A p-version of the least squares finite element method, based on the velocity-pressure-vorticity formulation, is developed for solving steady state incompressible viscous flow problems. The resulting system of symmetric and positive definite linear equations can be solved satisfactorily with the conjugate gradient method. In conjunction with the use of rapid operator application which avoids the formation of either element of global matrices, it is possible to achieve a highly compact and efficient solution scheme for the incompressible Navier-Stokes equations. Numerical results are presented for two-dimensional flow over a backward facing step. The effectiveness of simple outflow boundary conditions is also demonstrated
This report summarizes the research carried out under Grant F49620-03-1-0201 on the development of l...
A method of calculating viscous fluid flows having an average Reynolds number is presented
In the present contribution we compare different mixed least-squares finite element formula-tions (L...
A least-squares finite element method, based on the velocity-pressure-vorticity formulation, is deve...
A new p-version finite element formulation for steady, incompressible fluid flow and convective heat...
AbstractA finite element method based on a least-squares variational principle is developed for the ...
In this contribution we present the least-squares finite element method (LSFEM) for the incompressib...
A finite element solution algorithm is established for the two-dimensional Navier-Stokes equations g...
Recently there has been substantial interest in least-squares finite element methods for velocity-vo...
An overview is given of new developments of the least squares finite element method (LSFEM) in fluid...
Abstract. Least-squares finite element methods are motivated, beside others, by the fact that in con...
Least-squares spectral element solution of steady, two-dimensional, incompressible flows are obtaine...
Usually the theoretical analysis of the Navier-Stokes equations is conducted via the Galerkin method...
Based on a Clebsch-like velocity representation and a combination of classical variational principle...
The Navier-Stokes equations can be expressed in terms of the primary variables (e.g., velocities and...
This report summarizes the research carried out under Grant F49620-03-1-0201 on the development of l...
A method of calculating viscous fluid flows having an average Reynolds number is presented
In the present contribution we compare different mixed least-squares finite element formula-tions (L...
A least-squares finite element method, based on the velocity-pressure-vorticity formulation, is deve...
A new p-version finite element formulation for steady, incompressible fluid flow and convective heat...
AbstractA finite element method based on a least-squares variational principle is developed for the ...
In this contribution we present the least-squares finite element method (LSFEM) for the incompressib...
A finite element solution algorithm is established for the two-dimensional Navier-Stokes equations g...
Recently there has been substantial interest in least-squares finite element methods for velocity-vo...
An overview is given of new developments of the least squares finite element method (LSFEM) in fluid...
Abstract. Least-squares finite element methods are motivated, beside others, by the fact that in con...
Least-squares spectral element solution of steady, two-dimensional, incompressible flows are obtaine...
Usually the theoretical analysis of the Navier-Stokes equations is conducted via the Galerkin method...
Based on a Clebsch-like velocity representation and a combination of classical variational principle...
The Navier-Stokes equations can be expressed in terms of the primary variables (e.g., velocities and...
This report summarizes the research carried out under Grant F49620-03-1-0201 on the development of l...
A method of calculating viscous fluid flows having an average Reynolds number is presented
In the present contribution we compare different mixed least-squares finite element formula-tions (L...