The three-dimensional problem of transonic flow about lifting wing-body configurations is reduced to a two-variable computational problem with the method of matched asymptotic expansions. The computational problem is solved with the method of relaxation. The method accounts for leading-edge separation, the presence of shock waves, and the presence of solid, slotted, or porous tunnel walls. The Mach number range of the method extends from zero to the supersonic value at which the wing leading edge becomes sonic. A modified form of the transonic area rule which accounts for the effect of lift is developed. This effect is explained from simple physical considerations
Results computed by a finite-difference, relaxation algorithm are presented for the supercritical fl...
The design of shockless airfoils that are appropriate for experimental work on a supersonic transpor...
Analytical and empirical studies of a finite difference method for the solution of the transonic flo...
An analytical solution was obtained for the perturbation velocity potential for transonic flow about...
Procedures based on the method of local linearization and transonic equivalence rule were developed ...
Theoretical analysis and associated computer programs were developed for predicting properties of tr...
The problem of determining the small-disturbance flow about two-dimensional airfoils at transonic sp...
A numerical method is presented for analyzing the transonic potential flow past a lifting, swept win...
Unsteady transonic flow calculations are presented for aerodynamically interfering lifting surface c...
Lift dominated pointed aircraft configurations are considered in the transonic range. These are trea...
The ability of the method to compute wing transonic performance was determined by comparing computed...
A relaxation method is described for the numerical solution of the transonic small disturbance equat...
The method of superposition of linearized conical flows has been applied to the calculation of the a...
A means of performing routine transonic lift, drag, and moment analyses on hypersonic all-body and w...
The widely transonic swept-wing code, FL022, was found to have an error in the transformed flow equa...
Results computed by a finite-difference, relaxation algorithm are presented for the supercritical fl...
The design of shockless airfoils that are appropriate for experimental work on a supersonic transpor...
Analytical and empirical studies of a finite difference method for the solution of the transonic flo...
An analytical solution was obtained for the perturbation velocity potential for transonic flow about...
Procedures based on the method of local linearization and transonic equivalence rule were developed ...
Theoretical analysis and associated computer programs were developed for predicting properties of tr...
The problem of determining the small-disturbance flow about two-dimensional airfoils at transonic sp...
A numerical method is presented for analyzing the transonic potential flow past a lifting, swept win...
Unsteady transonic flow calculations are presented for aerodynamically interfering lifting surface c...
Lift dominated pointed aircraft configurations are considered in the transonic range. These are trea...
The ability of the method to compute wing transonic performance was determined by comparing computed...
A relaxation method is described for the numerical solution of the transonic small disturbance equat...
The method of superposition of linearized conical flows has been applied to the calculation of the a...
A means of performing routine transonic lift, drag, and moment analyses on hypersonic all-body and w...
The widely transonic swept-wing code, FL022, was found to have an error in the transformed flow equa...
Results computed by a finite-difference, relaxation algorithm are presented for the supercritical fl...
The design of shockless airfoils that are appropriate for experimental work on a supersonic transpor...
Analytical and empirical studies of a finite difference method for the solution of the transonic flo...