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Module Availability |
Autumn / Spring |
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Assessment Pattern |
Unit(s) of Assessment
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Weighting
Towards Module %
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Autumn class tests (2)
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20
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Autumn exam
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30
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Spring class test
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13
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Spring exam
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37
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Qualifying Condition(s)
A weighted aggregate mark of 40% is required to pass this module.
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Module Overview |
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Prerequisites/Co-requisites |
None |
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Module Aims |
This module provides techniques, methods and practise in manipulating mathematical expressions using algebra and calculus, building on and extending the material of A-level syllabus. |
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Learning Outcomes |
At the end of the course a student should have revised strongly reinforced the skills found in the A-level syllabus and should be able to:
- Understand set notation and know the basic properties of real and complex numbers;
- Analyse and manipulate functions and sketch the graph of a function in a systematic way;
- Differentiate functions by applying standard rules;
- Obtain Taylor & Maclaurin series expansions for a variety of functions;
- Evaluate integrals by means of substitution, integration by parts and partial functions;
- Apply differentiation and integration techniques to a variety of theoretical and practical problems;
- Appreciate that a periodic function can be represented as a sum of sinusoids and compute the coefficients in simple cases;
- Show a good understanding of partial derivatives and the operators div, grad and curl, their propertied and applications;
- Appreciate techniques for optimising a function of more that one variable, and why they are more complex than A-level techniques;
- Appreciate the notation, techniques and applications of multiple integration and the integral theorems of Green, Gauss and Stokes.
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Module Content |
Single Variable Calculus:
- Algebraic manipulation. Partial fractions.
- Complex numbers: Cartesian, exponential and polar forms. Argand diagrams. Complex exponentials, Euler’s formula and de Moivre’s theorem. Functions of a complex variable.
- Standard functions: exponential, logarithmic, trigonometric and hyperbolic functions.
- Manipulations with functions; odd, even and periodic functions. Limits.
- Techniques and applications of differentiation. l’Hôpital’s rule.
- Power series, convergence tests, Taylor and Maclaurin series
- Parametric and implicit functions: graphs and curve sketching
- Techniques of integration; reduction formulae; arc length, area of surfaces and volumes of revolution.
- First order ODEs on the line. Separation of variables. Integrating factors for linear first order equations. Homogeneous equations. Initial value problems.
- Second order linear ODEs with constant coefficients.
- Introduction to real and complex Fourier series.
Vector functions of a scalar:
- Rules for differentiation of vector functions of scalar.
Calculus in 2 dimensions:
- Partial differentiation
- Chain rule
- Classification of stationary points for functions of two variable
- Double integrals
- Change of variable formula for double integrals
- Conversion to polar coordinates
Calculus in 3 dimensions:
- Cylindrical and spherical polars.
- Triple integrals
- The grad operator and its properties
- Method of Lagrange multipliers
- Gradient as normal to a surface
- Tangent plane to a surface
- Line integrals
- Green’s theorem
- The div and curl operators.
- Gauss and Stokes Theorems and applications
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Methods of Teaching/Learning |
Teaching is by lectures, tutorials and tests. Learning takes place
through lectures, tutorials, tests and exercise sheets:
40 hours of lectures and tutorials over 11 weeks in the Autumn semester.
40 hours of lectures and tutorials over 11 weeks in the Spring Semester. |
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Selected Texts/Journals |
Reading:
Susan J. Colley : Vector Calculus, Pearson / Prentice Hall (2005), ISBN 0131858742.
J. Gilbert and C. Jordan : Guide to Mathematical Methods, Palgrave Macmillan (2002), ISBN 0333794443.
Further Reading:
Steven G. Krantz : Calculus Demystified, McGraw-Hill (2002), ISBN 0071393080.
Robert A. Adams : Calculus – A Complete Course (5th Ed.), Addison-Wesley (2002), ISBN 0201791315.
K. Stroud : Engineering Mathematics (5th Ed.), Palgrave Macmillan (2001), ISBN 0333919394. |
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Last Updated |
21 March 2011 |
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