The secondary flow of an incompressible fluid and of a perfect gas in a rotating cylinder is considered, by applying a linearised analysis to a small perturbation on the isothermal state of rigid body rotation. In chapter 2 we apply an order of magnitude consideration to the linerised dimensionless conservation equations. In section 2.1 the incompressible fluid is treated assuming a small Ekman number E based on the radius of the cylinder. The importance of the various viscous terms is investigated increasing the length-to-radius ratio L from unit magnitude to infinity. As a result, three types of flow can be distinguished which correspond to the L-ranges: E ~ /
The potential function for flow, with circulation, of a compressible fluid about a circular cylinder...
This work concerns the steady, incompressible flow around a semi-infinite, rotating cylinder and its...
This paper describes a study of the spin-up of a free-surface fluid in a rectangular container in wh...
The secondary flow of an incompressible fluid and of a perfect gas in a rotating cylinder is conside...
The effects of rotation on the convective heat transfer and flow structuring in a cylindrical volume...
The thesis is divided into four chapters. Chapter I gives a brief résumé of the state of rotational ...
A new model for the behaviour of a thick, two-dimensional layer of fluid on the surface of a rotatin...
A computer model for the withdrawl and buildup of the fluid from the pool bounded on the horizontal,...
Nonlinear spin-up in a circular cylindrical tank is investigated experimentally and compared with th...
The work of this thesis was undertaken to apply a method of analysis not previously applied to the p...
ASME 2006 Pressure Vessels and Piping/ICPVT-11 ConferenceVolume 4: Fluid Structure Interaction, Part...
The time-dependent motion of fluid in a circular tank with a radial barrier as a result of an increa...
summary:In the present note the unsteady motion around a cylinder in an infinite viscous medium is s...
The high Reynolds number (Re) flow past a rapidly rotating circular cylinder is investigated. The ro...
The drag on an axisymmetric body rising through a rotating fluid of small viscosity rotating about a...
The potential function for flow, with circulation, of a compressible fluid about a circular cylinder...
This work concerns the steady, incompressible flow around a semi-infinite, rotating cylinder and its...
This paper describes a study of the spin-up of a free-surface fluid in a rectangular container in wh...
The secondary flow of an incompressible fluid and of a perfect gas in a rotating cylinder is conside...
The effects of rotation on the convective heat transfer and flow structuring in a cylindrical volume...
The thesis is divided into four chapters. Chapter I gives a brief résumé of the state of rotational ...
A new model for the behaviour of a thick, two-dimensional layer of fluid on the surface of a rotatin...
A computer model for the withdrawl and buildup of the fluid from the pool bounded on the horizontal,...
Nonlinear spin-up in a circular cylindrical tank is investigated experimentally and compared with th...
The work of this thesis was undertaken to apply a method of analysis not previously applied to the p...
ASME 2006 Pressure Vessels and Piping/ICPVT-11 ConferenceVolume 4: Fluid Structure Interaction, Part...
The time-dependent motion of fluid in a circular tank with a radial barrier as a result of an increa...
summary:In the present note the unsteady motion around a cylinder in an infinite viscous medium is s...
The high Reynolds number (Re) flow past a rapidly rotating circular cylinder is investigated. The ro...
The drag on an axisymmetric body rising through a rotating fluid of small viscosity rotating about a...
The potential function for flow, with circulation, of a compressible fluid about a circular cylinder...
This work concerns the steady, incompressible flow around a semi-infinite, rotating cylinder and its...
This paper describes a study of the spin-up of a free-surface fluid in a rectangular container in wh...