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.
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.
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.
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.
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 is delivered at the University of Glasgow.
Semester 2 is delivered at the University of Edinburgh.
Two compulsory courses:
Two to four (depending on course weighting) optional courses in engineering and/or chemistry:
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.
This MSc in Sensor Technologies and Enterprise is delivered collaboratively by world-leading experts from Liverpool John Moores University and the University of Liverpool, and is closely linked with the “Sensor City” University Enterprise Zone.
The Department of Electronic and Electrical Engineering is seeking to appoint an MPhil / MRes student to conduct research for the Eco-Innovation Cheshire and Warrington Industry Collaboration programme. Postgraduate fees are paid by the industrial sponsor for UK/EU students.
This studentship is part funded by the European Regional Development Fund (ERDF).
The sponsor company designs and manufactures energy-efficient control and monitoring systems for the refrigeration industry. With 30 years of industry experience and a focus on energy efficiency and energy reduction, the company delivers direct and indirect energy savings, improved control and greater operational efficiency worldwide.
The proposed innovation adds an exciting new subsystem to optimise and significantly improve the accuracy and efficiency of the refrigeration process. It could be applied in a number of formats worldwide to deliver: lower energy consumption; reduced equipment operation; reduced equipment maintenance and lower costs for retailers. The technology has the potential to save mega-tonnes of carbon and significantly contribute to the UK’s climate change targets by 2030. In this project, you will apply your electronics and electrical engineering skills to: developing a suitable and commercially viable hardware sensor; verifying sensor placement and analysing digital signals.
This is an exciting opportunity to gain skills and experience in the highly-marketable areas of DSP and the Internet of Things.
1. Establish and verify a low cost, robust and reliable sensor.
2. Verify the sensor's ability to detect key signals for use with digital signal processing analysis.
3. Verify the best position and mount for optimised/accurate data and digital signal analysis.
4. Verify the sensor can operate in the varying conditions created by the refrigeration process.
5. Provide a report and evidence of the research and conclusions to the University of Chester and the company.
1. Knowledge of DSP tools such as MATLAB, Audacity or similar.
2. Skilled in electronics design for sensor interfaces.
3. Capability to use DSP tools and build interface circuits to micro processors.
First degree (2:1 or above) in Electronic and Electrical Engineering, Control Engineering, Manufacturing and Mechanical Engineering or Mathematics (essential).
You will be a motivated and dynamic person, with a demonstrable capability to conduct independent research.
Applicants whose first language is not English must provide evidence of proficiency to IELTS 6.5 with no less than 5.5 in each band or equivalent.
This studentship attracts a tax exempt stipend of £15,000 per annum. Post graduate fees are funded for UK/EU based students. International students will be required to make an additional contribution to their post graduate fees. The successful applicant will be invited to choose whether to pursue an MPhil or MRes, depending on their career objectives, however minor variations in funding and course structure and duration will apply. Further details on this are available from Dr Andrew McLauchlin [email protected] +44 (0)1244 512494.
A completed University of Chester Postgraduate Research Degree (MPhil/MRes) application form including contact details of two referees (at least one must be familiar with your most recent academic work).
Candidates should apply online via the University of Chester website page https://www.chester.ac.uk/research/degrees/studentships and specify their reference number when applying. The reference number is: RA001801
Shortlisted candidates will be notified soon after the closing date. Interviews will normally be held in the two weeks following the closing date.
Prospective applicants are encouraged to initially contact Dr Gerard Edwards [email protected] Tel. 01244 512314 to discuss the project further. For general enquiries contact Postgraduate Research Admissions, University of Chester at [email protected]
Closing date: 31st January 2018
Small Unmanned Aircraft (SUA) which are more commonly referred to as Drones are now being used for commercial purposes in an exciting and booming business sector predicted to be worth more than £15 billion in the next 10 years.
This practical orientated MSc in Unmanned Aircraft Systems (UAS) Technology has been specifically designed for professionals whose occupational fields would benefit from applications of UAS technology. These are as diverse as agriculture, logistics, surveying, mining, forestry, ecology, archaeology, emergency services, estate management, virtual reality and computer gaming. This course is also ideal for those who are keen to enter this industry sector and wish to develop a thorough understanding of UAS Technology.
During this course you will construct a Drone and gain an in depth understanding of drone and payload sensor technology. This course will also help to build your confidence as a drone operator, allowing you to safely undertake simulated and actual UAS missions in the knowledge that you have complied with all of the relevant statutory requirements.
UAS are frequently used for data-gathering purposes and during this course you will have the opportunity and the analytical support to gather and analyse data as part of the project dissertation. Typical forms of data gathering are 3D terrain mapping and surveying using PIX4D software.
The structural design and component architecture of UAS is also a rapidly evolving field of technology. Here at Wrexham Glyndwr University we have the facilities and technical support staff necessary to realise the conceptual ideas that you may have. Our Advanced Composite Centre facility allows the manufacture and testing of high performance UAS airframes, there are rapid prototyping and 5-axis CNC machining facilities, wind tunnels for aerodynamic testing and our electrical and electronic build and test laboratories are available for the production and testing of control, sensor and power supply circuitry.
Drone Technology & Operations.
Advanced UAV Operations and the Law.
UAV Sensor Technology and Measurement Techniques.
Sustainable Design and Innovation
Critique based on a quantitative or qualitative research framework or methodology.
Individual report and presentation relating to a proposed research strategy.
Presentation and Group Report
Practical & Coursework
A series of Flight Tests.
Based on an investigation or comparison of a relevant UAS technology.
Learning Logs/Journals relating to the design and build of a UAS.
Test-Flight of a UAS.
Examination relating to UAS commercial legislation.
Critical evaluation of a realistic scenario relating to UAS payloads, telemetry and transmission systems.
Based on sensor technology and theory.
A critical evaluation of an aspect of current sensor technology, research and advanced scholarship.
Interaction design is a rapidly changing discipline, and we maintain the relevance of our education by working with real-world design cases and outside clients that include local industry partners, as well as cultural and civic organisations. Navigating a shifting design landscape also requires the critical mindset of a scholar, and we foster reflective design by teaching research skills and involving students in active research projects.
We educate designers who can articulate and develop cutting-edge practices in key areas of interaction design: tangible and sensor-based interaction, wearable and embodied interaction, game design, participatory design practices, critical design, social innovation and collaborative media development. Students approach these genres within a broad context that considers the social, political and ethical consequences of their designs. Our education is studio-based, bringing students into close contact with our design professors.
This is a one-year programme, which is also offered as the first year of a two-year programme providing a more well-rounded combination of design practice and academic research.
Our programme was founded in 1998, making it one of the more established programmes of its kind. We focus on areas where our design and research excellence is internationally recognised: tangible and sensor-based interaction, wearable and embodied interaction, game design, participatory design practices, critical design, social innovation and collaborative media development.
Interaction design requires the fusion of multiple skill sets. We recruit students with different backgrounds – design, media, engineering, the arts, and social sciences – and focus our teaching on creating disciplinary synergy in the concrete design work.
The programme comprises full-time study for one academic year, divided into four courses starting with a studio-based introduction to multidisciplinary collaboration and mainstream interaction design. The next two courses address embodied interaction and collaborative media, two of our signature topics. The final course is a Master’s level graduation project.
Upon graduation, you are eligible for the second year of the two-year Master’s programme to learn more about interaction design research and theory. Read more about the two-year Master’s programme
The programme is based on a learning-by-doing pedagogy. This means that we encourage an iterative practice of experimentation and reflection. As teachers, we view ourselves as coaches guiding you in this process.
The programme is studio-based. You will also have access to computer labs, a materials workshop and a prototyping lab for electronics, sensor and microprocessor programming.
The primary method of learning is through group work in multidisciplinary teams with classmates and other stakeholders. Abilities to work in teams and with others – including user communities – are important parts of our curriculum, and several projects are organised to practice doing this.
With our humanistic approach, you will be practicing qualitative research approaches to support your design of tangible artefacts as well as digital and interactive services, systems and artefacts. We emphasize an understanding of people in their use situations.
Prototyping in the studio and real-world contexts is an integral part of becoming an interaction designer.
To practice reflective and experimental design activity, projects and courses integrate seminars and hands-on workshops introducing students to, among other things, ethnographic fieldwork, visualisation, low- and high-fidelity prototyping, microprocessor programming and video sketching, as well as evaluation of use qualities. All these practices are backed up by literature references and examples.
Your thesis project will be a combination of a design project and reflective writing that will involve communicating and discussing your design work. This is one result of a student's work in Thesis Project I.
Students have access to studio space, and we encourage a healthy studio culture. This is where we conduct group-work, seminars, workshops, presentations and discussions. Close by there is a well-equipped materials workshop and a physical prototyping lab for electronics and sensor work. Additionally, we often use the facilities at the MEDEA research centre for final presentations, exhibitions, seminars and programme-meetings.
Students enter the programme with different kinds of expertise, from art and design to engineering and social sciences. Upon graduation, you will have built a strong understanding of how your particular skills play a role in interaction design and how they combine with other specialities of fellow designers.
Most alumni move on to positions as interaction designers, user experience specialists or usability architects in the ICT, telecom and media industries. For some, this involves fine-tuning the interfaces and interactions of current products to users' needs; other interaction designers work on concept development for future products and services. Yet other alumni find their calling in strategic positions where the role of interaction design is considered in relation to market and business development.
Some interaction designers are also found in the role of change agents in public organisations and NGOs.
Master's Degree (60 credits).
Degree of Master of Science (60 Credits) with a Major in Interaction Design.
Master's Degree (120 credits).
Degree of Master of Science (120 Credits) with a Major in Interaction Design.
We worked with industry professionals to develop an MSc Applied Instrument and Control programme that is accredited by the Institute of Measurement and Control (InstMC). It covers both the latest developments in the field and the industry knowledge we've gained through years of experience.
You'll acquire a specialised skillset and expertise that's highly desirable to employers, making you a competitive candidate for rewarding careers in many industries, with oil and gas pathways available. The programme draws on relevant case studies with real-world implications, so you'll gain practical knowledge that you can apply on the job from day one.
The programme also fulfils the Engineering Council's further learning requirements for registration as a Chartered Engineer.
At GCU, you'll find a welcoming community of people like yourself - hardworking, career-focused individuals with the vision and discipline to pursue meaningful work. We'll help you develop the tools to be successful, in your career and in your life.
We hope you'll use those tools to make a positive impact on your community and contribute to the common good through everything you do.
The curriculum has been developed in consultation with industry and can be broadly grouped in three areas: the introduction of new facts and concepts in measurement and control; the application of facts and concepts to real measurement problems and systems; and subjects which are of general importance to the professional engineer, for example safety and safety management and management ethics and project planning.
Students complete eight taught modules - four in trimester A and four in trimester B; and a Masters project in trimester C.The MSc project will be carried out at the student's workplace; this can be in an area relevant to the company's production/maintenance function, thus providing maximum benefit to both the company and the individual.
Consolidates advanced classical and modern control design techniques emphasising the practical considerations in applying control design in an industrial environment. The appropriateness and difficulties encountered in applying various design techniques in practice will be explored. In particular system sensitivity, robustness and nonlinearity will be studied.
Data Acquisition and Analysis
Develops the ability to evaluate, in a given situation, the most appropriate strategy for acquiring data and understand the merits of this strategy with respect to other approaches. A range of modern time and frequency domain analysis techniques will also be discussed.
Industrial Case Studies
Following on from the foundation in measurement and instrumentation provided by the Measurement Theory and Devices module, students will now be equipped to study in depth instrumentation in industrial processes. This module will cover aspects of designing sensor systems for industrial measurements, instrument control, system troubleshooting and optimisation in industrial applications.
Develops the ability to evaluate, in a given situation, the most appropriate strategy for acquiring and transmitting data and understand the merits of this strategy with respect to other approaches. A wide range of different instrument communication and networking techniques will be studied. In addition the module provides practical experience of hardware setup and software development, relating to these techniques.
Industrial Process Systems
Identification and system modelling from real data play an important role in this module. This approach thus leads to more complex and realistic models that can be used to design more robust and reliable controllers that take into account problematic physical effects such as time-delays and sensor noise. The module will cover more advanced aspects of control design such as feed forward and multivariable control.
A range of advanced measurement systems will be studied in depth. Sensors, signal processing, low-level signal measurements, noise-reduction methods and appropriate measurement strategies will be applied to industrial and environmental applications. The influence of environmental factors and operation conditions will be considered in relation to the optimisation of the measurement system.
Measurement Theory and Devices
Adopts a generalised approach to measurement theory and devices, allowing students to become familiar with the characteristics of measurement systems in terms of the underlying principles. In this way, the students will be able to develop a systems approach to problem solving. They should find this methodology to be a considerable benefit to them when they have to apply their expertise to solving more complex industrial measurement problems.
Develops the students' ability to select, develop and plan an MSc research project, to research and critically analyse the literature associated with the project and to present research findings effectively, it will also provide students with the ability to apply a competent process of thinking to project planning and give them a critical understanding of safe and ethical working.
The programme is accredited by the Institute of Measurement and Control (InstMC) as meeting the Engineering Council’s further learning requirements for registration as a Chartered Engineer.
The MSc Applied Instrumentation and Control offers graduates a highly focused skillset that's valuable to an extremely wide range of industries - any business that benefits from the measurement of process variables and environmental factors. For instance, chemicals, pharmaceuticals, optics and optoelectronics, medical instrumentation and more.
Across these industries, you might focus on computer-controlled instrumentation systems, process instrumentation, technical management and sales, process control and automation, sensor development and manufacturing, instrument networking, industrial development or test and measurement systems.
You might also pursue a career with a company that designs and manufactures measurement systems.
The global market for aerial, ground, and marine Autonomous Vehicles has grown rapidly due to the advent of drones and driverless cars. Defence, Aerospace, Automotive, and Marine Industries seek graduates conversant in key aspects of Autonomy including: dynamics & control, guidance & navigation, decision making, sensor fusion, data & information fusion, communication & and networking. These durable and transferrable skills are the bedrock of this unique MSc course whose content has been based on advice from the Industrial Advisory Board, comprising the relevant Industrial representatives from Big Primes to Small and Medium-sized Enterprises.
The Autonomous Vehicle Dynamics and Control MSc is a unique course for graduates in engineering, physics, or mathematics wishing to acquire durable and transferrable skills in Autonomous Vehicles to pursue career opportunities in Defence, Aerospace, Automotive, and Marine Industries.
We are unique in that we offer a combination of subjects much sought after in the Autonomous Vehicle Industry and not covered in a single MSc course anywhere else. Successful graduates of our MSc course become conversant in key aspects of Autonomy which advantageously differentiates them in today's competitive employment market
The Autonomous Vehicle Dynamics and Control MSc course begins with the fundamentals of autonomous vehicle dynamics and control, and progresses to the core subjects of guidance & navigation, decision making, sensor fusion, data & information fusion, communication & and networking. A choice of optional modules allows individual tailoring of these subjects to specialise in appropriate subject areas.
The taught part of the course is followed by Individual Research Projects (IRPs) and the topic of each of the IRPs is provided by one of the member of the Industrial Advisory Board. The real-world relevance of the IRP topics is another unique feature of our MSc course and can be another effective differentiator in the job market.
This course is also available on a part-time basis enabling you to combine studying with full-time employment. This is enhanced by a three-stage programme from a Postgraduate Certificate, to a Postgraduate Diploma through to an MSc.
The relevant, competent and pro-active Industrial Advisory Board includes:
who not only continuously advise on updating the course content but also provide topics for Individual Research Projects (IRPs). After the final oral exams in early September, all students present posters summarising their IRPs to the whole Industrial Advisory Board thus exposing their work to seasoned professionals and potential employers. The IRPs benefit from our own lab where real autonomous vehicles can be designed and tested.
Accreditation is being sought for the MSc in Autonomous Vehicle Dynamics and Control from the Royal Aeronautical Society, the Institution of Mechanical Engineers (IMechE) and the Institution of Engineering & Technology (IET) on behalf of the Engineering Council as meeting the requirements for Further Learning for registration as a Chartered Engineer. Candidates must hold a CEng accredited BEng/BSc (Hons) undergraduate first degree to comply with full CEng registration requirements.
The taught course element consists of lectures in three areas: dynamics, control systems, and autonomous systems and technology. The MSc consists of two equally weighted components, taught modules and an individual research project.
Our industry partners sponsor individual research projects allowing you to choose a topic that is commercially relevant and current. Topics are chosen during the first teaching period in October and you begin work during the second half of the MSc course (May - August). The project allows you to delve deeper into an area of specific interest, taking the theory from the taught modules and joining it with practical experience.
Projects encompass various aspects of operations, not only concerned with design but including payloads, civil applications, system, sensors and other feasibility studies industry wishes to explore.
For the duration of the project, each student is assigned both a university and industry supervisor. In recent years, students have been based at sponsor companies for sections of their research and have been given access to company software/facilities.
During the thesis project all students give regular presentations to the course team and class, which provides an opportunity to improve your presentation skills and learn more about the broad range of industry sponsored projects.
Previous projects have included:
Taught modules 50%, Individual research project 50%. Please note: Modules for this course are under review, to incorporate the latest advice from the Industrial Advisory Board.
The industry-led education makes Cranfield graduates some of the most desirable all over the world for recruitment by companies competing in the autonomous vehicle market including:
Graduates from this course will be equipped with the advanced skills which could be applied to the security, defence, marine, environmental and aerospace industries. This approach offers you a wide range of career choices as an autonomous systems engineer, design engineer or in an operations role, at graduation and in the future. Others decide to continue their education through PhD studies available within Cranfield University or elsewhere.
Our MSc in Communications, Networks and Software covers the key aspects of the changing Internet environment, in particular the convergence of computing and communications underpinned by software-based solutions.
Some of our students undertaking their project are able to work on one of our wide range of testbeds, such as internet technologies, wireless networking, network management and control, and internet-of-things (IoT) applications.
We also have specialist software tools for assignments and project work, including OPNET, NS2/3, and various system simulators.
Read about the experience of a previous student on this course, Efthymios Bliatis.
This programme is studied full-time over 12 months or part-time from 24 to 60 months. It consists of eight taught modules and a project.
Example module listing
The following modules are indicative, reflecting the information available at the time of publication. Please note that not all modules described are compulsory and may be subject to teaching availability and/or student demand.
The taught postgraduate degree programmes of the Department are intended both to assist with professional career development within the relevant industry and, for a small number of students, to serve as a precursor to academic research.
Our philosophy is to integrate the acquisition of core engineering and scientific knowledge with the development of key practical skills (where relevant).
To fulfil these objectives, the programme aims to:
A graduate from this MSc Programme should:
We have a full range of software support for assignments and project work, including:
We often give our students the opportunity to acquire international experience during their degrees by taking advantage of our exchange agreements with overseas universities.
In addition to the hugely enjoyable and satisfying experience, time spent abroad adds a distinctive element to your CV.