This module focuses advancing your capability to deliver highly innovative engineering solutions and high-performance engineering solutions through systems-based design. The module integrates analytical modelling, simulation tools and performance evaluation to improve your ability to deliver technically rigorous decisions across mechanical and multidisciplinary systems. We emphasise optimisation, manufacturability and evidence-based design validation. By using collaborative project work the module will strengthen your ability to translate complex engineering challenges into robust, efficient and commercially viable mechanical solutions.
This module delivers training that will enable you to develop advanced understanding of robotics, machine learning and artificial intelligence. Key aspects of this broad portfolio include, integrating perception, control, optimisation and intelligent decision-making. During the module you will explore mathematical and computational foundations including kinematics and dynamics and motion planning. We cement this classroom learning with supervised and unsupervised laboratory practical work. This practical work involves algorithm development and system simulation using industry-standard tools. By the end of the module, you will have a keen understanding of how to complete performance evaluation and system integration within automated engineering environments.
This module is focused on developing the tools required to examine solid mechanics through rigorous analytical and computational modelling. This will enable you to evaluate structural behaviour under complex loading using classical theory and Finite Element Analysis (FEA). The module emphases the critical path that is placed on systematic problem-solving, performance optimisation and modelling integrity in advanced mechanical systems. Upon completion of the module, you will have developed the expertise required to integrate simulation into high-level design processes, ensuring structural efficiency and reliability in demanding engineering applications.
A key outcome of this module is the ability to analyse thermodynamic and fluid dynamic processes within modern energy and high-performance mechanical systems. You will gain experience in evaluating heat transfer, combustion and renewable technologies using industry relevant analytical and computational approaches. During the module emphasis is placed on system efficiency, environmental performance and optimisation of power-producing devices, this enables you to strengthen your ability to assess and enhance complex thermal systems within advanced engineering environments.
The MSc Project is a substantial independent investigation that allows you to explore a complex engineering challenge in depth. Working with academic supervision, you will integrate knowledge from across your programme to deliver a rigorous piece of research, design or technical development. The project strengthens analytical capability, independent thinking and professional communication skills, preparing you for advanced industry roles or doctoral study.
