An explicit multistage Runge-Kutta type of time-stepping scheme is used for solving transonic flow past a transport type wing/fuselage configuration. Solutions for both Euler and Navier-Stokes equations are obtained for quantitative assessment of boundary layer interaction effects. The viscous solutions are obtained on both a medium resolution grid of approximately 270,000 points and a find grid of 460,000 points to assess the effects of grid density on the solution. Computed pressure distributions are compared with the experimental data
Recent experience in calculating unsteady transonic flow by means of viscous-inviscid interactions w...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
A full Navier-Stokes solver has been used to model transonic flow over three airfoil sections. The m...
Computational fluid dynamics has an increasingly important role in the design and analysis of aircra...
An explicit multi-stage Runge-Kutta time-stepping scheme with cellcentred finite volume spatial disc...
A computer analysis was developed for calculating steady (or unsteady) three-dimensional aircraft co...
A finite-volume scheme for numerical integration of the Euler equations was extended to allow soluti...
The objective of this study was to develop a high-resolution-explicit-multi-block numerical algorith...
The current capabilities and the future plans for a three dimensional Euler Aerodynamic Method are d...
The two-dimensional (2-D) and three-dimensional Navier-Stokes equations are solved for flow over a N...
The 1980s may well be called the Euler era of applied aerodynamics. Computer codes based on discrete...
Vortex flows on a twin-tail and a single-tail modular transonic vortex interaction (MTVI) model, rep...
Representative examples are presented of applications and development of advanced Computational Flui...
AbstractTo compute transonic flows over a complex 3D aircraft configuration, a viscous/inviscid inte...
The viscous, transonic flow development around the SKF 1.1 supercritical aerofoil section, in clean ...
Recent experience in calculating unsteady transonic flow by means of viscous-inviscid interactions w...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
A full Navier-Stokes solver has been used to model transonic flow over three airfoil sections. The m...
Computational fluid dynamics has an increasingly important role in the design and analysis of aircra...
An explicit multi-stage Runge-Kutta time-stepping scheme with cellcentred finite volume spatial disc...
A computer analysis was developed for calculating steady (or unsteady) three-dimensional aircraft co...
A finite-volume scheme for numerical integration of the Euler equations was extended to allow soluti...
The objective of this study was to develop a high-resolution-explicit-multi-block numerical algorith...
The current capabilities and the future plans for a three dimensional Euler Aerodynamic Method are d...
The two-dimensional (2-D) and three-dimensional Navier-Stokes equations are solved for flow over a N...
The 1980s may well be called the Euler era of applied aerodynamics. Computer codes based on discrete...
Vortex flows on a twin-tail and a single-tail modular transonic vortex interaction (MTVI) model, rep...
Representative examples are presented of applications and development of advanced Computational Flui...
AbstractTo compute transonic flows over a complex 3D aircraft configuration, a viscous/inviscid inte...
The viscous, transonic flow development around the SKF 1.1 supercritical aerofoil section, in clean ...
Recent experience in calculating unsteady transonic flow by means of viscous-inviscid interactions w...
A class of explicit multistage time-stepping schemes is used to construct an algorithm for solving t...
A full Navier-Stokes solver has been used to model transonic flow over three airfoil sections. The m...