The overall objective of this course is to add value to your first degree and previous relevant experience by developing a focused, integrated and critically aware understanding of underlying theory and current policy and practice in the field of control systems engineering.
The course is control systems focused, with the emphasis on control systems theory together with a range of control applications including industrial control (SCADA), intelligent control, flight control and robotic control. The control systems approach provides continuity in learning throughout the one year of study.
This course has been awarded accredited status by both the Royal Aeronautical Society (RAeS) and the Institution of Mechanical Engineers (IMechE) for 2010 to 2014 intake cohorts as meeting the exemplifying academic benchmark for registration as a Chartered Engineer (CEng) for students who also hold an accredited BEng Honours degree. Candidates who do not hold an appropriately accredited BEng Honours degree will gain partial exemption for CEng status; these candidates will need to have their first qualification individually assessed if they wish to progress onto CEng registration.
Professional registration and Institution membership will enhance your career in the following ways:
On completion of the course you should have a critical awareness and understanding of current problems in control engineering, techniques applicable to research in the field of control systems and how established techniques of research and enquiry are used to create and interpret knowledge in the field of control systems. You should also be able to deal with complex issues both systematically and creatively, make sound judgments in the absence of complete data, and communicate your conclusions clearly to specialist and non-specialists.
Teaching will be delivered through a combination of lectures, tutorials, computer workshops and laboratory activities.
Mechanical Lab – This lab is used to understand material behaviour under different loading conditions and contains a tensile test machine and static loading experiments – typical laboratory sessions would include tensile testing of materials and investigation into the bending and buckling behaviour of beams.
Aerodynamics Lab – Contains low speed and supersonic wind tunnels – typical laboratory experiments would include determining the aerodynamic properties of an aerofoil section and influence of wing sweep on the lift and drag characteristics of a tapered wing section.
Composite Material Lab – This lab contains wet lay-up and pre-preg facilities for fabrication of composite material test sections. The facility is particularly utilised for final year project work.
Control & Dynamics Lab – Contains flight simulators (see details below) and programmable control experiments – typical laboratory sessions would include studying the effects of damping and short period oscillation analysis, forced vibration due to rotating imbalance, and understanding the design and performance of proportional and integral controllers.
Merlin MP520-T Engineering Simulator
Elite Flight Training System
A wide range of control and automation opportunities in manufacturing and engineering companies, opportunities in the aerospace sector.
There are opportunities to go on to further research study within our CASE control and Intelligent Systems Research Centre.
Research themes in the Centre include:
This programme is structured around topics in systems and signal processing, with specialisms in control and systems theory, image processing and machine learning. Skills developed are sought after by industry (biotech, financial services, systems engineering, medical imaging, etc) and the academic research community. The modules have a high mathematical content and much of the material is computationally based, developing strong transferable skills in algorithmic development and programming.
Semester one: Signal Processing; Control System Design; Machine Learning; Computer Vision.
Semester two: Advanced Systems and Signal Processing; Digital Control System Design; Applied Control Systems; Biological Inspired Robotics; Advanced Computer Vision; Image Processing; Advanced Machine Learning; Computational Finance; Computational Biology; Biometrics.
Plus three-month independent research project culminating in a dissertation.
Automation, control and robotics are pervasive enabling technologies found in almost every modern technical system, particularly in manufacturing and production. They combine the diverse and rapidly expanding disciplines of automation, control, mechanics, software and signal processing.
This course is ideal if you wish to develop comprehensive knowledge and understanding of • classical and modern control theory • industrial automation • systems analysis • design and simulation • robotics.
You gain the ability to apply principles of modelling, classical and modern control concepts and controller design packages in various areas of industry. You also learn how to design and exploit automation and robotic systems in a range of manufacturing and industrial applications.
The course has six core modules which cover the major aspects of industrial automation and control systems engineering and robotics, ranging from classical linear control system design to non-linear, optimal and intelligent control systems, including distributed control systems, robotics, computer networks and artificial intelligence.
You also choose two optional modules relevant to automation and control to suit your interests. For example, if you wish to work in the manufacturing industry you can choose manufacturing systems or machine vision. There is the opportunity to study one or two management modules if you wish to apply yourself to a more managerial role.
To gain the masters you complete a major research-based project, which can be focused on an area of your particular interest or career need.
You work alongside staff from the Electrical, Electronic and Control Engineering Group and the Centre for Automation and Robotics Research (CARR) at Sheffield Hallam. This provides the opportunity to work with active researchers.
This course is seeking accreditation by the Institution of Engineering and Technology (IET) on behalf of the Engineering Council for the purposes of fully meeting the academic requirements for registration as a Chartered Engineer. The MSc will meet, in part, the exemplifying academic benchmark requirements for registration as a Chartered Engineer; graduates who have a BEng (Hons) accredited for CEng will be able to show that they have satisfied the further learning requirement for CEng accreditation.
Choose two from
This course provides you with the knowledge and skills for further advanced study in this area.
You can also apply your skills in an industrial setting for automated manufacturing, control system design, or in the wide range of industries that exploit intelligent robotics. Graduates from this course find career opportunities in areas including • automation and control • process and petrochemical • biomedical • manufacturing • energy • automotive • aerospace.
You can also pursue careers in engineering design and development, engineering research, engineering consultancy and engineering management.
Completing this course combined with further work-based experience enables you to gain Chartered Engineer status.
Renewable energy and cutting carbon emissions now top the global environmental agenda. This programme addresses the fundamentals of renewable energy and shows how solar, wind and other such energy sources can be efficiently integrated into practical power systems.
You’ll study core power engineering topics such as power electronic converters, machines and control alongside modules specific to renewable energy sources, on topics like power system modelling, analysis and power converters.
At the same time, you’ll study a unique set of modules on the efficient generation of electricity from solar and wind power, as well as integrating renewable generators into micro-grids, with stability analysis and active power management. Power electronics design is covered in depth, including conventional and emerging converter topologies and advances in semiconductor power devices.
You’ll be prepared to meet the renewable energy challenges of the 21st century in a wide range of careers.
School of Electronic and Electrical Engineering
Our School is an exciting and stimulating environment where you’ll learn from leading researchers in specialist facilities. These include our Keysight Technologies wireless communications lab, as well as labs for embedded systems, power electronics and drives.
Depending on your choice of research project, you may also have access to our labs in ultrasound and bioelectronics or our Terahertz photonics lab, class 100 semiconductor cleanroom, traffic generators and analysers, FPGA development tools, sensor network test beds. We have facilities for electron-beam lithography and ceramic circuit fabrication – and a III-V semiconductor molecular beam epitaxy facility.
Core modules that run throughout the year will allow you to take part in different lab-based projects and explore different forms of renewable energy as well as how they can be integrated into electricity systems. You’ll also consider how renewable source-powered generations can be integrated into the grid and analysis and design of control systems.
To build your understanding of the global electronics industry, you’ll also complete a dissertation. This could take the form of a business, manufacturing or outsourcing plan, a proposal for research funding or an essay on a specific aspect of the industry.
You’ll complete your studies with three optional modules, selecting one from each of three pairs that cover different topics. If you have no experience of c-programming you’ll take a module that develops those skills, or another focusing on software development. You’ll choose between Power Electronics and Drives and Electric Drives and take another module from Energy Management and Conservation and Energy in Buildings.
Over the summer months you’ll also work on your research project. This gives you the chance to work as an integral part of one of our active research groups, focusing on a specialist topic in power electronics, power engineering and control and selecting the appropriate research methods.
Want to find out more about your modules?
Take a look at the Electrical Engineering and Renewable Energy Systems module descriptions for more detail on what you will study.
Our groundbreaking research feeds directly into teaching, and you’ll have regular contact with staff who are at the forefront of their disciplines. You’ll have regular contact with them through lectures, seminars, tutorials, small group work and project meetings. Independent study is also important to the programme, as you develop your problem-solving and research skills as well as your subject knowledge.
You’ll be assessed using a range of techniques including case studies, technical reports, presentations, in-class tests, assignments and exams. Optional modules may also use alternative assessment methods.
The research project is one of the most satisfying elements of this course. It allows you to apply what you’ve learned to a piece of research focusing on a real-world problem, and it can be used to explore and develop your specific interests.
Recent projects by students on this programme have included:
Renewable energy and efficient power conversion systems are of immense importance worldwide and graduates of this course can expect to find jobs in a wide variety of industries including the electronics, automotive, transport, construction, industrial automation, power utility, energy, oil and environmental sectors.
You’ll be well-placed to develop practical solutions to the problem of integrating renewable energy systems into established electricity distribution networks. You should be able to contribute to strategic planning, systems implementation and operation of sustainable power generation systems.
This programme is also excellent preparation for PhD study.