Quadrilateral velocity-pressure elements with constant and linear pressure interpolations are examined in the context of time-accurate finite element computation of unsteady incompressible flows. These elements involve streamline-upwind/Petrov-Galerkin stabilization and are implemented in conjunction with the one-step and multi-step temporal integration of the Navier-Stokes equations. The two test cases chosen for the performance evaluation of the formulations are the standing vortex problem and flow past a circular cylinder at Reynolds number 100
In the context of unsteady incompressible fluid flow simulations a new formulation based on the pres...
Massively parallel finite element computations of 3D, unsteady incompressible flows, including those...
In this article, the stabilized space-time finite element formulation of incompressible flows, inclu...
A comparative investigation, based on a series of numerical tests, of various velocity-pressure elem...
Finite element formulations based on stabilized bilinear and linear equal-order-interpolation veloci...
Finite element formulations based on stabilized bilinear and linear equal-order-interpolation veloci...
A systematic study of the effect of high aspect ratio elements using equal-order-interpolation veloc...
We discuss the stabilized finite element computation of unsteady incompressible flows, with emphasis...
Among the solution techniques presented for FEM computation of incompressible flows are stabilized f...
We discuss in this paper some implementation aspects of a finite element formulation for the incompr...
In this paper we analyse a pressure stabilized, finite element method for the unsteady, incompressib...
A novel time integration approach is explored for unsteady flow computations. It is a multi-block fo...
AbstractA finite element algorithm is described which implements the Galerkin approximation to the N...
In this article, the stabilized space-time finite element formulation of incompressible folws, inclu...
A finite element model for incompressible laminar two-phase flows is presented. A two-fluid model, d...
In the context of unsteady incompressible fluid flow simulations a new formulation based on the pres...
Massively parallel finite element computations of 3D, unsteady incompressible flows, including those...
In this article, the stabilized space-time finite element formulation of incompressible flows, inclu...
A comparative investigation, based on a series of numerical tests, of various velocity-pressure elem...
Finite element formulations based on stabilized bilinear and linear equal-order-interpolation veloci...
Finite element formulations based on stabilized bilinear and linear equal-order-interpolation veloci...
A systematic study of the effect of high aspect ratio elements using equal-order-interpolation veloc...
We discuss the stabilized finite element computation of unsteady incompressible flows, with emphasis...
Among the solution techniques presented for FEM computation of incompressible flows are stabilized f...
We discuss in this paper some implementation aspects of a finite element formulation for the incompr...
In this paper we analyse a pressure stabilized, finite element method for the unsteady, incompressib...
A novel time integration approach is explored for unsteady flow computations. It is a multi-block fo...
AbstractA finite element algorithm is described which implements the Galerkin approximation to the N...
In this article, the stabilized space-time finite element formulation of incompressible folws, inclu...
A finite element model for incompressible laminar two-phase flows is presented. A two-fluid model, d...
In the context of unsteady incompressible fluid flow simulations a new formulation based on the pres...
Massively parallel finite element computations of 3D, unsteady incompressible flows, including those...
In this article, the stabilized space-time finite element formulation of incompressible flows, inclu...