MA34610 - HYDRODYNAMICS II

Module Identifier	MA34610
Module Title	HYDRODYNAMICS II
Academic Year	2002/2003
Co-ordinator	Dr David M Binding
Semester	Semester 1
Pre-Requisite	MA25610
Course delivery	Seminars / Tutorials	3 x 1 hour example classes
	Lecture	19 x 1 hour lectures
Assessment	Semester Exam	2 Hours	100%
	Supplementary Assessment	2 Hours	100%

Learning outcomes

On completion of the module, a student should be able to:

Determine the stream function for the flow of an inviscid fluid past body;
Determine the velocity potential for an irrrotational flow;
Establish Blasius's equation and apply it to the flow past various shapes, including aerofoils;
Calculate image systems and apply them to the determination of flow past bodies;
Determine complex potential functions of incompressible irrotational fluid flows.

Brief description

This module continues the development of fluid mechanics, begun in MA25610, and deals in particular with the theory of two-dimensional motion and aerofoil theory.

Aims

To continue with the development of fluid mechanics, in particular the theory of two-dimensional motion and aerofoil theory, and to relate it to many natural and everyday events: why an aeroplane in flight is able to defy gravity, why the shower curtain always seems to envelope us like a triffid, why we need to keep windows open in the typhoon season.

Content

Stream functions in two- and three-dimensional hydrodynamics.
Complex variable techniques in two-dimensional hydrodynamics: method of images.
Conformal transformations; Joukowski transformation; Schwarz-Christoffel transformation.
Blasius's theorems for the force and moment on a body in a stream.
Applications to aerofoil theory.

Reading Lists

Books
** Essential Reading
D E Rutherford. (1966) Fluid Dynamics. Oliver and Boyd X27011380X
A R Paterson. (1983) A first course in fluid dynamics. Cambridge 0521274249
** Supplementary Text
A S Ramsey. (1960) A Treatise on Hydrodynamics Part II: Hydrodynamics. Bell X240524076
G Sutton. (1965) Mastery of the air: an account of the science of flight. Hodder and Stoughton B6516618