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This work presents a comprehensive framework for the efficient implementation of finite-volume-based reacting flow solvers, specifically tailored for high speed propulsion applications. Using the exascale computing project (ECP) based AMReX framework, a compressible flow solver for handling high-speed reacting flows is developed. This work is compl...
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Context 1
... cases with refinement levels are interpolated onto the corresponding level 0 grid size in order to compute the error in relation to the exact solution. Figure 4 shows the convergence rates for the L 1,ρ error norm for density in all cases. Interestingly, the cases with up to 1 AMR level are no more accurate than the cases with 0 AMR levels, as in Fig.4. ...
Context 2
... 4 shows the convergence rates for the L 1,ρ error norm for density in all cases. Interestingly, the cases with up to 1 AMR level are no more accurate than the cases with 0 AMR levels, as in Fig.4. This demonstrates the challenge of selecting grid and refinement settings which contribute to a more accurate solution. ...
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