Five viscous transonic airfoil cases were computed by two significantly different computational fluid dynamics codes: An explicit finite-volume algorithm with multigrid, and an implicit finite-difference approximate-factorization method with Eigenvector diagonalization. Both methods are described in detail, and their performance on the test cases is compared. The codes utilized the same grids, turbulence model, and computer to provide the truest test of the algorithms. The two approaches produce very similar results, which, for attached flows, also agree well with experimental results; however, the explicit code is considerably faster
Critical to the advancement of computational aerodynamics capability is the ability to simulate flow...
Implicit approximate factorization techniques (AF) were investigated for the solution of matrix equa...
A novel semi-implicit scheme for the Navier-Stokes equations is presented and evaluated. The semi-i...
A full Navier-Stokes solver has been used to model transonic flow over three airfoil sections. The m...
Two codes which solve the 3-D Thin Layer Navier-Stokes (TLNS) equations are used to compute the stea...
AbstractComparisons are made between various finite difference algorithms used for the numerical sol...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
A class of implicit upwind differencing methods for the compressible Navier-Stokes equations is desc...
A cell-vertex scheme for the Navier-Stokes equations, which is based on central difference approxima...
Results from the Viscous Transonic Airfoil Workshop are compared with each other and with experiment...
A compressible, unsteady, full Navier-Stokes, finite difference code was developed for modeling tran...
Steady flow over the leading portion of a multicomponent airfoil section is studied using computatio...
For a computational flow simulation tool to be useful in a design environment, it must be very robus...
An implicit, finite volume code for solving two dimensional, compressible turbulent flows is describ...
A finite-volume code has been written to solve the complete, Reynolds-averaged Navier-Stokes equatio...
Critical to the advancement of computational aerodynamics capability is the ability to simulate flow...
Implicit approximate factorization techniques (AF) were investigated for the solution of matrix equa...
A novel semi-implicit scheme for the Navier-Stokes equations is presented and evaluated. The semi-i...
A full Navier-Stokes solver has been used to model transonic flow over three airfoil sections. The m...
Two codes which solve the 3-D Thin Layer Navier-Stokes (TLNS) equations are used to compute the stea...
AbstractComparisons are made between various finite difference algorithms used for the numerical sol...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
A class of implicit upwind differencing methods for the compressible Navier-Stokes equations is desc...
A cell-vertex scheme for the Navier-Stokes equations, which is based on central difference approxima...
Results from the Viscous Transonic Airfoil Workshop are compared with each other and with experiment...
A compressible, unsteady, full Navier-Stokes, finite difference code was developed for modeling tran...
Steady flow over the leading portion of a multicomponent airfoil section is studied using computatio...
For a computational flow simulation tool to be useful in a design environment, it must be very robus...
An implicit, finite volume code for solving two dimensional, compressible turbulent flows is describ...
A finite-volume code has been written to solve the complete, Reynolds-averaged Navier-Stokes equatio...
Critical to the advancement of computational aerodynamics capability is the ability to simulate flow...
Implicit approximate factorization techniques (AF) were investigated for the solution of matrix equa...
A novel semi-implicit scheme for the Navier-Stokes equations is presented and evaluated. The semi-i...