Sizing Procedure of PMSMs for Hybrid Parallel Aircraft Propulsion

    Dannier, Adolfo / Pizzo, Andrea Del / Pio Di Noia, Luigi et al. | IEEE | 2018


    Preliminary Sizing Method for Hybrid-Electric Distributed-Propulsion Aircraft

    de Vries, Reynard / Brown, Malcom / Vos, Roelof | AIAA | 2019


    Sizing of Tilt-Wing Aircraft with All-Electric and Hybrid-Electric Propulsion

    Chakraborty, Imon / Mishra, Aashutosh Aman | AIAA | 2022