Approximating viscosity solutions of the Euler system
Eduard Feireisl, M\'aria Luk\'a\v{c}ov\'a-Medvi\v{d}ov\'a, Simon, Schneider, Bangwei She

TL;DR
This paper introduces a novel approach using S-convergence to approximate viscosity solutions of the Euler system, combining theoretical analysis with efficient numerical methods and simulations of fluid instability phenomena.
Contribution
It presents a new framework for approximating viscosity solutions via S-convergence and demonstrates its effectiveness through numerical simulations of fluid instabilities.
Findings
Successful approximation of viscosity solutions using S-convergence
Efficient computation via Viscosity Finite Volume method
Numerical simulations illustrate theoretical results
Abstract
Applying the concept of S-convergence, based on averaging in the spirit of Strong Law of Large Numbers, the vanishing viscosity solutions of the Euler system are studied. We show how to efficiently compute a viscosity solution of the Euler system as the S-limit of numerical solutions obtained by the Viscosity Finite Volume method. Theoretical results are illustrated by numerical simulations of the Kelvin--Helmholtz instability problem.
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Taxonomy
TopicsNavier-Stokes equation solutions · Computational Fluid Dynamics and Aerodynamics · Fluid Dynamics and Turbulent Flows
