Next: Introduction to Security
Up: Lent Term 1998: Part
Previous: Prolog for Artificial Intelligence
Lecturer: Dr M.R. O'Donohoe
(mro2@cam.ac.uk)
No. of lectures: 12
Prerequisite course: Numerical Analysis I
- Elementary approximation theory.
-
Polynomial approximation; Taylor series; interpolation; best
approximations; Chebyshev polynomials; Chebyshev series;
economisation; least-squares approximation; the Gram-Schmidt process;
range reduction; square roots; splines.
- Quadrature.
-
Riemann sum rules; calculation of weights; error analysis;
Gaussian quadrature; composite rules; singular integrals;
multi-dimensional integration; standard regions; product rules; Monte
Carlo methods.
- Non-linear equations and optimisation.
-
Non-linear equations in one variable; simple iterative methods;
fixed-point iteration theory; zeros of polynomials; unconstrained
optimisation; Newton methods; steepest descent methods.
- Numerical linear algebra.
-
Calculation of eigenvalues and eigenvectors; effective rank of a
matrix; generalised inverse matrices; singular value decomposition;
matrix norms; condition of linear equations.
- Differential equations.
-
Initial value problems; Euler's method; Runge-Kutta methods;
multistep methods; predictor-corrector methods; stability theory;
stiff systems.
Recommended books:
Conte, S.D. & Boor, C. de (1980). Elementary Numerical Analysis.
McGraw-Hill.
Shampine, L.F., Allen, R.C. Jr & Pruess, S. (1997). Fundamentals of
Numerical Computing. Wiley.
Isaacson, E. & Keller, H.B. (1966). Analysis of Numerical
Methods. Wiley.
Powell, M.J.D. (1981). Approximation Theory and Methods.
Cambridge University Press.
Christine Northeast
Sat Sep 27 09:31:14 BST 1997