An entropy-dissipative DG method for the stochastic full Euler system is shown to converge in law to a dissipative martingale solution, with error bounds up to a stopping time.
Consistency and convergence of flux-corrected finite element methods for nonlinear hyperbolic problems
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abstract
We investigate the consistency and convergence of flux-corrected finite element approximations in the context of nonlinear hyperbolic conservation laws. In particular, we focus on a monolithic convex limiting approach and prove a Lax--Wendroff-type theorem for the corresponding semi-discrete problem. A key component of our analysis is the use of a weak estimate on bounded variation, which follows from the semi-discrete entropy stability property of the method under investigation. For the Euler equations of gas dynamics, we prove the weak convergence of the flux-corrected finite element scheme to a dissipative weak solution. If a strong solution exists, the sequence of numerical approximations converges strongly to the strong solution.
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Discontinuous Galerkin methods for the complete stochastic Euler equations
An entropy-dissipative DG method for the stochastic full Euler system is shown to converge in law to a dissipative martingale solution, with error bounds up to a stopping time.