The structure of nonlinear short-wavelength Taylor vortices in the flow between rotating concentric cylinders is considered. In the short-wavelength limit, the nonlinear vortex motion is governed by a mean-flow-first-harmonic interaction problem. The initial structure of the nonlinear vortex state is shown to be governed by a multilayer structure in which the vortex is constrained to lie between the inner cylinder and a position internal to the flow regime. This position is dependent upon the Taylor number and it is found that there is a critical value of the Taylor number at which the vortex first impinges on the outer boundary. The vortex field then develops a double boundary layer structure at both the inner and outer boundary as the Taylor number is increased past this critical Taylor number.
Описание
structure of fully nonlinear Taylor vortices | IMA Journal of Applied Mathematics | Oxford Academic
%0 Journal Article
%1 noauthororeditor
%A Denier, James P.
%D 1992
%J IMA Journal of Applied Mathematics
%K 76d05-incompressible-navier-stokes-equations 76u05-rotating-fluids
%N 1
%P 15-33
%R 10.1093/imamat/49.1.15
%T The structure of fully nonlinear Taylor vortices
%U https://academic.oup.com/imamat/article-abstract/49/1/15/876566?redirectedFrom=fulltext
%V 49
%X The structure of nonlinear short-wavelength Taylor vortices in the flow between rotating concentric cylinders is considered. In the short-wavelength limit, the nonlinear vortex motion is governed by a mean-flow-first-harmonic interaction problem. The initial structure of the nonlinear vortex state is shown to be governed by a multilayer structure in which the vortex is constrained to lie between the inner cylinder and a position internal to the flow regime. This position is dependent upon the Taylor number and it is found that there is a critical value of the Taylor number at which the vortex first impinges on the outer boundary. The vortex field then develops a double boundary layer structure at both the inner and outer boundary as the Taylor number is increased past this critical Taylor number.
@article{noauthororeditor,
abstract = {The structure of nonlinear short-wavelength Taylor vortices in the flow between rotating concentric cylinders is considered. In the short-wavelength limit, the nonlinear vortex motion is governed by a mean-flow-first-harmonic interaction problem. The initial structure of the nonlinear vortex state is shown to be governed by a multilayer structure in which the vortex is constrained to lie between the inner cylinder and a position internal to the flow regime. This position is dependent upon the Taylor number and it is found that there is a critical value of the Taylor number at which the vortex first impinges on the outer boundary. The vortex field then develops a double boundary layer structure at both the inner and outer boundary as the Taylor number is increased past this critical Taylor number.},
added-at = {2019-11-22T23:44:03.000+0100},
author = {Denier, James P.},
biburl = {https://www.bibsonomy.org/bibtex/266ffe051440d555a23816b6997b8a7d4/gdmcbain},
description = {structure of fully nonlinear Taylor vortices | IMA Journal of Applied Mathematics | Oxford Academic},
doi = {10.1093/imamat/49.1.15},
interhash = {a57fe5df2ebf5cf0fc3375345bfe3f1c},
intrahash = {66ffe051440d555a23816b6997b8a7d4},
journal = {IMA Journal of Applied Mathematics},
keywords = {76d05-incompressible-navier-stokes-equations 76u05-rotating-fluids},
number = 1,
pages = {15-33},
timestamp = {2019-11-22T23:44:03.000+0100},
title = {The structure of fully nonlinear Taylor vortices},
url = {https://academic.oup.com/imamat/article-abstract/49/1/15/876566?redirectedFrom=fulltext},
volume = 49,
year = 1992
}