SIAM Journal on Numerical Analysis · 2015 · 32 citations · 25 references
ComputingComputational EngineeringPhysicsComputational ElectromagneticsComputational PhysicsScientific ComputingConvergence AnalysisMaxwell's EquationsNumerical AlgorithmsNumerical Methods For Differential EquationsTime IntegrationTime Integration SchemesCauchy ProblemDiscontinuous Galerkin FormulationDiscretizationError BoundsGalerkin DiscretizationNumerical DiscretizationPiecewise FunctionsUpwind Schemes
In this paper we consider implicit Runge--Kutta methods for the time integration of linear Maxwell's equations. We first present error bounds for the abstract Cauchy problem which respect the unboundedness of the differential operators using energy techniques. The error bounds hold for algebraically stable and coercive methods such as Gauss and Radau collocation methods. The results for the abstract evolution equation are then combined with a discontinuous Galerkin discretization in space using upwind fluxes. For the case that permeability and permittivity are piecewise constant functions, we show error bounds for the full discretization, where the constants do not deteriorate if the spatial mesh width tends to zero.
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