Finite-Element Analysis of Incompressible Navier-Stokes Equations Involving Exit Pressure Boundary Conditions
Tony W. H. Sheu S. F. Tsai
Abstract
Tony W. H. Sheu S. F. Tsai
Abstract
This article presents finite-element solutions for incompressible Navier?Stokes equations in velocity?pressure variables. Specific to this study is the inclusion of pressure boundary conditions into the mixed finite-element formulation. To provide an in-depth analysis of the finite-element model, rigorous derivations have been carried out. The justification for applying the finite-element code to simulate this class of flow problems is presented by solving a problem which is amenable to analytical solution and the backward-facing step benchmark problem. In addition, results for blood flow in a carotid artery are presented to show the applicability of the finite-element code to geometrically more complex problems.
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This article presents finite-element solutions for incompressible Navier?Stokes equations in velocity?pressure variables. Specific to this study is the inclusion of pressure boundary conditions into the mixed finite-element formulation. To provide an in-depth analysis of the finite-element model, rigorous derivations have been carried out. The justification for applying the finite-element code to simulate this class of flow problems is presented by solving a problem which is amenable to analytical solution and the backward-facing step benchmark problem. In addition, results for blood flow in a carotid artery are presented to show the applicability of the finite-element code to geometrically more complex problems.
Key concepts: Finite element method, Pressure-correction method, Compressibility, Navier–Stokes equations, Mechanics, Boundary value problem, Mathematics, Mathematical analysis