# MEng Materials Science and Engineering with Corrosion

Year of entry: 2022

## Course unit details:Mathematics 1G2

Unit code MATH19732 10 Level 1 Semester 2 Department of Mathematics No

### Pre/co-requisites

Unit title Unit code Requirement type Description
Mathematics 1G1 MATH19731 Co-Requisite Compulsory

### Aims

Build on topics from semester 1 to develop the mathematical tools for symbolic and numerical manipulation and analysis required to study materials science at an undergraduate level.

### Learning outcomes

Knowledge and understanding:

• Solve straightforward problems involving vectors, complex numbers, matrices, elementary differentiation, integration and partial differentiation.
• Relate vector notation to directions in a multi-dimensional space.

Intellectual skills:

• Show improved logical reasoning, problem solving and ability in applied mathematics.
• Calculate numerical answers to mathematical problems covered in lectures and tutorials.
• Carry out symbolic manipulations involving trigonometric functions.
• Solve simple systems of first- and second-order partial differential equations.
• Manipulate vectors and matrices.
• Calculate the mean, variance and standard deviation for common distributions of values for a single variable.
• Measure and quantify the correlation between two variables.
• Quantify the uncertainty of a value after mathematical manipulation.

Practical skills:

• Construct Argand diagrams to represent complex numbers.
• Use vectors and matrices in real world settings.
• Model (relevant) scientific and engineering problems using differential equations.
• Apply core concepts from probability and statistics to (relevant) real world problems.

Transferable skills and personal qualities:

• Apply the mathematical techniques covered in this unit to concurrent and subsequent materials science units.
• Convert between units.
• Work effectively in a group to solve problems.

### Syllabus

This unit covers the topics in applied mathematics required to provide the necessary tools to study materials science at an undergraduate level.

The lectures cover:

• Vectors, matrices and their manipulations, including cross and dot products. (4)
• Trigonometry, including simple identities. (3)
• Complex numbers, including their addition and multiplication, their representation in Argand diagrams, and the relationship between complex exponential functions and trigonometric functions. (5)
• Common solutions to first- and second-order ordinary and partial differential equations. (6)
• Probability, standard distributions, variance, standard deviation, regression, correlation  (4)

The tutorials cover typical mathematical problems faced in materials science and revolve around students attempting work in advance.

### Teaching and learning methods

Lectures, example classes, recommended textbooks, web resources, past exam papers, electronic supporting information (Blackboard), peer-assisted study sessions (PASS)

### Assessment methods

Method Weight
Other 30%
Written exam 70%

Exam

Closed-book, unseen examination consisting of six compulsory questions (10 marks each) and a choice of two of three longer questions (20 marks each).

Coursework

6 written or computerised assignments

Mathematical techniques: An introduction for the engineering, physical and mathematical sciences” D.W. Jordan and P. Smith, 1997, 2ed, Oxford University Press: Oxford.

“Engineering mathematics” K.A. Stroud and D.J. Booth, 2007, 6th ed, Palgrave Macmillan: Basingstoke.

“Calculus made easy” S.P. Thompson, 1914, 2ed, MacMillan and Co.: London. (Available free at http://www.gutenberg.org/ebooks/33283)

HELM (Helping Engineers Learn Mathematics), available at http://www.maths.manchester.ac.uk/study/undergraduate/information-for-current-students/service-teaching/helm/

### Study hours

Scheduled activity hours
Lectures 24
Tutorials 11
Independent study hours
Independent study 65

### Teaching staff

Staff member Role
Peter Symonds Unit coordinator