Electro-Mechanical Engineering BEng

The module address topics of advanced electro-mechanical engineering, the focus is on real-time control, including state-estimation and mapping. Applications are made to different types of system such as drones and augmented reality and active control systems. Attention is given to a range of input systems and how signals are processed to produce and output strategy.

The purpose of this module is to study the various aspects of statics and dynamics in modern engineering components and systems. This includes: comparison and selection of analytic techniques for investigating the static and dynamic behaviour of engineering systems and components; and design of engineering component with optimal static and dynamic characteristics.

An introductory study of control technology, covering both digital and analog control using electronic systems, including design using models created in MATLAB and SIMULINK.

Students study the electronic and electrical systems , this includes the impact that these systems have on their performance and recent developments in their design.

To provide an overview of the electrical machines and drives that are relevant to Electro-Mechanical and Robotic Engineering, with deeper insight where appropriate. Consideration will be given to different prime movers, methods of transferring the drive and to their control.

To provide an overview of power systems as relevant to electro-mechanical engineering. Specific attention will be given to power storage, power modulation systems for various engineering applications, including electric vehicles. Engineering Project This module provides students with the opportunity to undertake individual investigative work on an electro-mechanical-related topic. It enables students to carry out a detailed study of a realistic engineering problem. The resulting project extends substantially beyond the project work done in any of the taught modules and should enable students to consolidate their knowledge and strengthen skills acquired in taught modules.

You will be encouraged to undertake a work placement for one year between the second and final years of your course. Placements are highly valued by prospective employers, as they recognise the benefits of obtaining industrial experience. Our work placement programme has been commended by professional bodies as a model of excellence. We have an excellent record of students gaining full-time employment on graduation with their industrial placement-year company. Students will typically have to arrange their own accommodation during their placement year and will have to cover their own transport and living costs. Previous students have gained placements with companies such as: Bentley; Black and Decker; BMW; CTG; Cummins Ltd; Delphi Diesel Systems; EP Barrus; Norbar Torque Tools; Rolls-Royce; Wheelright Ltd.

This module aims to provide you with a wide understanding of the broader issues facing business and society, and it will provide an understanding of the three pillars of sustainability in a management context. Business refers to these pillars of sustainability as the triple bottom line, whilst many people view this more holistically as moving towards the circular economy. The principal areas studied in this module are: project management and business leadership; energy and environmental issues; sustainable engineering and whole life cycle assessment; ethics and social aspects of employment.

This module covers the operation and use of sensors and data loggers, including their practical limitations, errors, calibration, and how they are actually set up and connected, and how to process, read and use the data produced.

This module extends the fundamental knowledge obtained in a Foundation Degree of advanced analogue electronics up to Honors level. It enables the student to be able to design and analyse circuits so that projects can be successfully undertaken.

The purpose of this module is to provide a more detailed background to common machine elements and components, to enable design, selection and modelling in advanced design and project work. The components covered are gears, including epicyclic, planetary and helical gears; friction drives, rolling element bearings and hybrid drives; the kinematics of contacts, particularly in rotating machinery.

The module addresses topics of advanced mechatronics and offers a distinctive electro-mechanical based contribution to the student experience. The aim is for the student to firstly learn the landscape of the mechatronics approach and then to become proficient in the application of mechatronic principals to a representative range of applications. The equivalence of electrical and mechanical systems is explored in the framing of equilibrium equations and this is then applied.