Steady inviscid three-dimensional flows
Abstract
The present analysis combines some of the theoretical concepts suggested by Hawthorne (1955) with a numerical integration procedure suggested by Martin (1978). The resulting algorithm is for inviscid subsonic flows. Thus, it is restricted to high Reynolds number flows. Chang and Adamczyk (1983) have provided a detailed derivation of the present algorithm along with a discussion of its stability bounds. The present paper represents a summary of this work. The integration of the continuity equation is considered along with an evaluation of the entropy, total temperature, and vorticity field. Attention is given to the shear-flow algorithm construction, and an application to a shear flow in a turning channel. A description of numerical results is also provided. The discussed algorithm represents a new procedure for solving inviscid subsonic three-dimensional rotational flows.
- Publication:
-
IN: Advances in computational transonics (A86-20926 08-02). Swansea
- Pub Date:
- 1985
- Bibcode:
- 1985act..book..813A
- Keywords:
-
- Flow Distribution;
- Inviscid Flow;
- Shear Flow;
- Steady Flow;
- Three Dimensional Flow;
- Vorticity;
- Algorithms;
- Finite Difference Theory;
- Iterative Solution;
- Partial Differential Equations;
- Poisson Equation;
- Rotating Fluids;
- Subsonic Flow;
- Tensor Analysis;
- Fluid Mechanics and Heat Transfer