Phaidra (Universität Wien) · 2016 · 15 citations · 28 references
ComputingComputational EngineeringPhysicsComputational MechanicsFinite Element AnalysisFinite Element MethodsConvergence AnalysisError EstimationFinite Element DiscretizationFinite Element FormulationNonlinear Finite Element AnalysisNumerical Methods For Differential EquationsConvergenceDirichlet Boundary ConditionsNonlinear Schrödinger EquationNumerical DiscretizationNumerical Solution Of The Schrödinger EquationOperator SplittingOrder ConvergencePoisson Equation
Operator splitting methods combined with finite element spatial discretizations are studied for time-dependent nonlinear Schrödinger equations. In particular, the Schrödinger–Poisson equation under homogeneous Dirichlet boundary conditions on a finite domain is considered. A rigorous stability and error analysis is carried out for the second-order Strang splitting method and conforming polynomial finite element discretizations. For sufficiently regular solutions the classical orders of convergence are retained, that is, second-order convergence in time and polynomial convergence in space is proven. The established convergence result is confirmed and complemented by numerical illustrations.
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Roger B. Sidje · ACM Transactions on Mathematical Software · 1998 · 802 citations · Full text
Robert I. McLachlan, G. Quispel · Acta Numerica · 2002 · 661 citations