Department of Mathematics | ||||
Credits: 10 | Convenor: Dr. A. E. Henke | Semester: 1 (weeks 1-6) |
Prerequisites: | essential: MA1151 | |
Assessment: | Individual and group coursework: 20% | One and a half hour hour exam: 80% |
Lectures: | 18 | Problem Classes: | 5 |
Tutorials: | none | Private Study: | 47 |
Labs: | none | Seminars: | none |
Project: | none | Other: | none |
Surgeries: | 5 | Total: | 75 |
To understand, reconstruct and apply the main results and proofs covered in the module.
To know the definition of convergence for infinite series, and test for convergence using standard tests.
To know the formal definitions of differentiation and Riemann integration.
Basic mathematical analysis.
This module deals with differentiation and integration of real-valued functions. It puts these notions on a firm footing with rigorous definitions, and it provides tools to handle complicated functions such as , or which are used extensively in many parts of mathematics and its applications. The approach is based on approximating such functions by easier ones. For example, it is easy to differentiate or integrate polynomials. Thus, if we can approximate a function by polynomials, we will have a chance to handle this function as well. Such an approximation is based on Taylor's theorem which allows us to express some functions as convergent power series, i.e. certain sequences of polynomials.
Therefore, much of the course is devoted to studying sequences and series and to develop criteria for their convergence. Applying the results to problems of differentation and integration one obtains both a rigorous theory and useful practical tools.
Differentiation:
Local maximum and minimum, Rolle's theorem, Mean Value Theorem, differentiation of power series, Taylor's series and theorem.
Sequences:
Subsequences, Bolzano-Weierstrass Theorem, Cauchy sequences.
Series:
Infinite series, geometric series, harmonic series, comparison test, ratio test, alternating series, conditional convergence, sums and products of series, power series, radius of convergence.
Integration:
Dissection of an interval, upper and lower sums, refinement, upper and lower integrals, integrable functions, fundamental theorem of calculus, limitations of the theorem of Riemann integration.
R. Haggarty, Fundamentals of Mathematical Analysis, Adison Wesley.
M. Spivak, Calculus, Benjamin-Cummings.
D. Stirling, Mathematical Analysis: a fundamental and straightforward approach, Ellis Horwood.
Author: C. D. Coman, tel: +44 (0)116 252 3902
Last updated: 2004-02-21
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This document has been approved by the Head of Department.
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