Advanced Mechanical Engineering Masters/MSc

This course consists of:

• 120 credits of taught modules studied during October-April
• 60 credits of project-based module carried out during June-September
• Assessment methods include a range of examinations, assignments and projects

The programme will include 9 subject-specific technical modules of 10 credits each covering vehicle engineering, mechanics, thermal systems, energy, computational geometry, manufacturing processes, robotics, biomechanics, and micro electro-mechanical systems. The latter part of the programme will include a 60 credit summer project module. The project can either be based at the University, or be carried out in industry.

• Research & Professional Skills - 10 credits
• Integrated Design Project - 20 credits
• Advanced Project - 60 credits

Select 90 credits of options. Examples of optional modules listed below:

• Advanced Mechanics - 10 credits
  The aim of the module is to enhance a students knowledge and understanding of the mathematics and scientific principles related to mechanics. To also develop their ability to apply this knowledge in a number of advanced topics.
• Robotics for Mechanical Engineers - 10 credits
  This module considers the specific concepts for describing robotic systems in a physical world. It evaluates the main concepts and tools for modelling and controlling dynamic robots. It covers robot kinematics, dynamics, and control.
• Advanced Thermal Systems - 10 credits
  The aim of the module is to provide the opportunity for the students to study advanced aspects of thermal systems phenomena and to apply their CAE skills on a project that requires the integration of knowledge and skills accumulated over the whole programme of study, with substantial content of creating own engineering software.
• Advanced Vehicle Engineering - 10 credits
  The aim of the module is to introduce the student to aspects of vehicle chassis design with particular emphasis on body structure design, giving consideration to external styling, packaging, vehicle interior design and vehicle safety.
  It will provide the student with a basic understanding of the dynamics of vehicle systems affecting vehicle handling, leading to the development and application of analytical models and commercial software tools, and to the design of vehicle systems
• Industrial Automation and Robotics - 10 credits
• Bio-Medical Engineering - 10 credits
  The aim of the module is to give an overview of how mechanical engineering can be applied to medicine. The following topics will be used to illustrate how mechanical engineers can apply their skills and knowledge in medicine: Physiological systems; Biological systems & structures; Bone & connective tissues; Failure of connective tissues; Biomechanics; Computational methods; Model validation; Medical Device Design; Fracture fixation; Joint replacement; Tribology of joints; Pre-clinical testing.
• Laser-based Manufacturing - 10 credits
  The aim of the module is to enhance the students' knowledge and understanding in the field of laser material processing and the integration of this technology in application specific manufacturing platforms/machines. It will provide the necessary ability to design and implement laser-based manufacturing solutions by applying theoretical and practical knowledge about the fundamentals of laser-material interactions, process monitoring, component technologies/systems of laser-based manufacturing platforms and application specific implementations of different machine configurations and beam delivery systems.
• Micro and Nano Technologies - 10 credits
  The aim of the module is to introduce students to the important micro and nano technologies of particular relevance to micro electro mechanical systems (MEMS). Students will be introduced to the manufacturing processes developed in the micro and nanofabrication industry, and also to the processes proposed for the future. They will then see how these processes are currently being used to produce a wide range of miniature sensors and transducers which, in turn, will lead to the development of many new smart materials and applications.
• Process Modelling - 10 credits
  The aim of the module is to expose the students to the practical aspects of process modelling using proprietary software for the modelling of casting processes.
• R&D in Manufacturing Processes - 10 credits
  The aim of the module is to give students an appreciation of research developments and acquaint them with the latest manufacturing process/technology results applicable to a range of industries, not least the aerospace sector.
• Intelligent Systems - 10 credits
  From biological nervous systems to the collective intelligence of social insects, Nature has developed a number of highly effective problem-solving techniques.
  The course will introduce the basic concepts of approximate reasoning, collective and decentralised intelligence, and present a number of cutting edge nature-inspired Swarm Intelligence paradigms, as well as well-established techniques such as Evolutionary Algorithms, Simulated Annealing, Neural Networks, and Fuzzy Logic.
  Applications will include a broad range of engineering problems in optimisation, control, and process modelling.
• Machining Support Systems - 10 credits
  The aim of the module is to consider the specific programming strategies, tooling, data acquisition and control technologies to support modern machining systems.
• Advanced Fuels and Powertrain Systems - 10 credits
  The aim of the module is to provide you with the opportunity to study advanced aspects of clean and sustainable engine combustion systems and to apply their CAE skills on a project.

Please note: The modules listed on the website for this programme are regularly reviewed to ensure they are up-to-date and informed by the latest research and teaching methods.