It is critical to implement accurate and appropriate numerical methods for understanding the combustion characteristics because of the strong interactions between an inviscid core flow and multiple near-wall viscous regions. A new numerical Godunov-type scheme, which is proposed and developed for the supersonic boundary layer simulations and the hypersonic viscous flow simulations, is extended to the supersonic combustion simulations because of its simpleness, robustness and efficiency. Numerical experiments including shock-induced combustion and fuel injection non-premixed combustion are tested and the results show good performance on the comparison to experiments data, especially for the prediction of ignition position. More numerical tests should be investigated to verify and validate on complex flows for the nest.


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    Title :

    Application of a New Shock-Stable Scheme for Supersonic Combustion Flows


    Contributors:
    Zheng, Yongkang (author) / Zhou, Yue (author) / Chen, Shusheng (author) / Yan, Chao (author)


    Publication date :

    2019-07-01


    Size :

    437593 byte




    Type of media :

    Conference paper


    Type of material :

    Electronic Resource


    Language :

    English



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    Combustion enhancement in supersonic coaxial flows

    GUTMARK, E. / WILSON, K. / SCHADOW, K. et al. | AIAA | 1989


    Combustion in Supersonic Flows and Scramjet Combustion Simulation

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    Normal Shock Dynamics in Internal Supersonic Flows

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