Efficient acceleration techniques typical of explicit steady-state solvers are extended to time-accurate calculations. Stability restrictions are greatly reduced by means of a fully implicit time discretization. A four-stage Runge-Kutta scheme with local time stepping, residual smoothing, and multigridding is used instead of traditional time-expensive factorizations. Some applications to natural and forced unsteady viscous flows show the capability of the procedure
A finite-volume scheme for numerical integration of the Euler equations was extended to allow soluti...
Multi-stage time-stepping schemes, tailored to chosen spatial-differencing operators, are derived an...
A multiple-grid algorithm for use in efficiently obtaining steady solution to the Euler and Navier-S...
A numerical scheme to solve the unsteady Navier-Stokes equations is described. The scheme is impleme...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
The use is considered of a multigrid method with central differencing to solve the Navier-Stokes equ...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
A quasi-three dimensional analysis was developed for unsteady rotor-stator interaction in turbomachi...
The efficiency gains obtained using higher-order implicit Runge-Kutta schemes as compared with the s...
The use of a multigrid method with central differencing to solve the Navier-Stokes equations for hyp...
Reduction of total computing time required by an iterative algorithm for solving Navier-Stokes equat...
A multigrid acceleration technique developed for solving 3-D Navier-Stokes equations for subsonic/tr...
A quasi-three-dimensional analysis has been developed for unsteady rotor-stator interaction in turbo...
A finite-volume scheme for numerical integration of the Euler equations was extended to allow soluti...
Multi-stage time-stepping schemes, tailored to chosen spatial-differencing operators, are derived an...
A multiple-grid algorithm for use in efficiently obtaining steady solution to the Euler and Navier-S...
A numerical scheme to solve the unsteady Navier-Stokes equations is described. The scheme is impleme...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
The use is considered of a multigrid method with central differencing to solve the Navier-Stokes equ...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
Recent progress in Computational Fluid Dynamics is encouraging scientists to look at fine details of...
A quasi-three dimensional analysis was developed for unsteady rotor-stator interaction in turbomachi...
The efficiency gains obtained using higher-order implicit Runge-Kutta schemes as compared with the s...
The use of a multigrid method with central differencing to solve the Navier-Stokes equations for hyp...
Reduction of total computing time required by an iterative algorithm for solving Navier-Stokes equat...
A multigrid acceleration technique developed for solving 3-D Navier-Stokes equations for subsonic/tr...
A quasi-three-dimensional analysis has been developed for unsteady rotor-stator interaction in turbo...
A finite-volume scheme for numerical integration of the Euler equations was extended to allow soluti...
Multi-stage time-stepping schemes, tailored to chosen spatial-differencing operators, are derived an...
A multiple-grid algorithm for use in efficiently obtaining steady solution to the Euler and Navier-S...