MSc Medical Imaging
The term ‘medical imaging’ may invoke images of brain slices acquired from modern scanners. However, the breadth of this subject is far wider. Applications include the creation of 3D graphical models for facial reconstruction from scan data, the visualisation of complex vascular (blood vessel) structures to assist keyhole surgical procedures, techniques for creating patient-specific 3D modelling of human organ shapes and image-based methods designed to detect various pathologies and disease states in humans.
Medical imaging is a rapidly growing discipline within the health care sector, involving clinicians, physicists, computer scientists and those in the IT sector. This is fuelled by the rapid development of 3D medical imaging systems over the last few decades, matched by an exponential rise in computing power. This has allowed the development of new methods for the acquisition, reconstruction, processing and display of digital medical image data with unprecedented speed, resolution and contrast: a trend which can only continue.
The MSc Medical Imaging is aimed at training graduates for careers in this exciting multidisciplinary area and provides a judicious mix of theoretical and applied topics.
Entry standards
Typical entry requirements: a good honours degree in electronic engineering, or mathematics, computing or physical sciences. Our normal entry level is a minimum of a good lower second from a good UK university, or overseas equivalent; however, with industrial experience, we can be flexible in our entry requirements.
English language requirements
Non-native speakers of English will normally be required to have IELTS 6.5 or above, with a minimum of 6.0 in each component (or equivalent).
Please note that the University of Surrey offers English language programmes and is also an IELTS Test Centre.
MSc Medical Imaging - structure and modules
Module Titles
Compulsory Modules
- Human and Radiation Biology
- Image Processing and Vision
- Imaging Applications of Ionising Radiation and Imaging Applications of Non-ionising Radiation
- Mathematics of Signal Processing
- Professional Skills for Clinical Science and Engineering
- Radiation Physics
Optional Modules
- Advanced Signal Processing
- Artificial Intelligence and AI Programming
Module Overview
In common with many MSc programme, Medical Imaging is taught over twelve months and split over three semesters. A dissertation project is carried out during the final semester.
Compulsory Modules Includes
Human and Radiation Biology
This module covers the basics of anatomy and physiology in order to provide an understanding of the information content presented in medical image data.You will also gain an understanding of the action of ionising radiation on living tissue.
Image Processing and Vision
This module covers an introduction to methods of image enhancement and quantitative image registration, as well as conventional topics such as image filtering and transformation and the ability to implement these concepts in software.
Imaging Applications of Ionising Radiation and Imaging Applications of Non-ionising Radiation
These two modules prepare you for the medical imaging and instrumentation aspects of real imaging environments, ranging from ultrasound and planar X-ray imaging to the modern tomographic imaging modalities (CT, MRI, PET and SPECT). These modules describe how images are acquired, reconstructed and processed, and exemplar applications are discussed. Formal lectures for these two modules are given by a variety of experts and clinical practitioners working in the relevant field, alongside visits and laboratory classes held at leading clinical institutes close to the main campus at Surrey.
Mathematics of Signal Processing
This module provides the underpinning concepts of statistical noise modelling and digital signal analysis utilised in many image processing and analysis schemes. You will need to have familiarity with undergraduate mathematics for this course. If in doubt, please contact the Programme Director.
Professional Skills for Clinical Science and Engineering
This module provides context for the programme material in terms of medical imaging within the NHS, health and safety issues, the particular issues associated with undertaking clinical medical imaging research and the associated legislative framework. This includes workshops on ethics and intellectual property, student-led seminars and visits to local hospital departments. There is also a laboratory-based component to this module where you will undertake a number of radiation physics experiments.
Radiation Physics
This module covers the fundamental processes involved in forming images using ionising radiation. Topics include nuclear structure, radiation interaction and an introduction to ionising radiation detection.
Optional Modules
Advanced Signal Processing
This module provides you with advanced analytical tools for solving statistical and adaptive signal processing problems encountered in medical imaging and signal processing, and related engineering areas. This includes statistical and adaptive techniques for detection, filtering and matching of signals in noise.
Artificial Intelligence and AI Programming
This module introduces you to some of the basic ideas and concepts which underlie the development of artificial or machine intelligence being increasingly used in expert medical systems. Topics covered include agent-based search methods, logic, probabilistic reasoning, artificial neural networks and AI programming.
MSc Medical Imaging - entry standards
Entry standards
Typical entry requirements: a good honours degree in electronic engineering, or mathematics, computing or physical sciences. Our normal entry level is a minimum of a good lower second from a good UK university, or overseas equivalent; however, with industrial experience, we can be flexible in our entry requirements.
English language requirements
Non-native speakers of English will normally be required to have IELTS 6.5 or above, with a minimum of 6.0 in each component (or equivalent).
Please note that the University of Surrey offers English language programmes and is also an IELTS Test Centre.
Start date
September
Programme Director
MSc Medical Imaging - fees and funding
Fees
Medical Imaging (full time):
UK/EU - £6,400
Overseas - £16,748
Medical Imaging (part time per 15 credits)
UK/EU - £535
Overseas - £1,395
Funding
A few scholarships are available from the Institution of Engineering and Technology (IET) and charitable trusts. There are also Commonwealth scholarships available within the University for overseas students, but these are very competitive and early application is vital.
MSc Medical Imaging - professional context
Professional placements
The professional placement scheme is a popular component of the programme as students can experience how medical imaging is delivered at the clinical interface. Some placements also provide the opportunity for a small project to be undertaken at the same time.
Please note that as this component is dependent on availability from collaborating NHS departments, we cannot guarantee that this scheme will run every year.
Professional recognition
As an IET-accredited institution, our programmes are countable under the continuing professional development (CPD) scheme.
For those seeking careers in the National Health Service as clinical scientists, the MSc is also accredited by IPEM (the Institute of Physics and Engineering in Medicine).
Accreditation
The programme is accredited by the Institution of Engineering and Technology (IET), and as such can be used in partial fulfilment of the requirements for gaining Chartered Engineer (CEng) status.
For those seeking careers in the NHS, the programme is also accredited by the Institute of Physics and Engineering in Medicine (IPEM) and can thus be used as part of the training programme for those seeking to become clinical scientists or engineers, either studying as part-time sponsored trainees, or for subsequently gaining an NHS training position following full-time study.
Careers
Graduates from the MSc have historically gone on to three main career destinations. Some have been successfully recruited onto the NHS Clinical Scientist training scheme, eventually leading to clinical scientist status. Many have gone on to a career in academic research, leading to a PhD. Some have also gone on to careers in industrial research and development with leading equipment manufacturers or medical-related software companies.
MSc Medical Imaging - teaching
Teaching
Taught Masters programmes in the Department of Electronic Engineering utilise our research-active staff in conjunction with state-of-the-art facilities. We provide a range of learning experiences – lectures, tutorials, directed study, practical laboratories and project work – that prepare graduates for their professional life.
Lectures, visits and dissertation projects are provided in association with a large number of expert clinical and industrial partners, including the Royal Marsden Hospital, GE Healthcare and the Royal Surrey County Hospital.
Staff perspective
Dr Kevin Wells
I am a senior lecturer in Medical Imaging and the Programme Director for the MSc in Medical Imaging in the Department of Electronic Engineering. I previously worked in the Department of Physics at the University of Bath, the Department of Medical Physics and Bioengineering at UCL, and the Joint Department of Physics at the Royal Marsden
Hospital and the Institute of Cancer Research. I am also a Chartered Physicist and a Chartered Engineer, and serve on the Chartered Engineer Accreditation Panel within the Institute of Physics.
My main research interests are in digital mammography, motion correction in nuclear medicine, quantitative DCI-MRI renography and cellular imaging. My research interests and collaborations ensure relevance for programme content and facilitates opportunities for students to work in a clinically relevant research environment for their dissertation project.
Graduates from the MSc will be equipped to pursue careers as new innovators and developers, as well as clinical users, of advanced medical imaging methodology and analysis.
We hope that you will enjoy your time at Surrey and find the MSc a stimulating and worthwhile experience. Many of our students have subsequently gained Doctorates – a testament to the excitement and potential in this area. As Programme Director, it is with great pride that I see students embrace the challenges we present, and, through this process, then confidently address scientific/technical problems that many would have seen as impossible tasks when they first started the MSc.
MSc Medical Imaging - learning
Facilities, Equipment and Support
To support your learning, we hold regular MSc group meetings where any aspect of the programme, technical or non-technical, can be discussed in an informal atmosphere. This allows you to raise any problems that they would like to have addressed and encourages peer-based learning and general group discussion.
We provide computing support with any specialised software required during the programme, for example, Matlab.
The Department’s student common room is also covered by the University’s open-access wireless network, which makes it a very popular location for individual and group work using laptops and mobile devices. There is also a Faculty quiet room for individual study.
We pride ourselves on the many opportunities that we provide to visit collaborating hospitals. These enable you to see first-hand demonstrations of medical imaging facilities and to benefit from lectures by professional practitioners.
To support material presented during the programme, you will also undertake a selection of ultrasound and radiation detection experiments, hosted by our sister MSc programme in Medical Physics.
Dissertation and Projects
Dissertation and Projects
The dissertation project provides an opportunity for you to apply material learnt during the previous two semesters and to develop a detailed knowledge of a particular area. Project work typically comprises some simulation or experimental work, often coupled with a programming component.
Projects are selected during Semester 2 from a broad list and undertaken between June and August, usually in collaboration with a clinical or industrial partner, and usually within the South East region. Projects may be based at the partner institute or at the University, but always require some travel to the partner institute for project meetings and data acquisition.
You will usually meet with your supervisor for a project meeting either every week or every fortnight. There is a mid-term assessment based at the University where you will orally present your work to your peers and an assessment panel. This provides you with feedback on your progress and some suggestions for your ongoing development.
Final assessment of the projects is by the submission of a dissertation report and through a viva voce examination held in early September.
Recent project titles include:
- Mammography Image Scoring Tool for Quantitative Image Quality Assessment . Collaborator: National Coordinating Centre for the Physics of Mammography
- Using the NCAT Phantom for Motion Correction in SPECT/CT. Collaborator: Royal Surrey County Hospital
- Dynamic Contrast-Enhanced MRI for Assessment of Renal Function in Paediatrics. Collaborator: Great Ormond Street Hospital for Children
- Partial Volume Correction in PET. Collaborator: Royal Marsden Hospital/Institute of Cancer Research
- A Study of Non-Linear Effects in Ultrasound Transducers. Collaborator: National Physical Laboratory
- Motion Correction in X-ray CT. Collaborator: University College Hospital, London .
Assessment
Formal examinations take place in January/February and June. The pass mark is set at 50 per cent for each module, representing a combination of the formal examination and any associated coursework or lab marks. An overall average (aggregated over all of the assessed modules) in excess of 70 per cent achieves a Pass with Distinction.
Following the spring examinations, you will concentrate on your formal dissertation project. This may be based at the University in collaboration with a clinical or industrial partner, or may be actually based at a hospital or industrial site, usually within the UK.
Finally, your dissertation project will be assessed at a viva voce examination in late August / early September.
MSc Medical Imaging - graduate profile
Graduate Profile: Reuben Lowson
MSc Medical Imaging
I graduated several years ago with a first degree in physics, and then took up a career spanning industry and the civil service. However, many of these roles used a very narrow part of the physics I learned at university, and I was really looking to apply myself more scientifically.
Whilst doing some IT work at a local hospital, I started thinking about next steps and a possible MSc with a medical flavour. The people I spoke to in the NHS suggested that the amount of computing-related work was growing, particularly with the advent of digital patient records and all-digital imaging departments.
The MSc in Medical Imaging at Surrey, which recognises this, seemed like a logical choice. During my placement at Easter in an NHS nuclear medicine department, seeing teams developing new methods and clinical services really helped support the theory learned at University, and helped demonstrate ‘real-world’ applications.
I hope to obtain a place on the NHS training scheme, so the IPEM accreditation is really important to me. I am also considering industrial jobs, and I think the IET and IPEM accreditation demonstrates to all employers that this is a high-quality course.
Graduate Profile: Declan Kruppa
MSc Medical Imaging
I graduated with a BEng in Electronic Engineering with a professional year spent at Great Ormond Street Hospital. Whilst on my professional year working with electronics and signal processing, I became interested in applying my undergraduate knowledge to medical problems. One of the staff at Great Ormond Street recommended getting into medical imaging as I could apply what I had learned in signal processing and extend this to other areas.
The University of Surrey was quick to respond to my application, and once I was offered funding I decided to go firm. The course is well organised and taught by enthusiastic staff, but hard work!
The highlight for me was my Easter placement at the Royal Devon and Exeter Hospital. I worked mainly in the radiotherapy section, undertaking tests on a new Linac installation, and assisted with the start of a new IMRT (Intensity-Modulated Radiotherapy Treatment) programme. It was very useful to see how imaging is used in the context of therapeutic work, as well as how practising clinical scientists work as part of a multidisciplinary team.
This summer I will be undertaking a project with scientists at the National Physical Laboratory, studying some of the non-linear effects in ultrasound imaging. I also have a place on the NHS training scheme starting in September at Royal Liverpool Hospital, which I am really looking forward to.
MSc Medical Imaging - more
MSc Medical Imaging - apply
You can apply for this programme online using the link(s) below. We recommend making an application as soon as you can, even if you do not have all the necessary supporting information ready at that time.
As part of the application process, you will be asked to enter a username and password. If you've used our application system before, please enter your details or click the forgotten password link.
If you are a new user, you will need to create a username and password by clicking the New User button.
Start date
September
Programme length
12 months full-time, up to 48 months part-time
Programme Director
For general enquiries
T: 0800 980 3200 or
+44 (0)1483 681681
E: pg-enquiries@surrey.ac.uk
For admissions enquiries
T: +44 (0)1483 686069
E: feps-pg@surrey.ac.uk