SMA3116 Course Outline
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7/21/2019 SMA3116 Course Outline
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NATIONAL UNIVERSITY OF SCIENCE AND TECHNOLOGY
Faculty of Applied Sciences
Department of Applied Mathematics
Semester I 2012/2013
SMA 3116 Engineering Mathematics IV
Lecturer: Mr H. Nare
Course Pre-requisites: SMA1116, SMA1216, SMA2116
Lecture times: Tue & Fri 13:00 to 15:00 Hrs
Course outline
Description
This course introduces engineering students to partial differential equations, their solution
using the method of separation of variables, to the power series solution of ordinary
differential equations and to special functions, and to numerical methods for equation
solution, curve fitting, differentiation, integration and the solution of ordinary differentialequations.
Performance objectives
On completion of the course students should be able to:
- solve simple partial differential equations by direct integration or by the use of thetechniques of ordinary differential equations
- solve eigenvalue and eigenfunction problems that arise in simple boundary value
problems- use the method of separation of variables to solve boundary value problems with
the Laplace, Diffusion and Wave equations
- use the power series method to solve ordinary differential equations in theneighbourhood of an ordinary point
- identify and classify the singular points of an ordinary differential equation
- use the method of Frobenius to solve ordinary differential equations in the
neighbourhood of an regular singular point- solve Bessel’s equation and others to identify a solution as a particular special
function
- understand the concept of different types of error encountered in numerical
methods- understand and use a variety of methods, including iteration and Newton’s, to find
the roots of an equation
- understand and use a variety of methods to fit a curve to a set of points
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- understand and use a variety of methods, including the Three Point Method, to
differentiate a function of one variable
- understand and use a variety of methods, including Simpson’s rule, to evaluate
definite integrals
Course Outline
Chapter OneOrdinary Differential Equations (6 Lectures)
Power series solutions
Singular points
Frobenius method
Special functions and their properties
Legendre polynomials
Bessel functions
Chapter TwoPartial Differential Equations (3 Lectures)
Solution of partial differential equations
The wave equation
The one dimensional heat flow problem
Method of separation of variables
Chapter Three
Numerical Methods (11 Lectures)
Errors, relative and absolute
The solution of non-linear equations
The solution of linear systems Interpolation and polynomial approximation
Curve fitting
Numerical differentiation and integration
Approximate solution of differential equations
Test One-Chapter One and Two
Test Two-Chapter Three
Assessment
Coursework: 25%, via 2 tests – one on Partial Differential Equations and Power Seriesmethods, the other on numerical methods and two assignments.
Examination: 75%. A compulsory Section A of 40 marks, with a choice of questions in
Section B – of which 3 should be answered contributing 20 marks each.
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Text Books
1. Boyce W.E., and DiPrima R.C. (2004). Elementary Differentrial Equations and
Boundary Value Problems. Eighth edition. John Wiley and Sons.
2. Burden R.L., and Douglas Faires L. (2000). Numerical Analysis. 7th Edition.
Brooks Cole.
3. DiBenedetto E. (2009). Partial Differential Equations. 2nd Edition. Birkhauser
Boston.
4. Drabek P., and Holubova G. (2007). Elements of Partial Differential Equations.
Walter de Gruyter, Boston and New York.
5. Edwards H., and Penney D. (2004). Elementary Differential Equations withBoundary Value Problems. Prentice-Hall, Inc.
6. O’Neil P.V.
(2008). Beginning Partial Differential Equations. 2
nd
Edition. JohnWiley and Sons.
7. Tennenbaum M., and Pollard H. (1985). Ordinary Differential Equations.
Dover Publications.