INDICATIVE CONTENT
The changes in environmental legislation have triggered an interest in the development and understanding of new and old engineering materials. The challenge across all engineering disciplines is to develop materials knowledge and testing methods that quantify physical properties appropriate to today’s engineering designs.
This module will give you an opportunity to gain introductory knowledge and understanding of engineering materials, their applications and physical properties, which will enable you to have:
• an understanding of the atomic structures, classifications and properties of materials used in engineering applications;
• an ability to describe the effects of manufacturing processes on the behaviour of given materials;
• an understanding of the physical and mechanical properties of materials groups and their associated cost and availability to specify materials for given applications;
• the knowledge of the materials database sources and software packages utilised in engineering industries
Indicative Delivery of Content:
1. Introduction to system of SI units
2. Atomic and electronic structure of materials
3. Bonding in materials
4. Material Group Classification
5. Material Group Physical properties - electrical, thermal, mechanical
6. Introduction to the relationship between structure, processing and properties
ADDITIONAL ASSESSMENT DETAILS
An 1800 words practical laboratory portfolio report weighted at 50%, assessing learning outcomes 2, 3 and 4. Meeting AHEP 4 Outcomes: F3, F7, F13, F17
A 1-hour examination weighted at 50% assessing learning outcome 1. Meeting AHEP 4 Outcome F1
LEARNING STRATEGIES
A total of 48 hours of contact time and guided independent learning will develop and challenge personal learner skills which include but not limited to communication and team work.
LEARNING OUTCOMES
1. Demonstrate knowledge and understanding of basic engineering material classification based on their physical properties, atomic structure and crystallography. (AHEP 4: F1)
Knowledge & Understanding
Analysis
2. żBe able to use information sources and or relevant software to select materials for engineering uses. (AHEP 4: F7, F13)
Application
3. Develop materials science and engineering practical and laboratory skills using relevant training equipment, instrumentations, and processes under supervised technical instructions and comply with the Health and Safety working practices in a laboratory environment. (AHEP 4: F3)
Learning
Application
4. Communicate and reflect on the results of your study/work accurately and reliably and with structured and coherent arguments. (AHEP 4: F17)
Reflection
Communication
RESOURCES
Practical Laboratory and Workshop Facilities
PC Laboratories and Engineering Software – Ansys Granta Edu pack
TEXTS
Ashby, M. et al (2014) Materials: Engineering Science, Processing and Design 3rd Edn, Elsevier, London
Asbby, M., Shercliff, H., and Cebon, D. (2023) Introduction to Materials Science and Engineering: A Design-Led Approach. Netherlands: Elsevier.
Callister, William D., Rethwisch, David G. (2020) Fundamentals of Materials Science and Engineering: An Integrated Approach. United Kingdom: Wiley.
MATWEBs Online Database of Material Properties
WEB DESCRIPTOR
The production of all manufactured goods involves the use of materials and will have some environmental impact. With sustainability a key driver within the Engineering sector and changes to legislation helping reduce the impact on the planet’s natural resources and environment, this Materials Science module will allow you to gain experience in the world of materials and how your decisions as an Engineer can make a significant impact. With the use of software, you will develop the knowledge to make informed choices in your design process and how you can contribute to a more sustainable world.