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A Second-Order Maximum Principle Preserving Lagrange Finite Element Technique for Nonlinear Scalar Conservation Equations
70
Citations
32
References
2014
Year
Numerical AnalysisFinite Element MethodMethod Of Fundamental SolutionNonlinear Benchmark ProblemsEngineeringAerospace EngineeringSemi-implicit MethodHyperbolic Conservation LawNumerical SimulationMaximum Principle SatisfyingNonlinear Hyperbolic ProblemComputational MechanicsStructural MechanicsBoundary Element MethodLipschitz FluxesNumerical Method For Partial Differential EquationMultiscale Modeling
This paper proposes an explicit, (at least) second-order, maximum principle satisfying, Lagrange finite element method for solving nonlinear scalar conservation equations. The technique is based on a new viscous bilinear form introduced in Guermond and Nazarov [Comput. Methods Appl. Mech. Engrg., 272 (2014), pp. 198--213], a high-order entropy viscosity method, and the Boris--Book--Zalesak flux correction technique. The algorithm works for arbitrary meshes in any space dimension and for all Lipschitz fluxes. The formal second-order accuracy of the method and its convergence properties are tested on a series of linear and nonlinear benchmark problems.
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