Aims and Fit of Module

The aim of the module is to introduce students to the fundamentals of crystallography and metallurgy and provide a bridge between microstructure evolution and control to the macroscopic failure mechanisms typically encountered in metal alloys. The module emphasises understanding metal structure, deformation mechanisms, phase diagrams, and alloy behaviour. This module prepares students for advanced topics in materials science by establishing a strong foundation in metal processing and failure analysis.

The module fits into the Materials Science and Engineering programme by equipping students with the critical skills required for metallurgical design and failure prevention in engineering applications.

Learning outcomes

A. Understand the fundamentals of metal crystallography and phase diagrams and apply this knowledge to predict microstructure evolution in alloys.

B. Analyse and explain the deformation mechanisms in metallic materials, such as dislocation movement, slip, and twinning, and their role in influencing material properties.

C. Interpret phase diagrams and relate the constitution of alloys to phase transformations and their effects on alloy performance.

D. Conduct failure analysis of metallic materials, identifying common failure mechanisms such as fatigue, creep, and fracture, and linking these to microstructural features.

Method of teaching and learning

The module is delivered through a combination of lectures and tutorial sessions.

Lectures (2 hours per week): Lectures will introduce theoretical aspects of metal crystallography, deformation, phase diagrams, and failure mechanisms.

Tutorials (2 hours per week): These sessions will focus on problem-solving exercises, case studies, and real-world applications.

Labs (3 sessions): These labs will provide students with hands-on experience in analysing metal behaviour and failure.

Students are expected to engage in independent learning, with time allocated for private study, research, and project work.