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This Masters in Sensor and Imaging Systems (SIS) focuses on the technologies and techniques that underpin a vast range of societal, research and industrial needs. Read more
This Masters in Sensor and Imaging Systems (SIS) focuses on the technologies and techniques that underpin a vast range of societal, research and industrial needs. It is delivered and awarded jointly by the Universities of Glasgow and Edinburgh. Sensing and sensor systems are essential for advances in research across all fields of physics, engineering and chemistry and are enhanced when multiple sensing functions are combined into arrays to enable imaging. Industrial applications of sensor systems are ubiquitous: from mass-produced sensors found in modern smart phones and every modern car to the state-of-the-art, specialist high-value sensors routinely used in oil and gas recovery, scientific equipment, machine tools, medical equipment and environmental monitoring. This is an industry-focused programme, designed for people looking to develop skills that will open up opportunities in a host of end applications.

Why this programme

-This is a jointly taught and awarded degree from the University of Glasgow and the University of Edinburgh, developed in with conjunction with CENSIS.
-CENSIS is a centre of excellence for Sensor and Imaging Systems (SIS) technologies, CENSIS enables industry innovators and university researchers to collaborate at the forefront of market-focused SIS innovation, developing products and services for global markets.
-CENSIS, the Innovation Centre for Sensor and Imaging Systems, is one of eight Innovation Centres that are transforming the way universities and business work together to enhance innovation and entrepreneurship across Scotland’s key economic sectors, create jobs and grow the economy. CENSIS is funded by the Scottish Funding Council (£10m) and supported by Scottish Enterprise, Highlands and Islands Enterprise and the Scottish Government.
-CENSIS has now launched its collaborative MSc in Sensor and Imaging Systems, designed to train the next generation of sensor system experts.
-This programme will allow you to benefit from the commercial focus of CENSIS along with the combined resources and complementary expertise of staff from two top ranking Russell Group universities, working together to offer you a curriculum relevant to the needs of industry.
-The Colleges of Science and Engineering at the University of Glasgow and the University of Edinburgh delivered power and impact in the 2014 Research Excellent Framework. Overall, 94% of Edinburgh’s and 90% of Glasgow’s research activity is world leading or internationally excellent, rising in Glasgow’s case to 95% for its impact.

Programme structure

The programme comprises a mix of core and optional courses. The curriculum you undertake is flexible and tailored to your prior experience and expertise, your particular research interests, and the specific nature of the extended research project topic provisionally identified at the beginning of the MSc programme.

Graduates receive a joint degree from the universities of Edinburgh and Glasgow.

Programme timetable
-Semester 1: University of Glasgow
-Semester 2: University of Edinburgh
-Semester 3: MSc project, including the possibility of an industry placement

Core courses
-Circuits and systems
-Detection and analysis of ionising radiation
-Fundamentals of sensing and imaging
-Imaging and detectors
-Technology and innovation management
-Research project preparation

Optional courses
-Biomedical imaging techniques
-Biophysical chemistry
-Biosensors and instrumentation
-Chemical biology
-Digital signal processing
-Electronic product design and manufacture
-Electronic system design
-Entrepreneurship
-Lab-on-chip technologies
-Lasers and electro-optic systems
-Microelectronics in consumer products
-Microfabrication techniques
-Nanofabrication
-Physical techniques in action
-Waves and diffraction

Industry links and employability

-This is an industry-focused programme, developed in conjunction with CENSIS, an Innovation Centre established to maximise the growth potential of Scottish companies operating in the sensor systems market. It will appeal to graduates seeking to develop sensor and imaging systems (SIS) skills that can be used in a range of end markets and applications.
-SIS is key enabling technology to achieve quality, efficiency and performance across all key markets – from transport, security and oil and gas, through to agriculture, the built environment and life sciences. The underlying requirement across of these sectors is the same: to sense, measure, process, communicate and visualise in a way that provides valuable and actionable information based on data.
-Sensing is essential for advances in research across all fields of physics, engineering and chemistry, and is enhanced when multiple sensing functions are combined into arrays to enable imaging. Industrial applications of SIS are ubiquitous: from mass-produced sensors found in smart phones and cars, to the state-of-the-art, specialist high-value sensors routinely used in oil and gas recovery, scientific equipment, machine tools, medical equipment and environmental monitoring.
-Increasingly, sensor systems – along with their underpinning device, signal processing, networking, information dissemination and diagnostics technologies - are being tightly integrated within the products and services of a wide range of Scottish businesses. There are endless opportunities within this emerging global market (worth £500Bn) to develop fundamental changes to benefit society and commercialise sensor lead products over wide market areas.
-Markets that need graduates with SIS skills include include defence and security, renewables, aerospace, subsea, intelligent transport, environmental science, built environment, energy and the smart grid, healthcare and drug discovery, medical diagnostics, and food and drink.

Career prospects

You will gain an understanding of sensor-based systems applicable to a whole host of markets supported by CENSIS.

Career opportunities are extensive. Sensor systems are spearheading the next wave of connectivity and intelligence for internet connected devices, underpinning all of the new ‘smart markets’, e.g., grid, cities, transport and mobility, digital healthcare and big data.

You will graduate with domain-appropriate skills suitable for a range of careers in areas including renewable energy, subsea and marine technologies, defence, automotive engineering, intelligent transport, healthcare, aerospace, manufacturing and process control, consumer electronics, and environmental monitoring.

Globally, the market for sensor systems is valued at £500Bn with an annual growth rate of 10%. The Scottish sensor systems market is worth £2.6Bn pa. There are over 170 sensor systems companies based in Scotland (SMEs and large companies), employing 16,000 people in high-value jobs including product R&D, design, engineering, manufacturing and field services.

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This master prepares you for a bright future in the fascinating world of advanced sensor applications. A domain that is rapidly growing, providing all kinds of interesting prospects for you, ambitious engineers. Read more
This master prepares you for a bright future in the fascinating world of advanced sensor applications. A domain that is rapidly growing, providing all kinds of interesting prospects for you, ambitious engineers. Within the globally important domain of health, sensor applications will provide totally new ways to monitor, heal, treat and care for people.

Sensors affect and benefit the lives of billions of people world-wide. Healthcare is one of the main areas where the innovative applications of sensors becomes increasingly important. Quite a promising prospect for you as a future sensor specialist, with expertise in said area.

Honours

Like our bachelor's programmes, the Sensor System Engineering master's is recognised as an honours programme, offering a challenging schedule to students. This means 10 ECs are added to the regular 60 ECs master's programme. We strive for students who are passionate about technology and committed to their own personal development. We select students who have an entrepreneurial style and who consider themselves to be world citizens. You will be expected to show creativity and the drive to discover new solutions by yourself. Naturally, you will be supported by the lecturing staff, as well as experts from industry, health and applied research.

Career perspectives

As a Master of Engineering you will qualify for a variety of jobs in the following domains. You can make a career in the health domain, developing products and services that involve sensor innovations for medical devices, domotics and home care. Another promising career move is to apply for a job in the technology domain, where you will develop technical sensor applications. A scientific research environment is another great place for you as a master. Here you will work alongside scientists who are focused on high tech research projects as genome sequencing or seismic monitoring systems.

Diploma

SSE is in the formal process of becoming an NVAO accredited HBO Master's Programme. After graduation you will receive a Master of Engineering diploma. The honours module is mentioned in the diploma and the diploma supplement. More info about the difference between a degree from a university of applied sciences (HBO) – higher professional education – and a research university (WO) can be found at government.nl (international students) or rijksoverheid.nl (Dutch students).

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This industry-focused programme - run jointly by the universities of Edinburgh and Glasgow - focuses on the principles, methods, techniques and technologies that underpin a vast range of needs in applications spanning from research to industry to medicine. Read more

Programme description

This industry-focused programme - run jointly by the universities of Edinburgh and Glasgow - focuses on the principles, methods, techniques and technologies that underpin a vast range of needs in applications spanning from research to industry to medicine.

The programme is designed for students looking to develop the skills and knowledge that will open up opportunities in the many companies developing sensor and image based solutions.

Sensing and sensor systems are essential for advances in research across all fields of physics, engineering and chemistry and can be enhanced when multiple sensing functions are combined into arrays to enable imaging.

Industrial applications of sensor systems are ubiquitous: from mass-produced sensors found in modern smartphones and cars to the state-of-the-art, specialist high-value sensors routinely used in oil and gas recovery, scientific equipment, machine tools, medical equipment and environmental monitoring.

Programme structure

This programme is run over 12 months. The first semester of taught courses is run at the University of Glasgow and the second at the University of Edinburgh. The taught courses are followed by a research project, carried out at either university, leading to the production of your masters thesis.

Semester 1
Semester 1 is delivered at the University of Glasgow.

Sensing and Imaging
Imaging and Detectors
Detection and Analysis of Ionising Radiation
Circuits and Systems
Optional course in physics or engineering

Semester 2
Semester 2 is delivered at the University of Edinburgh.

Two compulsory courses:

Applications of Sensor and Imaging Systems
Research Project Preparation
Two optional courses in engineering and/or chemistry:

Biophysical Chemistry
Biosensors and Instrumentation
Lab-on-Chip Technologies
Biomedical Imaging Techniques
Microfabrication Techniques

Career opportunities

Sensor and imaging systems (SIS) underpin a vast range of societal, research and industrial needs. Sensing is essential for advances in capability across all fields of physics, engineering and chemistry and is enhanced when individual sensing units are configured in arrays to enable imaging and when multiple sensing functions are integrated into a single smart system.

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The Industrial Masters by Research is is supported by the University of Salford and by Dyer Environmental Controls Ltd. Supervisors. Read more
The Industrial Masters by Research is is supported by the University of Salford and by Dyer Environmental Controls Ltd

Supervisors: Professor Will Swan and Richard Fitton

It will run for 1 year and includes:
• A fee waiver
• A stipend of £15,363 p.a.

Candidates must have settled status in the UK and meet the Residency Requirements of EPSRC – see below.

Description:

An exciting Industrial Masters by Research opportunity has arisen out of the ongoing relationship between the University of Salford and Dyer Environmental Controls Ltd.

Highlighted by the recent flooding issues in the UK, Dyer Environmental Controls Ltd believes that there is a need for improved weather detection and is looking to design a low-cost , wireless weather sensor and transmitter to enable early warning sensing and quantitative data for analysis. Dyer believes this data can be used for many applications e.g. flood warning/defenses; agricultural irrigation control; building automation; and the data collection for future modelling.

The aim of this Industrial Masters project is to produce a trialed and tested working prototype unit which Dyer Environmental can then look to submit for commercial development.

The collaboration

The School of Built Environment at the University of Salford has a strong track record of working with industry. The placement will be with the Applied Buildings and Energy Research Group, which is home to the Salford Energy House. Over the last 5 years we have developed detailed knowledge of sensors to understand both internal and external environments that are used in both laboratory and field environments.

Dyer Environmental Controls Ltd has worked closely with the University of Salford for the past 8 years, completing a 2.5 year KTP project and also sponsoring a PhD student. Dyer has also worked on various projects with the University of Salford’s Energy House. Now celebrating its 25th year, Dyer has worked within the ventilation and building automation sectors and is constantly striving for innovation. Dyer’s success is through customer relationships and flexibility – providing the most efficient and most effective solution for their customer’s needs. The KTP project succeeded in bringing a new product to market and is now sold globally.

Candidates:

The preferred candidates must have a good understanding of:
• A suitable undergraduate level award in electronics/electronics engineering
• The design/implementation and construction of analogue and digital electronic circuits.
• A good working knowledge of C & C++ for embedded microcontrollers, wireless/ mobile communications and PCB layout and design.
• Should have a working knowledge of meteorological or environmental sensors

Candidates are asked to provide a personal statement describing their background, skills, academic interests and their motivation for doing a Masters in no more than 2 sides of A4. This should include evidence of being able to work independently to a high standard, collaborate with others, and excellent writing skills.

The Successful candidate will work mainly on the premises of the University but will spend a significant amount of time at the Company Partner premises.

Funding:

This Industrial Masters by Research studentship is only available to students with settled status in the UK, as classified by EPSRC eligibility. http://www.epsrc.ac.uk/funding/students/Pages/eligibility.aspx

Eligibility: Residence requirements

To be eligible for a full award (stipend and fees) a student must have:

• Settled status in the UK
• Been ‘ordinarily resident’ in the UK for 3 years prior to the start of the grant.
• Not been residing in the UK wholly or mainly for the purpose of full-time education. (This does not apply to UK or EU nationals)

Enquiries: Informal enquiries may be made to Professor Will Swan by e-mail
Applicants should send a curriculum vitae and a covering letter explaining their interest to Vicky Beckett

Application deadline: Friday 22nd July 2016.

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Distributed and networked computation is now the paradigm that underpins the software-enabled systems that are proliferating in the modern world, with huge impact in the economy and society, from the sensor and actuator networks that are now connecting cities, to cyberphysical systems, to patient-centred healthcare, to disaster-recovery systems. Read more
Distributed and networked computation is now the paradigm that underpins the software-enabled systems that are proliferating in the modern world, with huge impact in the economy and society, from the sensor and actuator networks that are now connecting cities, to cyberphysical systems, to patient-centred healthcare, to disaster-recovery systems.

This new Masters course will educate and train you in the fundamental principles, methods and techniques required for developing such systems. Given the number of elective modules offered, you will be able to acquire further skills in one or more of Cloud Computing, Data Analytics and Information Security.

Facilities include a laboratory where you can experiment with physical devices that can be interconnected in a network, and a cluster facility configured to run the Hadoop MapReduce stack.

A Year in Industry option is also available for this course.

See the website https://www.royalholloway.ac.uk/computerscience/coursefinder/msc-distributed-and-networked-systems.aspx

Why choose this course?

This course will develop a highly analytical approach to problem solving and a strong background in distributed and networked systems, fault-tolerance and data replication techniques, distributed coordination and time-synchronisation techniques (leader-election, consensus, and clock synchronisation), data communication protocols and software stacks for wireless, sensor, and ad hoc networking technologies in virtualisation, and cloud computing technologies.

The course develops an advanced understanding of principles of failure detection and monitoring, principles of scalable storage, and in particular NoSQL technology.

Students will acquire the ability to:
- apply well-founded principles to building reliable and scalable distributed systems
- analyse complex distributed systems in terms of their performance, reliability, and correctness
- design and implement middleware services for reliable communication in unreliable networks
- work with state-of-the-art wireless, sensor, and ad hoc networking technologies
- design and implement reliable data communication and storage solutions for wireless, sensor, and ad hoc networks
- detect sources of vulnerability in networks of connected devices and deploy the appropriate countermeasures to information security threats.
- enforce privacy in “smart” environments
- work with open source and cloud tools for scalable data storage (DynamoDB) and coordination (Zookeeper)
- work with modern network management technologies (Software-Defined Networking) and standards (OpenFlow)
- design custom-built application-driven networking topologies using OpenFlow, and other modern tools
- work with relational databases (SQL), non-relational databases (MongoDb), as well as with Hadoop/Pig scripting and other big data manipulation techniques.

Department research and industry highlights

Royal Holloway is recognised for its research excellence in Machine Learning, Information Security, and Global Ubiquitous Computing.
We work closely with companies such as Centrica (British Gas, Hive), Cognizant, Orange Labs (UK), the UK Cards Association, Transport for London and ITSO.
We host a Smart Card Centre and we are a GCHQ Academic Centre of Excellence in Cyber Security Research (ACE-CSR).

Course content and structure

You will take taught modules during Term One (October to December) and Term Two (January to March). Examinations are held in May. If you are in the Year-in-Industry pathway, you then take an industrial placement, after which you come back for your project/dissertation (12 weeks).

Core course units are:
Interconnected Devices
Advanced Distributed Systems
Wireless, Sensor and Actuator Networks
Individual Project

Elective course units are:

Computation with Data
Databases
Introduction to Information Security
Data Visualisation and Exploratory Analysis
Programming for Data Analysis
Semantic Web
Multi-agent Systems
Advanced Data Communications
Machine Learning
Concurrent and Parallel Programming
Large-Scale Data Storage and Programming
Data Analysis
On-line Machine Learning
Smart Cards, RFIDs and Embedded Systems Security
Network Security
Computer Security
Security Technologies
Security Testing
Software Security
Introduction to Cryptography

Assessment

Assessment is carried out by a variety of methods including coursework, practical projects and a dissertation.

Employability & career opportunities

Our graduates are highly employable and, in recent years, have entered many different [department]-related areas, including This taught masters course equips postgraduate students with the subject knowledge and expertise required to pursue a successful career, or provides a solid foundation for continued PhD studies.

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As well as giving a solid scientific understanding, the course also addresses commercial, ethical, legal and regulatory requirements, aided by extensive industrial contacts. Read more
As well as giving a solid scientific understanding, the course also addresses commercial, ethical, legal and regulatory requirements, aided by extensive industrial contacts.

Programme Structure

The MSc programmes in Biomedical Engineering are full-time, one academic year (12 consecutive months). The programmes consist of 4 core taught modules and two optional streams. Biomedical, Genetics and Tissue Engineering stream has 3 modules, all compulsory (individual course pages). The second option, Biomedical, Biomechanics and Bioelectronics Engineering stream consists of 5 modules. Students choosing this option will be required to choose 60 credit worth of modules.

The taught modules are delivered to students over two terms of each academic year. The taught modules are examined at the end of each term, and the students begin working on their dissertations on a part-time basis in term 2, then full-time during the months of May to September.

Core Modules
Biomechanics and Biomaterials (15 credit)
Design and Manufacture (15 credit)
Biomedical Engineering Principles (15 credit)
Innovation, Management and Research Methods (15 credit)
Plus: Dissertation (60 credit)

Optional Modules

60 credit to be selected from the following optional modules:
Design of Mechatronic Systems (15 credit)
Biomedical Imaging (15 credit)
Biofluid Mechanics (15 credit)
Artificial Organs and Biomedical Applications (15 credit)
Applied Sensors Instrumentation and Control (30 credit)

Module Descriptions

Applied Sensors Instrumentation and Control

Main topics:

Sensors and instrumentation – Sensor characteristics and the principles of sensing; electronic interfacing with sensors; sensor technologies – physical, chemical and biosensors; sensor examples – position, displacement, velocity, acceleration, force, strain, pressure, temperature; distributed sensor networks; instrumentation for imaging, spectroscopy and ionising radiation detection; 'lab-on-a-chip'.

Control – Control theory and matrix/vector operations; state-space systems, multi-input, multi-output (MIMO) systems, nonlinear systems and linearization. Recurrence relations, discrete time state-space representation, controllability and observability, pole-placement for both continuous and discrete time systems, Luenberger observer. Optimal control systems, Stochastic systems: random variable theory; recursive estimation; introduction to Kalman filtering (KF); brief look at KF for non-linear systems and new results in KF theory.

Artificial Organs and Biomedical Applications

Main topics include: audiology and cochlear implants; prostheses; artificial limbs and rehabilitation engineering; life support systems; robotic surgical assistance; telemedicine; nanotechnology.

Biofluid Mechanics

Main topics include: review of the cardiovascular system; the cardiac cycle and cardiac performance, models of the cardiac system, respiratory system and respiratory performance, lung models, physiological effects of exercise, trauma and disease; blood structure and composition, blood gases. oxygenation, effect of implants and prostheses, blood damage and repair, viscometry of blood, measurement of blood pressure and flow; urinary system: anatomy and physiology, fluid and waste transfer mechanisms, urinary performance and control, effects of trauma, ageing and disease; modelling of biofluid systems, review of mass, momentum and energy transfers related to biological flow systems, fluid mechanics in selected topics relating to the cardiovascular and respiratory systems; measurements in biomedical flows.

Biomechanics and Biomaterials

Main topics include: review of biomechanical principles; introduction to biomedical materials; stability of biomedical materials; biocompatibility; materials for adhesion and joining; applications of biomedical materials; implant design.

Biomedical Engineering Principles

Main topics include: bone structure and composition; the mechanical properties of bone, cartilage and tendon; the cardiovascular function and the cardiac cycle; body fluids and organs; organisation of the nervous system; sensory systems; biomechanical principles; biomedical materials; biofluid mechanics principles, the cardiovascular system, blood structure and composition, modelling of biofluid systems.

Biomedical Imaging

Principle and applications of medical image processing – Basic image processing operations, Advanced edge-detection techniques and image segmentation, Flexible shape extraction, Image restoration, 3D image reconstruction, image guided surgery

Introduction of modern medical imaging techniques – Computerized tomography imaging (principle, image reconstruction with nondiffracting sources, artifacts, clinical applications)

Magnetic resonance imaging (principle, image contrast and measurement of MR related phenomena, examples of contrast changes with changes of instrumental parameters and medical applications)

Ultrasound imaging (description of ultrasound radiation, transducers, basic imaging techniques: A-scan, B-scan and Doppler technique; clinical application)

Positron emission tomography (PET imaging) (principle, radioactive substance, major clinical applications)

Design and Manufacture

Main topics include: design and materials optimisation; management and manufacturing strategies; improving clinical medical and industrial interaction; meeting product liability, ethical, legal and commercial needs.

Design of Mechatronic Systems

Microcontroller technologies. Data acquisition. Interfacing to power devices. Sensors (Infrared, Ultrasonic, etc.). Optoelectronic devices and signal conditioning circuits. Pulse and timing-control circuits. Drive circuits. Electrical motor types: Stepper, Servo. Electronic Circuits. Power devices. Power conversion and power electronics. Line filters and protective devices. Industrial applications of digital devices.

Innovation and Management and Research Methods

Main topics include: company structure and organisation will be considered (with particular reference to the United Kingdom), together with the interfacing between hospital, clinical and healthcare sectors; review of existing practice: examination of existing equipment and devices; consideration of current procedures for integrating engineering expertise into the biomedical environment. Discussion of management techniques; design of biomedical equipment: statistical Procedures and Data Handling; matching of equipment to biomedical systems; quality assurance requirements in clinical technology; patient safety requirements and protection; sterilisation procedures and infection control; failure criteria and fail-safe design; maintainability and whole life provision; public and environmental considerations: environmental and hygenic topics in the provision of hospital services; legal and ethical requirements; product development: innovation in the company environment, innovation in the clinical environment; cash flow and capital provision; testing and validation; product development criteria and strategies.

Dissertation

The choice of Dissertation topic will be made by the student in consultation with academic staff and (where applicable) with the sponsoring company. The topic agreed is also subject to approval by the Module Co-ordinator. The primary requirement for the topic is that it must have sufficient scope to allow the student to demonstrate his or her ability to conduct a well-founded programme of investigation and research. It is not only the outcome that is important since the topic chosen must be such that the whole process of investigation can be clearly demonstrated throughout the project. In industrially sponsored projects the potential differences between industrial and academic expectations must be clearly understood.

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Most people aren't familiar with Embedded Systems, but we use them every day of our lives. Smartphones, digital TV, MP3s and iPods, washing machines, even toys or a talking greetings card they all contain a microprocessor or a microcontroller. Read more
Most people aren't familiar with Embedded Systems, but we use them every day of our lives. Smartphones, digital TV, MP3s and iPods, washing machines, even toys or a talking greetings card they all contain a microprocessor or a microcontroller. Embedded systems are the backbone of the digital revolution.

As the complexity of embedded systems increases, the industry needs skilled graduates to fill the talent shortage.

Course detail

With the MSc Embedded Systems and Wireless Networks you'll develop a sound technical knowledge of the fundamentals of electronics, embedded systems, software and hardware, and become an embedded system designer with a multidisciplinary background. You'll develop software programming and hardware design skills, and a broad knowledge of electronics fundamentals.

Graduates of electronic engineering, systems engineering or other appropriate sciences can develop, deepen or update their skills and knowledge in advanced electronic engineering technology and cutting-edge research fields.

This course is ideal for graduate engineers interested in electronics, embedded systems, signal processing, mobile communications and wireless technology.

Modules

• Embedded Real-time Control Systems
• Safety Critical Embedded Systems
• Wireless and Mobile Communications
• Advanced Control and Dynamics
• System Design using HDLs
• Wireless Sensor Networks
• Group Project Challenge
• Dissertation

Format

You'll be taught by experienced specialist academic staff who are experts in basic and advanced electronics, control systems, basic and advanced robotics, mobile communications, wireless sensor networks, embedded systems, power systems, power electronics, signal processing and sensor technology. Many of them are involved in cutting-edge research.

You'll attend lectures, then apply what you've learned to real life through tutorial sessions, case studies, classroom discussions, project work, laboratory exercises and visits to or guest lectures from professionals working in engineering organisations.

Assessment

You are assessed through examinations, coursework, lab-based assessment and oral presentations. An independent examiner assesses your dissertation.

How to apply

Information on applications can be found at the following link: http://www1.uwe.ac.uk/study/applyingtouwebristol/postgraduateapplications.aspx

Funding

- New Postgraduate Master's loans for 2016/17 academic year –

The government are introducing a master’s loan scheme, whereby master’s students under 60 can access a loan of up to £10,000 as a contribution towards the cost of their study. This is part of the government’s long-term commitment to enhance support for postgraduate study.

Scholarships and other sources of funding are also available.

More information can be found here: http://www1.uwe.ac.uk/students/feesandfunding/fundingandscholarships/postgraduatefunding.aspx

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On City's MSc in Computer Games Technology you can develop specialist technical skills for a career in the Computer Games Industry. Read more
On City's MSc in Computer Games Technology you can develop specialist technical skills for a career in the Computer Games Industry.

Who is it for?

This course is aimed at students with a passion for computer games and a strong interest in programming. It is designed for students with an undergraduate degree in a numerate subject with substantial computing content, or those who wish to update their skills after a time in industry as a computing professional.

Objectives

The course is designed for you to develop:
-Strong technical skills suitable for professional programming roles in the game industry.
-Specialist knowledge in computer graphics, AI, physics and audio.
-The ability to design and build game engines from scratch in industry standard languages, including C++.
-Knowledge of the games development process, including the pitch, design, and use of a game engine to build a demo.
-Experience of the planning, management and execution of a major games technology project.

Academic facilities

With over 1,300 workstations, the on-campus computer rooms provide a valuable learning resource and give an opportunity for individuals to do coursework and projects. Computers have games development software including:
-Unity3D
-Unreal
-Microsoft Visual Studio
-Microsoft XNA Game Studio
-MonoDevelop
-MonoGame
-NShader
-FMOD Studio
-FMOD Studio API
-OGRE SDK
-WildMagic Geometric Tools
-Blender
-Adobe Photoshop.

City has recently invested in a new computer lab equipped with high specification NVidia GPUs.

Through City's Interaction Lab and the Department of Computing, there is hardware that can be used for student projects, including:
-Oculus Rift VR Headset
-Emotiv Epoc EEG Headset
-Neurosky Mindwave EEG Headset
-X-Box One Kinect Sensor
-X-Box 360 Kinect Sensor
-Leap Motion (Gestural input device)
-Affectiva Q Band Galvanic Skin Response sensor
-Tobii X-60 Eye Tracker

Placements

As a postgraduate student on a Computing and Information Systems course, you will have the opportunity to complete up to six months of professional experience as part of your degree.

Our longstanding internship scheme gives you the chance to apply the knowledge and skills gained from your taught modules within a real business environment. An internship also provides you with professional development opportunities that enhance your technical skills and business knowledge.

Internships delivered by City, University of London offer an exceptional opportunity to help you stand out in the competitive IT industry job market. The structure of the course extends the period for dissertation submission to January, allowing you to work full-time for up to six months. You will be supported by our outstanding Professional Liaison Unit (PLU) should you wish to consider undertaking this route.

Teaching and learning

The teaching and learning methods we use mean that your specialist knowledge and autonomy increase as you progress through each module. Active researchers guide your progress in the areas of Games Development, Computer Graphics, Artificial Intelligence and Audio, which culminates with an individual project. This is an original piece of research conducted with academic supervision, but largely independently and, where appropriate, in collaboration with industrial partners.

Taught modules are delivered through a series of 20 hours of lectures and 10 hours of tutorials/laboratory sessions. Lectures are normally used to:

present and exemplify the concepts underpinning a particular subject;
highlight the most significant aspects of the syllabus;
indicate additional topics and resources for private study.
Tutorials help you develop the skills to apply the concepts we have covered in the lectures. We normally achieve this through practical problem solving contexts.

Laboratory sessions give you the opportunity to apply concepts and techniques using state-of-the-art software, environments and development tools. In addition, City’s online learning environment Moodle contains resources for each of the modules from lecture notes and lab materials, to coursework feedback, model answers, and an interactive discussion forum.

We expect you to study independently and complete coursework for each module. This should amount to approximately 120 hours per module if you are studying full time. Modules are assessed through written examination and coursework, where you will need to answer theoretical and practical questions to demonstrate that you can analyse and apply computer games technology methods.

The individual project is a substantial task. It is your opportunity to develop an autonomous research-related topic under the supervision of an academic member of staff. This is the moment when you can apply your learning to solve a real-world problem, designing and implementing a solution and evaluating the result. At the end of the project you submit a substantial MSc project report, which becomes the mode of assessment for this part of the programme.

Modules

The programme is composed of eight taught modules and a final project.

The eight modules provide you with a firm grounding in computer games technology, including mathematics, programming, and game engines and architecture along with specialist topics in computer graphics, physics, AI, and audio.

The project component gives you an opportunity to carry out an extended piece of work under the supervision of one of our specialist academic and research staff, at the cutting edge of games technology, in an industrial or academic context.

Core Modules - there are eight Core Modules.
-Games development process
-Computer game architectures
-Computer graphics
-Game Physics and Artificial Intelligence
-Digital Signal Processing and Audio Programming
-Programming in C++
-Systems Specification
-Research, Methods and Professional Issues

Career prospects

Graduates are equipped with advanced knowledge and skills in a range of topics in games technology in preparation for a career in computer games development.

Alumni of the course are working in companies including Rockstar, Sony Computer Entertainment, Electronic Arts, and Codemasters, as well as start-ups and independent studios.

City has a dedicated incubation space, called the Hangout, located in the heart of Tech City that is specially designed for student entrepreneurs from City, University of London who want to get their idea off the ground.

Professional roles include:
-3D Graphics Programmer
-Audio Programmer
-Physics Programmer
-Artificial Intelligence Programmer
-Simulation and Game Engine Programmer
-User Interface Programmer
-Tools and Utility Programmer
-Scripting Languages Programmer
-Networking Specialist
-Porting Programmer

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This course teaches numerate graduates knowledge and skills in the field of nanotechnology and microfabrication. The course takes an immersive approach to learning both the principles and practices of nanotechnology and microfabrication with much of the material based around examples and practical exercises. Read more
This course teaches numerate graduates knowledge and skills in the field of nanotechnology and microfabrication. The course takes an immersive approach to learning both the principles and practices of nanotechnology and microfabrication with much of the material based around examples and practical exercises. Students completing this course will have a firm grasp of the current practices and directions in this exciting area and will have the knowledge and skills to enable them to design and build microscale devices.

Taught Modules:

Introduction to Nanotechnology & Microsystems: Focuses on the device fabrication techniques at the nano and micro scale, as well as introducing some of the diagnostic tools available to test the quality and characteristics of devices.

Modelling and Design: Focuses on the simulation and design of electronic devices using an advanced software package – COMSOL. This powerful commercial software package is extremely adaptable and can be used to simulate and design a very wide range of physical systems.

Advanced Sensor Systems: Provides students with an understanding of more complex sensor systems and a view of current developments in specific areas of sensor development. Applications of these systems and their main producers and users are also discussed.

Mini Project: Focuses on applying the skills and techniques to a mini project, whose theme will form the basis of the research project.

RF and Optical MEMs: Introduces the use and benefits of miniaturisation in RF and optical technologies. The module will investigate improvements in component characteristics, and manufacturing processes. Applications of RF and optical nano and microsystems will be discussed using examples.

Microengineering: This module provides an introduction to the rapidly expanding subject of microengineering. Starting with a discussion of the benefits and market demand for microengineered systems, the module investigates clean room-based lithographic and related methods of microfabrication. Micro manufacturing issues for a range of materials such as silicon, polymers and metals will be discussed along with routes to larger scale manufacture. A range of example devices and applications will be used to illustrate manufacturing parameters.

Further Microengineering: This module builds on the knowledge of microengineering and microfabrication gained in module IES4003 Microengineering and provides practical microfabrication experience. The module examines a broad range of advanced manufacturing process including techniques suitable for larger scale production, particularly of polymer devices. The module also examines specialist fabrication methods using laser systems and their flexibility in fabricating macroscopic and sub micron structures.

Masters Project Preparation: To place computing and engineering within a business context so that students relate the technical aspects of their work to its commercial and social dimensions and are able to prepare project plans which take into account the constraints and limitations imposed by non-technical factors.



Research Project
After the successful completions of the taught component of the MSc programme, the major individual project will be undertaken within the world-leading optoelectronics or optical communications research groups of the School. Students will then produce an MSc Dissertation.

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This course aims to give suitable graduates an in-depth understanding of the technology, and the drivers for the technology, in the area of Broadband and mobile communications. Read more
This course aims to give suitable graduates an in-depth understanding of the technology, and the drivers for the technology, in the area of Broadband and mobile communications. The course will also provide exposure to current research activity in the field.

Upon completing of the course, students will have a detailed understanding of the current practices and directions in this topic, and will be able to apply them to the task of continuing the roll-out of advanced communication services across the globe.

Course Topics
Data networks and communications, project foundations and management tools, broadband communication systems, technologies for Internet systems, introduction to distributed systems mobile systems, project and dissertation.

Taught Modules:

Data Networks and Communications: This module will provide an in-depth understanding of how real communication networks are structured and the protocols that make them work. It will give the students an ability to explain in detail the process followed to provide an end-to-end connection.

Modelling and Design: focuses on the simulation and design of electronic devices using an advanced software package – COMSOL. This powerful commercial software package is extremely adaptable and can be used to simulate and design a very wide range of physical systems.

Masters Mini Project: focuses on applying the skills and techniques already studied to a mini project, the theme of which will form the basis of the research project later in the year.

Broadband Communication Systems: This module aims to provide students with an in-depth understanding of current and emerging broadband communications techniques employed in local, access and backbone networks. Particular emphasis will be focused on the following aspects: 1) Fundamental concepts, 2) Operating principles and practice of widely implemented communications systems; 3) Hot research and development topics, and 4) Opportunities and challenges for future deployment of broadband communications systems.

Mobile Communication Systems: This module will provide an in-depth understanding of current and emerging mobile communication systems, with a particular emphasis on the common aspects of all such systems.

RF and Optical MEMS: This module aims to introduce the use and benefits of miniaturisation in RF and optical technologies. The module will investigate improvements in component characteristics, and manufacturing processes. Applications of RF and optical nano and microsystems will be discussed using examples.

Advanced Sensor Systems: This course aims to provide students with an understanding of more complex sensor systems and a view of current developments in specific areas of sensor development. Applications of these systems and their main producers and users are also discussed.

Masters Project Preparation: To place computing and engineering within a business context so that students relate the technical aspects of their work to its commercial and social dimensions and are able to prepare project plans which take into account the constraints and limitations imposed by non-technical factors.

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Electronic engineering defines the very fabric of today’s modern technologically advanced society. A myriad of consumer electronic products - televisions, CD and DVD players - are in daily use by practically everyone on the planet. Read more
Electronic engineering defines the very fabric of today’s modern technologically advanced society. A myriad of consumer electronic products - televisions, CD and DVD players - are in daily use by practically everyone on the planet. Mobile phones and computers enable global communications on a scale unimaginable even a few decades ago. Yet electronic engineering continues to develop new capabilities which will shape the lives of future generations.

This programme aims to provide a broad based Electronic Engineering MSc which will enable students to contribute to the future development of electronic products and services. The course reflects the School’s highly regarded research activity at the leading edge of electronic engineering. The MSc will provide relevant, up-to-date skills that enhance the engineering competency of its graduates and allows a broader knowledge of electronic engineering to be acquired by studying important emerging technologies, such as, optoelectronics, bioelectronics, polymer electronics and micromachining. The course is intended for graduates in a related discipline, who wish to enhance and specialise their skills in several emerging technologies.

Course Structure
This course runs from 29 September 2014 to 30 September 2015.

The course structure consists of a core set of taught and laboratory based modules that introduce advanced nanoscale and microscale device fabrication processes and techniques. In addition, device simulation and design is addressed with an emphasis placed on the use of advanced CAD based device and system based modelling. Transferable skills such as project planning and management, as well as, presentational skills are also further developed in the course.

Taught Modules:

Introduction to Nanotechnology & Microsystems*: focuses on the device fabrication techniques at the nano and micro scale, as well as introducing some of the diagnostic tools available to test the quality and characteristics of devices.

Modelling and Design: Focuses on the simulation and design of electronic devices using an advanced software package – COMSOL. This powerful commercial software package is extremely adaptable and can be used to simulate and design a very wide range of physical systems.



Advanced Sensor Systems: Provides students with an understanding of more complex sensor systems and a view of current developments in specific areas of sensor development. Applications of these systems and their main producers and users are also discussed.

Masters Mini Project: focuses on applying the skills and techniques already studied to a mini project, the theme of which will form the basis of the research project later in the year.

RF and Optical MEMs*: Introduces the use and benefits of miniaturisation in RF and optical technologies. The module will investigate improvements in component characteristics, and manufacturing processes. Applications of RF and optical nano and microsystems will be discussed using examples.

Microengineering*: Provides an introduction to the rapidly expanding subject of microengineering. Starting with a discussion of the benefits and market demand for microengineered systems, the module investigates clean room-based lithographic and related methods of microfabrication. Micro manufacturing issues for a range of materials such as silicon, polymers and metals will be discussed along with routes to larger scale manufacture. A range of example devices and applications will be used to illustrate manufacturing parameters.

Further Microengineering*: This module builds on the knowledge of microengineering and microfabrication gained in the Microengineering module. The module examines a broad range of advanced manufacturing process including techniques suitable for larger scale production, particularly of polymer devices. This module also examines specialist fabrication methods using laser systems and their flexibility in fabricating macroscopic and sub micron structures.

Mobile Communication Systems*: This module will provide an in-depth understanding of current and emerging mobile communication systems, with a particular emphasis on the common aspects of all such systems.

Broadband Communication Systems: This module provides students with an in-depth understanding of current and emerging broadband communications techniques employed in local, access and backbone networks. Particular emphasis will be focussed on the following aspects: 1) fundamental concepts, 2) operating principles and practice of widely implemented communications systems; 3) hot research and development topics, and 4) opportunities and challenges for future deployment of broadband communications systems.

Data Networks and Communications*: This module will provide an in-depth understanding of how real communication networks are structured and the protocols that make them work. It will give the students an ability to explain in detail the process followed to provide end to end connections and end-user services at required QoS.

Masters Project Preparation: To place computing and engineering within a business context so that students relate the technical aspects of their work to its commercial and social dimensions and are able to prepare project plans which take into account the constraints and limitations imposed by non-technical factors.

*optional modules

Research Project
After the successful completion of the taught component of the MSc programme, the major individual project will be undertaken within the world-leading optoelectronics or optical communications research groups of the School. Students will then produce an MSc Dissertation.

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The Sensors Electronic Warfare PgCert has been designed for officers of the Armed Forces and for scientists and technical officers in government defence establishments and the defence industry. Read more

Course Description

The Sensors Electronic Warfare PgCert has been designed for officers of the Armed Forces and for scientists and technical officers in government defence establishments and the defence industry.

The programme covers a selection of Electronic Warfare (EW) topics relevant to military systems, covering the specification, analysis, development, procurement, and technical management of military radar, electro-optics and infrared sensor systems.

The main focus of the programme being EW in relation to sensor systems, requires a good understanding of these systems before going on to consider how to defend them from electronic attack or intercept.

Course overview

PgCert students must complete a taught phase consisting of six specified modules.

Graduates achieve a high level of understanding and detailed knowledge of military communications and sensor systems with particular regard to electronic warfare. Successful graduates of this course should be fully equipped for roles in defence intelligence, systems development and acquisition, involving the specification and analysis of such systems, working individually or as part of a team.

Modules

Core -

Electromagnetic Propagation and Devices
Signal Processing, Statistics and Analysis
Radar Principles
Radar Electronic Warfare
Electro-Optics and Infrared Systems 1
Electro-Optics and Infrared Systems 2

Facilities and resources

The course is delivered via lectures, laboratory demonstrations and tutorials. The teaching of the modules is reinforced by visits to relevant outside organisations and scheduled outside of teaching periods.

Funding

Please contact for more information on funding.

Career opportunities

Successful graduates of this course should be fully equipped for roles in defence intelligence, systems development and acquisition, involving the specification and analysis of such systems, working individually or as part of a team either in the military or in the defence industry.

Further Information

For further information on this course, please visit our course webpage - http://www.cranfield.ac.uk/Courses/Masters/Sensors-Electronic-Warfare

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This course provides education and training in selected military electronic systems. The course is intended for officers of the armed forces and for scientists and technical officers in government defence establishments and the defence industry. Read more

Course Description

This course provides education and training in selected military electronic systems. The course is intended for officers of the armed forces and for scientists and technical officers in government defence establishments and the defence industry. It is particularly suitable for those who, in their subsequent careers, will be involved with the specification, analysis, development, technical management or operation of military radar, electro-optics, communications, sonar or information systems, where the emphasis will be on an Electronic Warfare environment.

Students taking the Postgraduate Certificate (PgCert) course variant are able to choose to study, and will be awarded, either the Communications Electronic Warfare PgCert or Sensors Electronic Warfare PgCert.

Overview

A Military Electronic Systems Engineering graduate achieves a high level of understanding and detailed knowledge of military communications and sensor systems with particular regard to electronic warfare. In addition, the MSc course enables the student to carry out an in-depth investigation into an area of electronic warfare to further enhance their analytical capability. Successful graduates of this course should be fully equipped for roles in defence intelligence, systems development and acquisition, involving the specification and analysis of such systems, working individually or as part of a team.

A typical course cohort comprises 10-15 full time students and up to 4 part time.

Duration: Full-time MSc - one year, Part-time MSc - up to three years, Full-time PgCert - one year, Part-time PgCert - two years, Full-time PgDip - one year, Part-time PgDip - two years

Course overview

- MSc students must complete a taught phase consisting of twelve modules, followed by an individual dissertation in a relevant topic.
- PgDip students must complete a taught phase consisting of twelve modules.
- PgCert students must complete a taught phase consisting of six specified modules.

Core Modules

The MSc/PGDip taught phase comprises 10 compulsory modules and a choice of either Information Networks and Advanced Radar, or, Aeronautical Engineering Parts 1 and 2.

Core:
- Electromagnetic Propagation and Devices
- MES-CP - Communications Principles
- Communications Systems 1 and 2
- Radar Principles
- Radar Electronic Warfare
- Electro-Optics and Infrared Systems 1
- Electro-Optics and Infrared Systems 2
- Information Networks

Elective:
- MES-AR - Advanced Radar
- MES-ASDP - Advanced Sensor Data Processing
- Aeronautical Engineering 1
- Aeronautical Engineering 2

Individual Project

The project aim is for the student to undertake an extensive analytical research project using appropriate research methodology, involving simulation and modelling, measurements, experimentation, data collection and analysis. This will enable students to develop and demonstrate their technical expertise, independent learning abilities and critical research skills in a specialist subject area relevant to the field of study of the course.

Assessment

By examination, assignments and thesis.

Career opportunities

This course is typically a requirement for progression for certain engineering and technical posts within UK MOD.

Successful graduates of this course should be fully equipped for roles in defence intelligence, systems development and acquisition, involving the specification and analysis of such systems, working individually or as part of a team either in the military or in the defence industry.

For further information

On this course, please visit our course webpage - http://www.cranfield.ac.uk/courses/masters/military-electronic-systems-engineering.html

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Signal processing is recognised as a core technology in rapidly growing areas such as sensor networks, medical devices and renewable energy, audio, image and video systems. Read more

Why this course?

Signal processing is recognised as a core technology in rapidly growing areas such as sensor networks, medical devices and renewable energy, audio, image and video systems. It’s the underpinning technology of all communication including the internet, wireless and satellite.

We’ve been carrying out research and development in signal processing for more than 30 years. Many of today’s industry leaders are alumni of the University and this industry awareness and experience underpins this specialised degree.

This MSc aims to address the growing skills shortage in industry of engineers who have an understanding of the complete signal processing design cycle. It’s also essential preparation if you’re considering advanced research in applied signal processing.

See the website https://www.strath.ac.uk/courses/postgraduatetaught/signalprocessing/

What you’ll study

There are two semesters of compulsory and optional classes, followed by a three-month practical research project in a specialist area. There’s the opportunity to carry this out through the department's competitive MSc industrial internships.

The internships are offered in collaboration with selected department industry partners eg ScottishPower, SmarterGridSolutions, SSE. You'll address real-world engineering challenges facing the partner, with site visits, access and provision of relevant technical data and/or facilities provided, along with an industry mentor and academic supervisor.

Facilities

You'll have exclusive access to our extensive computing network and purpose built teaching spaces such as our Hyperspectral Imaging Centre and the DG Smith Radio Frequency laboratory, equipped with the latest technologies.

Accreditation

The course is fully accredited by the professional body, the Institution of Engineering and Technology (IET). This means that you'll meet the educational requirements to become a Chartered Engineer – a must for your future engineering career.

Pre-Masters preparation course

The Pre-Masters Programme is a preparation course for international students (non EU/UK) who do not meet the entry requirements for a Masters degree at University of Strathclyde. The Pre-Masters programme provides progression to a number of degree options.

To find out more about the courses and opportunities on offer visit isc.strath.ac.uk or call today on +44 (0) 1273 339333 and discuss your education future. You can also complete the online application form. To ask a question please fill in the enquiry form and talk to one of our multi-lingual Student Enrolment Advisers today.

Learning & teaching

We use a blend of teaching and learning methods including interactive lectures, problem-solving tutorials and practical project-based laboratories. Our technical and experimental officers are available to support and guide you on individual subject material.

Each module comprises approximately five hours of direct teaching per week. To enhance your understanding of the technical and theoretical topics covered in these, you're expected to undertake a further five to six hours of self-study, using our web-based virtual learning environment (MyPlace), research journals and library facilities.

The teaching and learning methods used ensure you'll develop not only technical engineering expertise but also communications, project management and leadership skills.

- Industry engagement
Interaction with industry is provided through our internships, teaching seminars and networking events. The department delivers monthly seminars to support students’ learning and career development. Xilinx, Texas Instruments, MathWorks, and Agilent are just a few examples of the industry partners you can engage with during your course.

Assessment

A variety of assessment techniques are used throughout the course. You'll complete at least six modules. Each module has a combination of written assignments, individual and group reports, oral presentations, practical lab work and, where appropriate, an end-of-term exam.

Assessment of the summer research project/internship consists of four elements, with individual criteria:
1. Interim report (10%, 1,500 to 3,000 words) – the purpose of this report is to provide a mechanism for supervisors to provide valuable feedback on the project’s objectives and direction.

2. Poster Presentation (15%) – a vital skill of an engineer is the ability to describe their work to others and respond to requests for information. The poster presentation is designed to give you an opportunity to practise that.

3. Final report (55%) – this assesses the communication of project objectives and context, accuracy and relevant of background material, description of practical work and results, depth and soundness of discussion and conclusions, level of engineering achievement and the quality of the report’s presentation.

4. Conduct (20%) - independent study, project and time management are key features of university learning. The level of your initiative & independent thinking and technical understanding are assessed through project meetings with your supervisor and your written logbooks.

Careers

With Signal Processing being a core technology in high-growth areas such as sensor networks, medical devices, renewable energy and communications, this course enables you to capitalise on job opportunities across all of these sectors, as well as in electronics design, IT, banking, and oil and gas.

Almost all of our graduates secure jobs by the time they have completed their course. They've taken up well-paid professional and technical occupations with multinationals such as Google, Microsoft, Texas Instruments, Motorola Mobility, Intel, as well as Wolfson Microelectronics, Agilent, Freescale and Thales in the vibrant national UK arena.

Find information on Scholarships here http://www.strath.ac.uk/engineering/electronicelectricalengineering/ourscholarships/.

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Electrical and Electronic Engineering is characterised by the need for continuing education and training. Today, most Electrical and Electronic Engineers require more than is delivered in a conventional four-year undergraduate programme. Read more
Electrical and Electronic Engineering is characterised by the need for continuing education and training. Today, most Electrical and Electronic Engineers require more than is delivered in a conventional four-year undergraduate programme. The aim of the MEngSc (Electrical and Electronic Engineering) programme is to provide advanced coursework with options for a research element or industrial element, and additional professional development coursework. Students choose from a range of courses in Analogue, Mixed Signal, and RF Integrated Circuit Design, VLSI Architectures, Intelligent Sensors and Wireless Sensor Networks, Wireless Communications, Robotics and Mechatronics, Advanced Power Electronics and Electric Drives, Optoelectronics, Adaptive Signal Processing and Advanced Control. A range of electives for the coursework-only stream includes modules in Computer Architecture, Biomedical Design, Microsystems, Nanoelectronics, Innovation, Commercialisation, and Entrepreneurship

Visit the website: http://www.ucc.ie/en/ckr47/

Course Details

The MEngSc (EEE) has three Streams which include coursework only, coursework with a research project, or coursework with an industrial placement. Students following Stream 1 take course modules to the value of 60 credits and carry out a Minor Research Project to the value of 30 credits. Students following Stream 2 take course modules to the value of 60 credits and carry out an Industrial Placement to the value of 30 credits. Students following Stream 3 take course modules to the value of 90 credits, up to 20 credits of which can be in topics such as business, law, and innovation.

Format

In all Streams, students take five core modules from the following range of courses: Advanced Analogue and Mixed Signal Integrated Circuit Design, Advanced RF Integrated Circuit Design, Advanced VLSI Architectures, Intelligent Sensors and Wireless Sensor Networks, Wireless Communications, Robotics and Mechatronics, Advanced Power Electronics and Electric Drives, Optoelectronics, and Adaptive Signal Processing and Advanced Control. In addition, students following Stream 1 (Research Project) and Stream 2 (Industry Placement) carry out a Research Report. Following successful completion of the coursework and Research Report, students in Streams 1 and 2 carry out a research project or industry placement over the summer months.

Students who choose the coursework-only option, Stream 3, take additional courses in lieu of the project or placement. These can be chosen from a range of electives that includes modules in Computer Architecture, Biomedical Design, Microsystems, Nanoelectronics, Innovation, Commercialisation, and Entrepreneurship.

Assessment

Part I consists of coursework modules and mini-project to the value of 60 credits. These are assessed using a combination of written examinations and continuous assessment. Successful completion of the initial tranche of coursework modules qualifies the student to progress to Part II, the research project, industrial placement, or additional coursework to the value of 30 credits in the cases of Streams 1, 2, and 3, respectively.

Placement and Study Abroad Information

For students following Streams 1 and 2, research projects and industrial placements are normally in Ireland. Where the opportunity arises, a research project or work placement may be carried out outside Ireland.

Careers

MEngSc (Electrical and Electronic Engineering) graduates will have a competitive advantage in the jobs market by virtue of having completed advanced coursework in Electrical and Electronic Engineering and, in the case of Streams 1 and 2, having completed a significant research project or work placement.

How to apply: http://www.ucc.ie/en/study/postgrad/how/

Funding and Scholarships

Information regarding funding and available scholarships can be found here: https://www.ucc.ie/en/cblgradschool/current/fundingandfinance/fundingscholarships/

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