Asymptotic solution of the low Reynolds-number flow between two co-axial cones of common apex (Q1062850)
From MaRDI portal
| This is the item page for this Wikibase entity, intended for internal use and editing purposes. Please use this page instead for the normal view: Asymptotic solution of the low Reynolds-number flow between two co-axial cones of common apex |
scientific article; zbMATH DE number 3915862
| Language | Label | Description | Also known as |
|---|---|---|---|
| English | Asymptotic solution of the low Reynolds-number flow between two co-axial cones of common apex |
scientific article; zbMATH DE number 3915862 |
Statements
Asymptotic solution of the low Reynolds-number flow between two co-axial cones of common apex (English)
0 references
1984
0 references
The paper is concerned with the axi-symmetric, incompressible, steady, laminar and Newtonian flow between two, stationary, conical-boundaries, which exhibit a common apex but may include arbitrary angles. The flow pattern and pressure field are obtained by solving the pertinent Navier- Stokes' equations in the spherical coordinate system. The solution is presented in the form of an asymptotic series, which converges towards the creeping flow solution as a cross-sectional Reynolds-number tends to zero. The first term in the series, namely the creeping flow solution, is given in closed form; whereas, higher order terms contain functions which generally could only be expressed in infinite series form, or else evaluated numerically. Some of the results obtained for converging and diverging flows are displaced and they are demonstrated to be plausible and informative.
0 references
convergence to creeping flow solution
0 references
low Reynolds-number
0 references
axi-symmetric flow
0 references
laminar flow
0 references
flow between two, stationary, conical-boundaries
0 references
common apex
0 references
arbitrary angles
0 references
flow pattern
0 references
pressure field
0 references
spherical coordinate system
0 references
asymptotic series
0 references