International Journal for Numerical Methods in Fluids · 1995 · 12 citations · 11 references
ComputingComputational EngineeringPhysicsComputational Fluid DynamicsFinite Element AnalysisFinite Element MethodsConvergence AnalysisError EstimationFinite Element DiscretizationFinite Element FormulationNumerical StabilityTransient Heat TransferAdvection-diffusion DynamicsAdvection-diffusion ModelsDiffusion EquationFinite Element ModelingFinite Element Transient AnalysisStability LimitsTruncationVon Neumann Stability Analysis
Abstract Various finite element schemes of the Bubnov–Galerkin and Taylor–Galerkin types are analysed to obtain the expressions of truncation errors. This way, dispersion errors in the transient, and diffusion errors both in the transient and in the steady state, are identified. Then, with reference to the transient advection–diffusion equation, stability limits are determined by means of a general von Neumann procedure. Finally, the operational equivalence between Taylor–Galerkin methods, utilized for pseudo‐transient calculations, and Petrov–Galerkin methods, derived for the steady state forms of the advection–diffusion equation, is illustrated. Theoretical conclusions are supported by the results of numerical experiments.
11
Handbook of Numerical Heat Transfer.
P.B. Whalley · Chemical Engineering Science · 1989 · 243 citations
Engineering, Computational Engineering, Mechanical Engineering +12
Patrick J. Roache · Journal of Computational Physics · 1972 · 113 citations