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The MSc in Compound Semiconductor Electronics has been designed to provide you with advanced level knowledge and skills in compound semiconductor engineering, fabrication and applications, and to develop related skills, enhancing your engineering competency and employability. Read more
The MSc in Compound Semiconductor Electronics has been designed to provide you with advanced level knowledge and skills in compound semiconductor engineering, fabrication and applications, and to develop related skills, enhancing your engineering competency and employability.

This programme is jointly delivered with the School of Physics and Astronomy and the Institute for Compound Semiconductors (ICS). The ICS is an exciting new development at the cutting edge of compound semiconductor technology. The Institute has been established in partnership with IQE plc, to capitalise on the existing expertise at Cardiff University and to move academic research to a point where it can be introduced reliably and quickly into the production environment. It is unique facility in the UK, and aims to create a global hub for compound semiconductor technology research, development and innovation.

As a student on this programme, you will have the opportunity to undertake a 3-month summer project which will be based either within the Institute for Compound Semiconductors, or in placement with one of our industrial partners. We have strong, long-established industrial links with companies such as National Instruments and Mesuro and are therefore able to offer a portfolio of theoretical, practical, fabrication and applications-centred projects in both academic and industrial placement environments.

Our flexible curriculum contains a robust set of required modules and a number of elective modules which include the latest results, innovations and techniques and are designed to incorporate the most effective teaching and learning techniques.

Upon graduation, you will have the training, skill-sets and hands-on experience you need to succeed in the dynamic and highly competitive fields of compound semiconductors and advanced communications systems. Given the University’s unique position at the forefront of compound semiconductor technology, you will have a distinct advantage when applying for PhD studentships or employment in industry.

Structure

The MSc in Compound Semiconductor Electronics is a two-stage programme delivered over three semesters (autumn, spring, and summer) for a total of 180 credits.

• Stage 1: Autumn/Spring terms (120 credits, taught)

You will undertake required modules totaling 70 credits, covering essential skills.

You will additionally have the choice of 50 credits of optional modules from a total of 100 credits, with each module covering specialist skills.

You must successfully complete the 120 credits of the taught component of the course before you will be permitted to progress to the research project component.

• Stage 2: Summer term (60 credits, dissertation/research project)

The summer semester consists of a single 60 credit research project module of 3 months’ duration. You will be required to produce a research dissertation to the required standard in order to complete this module. Students completing Stages 1 and 2 will qualify for the award of the MSc degree.

Core modules:

High Frequency Device Physics and Design
RF Circuits Design & CAD
RESEARCH STUDY
Management in Industry
Software Tools and Simulation
Compound Semiconductor Fabrication
Compound Semiconductors Research Project

Optional modules:

Commercialising Innovation
Fundamentals of Micro- and Nanotechnology
High Frequency Electronic Materials
HF and RF Engineering
Optoelectronics
Magnetism, Superconductivity and their Applications
Low Dimensional Semiconductor Devices
Quantum Theory of Solids
Compound Semiconductor Application Specific Photonic Integrated Circuits

Teaching

A wide range of teaching styles will be used to deliver the diverse material forming the curriculum.

Lectures can take a variety of forms depending on the subject material being taught. Generally, lectures are used to convey concepts, contextualise research activities in the School and to demonstrate key theoretical, conceptual and mathematical methods.

You will practice and develop critique, reflective, analytical and presentational skills by participating in diverse learning activities such as research group meetings, seminars and open group discussions. At all times you will be encouraged to reflect on what you have learned and how it can be combined with other techniques and concepts to tackle novel problems.

In the practical laboratory sessions, you will put the breadth of your knowledge and skills to use, whether that be using your coding skills to automate a laboratory experiment, designing components for a large piece of equipment or troubleshooting research hardware. The emphasis on the MSc in Compound Semiconductor Electronics is squarely on acquiring and demonstrating practical skills which will be of use in a research environment and hence highly sought-after by employers.

When working on your dissertation you will be allocated a supervisor from among our teaching staff. Dissertation topics are typically chosen from a range of project titles proposed by academic staff, usually in areas of current research interest, although students are encouraged to put forward their own project ideas. Projects may also come forward from potential employers and industrial partners who may be able to offer work-based placements for the duration of the project work.

Assessment

Multiple assessment methods are used in order to enhance learning and accurately reflect your performance on the course. In the required modules, a mixture of problem-based learning, in-lab assessment, written assignment, simulation exercises, written and oral examinations and group-based case study work will be used.

Feedback provided by your MSc Tutor, Module Leaders and for some modules, your fellow students will allow you to make incremental improvements to the development of your core skillset.

The methods used on the optional modules vary depending on the most appropriate assessment method for each module, but typically include written and/or practical assignments together with a written and/or oral examination.

Career prospects

An MSc in Compound Semiconductor Electronics will open up opportunities in the following areas:

• Technical, research, development and engineering positions in industrial compound semiconductors, silicon semiconductors and advanced communication systems;

• Theoretical, experimental and instrumentational doctoral research;

• Numerate, technical, research, development and engineering positions in related scientific fields;

• Physics, mathematics and general science education.

Cardiff University’s unique position at the forefront of compound semiconductor technology will provide you with the opportunity to develop experience and build contacts with a range of leading companies and organisations.

Placements

There will be a number of industrial placements each year for the summer research project module, which will either be hosted at the Institute for Compound Semiconductors or at the industrial partner’s facilities. The number and nature of these projects will vary from year to year and will be assigned based on performance in formal assessments.

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The MSc Compound Semiconductor Physics has been designed to deliver thorough training and practical experience in compound semiconductor theory, fabrication and applications, and integration with silicon technology. Read more
The MSc Compound Semiconductor Physics has been designed to deliver thorough training and practical experience in compound semiconductor theory, fabrication and applications, and integration with silicon technology.

The programme is jointly delivered by the School of Physics and Astronomy and the Institute for Compound Semiconductors (ICS).  The ICS is an exciting new development at the cutting edge of compound semiconductor technology. The Institute has been established in partnership with IQE plc, to capitalise on the existing expertise at Cardiff University and to move academic research to a point where it can be introduced reliably and quickly into the production environment. It is unique facility in the UK, and aims to create a global hub for compound semiconductor technology research, development and innovation.

Our flexible curriculum contains a robust set of required modules and a number of cutting-edge elective modules, which include the latest results, innovations and techniques) and are designed to incorporate the most effective teaching and learning techniques.

As part of the programme you will undertake a 3-month summer project which will be based either in the School of Physics and Astronomy, within the ICS, or in placement with one of our industrial partners.  We have strong, long-established industrial links with companies such as IQE and are therefore in a unique position to be able to offer a portfolio of theoretical, practical, fabrication and applications-centred projects in both academic and industrial placement environments.  No other Russell Group university can boast such opportunities in this field.

Upon graduation, you will have the training, skillsets and hands-on experience you need to succeed in the dynamic and highly competitive field of compound semiconductors.

Distinctive features

• Cardiff University’s unique position at the forefront of compound semiconductor technology will provide you with the opportunity to develop experience and build contacts with a range of leading companies and organisations.

• Our specialist elective modules are delivered by expert scientists, who deliver their courses based on their research expertise and current research portfolio.

• We offer a range of specialist modules that give you the opportunity to tailor the programme to suit your interests and ambitions.
Whether you’re fascinated by superconductivity and magnetism or want to specialise in photonics we have modules to suit you. We also have modules designed to develop commercial skills and more technical options such as advanced LabVIEW programming.

• Central to the design of this programme is the opportunity to ownership of real theoretical or practical projects. You will have acquired a full year’s worth of practical research experience by the time you complete your MSc, greatly enhancing your CV and prospects for employment or further study.

• You will be trained in the practical use of the LabVIEW programming environment. Recognised by industry this will serve as a solid foundation for preparing for the National Instruments (NI) Certified LabVIEW Associate Developer (CLAD) examination.

• We currently offer the opportunity to take the CLAD examination for free as an extra-curricular activity, supported by our certified academic staff. CLAD status is industrially recognised and indicates a broad working knowledge of the LabVIEW environment.

• We encourage a “research group” atmosphere within which you’ll be given the opportunity to work together, across disciplines, to enhance each other’s learning and be a vital part of our thriving, international scientific community.

Structure

The MSc Compound Semiconductor Physics is a two-stage programme delivered over three terms.

• Autumn term (60 credits, taught)
You will undertake two required modules (30 credits total) covering core skills and three elective modules of 10 credits value each covering specialist skills.

• Spring term (60 credits, taught)
You will undertake three required modules (40 credits total) covering core skills and two elective modules of 10 credits each covering specialist skills.

You must successfully complete the 120 credits of the taught component of the course before you will be permitted to progress to the research project component.

• Summer term (60 credits, research project)
The summer term consists of a single 60 credit research project module of 3 months’ duration.  You will be required to produce a research dissertation and present your research to the School in order to complete this module.

Core modules:

Advanced Experimental Techniques in Physics
Study and Research Skills in Physics
Compound Semiconductor Fabrication
Concepts and Theory of Compound Semiconductor Photonics
Compound Semiconductor Application Specific Photonic Integrated Circuits
Compound Semiconductor Physics Research Project

Assessment

Multiple assessment methods are used in order to enhance learning and accurately reflect your performance on the course.  In the required modules, a mixture of problem-based learning, short practical projects, written assignments, coding exercises, written and oral examinations and group work will be used.

In some of the required modules there are weekly assignments.  The feedback provided for these allows you to make incremental improvements to the development of your core skillset, giving you ample opportunity to implement the suggestions made by our expert staff.

The methods used on the elective modules vary depending on the most appropriate assessment method for each module, but typically include written and/or practical assignments together with a written and/or oral examination.

All assessments make use of feedback, which can be divided into formative and summative feedback.

Career Prospects

An MSc Compound Semiconductor Physics degree will open up opportunities in the following areas:

• Technical, research, development and engineering positions in industrial compound semiconductors, silicon semiconductors and semiconductor photonics;

• Theoretical, experimental and instrumentational doctoral research;

• Numerate, technical, research, development and engineering positions in related scientific fields;

• Physics, mathematics and general science education.

Placements

There will be a number of industrial placements each year for the summer research project module, which will either be hosted at the ICS or at the industrial partner’s facilities.  The number and nature of these projects will vary from year to year and will be assigned based on merit demonstrated during the autumn and spring terms.

Read less
This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications. Read more

Real-world applications

This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications.

We work with government research laboratories, industrial companies and other prestigious universities. Significant funding from UK research councils, the European Union and industry means you have access to the best facilities.

How we teach

You’ll be taught by academics who are leaders in their field. The 2014 Research Excellence Framework (REF) puts us among the UK top five for this subject. Our courses are centred around finding solutions to problems, in lectures, seminars, exercises and through project work.

Accreditation

All of our MSc courses are accredited by the Institution of Engineering and Technology (IET), except the MSc(Eng) Advanced Electrical Machines, Power Electronics and Drives and MSc(Eng) Bioengineering: Imaging and Sensing. We are seeking accreditation for these courses.

First-class facilities

Semiconductor Materials and Devices

LED, laser photodetectors and transistor design, a high-tech field-emission gun transmission electron microscope (FEGTEM), a focused ion beam (FIB) milling facility, and electron beam lithographic equipment.

Our state-of-the-art semiconductor growth and processing equipment is housed in an extensive clean room complex as part of the EPSRC’s National Centre for III-V Technologies.

Our investment in semiconductor research equipment in the last 12 months totals £6million.

Electrical Machines and Drives

Specialist facilities for the design and manufacture of electromagnetic machines, dynamometer test cells, a high-speed motor test pit, environmental test chambers, electronic packaging and EMC testing facilities, Rolls-Royce University Technology Centre for Advanced Electrical Machines and Drives.

Communications

Advanced anechoic chambers for antenna design and materials characterisation, a lab for calibrated RF dosimetry of tissue to assess pathogenic effects of electromagnetic radiation from mobile phones, extensive CAD electromagnetic analysis tools.

Core modules

Semiconductor Materials; Principles of Semiconductor Device Technology; Packaging and Reliability of Microsystems; Nanoscale Electronic Devices; Energy Efficient Semiconductor Devices; Optical Communication Devices and Systems; Compound Semiconductor Device Manufacture; Major Research Project.

Teaching and assessment

Research-led teaching, lectures, laboratories, seminars and tutorials. A large practical module covers the design, manufacture and characterisation of a semiconductor component, such as a laser or light emitting diode. This involves background tutorials and hands-on practical work in the UK’s national III-V semiconductor facility. Assessment is by examinations, coursework or reports, and a dissertation with poster presentation.

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Electronic and Electrical Engineering is a broad and rapidly-expanding set of disciplines. Read more

About the course

Electronic and Electrical Engineering is a broad and rapidly-expanding set of disciplines. Building on core teaching in electrical machines, electronic materials, and the way that electronic circuits interact, this course will allow you to choose from a wide range of optional modules from all our active research areas to tailor your learning in a way that meets with your requirements.

Our graduates are in demand

Many go to work in industry as engineers for large national and international companies, including ARUP, Ericsson Communications, HSBC, Rolls-Royce, Jaguar Land Rover and Intel Asia Pacific.

Real-world applications

This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications.

We work with government research laboratories, industrial companies and other prestigious universities. Significant funding from UK research councils, the European Union and industry means you have access to the best facilities.

How we teach

You’ll be taught by academics who are leaders in their field. The 2014 Research Excellence Framework (REF) puts us among the UK top five for this subject. Our courses are centred around finding solutions to problems, in lectures, seminars, exercises and through project work.

Accreditation

All of our MSc courses are accredited by the Institution of Engineering and Technology (IET), except the MSc(Eng) Advanced Electrical Machines, Power Electronics and Drives and MSc(Eng) Bioengineering: Imaging and Sensing. We are seeking accreditation for these courses.

First-class facilities

Semiconductor Materials and Devices

LED, laser photodetectors and transistor design, a high-tech field-emission gun transmission electron microscope (FEGTEM), a focused ion beam (FIB) milling facility, and electron beam lithographic equipment.

Our state-of-the-art semiconductor growth and processing equipment is housed in an extensive clean room complex as part of the EPSRC’s National Centre for III-V Technologies.

Our investment in semiconductor research equipment in the last 12 months totals £6million.

Electrical Machines and Drives

Specialist facilities for the design and manufacture of electromagnetic machines, dynamometer test cells, a high-speed motor test pit, environmental test chambers, electronic packaging and EMC testing facilities, Rolls-Royce University Technology Centre for Advanced Electrical Machines and Drives.

Communications

Advanced anechoic chambers for antenna design and materials characterisation, a lab for calibrated RF dosimetry of tissue to assess pathogenic effects of electromagnetic radiation from mobile phones, extensive CAD electromagnetic analysis tools.

Core modules

Major Research Project.

Examples of optional modules

AC Machines; Advanced Control of Electric Devices; Energy Storage Management; Motion Control and Servo Drives; Permanent Magnet Machines and Actuators; Power Electronic Converters; Power Semiconductor Devices; Advanced Computer Systems; Advanced Integrated Electronics; Advanced Signal Processing; Semiconductor Materials; Principles of Semiconductor Device Technology; Packaging and Reliability of Microsystems; Nanoscale Electronic Devices; Energy Efficient Semiconductor Devices; Optical Communication Devices and Systems; Computer Vision; Electronic Communication Technologies; Data Coding Techniques for Communications and Storage; Principles of Communications; Antennas, Propagation and Satellite Systems; Mobile Networks and Physical Layer Protocols; System Design; Broadband Wireless Techniques; Wireless Packet Data Networks and Protocols.

Teaching and assessment

We deliver research-led teaching with individual support for your research project and dissertation. Assessment is by examinations, coursework and a project dissertation with poster presentation.

Read less
Take advantage of one of our 100 Master’s Scholarships to study Power Engineering and Sustainable Energy at Swansea University, the Times Good University Guide’s Welsh University of the Year 2017. Read more
Take advantage of one of our 100 Master’s Scholarships to study Power Engineering and Sustainable Energy at Swansea University, the Times Good University Guide’s Welsh University of the Year 2017. Postgraduate loans are also available to English and Welsh domiciled students. For more information on fees and funding please visit our website.

The Master's course in Power Engineering and Sustainable Energy places strong emphasis on state-of-the-art semiconductor devices and technologies, advanced power electronics and drives, and advanced power systems. The Power Engineering and Sustainable Energy course also covers conventional and renewable energy generation technologies. Exciting new developments such as wide band gap electronics, energy harvesting, solar cells and biofuels are discussed and recent developments in power electronics are highlighted.

Key Features of MSc in Power Engineering and Sustainable Energy

The College of Engineering has an international reputation for electrical and electronics research for energy and advanced semiconductor materials and devices.

Greenhouse gas emission and, consequently, global warming are threatening the global economy and world as we know it. A non-rational use of electrical energy largely contributes to these.

Sustainable energy generation and utilisation is a vital industry in today’s energy thirsty world. Energy generation and conversion, in the most efficient way possible, is the key to reducing carbon emissions. It is an essential element of novel energy power generation system and future transportation systems. The core of an energy conversion system is the power electronics converter which in one hand ensures the maximum power capture from any energy source and on another hand controls the power quality delivered to grid. Therefore the converter parameters such as efficiency, reliability and costs are directly affecting the performance of an energy system.

Transmission and distribution systems will encounter many challenges in the near future. Decentralisation of generation and storage systems has emerged as a promising solution. Consequently, in the near future, a power grid will no longer be a mono-directional energy flow system but a bi-directional one, requiring a much more complex management.

The MSc in Power Engineering and Sustainable Energy is modular in structure. Students must obtain a total of 180 credits to qualify for the degree. This is made up of 120 credits in the taught element (Part One) and a project (Part Two) that is worth 60 credits and culminates in a written dissertation. Power Engineering and Sustainable Energy students must successfully complete Part One before being allowed to progress to Part Two.

Part-time Delivery mode

The part-time scheme is a version of the full-time equivalent MSc in Power Engineering and Sustainable Energy scheme, and as such it means lectures are spread right across each week and you may have lectures across every day. Due to this timetabling format, the College advises that the scheme is likely to suit individuals who are looking to combine this with other commitments (typically family/caring) and who are looking for a less than full-time study option.

Those candidates seeking to combine the part-time option with full-time work are unlikely to find the timetable suitable, unless their job is extremely flexible and local to the Bay Campus.

Modules

Modules on the MSc Power Engineering and Sustainable Energy course can vary each year but you could expect to study:

Advanced Power Electronics and Drives
Power Semiconductor Devices
Advanced Power Systems
Energy and Power Engineering Laboratory
Power Generation Systems
Modern Control Systems
Wide Band-Gap Electronics
Environmental Analysis and Legislation
Communication Skills for Research Engineers
Optimisation

Facilities

The new home of MSc in Power Engineering and Sustainable Energy is at the innovative Bay Campus provides some of the best university facilities in the UK, in an outstanding location.

Engineering at Swansea University has extensive IT facilities and provides extensive software licenses and packages to support teaching. In addition the University provides open access IT resources.

Our new WOLFSON Foundation funded Power Electronics and Power System (PEPS) laboratory well-appointed with the state-of the-art equipment supports student research projects.

Careers

Employment in growing renewable energy sector, power electronic and semiconductor sector, electric/hybrid vehicle industry.

The MSc Power Engineering and Sustainable Energy is for graduates who may want to extend their technical knowledge and for professional applicants be provided with fast-track career development. This MSc addresses the skills shortage within the power electronics for renewable energy sector.

Links with industry

BT, Siemens, Plessey, GE Lighting, Schlumberger, Cogsys, Morganite, Newbridge Networks, Alstom, City Technology, BNR Europe, Philips, SWALEC, DERA, BTG, X-Fab, ZETEX Diodes, IQE, IBM, TSMC, IR, Toyota, Hitachi.

As a student on the MSc Power Engineering and Sustainable Energy course, you will learn about numerical simulation techniques and have the opportunity to visit electronics industries with links to Swansea.

Research

The Research Excellence Framework (REF) 2014 ranks Engineering at Swansea as 10th in the UK for the combined score in research quality across the Engineering disciplines.

The REF assesses the quality of research in the UK Higher Education sector, assuring us of the standards we strive for.

World-Leading Research

The REF shows that 94% of research produced by our academic staff is of World-Leading (4*) or Internationally Excellent (3*) quality. This has increased from 73% in the 2008 RAE.

Research pioneered at the College of Engineering harnesses the expertise of academic staff within the department. This ground-breaking multidisciplinary research informs our world-class teaching with several of our staff leaders in their fields.

With recent academic appointments strengthening electronics research at the College, the Electronic Systems Design Centre (ESDC) has been re-launched to support these activities.

The Centre aims to represent all major electronics research within the College and to promote the Electrical and Electronics Engineering degree.

Best known for its research in ground-breaking Power IC technology, the key technology for more energy efficient electronics, the Centre is also a world leader in semiconductor device modelling, FEM and compact modelling.

Read less
Take advantage of one of our 100 Master’s Scholarships to study Electronic and Electrical Engineering at Swansea University, the Times Good University Guide’s Welsh University of the Year 2017. Read more
Take advantage of one of our 100 Master’s Scholarships to study Electronic and Electrical Engineering at Swansea University, the Times Good University Guide’s Welsh University of the Year 2017. Postgraduate loans are also available to English and Welsh domiciled students. For more information on fees and funding please visit our website.

As a world-leader in the research areas of power semiconductor technology and devices, power electronics, nanotechnology and biometrics, and advanced numerical modelling of micro and nanoelectronic devices, Swansea University provides an excellent base for your research as a MSc by Research student in Electronic and Electrical Engineering.

Key Features of MSc by Research Electronic and Electrical Engineering

The Electronic Systems Design Centre (ESDC) is known for its ground-breaking research into Power IC technology, the key technology for more energy efficient electronics. The Centre is also a world-leader in semiconductor device modelling, FEM and compact modelling.

The MSc by Research Electronic and Electrical Engineering has a wide range of subject choice including areas such as:

- Parallel 3D Finite Element Monte Carlo Device Simulations Of Multigate Transistors
- Modelling of Metal-Semiconductor Contacts for the Next Generation of Nanoscale Transistors
- Novel GaN HEMT Switches for Power Management: Device Design, Optimization and Reliability Issues

MSc by Research in Electronic and Electrical Engineering typically lasts one year full-time, two to three years part-time. This is an individual research project written up in a thesis of 30,000 words.

Facilities

The new home of the Electronic and Electrical Engineering programme is at the innovative Bay Campus provides some of the best university facilities in the UK, in an outstanding location.

Engineering at Swansea University has extensive IT facilities and provides extensive software licenses and packages to support teaching. In addition the University provides open access IT resources.

Students on the Electronic and Electrical Engineering research programme benefit from the Electronic Systems Design Centre (ESDC) facilities.

Links with industry

At Swansea University, Electronic and Electrical Engineering has an active interface with industry and many of our activities are sponsored by companies such as Agilent, Auto Glass, BT and Siemens.

Electronic and Electrical Engineering has a good track record of working with industry both at research level and in linking industry-related work to our postgraduate courses. We also have an industrial advisory board that ensures our taught courses maintain relevance.

Our research groups work with many major UK, Japanese, European and American multinational companies and numerous small and medium sized enterprises (SMEs) to pioneer research. This activity filters down and influences the project work that is undertaken by all our postgraduate students including those on the Electronic and Electrical Engineering.

Research

The Research Excellence Framework (REF) 2014 ranks Engineering at Swansea as 10th in the UK for the combined score in research quality across the Engineering disciplines.

World-leading research

The REF shows that 94% of research produced by our academic staff is of World-Leading (4*) or Internationally Excellent (3*) quality. This has increased from 73% in the 2008 RAE.

Research pioneered at the College of Engineering harnesses the expertise of academic staff within the department. This ground-breaking multidisciplinary research informs our world-class teaching with several of our staff leaders in their fields.

Highlights of the Engineering results according to the General Engineering Unit of Assessment:

Research Environment at Swansea ranked 2nd in the UK
Research Impact ranked 10th in the UK
Research Power (3*/4* Equivalent staff) ranked 10th in the UK
With recent academic appointments strengthening electronics research at the College, the Electronic Systems Design Centre (ESDC) has been re-launched to support these activities.

The Centre aims to represent all major electronics research within the College and to promote the Electrical and Electronics Engineering degree.

Best known for its research in ground-breaking Power IC technology, the key technology for more energy efficient electronics, the Centre is also a world leader in semiconductor device modelling, FEM and compact modelling.

Read less
The deployment of power electronic converters and electrical machines continues to grow at a rapid rate in sectors such as hybrid and all-electric vehicles, aerospace, renewables and advanced industrial automation. Read more

About the course

The deployment of power electronic converters and electrical machines continues to grow at a rapid rate in sectors such as hybrid and all-electric vehicles, aerospace, renewables and advanced industrial automation. In many of these applications, high performance components are combined into sophisticated motion control and energy management systems. This course will give you a rigorous and in-depth knowledge of the key component technologies and their integration into advanced systems.

Our graduates are in demand

Many go to work in industry as engineers for large national and international companies, including ARUP, Ericsson Communications, HSBC, Rolls-Royce, Jaguar Land Rover and Intel Asia Pacific.

Real-world applications

This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications.

We work with government research laboratories, industrial companies and other prestigious universities. Significant funding from UK research councils, the European Union and industry means you have access to the best facilities.

How we teach

You’ll be taught by academics who are leaders in their field. The 2014 Research Excellence Framework (REF) puts us among the UK top five for this subject. Our courses are centred around finding solutions to problems, in lectures, seminars, exercises and through project work.

Accreditation

All of our MSc courses are accredited by the Institution of Engineering and Technology (IET), except the MSc(Eng) Advanced Electrical Machines, Power Electronics and Drives and MSc(Eng) Bioengineering: Imaging and Sensing. We are seeking accreditation for these courses.

First-class facilities

Semiconductor Materials and Devices

LED, laser photodetectors and transistor design, a high-tech field-emission gun transmission electron microscope (FEGTEM), a focused ion beam (FIB) milling facility, and electron beam lithographic equipment.

Our state-of-the-art semiconductor growth and processing equipment is housed in an extensive clean room complex as part of the EPSRC’s National Centre for III-V Technologies.

Our investment in semiconductor research equipment in the last 12 months totals £6million.

Electrical Machines and Drives

Specialist facilities for the design and manufacture of electromagnetic machines, dynamometer test cells, a high-speed motor test pit, environmental test chambers, electronic packaging and EMC testing facilities, Rolls-Royce University Technology Centre for Advanced Electrical Machines and Drives.

Communications

Advanced anechoic chambers for antenna design and materials characterisation, a lab for calibrated RF dosimetry of tissue to assess pathogenic effects of electromagnetic radiation from mobile phones, extensive CAD electromagnetic analysis tools.

Core modules

Power Electronic Converters; AC Machines; Permanent Magnet Machines and Actuators; Motion Control and Servo Drives; Advanced Control of Electric Drives; Energy Storage and Management; MSc Individual Project; Major Research Project.

Examples of optional modules

Power Semiconductor Devices; Advanced Signal Processing; Packaging and Reliability of Microsystems; Electronic Communication Technologies; Systems Design.

Teaching and assessment

You’ll learn through research-led teaching, lectures, laboratories, seminars, tutorials and coursework exercises. Assessment is by examinations, coursework and a project dissertation with poster presentation.

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The main educational objective of this Master of Science programme is to prepare an engineer able to “produce” innovation both in the industrial environment as well as in basic research and which is highly competitive in the global market, with particular reference to the physical and optical technology, nanotechnology and photonic sectors. Read more

Mission and goals

The main educational objective of this Master of Science programme is to prepare an engineer able to “produce” innovation both in the industrial environment as well as in basic research and which is highly competitive in the global market, with particular reference to the physical and optical technology, nanotechnology and photonic sectors. The physical engineer can approach all sectors in which advanced technological systems are developed: lasers, photonics, materials technology, biomedical optics, etc.

The course has three possible finalizations:
- Nano-optics and Photonics
- Nano and Physical Technologies
- Semiconductor nanotechnologies

See the website http://www.polinternational.polimi.it/educational-offer/laurea-magistrale-equivalent-to-master-of-science-programmes/engineering-physics/

Career opportunities

The graduate in Engineering Physics can approach all those sectors in which advanced technological systems are developed, such as lasers and their applications, photonics, vacuum applications, materials technology and biomedical optics.
The physical engineer can therefore find employment in companies working in the fields of materials engineering and optical technologies; companies which use innovative systems and technologies; public and private research centres; companies operating in the physical, optical and photonic technologies and diagnostics market.

Presentation

See http://www.polinternational.polimi.it/uploads/media/Engineering_Physics.pdf
The objective of this programme is to prepare an engineer able to produce innovation both in the industrial environment as well as in basic research. The graduates will have a broad cultural and scientific foundation and will be provided with the latest knowledge of solid-state and modern physics, optics, lasers, physical technology and instrumentation, nanotechnologies and photonics. Thanks to the experimental laboratory modules, available within different courses, the students face realistic problems throughout their studies. Career opportunities in the Physics Engineering field are extremely wide and varied. In particular, graduates can approach all those sectors in which advanced technological systems are developed, such as lasers and their applications, photonics, vacuum applications, materials technology and biomedical technology.
Moreover, master graduates can work in strategic consultancy companies or can continue their Academic Education with a PhD Program toward a professional career in academic or industrial research. The programme is taught in English.

Subjects

Three tracks available: Photonics and Nanotechnologies; Nanophysics and nanotechnology; Semiconductor nanotechnologies

Subjects common to all the tracks:
Mathematical Methods for Engineering, Solid State Physics, Photonics I, Automatic Controls, Electronics, Computer Science, Management

Other subjects:
- TRACK: PHOTONICS AND NANO OPTICS
Micro and Nano Optics, Photonics II
- TRACK: NANOPHYSICS AND NANOTECHNOLOGY
Physics of Low Dimensional Systems, Electron Microscopy And Spintronics
- TRACK: SEMICONDUCTOR NANOTECHNOLOGIES
Physics of Low Dimensional Systems, Physics of Semiconductor Nanostructures, Graphene and Nanoelectronic Devices

See the website http://www.polinternational.polimi.it/educational-offer/laurea-magistrale-equivalent-to-master-of-science-programmes/engineering-physics/

For contact information see here http://www.polinternational.polimi.it/educational-offer/laurea-magistrale-equivalent-to-master-of-science-programmes/engineering-physics/

Find out how to apply here http://www.polinternational.polimi.it/how-to-apply/

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See the Department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-1. Read more
See the Department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-1

The master of engineering in microelectronics manufacturing engineering provides a broad-based education for students who are interested in a career in the semiconductor industry and hold a bachelor’s degree in traditional engineering or other science disciplines.

Program outcomes

After completing the program, students will be able to:

- Design and understand a sequence of processing steps to fabricate a solid state device to meet a set of geometric, electrical, and/or processing parameters.

- Analyze experimental electrical data from a solid state device to extract performance parameters for comparison to modeling parameters used in the device design.

- Understand current lithographic materials, processes, and systems to meet imaging and/or device patterning requirements.

- Understand the relevance of a process or device, either proposed or existing, to current manufacturing practices.

- Perform in a microelectronic engineering environment, as evidenced by an internship.

- Appreciate the areas of specialty in the field of microelectronics, such as device engineering, circuit design, lithography, materials and processes, and yield and manufacturing.

Plan of study

This 30 credit hour program is awarded upon the successful completion of six core courses, two elective courses, a research methods course, and an internship. Under certain circumstances, a student may be required to complete bridge courses totaling more than the minimum number of credits. Students complete courses in microelectronics, microlithography, and manufacturing.

Microelectronics

The microelectronics courses cover major aspects of integrated circuit manufacturing technology, such as oxidation, diffusion, ion implantation, chemical vapor deposition, metalization, plasma etching, etc. These courses emphasize modeling and simulation techniques as well as hands-on laboratory verification of these processes. Students use special software tools for these processes. In the laboratory, students design and fabricate silicon MOS integrated circuits, learn how to utilize semiconductor processing equipment, develop and create a process, and manufacture and test their own integrated circuits.

Microlithography

The microlithography courses are advanced courses in the chemistry, physics, and processing involved in microlithography. Optical lithography will be studied through diffraction, Fourier, and image-assessment techniques. Scalar diffraction models will be utilized to simulate aerial image formation and influences of imaging parameters. Positive and negative resist systems as well as processes for IC application will be studied. Advanced topics will include chemically amplified resists; multiple-layer resist systems; phase-shift masks; and electron beam, X-ray, and deep UV lithography. Laboratory exercises include projection-system design, resist-materials characterization, process optimization, and electron-beam lithography.

Manufacturing

The manufacturing courses include topics such as scheduling, work-in-progress tracking, costing, inventory control, capital budgeting, productivity measures, and personnel management. Concepts of quality and statistical process control are introduced. The laboratory for this course is a student-run factory functioning within the department. Important issues such as measurement of yield, defect density, wafer mapping, control charts, and other manufacturing measurement tools are examined in lectures and through laboratory work. Computer-integrated manufacturing also is studied in detail. Process modeling, simulation, direct control, computer networking, database systems, linking application programs, facility monitoring, expert systems applications for diagnosis and training, and robotics are supported by laboratory experiences in the integrated circuit factory. The program is also offered online for engineers employed in the semiconductor industry.

Internship

The program requires students to complete an internship. This requirement provides a structured and supervised work experience that enables students to gain job-related skills that assist them in achieving their desired career goals.

Students with prior engineering-related job experience may submit a request for internship waiver with the program director. A letter from the appropriate authority substantiating the student’s job responsibility, duration, and performance quality would be required.

For students who are not working in the semiconductor industry while enrolled in this program, the internship may be completed at RIT. It involves an investigation or study of a subject or process directly related to microelectronic engineering under the supervision of a faculty adviser. An internship may be taken any time after the completion of the first semester, and may be designed in a number of ways. At the conclusion of the internship, submission of a final internship report to the faculty adviser and program director is required.

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The photonics research groups in the physics departments of Heriot-Watt and St. Andrews Universities are internationally renowned, and have many links with industrial and university groups around the world. Read more

Overview

The photonics research groups in the physics departments of Heriot-Watt and St. Andrews Universities are internationally renowned, and have many links with industrial and university groups around the world. Major activities are based around optoelectronics, laser development, semiconductor physics, materials technology, ultra-fast phenomena, modern optics, and instrumentation. This expertise is brought to the teaching of our one-year taught MSc course (See http://www.postgraduate.hw.ac.uk/prog/msc-photonics-and-optoelectronic-devices/ ).

Previously called Optoelectronic and Laser Devices, this MSc course has been updated and enhanced, recognising the explosive growth of the UK and global photonics industry, fostered by the world-wide expansion in the exploitation of optical in telecommunications.

Students spend one semester at each university, and then undertake a three-month research project, normally in a UK company. Companies participating in recent years include Bookham Technologies, BAE Systems, Edinburgh Sensors, Cambridge Display Technology, Defence Science and Technology Laboratory, Indigo Photonics, Intense Photonics, Kamelian, Nortel, Renishaw, Rutherford Appleton Laboratory, Thales, Sharp and QinetiQ.

Find more information here http://www.phy.hw.ac.uk/

Scholarships available

We have a number of fully funded Scottish Funding Council (SFC) scholarships available for students resident in Scotland applying for Photonics and Optoelectronic Devices. Find out more about this scholarship and how to apply http://www.hw.ac.uk/student-life/scholarships/postgraduate-funded-places.htm .

Programme content

Students receive postgraduate training in modern optics and semiconductor physics tailored to the needs of the optoelectronics industries. Graduates gain an understanding of the fundamental properties of optoelectronic materials and optical fibres, and experience of the technology and operation of a wide range of laser semiconductor devices appropriate to the telecommunications, information technology, sensing, and manufacturing industries.

English language requirements

If your first language is not English, or your first degree was not taught in English, we’ll need to see evidence of your English language ability. The minimum requirement for English language is IELTS 6.5 or equivalent. We offer a range of English language courses (See http://www.hw.ac.uk/study/english.htm ) to help you meet the English language requirement prior to starting your masters programme:
- 14 weeks English (for IELTS of 5.5 with no more than one skill at 4.5);
- 10 weeks English (for IELTS of 5.5 with minimum of 5.0 in all skills);
- 6 weeks English (for IELTS 5.5 with minimum of 5.5 in reading & writing and minimum of 5.0 in speaking & listening)

Find information on Fees and Scholarships here http://www.postgraduate.hw.ac.uk/prog/msc-photonics-and-optoelectronic-devices/

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Bristol, and the surrounding area, hosts a thriving and world-leading semiconductor design industry. Read more
Bristol, and the surrounding area, hosts a thriving and world-leading semiconductor design industry. The Microelectronics group at the University of Bristol has many collaborative links with multinational companies in the microelectronics industry that have identified a shortfall in graduates with the necessary qualifications and professional skills to work in the sector. This programme has been designed to meet this need.

A range of taught subjects cover core topics such as advanced architectures and system design using FPGA and DSP platforms, before progressing into more specialised areas such as digital and analogue ASIC design, integrated sensors and actuators and mixed-signal design. Changes are made periodically to reflect important emerging disciplines, such as electronics for internet of things, bio-medical applications and neuromorphic computing.

The programme offers you the opportunity to learn from experts in micro- and nanoelectronics and computer science, to allow you to start working straight after your degree or continue your studies via a PhD. Special emphasis is put on providing you with a range of contemporary design skills to supplement theoretical knowledge. Lectures are accompanied by lab exercises in state-of-the-art industrial EDA software to give you experience of a professional environment.

Programme structure

The course consists of 120 credits of taught units and an individual research project worth 60 credits. The following core subjects, each worth 10 credit points (100 learning hours), are taken over autumn and spring:
-Design Verification
-Analogue Integrated Circuit Design
-Integrated Circuit Electronics
-Digital Filters and Spectral Analysis (M)
-Advanced DSP & FPGA Implementation
-VLSI Design M
-Embedded and Real-Time Systems
-Wireless Networking and Sensing in e-Healthcare

Additionally students are able to choose any two out of the following four 10-credit units (some combinations may not be possible due to timetabling constraints).

-Device Interconnect - Principles and Practice
-Advanced Computer Architecture
-Sustainability, Technology and Business
-Computational Neuroscience
-Bio Sensors

In the spring term, students also take Engineering Research Skills, a 20-credit unit designed to introduce the fundamental skills necessary to carry out the MSc project.

After completing the taught units satisfactorily, all students undertake a final project which involves researching, planning and implementing a major piece of work relating to microelectronics systems design. The project must have a significant scientific or technical component and may involve on-site collaboration with an industrial partner. The thesis is normally submitted by the end of September.

The programme structure is under continual discussion with the National Microelectronics Institute and our industrial advisory board in order that it remains at the cutting edge of the semiconductor industry. It is therefore subject to small changes on an ongoing basis to generally improve the programme and recognise important emerging disciplines.

Careers

This course gives graduating students the background to go on to a career in a variety of disciplines in the IT sector, due to the core and specialist units that cover key foundational concepts as well as advanced topics related to hardware design, programming and embedded systems and system-level integration.

Typical careers are in soft fabrication facilities and design houses in the semiconductor industry, electronic-design automation tool vendors, embedded systems specialists and software houses. The course also covers concepts and technologies related to emerging paradigms such as neuromorphic computing and the Internet of Things and prepares you for a career in academic research.

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Study the dynamic field of efficient information transfer around the globe. We teach this course jointly with the Department of Computer Science so you get up-to-date knowledge and understanding. Read more

About the course

Study the dynamic field of efficient information transfer around the globe. We teach this course jointly with the Department of Computer Science so you get up-to-date knowledge and understanding.

Our graduates are in demand

Many go to work in industry as engineers for large national and international companies, including ARUP, Ericsson Communications, HSBC, Rolls-Royce, Jaguar Land Rover and Intel Asia Pacific.

Real-world applications

This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications.

We work with government research laboratories, industrial companies and other prestigious universities. Significant funding from UK research councils, the European Union and industry means you have access to the best facilities.

How we teach

You’ll be taught by academics who are leaders in their field. The 2014 Research Excellence Framework (REF) puts us among the UK top five for this subject. Our courses are centred around finding solutions to problems, in lectures, seminars, exercises and through project work.

Accreditation

All of our MSc courses are accredited by the Institution of Engineering and Technology (IET), except the MSc(Eng) Advanced Electrical Machines, Power Electronics and Drives and MSc(Eng) Bioengineering: Imaging and Sensing. We are seeking accreditation for these courses.

First-class facilities

Semiconductor Materials and Devices

LED, laser photodetectors and transistor design, a high-tech field-emission gun transmission electron microscope (FEGTEM), a focused ion beam (FIB) milling facility, and electron beam lithographic equipment.

Our state-of-the-art semiconductor growth and processing equipment is housed in an extensive clean room complex as part of the EPSRC’s National Centre for III-V Technologies.

Our investment in semiconductor research equipment in the last 12 months totals £6million.

Electrical Machines and Drives

Specialist facilities for the design and manufacture of electromagnetic machines, dynamometer test cells, a high-speed motor test pit, environmental test chambers, electronic packaging and EMC testing facilities, Rolls-Royce University Technology Centre for Advanced Electrical Machines and Drives.

Communications

Advanced anechoic chambers for antenna design and materials characterisation, a lab for calibrated RF dosimetry of tissue to assess pathogenic effects of electromagnetic radiation from mobile phones, extensive CAD electromagnetic analysis tools.

Core modules

Network and Inter-Network Architectures; Network Performance Analysis; Data Coding Techniques for Communications and Storage; Advanced Communication Principles; Mobile Networks and Physical Layer Protocols; (either) Foundations of Object-Orientated Programming (or) Object-Orientated Programming and Software Design; Major Research Project.

Examples of optional modules

Computer Security and Forensics; 3D Computer Graphics; Software Development for Mobile Devices; Cloud Computing; Advanced Signal Processing; Antennas, Propagation and Satellite Systems; Optical Communication Devices and Systems; Computer Vision; Broadband Wireless Techniques; Wireless Packet Data Networks and Protocols; System Design.

Teaching and assessment

We deliver research-led teaching from our department and Computer Science with individual support for your research project and dissertation. Assessment is by examinations, coursework and a project dissertation with poster presentation.

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Study the key design aspects of a modern wireless communication system, in particular cellular mobile radio systems. There is a current shortage of communications engineers with a comprehensive appreciation of wireless system design from RF through baseband to packet protocols. Read more

About the course

Study the key design aspects of a modern wireless communication system, in particular cellular mobile radio systems. There is a current shortage of communications engineers with a comprehensive appreciation of wireless system design from RF through baseband to packet protocols.

Our graduates are in demand

Many go to work in industry as engineers for large national and international companies, including ARUP, Ericsson Communications, HSBC, Rolls-Royce, Jaguar Land Rover and Intel Asia Pacific.

Real-world applications

This is a research environment. What we teach is based on the latest ideas. The work you do on your course is directly connected to real-world applications.

We work with government research laboratories, industrial companies and other prestigious universities. Significant funding from UK research councils, the European Union and industry means you have access to the best facilities.

How we teach

You’ll be taught by academics who are leaders in their field. The 2014 Research Excellence Framework (REF) puts us among the UK top five for this subject. Our courses are centred around finding solutions to problems, in lectures, seminars, exercises and through project work.

Accreditation

All of our MSc courses are accredited by the Institution of Engineering and Technology (IET), except the MSc(Eng) Advanced Electrical Machines, Power Electronics and Drives and MSc(Eng) Bioengineering: Imaging and Sensing. We are seeking accreditation for these courses.

First-class facilities

Semiconductor Materials and Devices
LED, laser photodetectors and transistor design, a high-tech field-emission gun transmission electron microscope (FEGTEM), a focused ion beam (FIB) milling facility, and electron beam lithographic equipment.

Our state-of-the-art semiconductor growth and processing equipment is housed in an extensive clean room complex as part of the EPSRC’s National Centre for III-V Technologies.

Our investment in semiconductor research equipment in the last 12 months totals £6million.

Electrical Machines and Drives

Specialist facilities for the design and manufacture of electromagnetic machines, dynamometer test cells, a high-speed motor test pit, environmental test chambers, electronic packaging and EMC testing facilities, Rolls-Royce University Technology Centre for Advanced Electrical Machines and Drives.

Communications

Advanced anechoic chambers for antenna design and materials characterisation, a lab for calibrated RF dosimetry of tissue to assess pathogenic effects of electromagnetic radiation from mobile phones, extensive CAD electromagnetic analysis tools.

Core modules

Advanced Signal Processing; Advanced Communication Principles; Antennas, Propagation and Satellite Systems; Mobile Networks and Physical Layer Protocols; Broadband Wireless Techniques; Wireless Packet Data Networks and Protocols; Major Research Project.

Examples of optional modules

Data Coding Techniques for Communication and Storage; Optical Communication Devices and Systems; Computer Vision; Electronic Communication Technologies; Data Coding Techniques for Communication and Storage.

Teaching and assessment

Research-led teaching and an individual research project. Assessment is by examinations, coursework and a project dissertation with poster presentation.

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Offered in collaboration with Heriot-Watt University. This programme is aimed at graduates in physics or electrical engineering who seek postgraduate education in photonics to enhance their opportunities in industry/ commerce or in PhD research in photonics. Read more

MSc in Photonics and Optoelectronic Devices

• Offered in collaboration with Heriot-Watt University.

• This programme is aimed at graduates in physics or electrical engineering who seek postgraduate education in photonics to enhance their opportunities in industry/ commerce or in PhD research in photonics.

• The programme is tailored to balance fundamental understanding with industrial relevance.

• You gain an understanding of the fundamental properties of optoelectronic materials and devices with vocational training in modern optics, laser physics and semiconductor physics. You also gain practical experience in the operation of a wide range of laser devices and optoelectronic technologies.

• You develop an appreciation of the widespread practical applications of coherent light sources in communications, material processing and testing, optical processing, medical treatments and diagnostics, and environmental monitoring.

• The industrial project placement occupies 12-14 weeks from late May to August and is assessed in September after the submission of a dissertation.

• The admissions process will be run by the University of St Andrews in 2016 and by Heriot-Watt University in 2017.

Features

* In the UK Research Excellence Framework 2014, the quality of research undertaken by PHYESTA, the joint research School of Physics & Astronomy between the Universities of St Andrews and Edinburgh, was ranked third in the UK and top in Scotland.

* The School has around 40 academic staff, around 70 postdoctoral researchers, including 7 SUPA, EPSRC, STFC and Royal Society Research Fellows, around 80 research students and around 20 students on taught postgraduate courses.

* The MSc course in Photonics and Optoelectronic Devices is offered in collaboration with Heriot-Watt University, allowing students access to the expertise at both sites.

* St Andrews has recently opened £3.7 million of specialist research labs in photonic microfabrication and in high resolution condensed matter physics.

* We are a member of the Scottish Universities Physics Alliance (SUPA), whose Graduate School provides a comprehensive range of graduate level courses in physics and astronomy.

Postgraduate community

The postgraduate community in the School of Physics & Astronomy includes typically ten students in our MSc class, two to ten engineering doctorate students taking taught modules, plus around 80 PhD research students. Students on the MSc course come from all over the world, with a mix of students from the UK, EU and overseas.

You are taught by internationally-leading research experts, and the relatively small size of the School means that there can be real interaction between students and staff. Lecture classes are relatively small, ranging from about 30 students down to groups of just a few. The teaching staff are proud to have the reputation of being accessible to students, and enjoy explaining the excitement of physics and its applications to their students. Well-equipped teaching laboratories allow you to explore the science of photonics in “research mode”, and interact directly with academic staff and the School’s early-career researchers.

Teaching methods

• Teaching comprises lectures, tutorials, and laboratory work.
• The teaching laboratory offers the photonics students a wide choice of experiments.
• Work for lecture modules is assessed largely through examinations whereas the laboratory work is assessed in a continuous manner. Lecture courses are examined at the end of each semester.
• MSc students select their project topic part way through the course. This is assessed by the submission of a dissertation and an oral exam.
• You are also invited to attend relevant research seminars and departmental colloquia given by departmental research staff, specialists from other universities and specialists from industry.

Careers

The MSc programme aims to produce graduates with appropriate knowledge, skills and attitudes to go on to be successful in the photonics area, be it in industrial/commercial positions, or undertaking PhD study in universities.

Typically half the class will start PhD or EngD programmes after graduation, while the other half will take up industrial and commercial positions. Commercial destinations of graduates from a recent year-group include laser development, sales and marketing with consumer/office optoelectronics, product support of optical metrology equipment, theoretical modelling of photonic structures, university teaching, internship with a national laser lab, and semiconductor optoelectronics research.

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On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems. Read more
On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems.

The course content is updated annually to maintain industry relevance and to reflect the latest developments in the industry.

We cover the following core (compulsory) topics during the MSc:

- Embedded computer systems
- Digital system design
- IC design
- Microprocess systems
- Research skills and project management.

Part-time study is in co-operation with the students’ employers. Please contact the Programme Director before applying.

Projects

Your project work will earn you 60 credits towards your MSc degree. The project's examined by oral presentation and dissertation.

In your work you'll need to demonstrate an in-depth understanding of your topic, mastery of research techniques, and the ability to analyse assembled data and assess outcomes.

Why Electrical Engineering and Electronics?

World-class facilities, including top industry standard laboratories

We have specialist facilities for processing semiconductor devices, optical imaging spectroscopy and sensing, technological plasmas, equipment for testing switch gear, specialist robot laboratories, clean room laboratories, e-automation, RF Engineering, bio-nano engineering labs and excellent mechanical and electrical workshops.

A leading centre for electrical and electronic engineering expertise

We are closely involved with over 50 prominent companies and research organisations worldwide, many of which not only fund and collaborate with us but also make a vital contribution to developing our students.

Career prospects

Our postgraduate students get to be a part of the cutting edge research projects being undertaken by our academic staff.

Here are some of the areas these projects cover:-

Molecular and semiconductor integrated circuit electronics
Technological plasmas
Communications
Digital signal processing
Optoelectronics
Nanotechnology
Robotics
Free electron lasers
Power electronics
Energy efficient systems
E-Automation
Intelligence engineering.

You'll get plenty of industry exposure too. Our industrial partners include ARM Holdings Plc, a top 200 UK company that specialises in microprocessor design and development.

As a result our postgraduates have an impressive record of securing employment after graduation in a wide range of careers not limited to engineering.

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