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The Radiopharmaceutics & PET Radiochemistry course will equip you with the skills to work as a radiopharmaceutical scientist in a PET radiochemistry centre (cyclotron unit) or in the field of conventional radiopharmacy, providing diagnostic and therapeutic radiopharmaceuticals to nuclear medicine centres and specialised commercial centres. Read more

The Radiopharmaceutics & PET Radiochemistry course will equip you with the skills to work as a radiopharmaceutical scientist in a PET radiochemistry centre (cyclotron unit) or in the field of conventional radiopharmacy, providing diagnostic and therapeutic radiopharmaceuticals to nuclear medicine centres and specialised commercial centres.

Key benefits

  • Highly specialist study pathway that is the first of its kind worldwide. 
  • All learning materials are accessible online via King’s E-learning and Teaching Service (KEATS).
  • Opportunities to experience a working placement in a hospital, PET centre or industrial cyclotron centre.
  • Multidisciplinary study programme that attracts graduates from a range of science disciplines including chemists, bio-scientists, physicists, pharmacists.
  • Recognised by European Association of Nuclear Medicine, Masters students will be able to take the European Radiopharmacy exam.
  • On successful completion of the MSc students with a chemistry or pharmacy background can apply for membership with the Royal Society of Chemistry.

Description

The Radiopharmaceutics & PET Radiochemistry course will provide you with opportunities to develop your knowledge, understanding and skills in the principles and practice of radiopharmaceutical science.

The course is made up of optional and required modules. The MSc pathway requires modules totalling 180 credits to complete the programme, 60 of which will come from a research project. You will complete the course in one year, from September to September.

Course format and assessment

Teaching

We use lectures, tutorials and laboratory practicals to deliver most of the modules on the programme. You will also be expected to undertake a significant amount of independent study.

 Each 30-credit module typically requires attendance at lectures/tutorials (80%) and labs (20%) for 24 full days. Each of these full days’ will include at least six hours of contact time.

Typically, one credit equates to 10 hours of work.

Assessment

The course is assessed by a variety of mechanisms including:

  • Unseen written examinations
  • Practical laboratory work and reports
  • Case studies and oral presentations
  • Workshops
  • Audio-visual presentations
  • Laboratory/ library-based research projects

The study time and assessment methods detailed above are typical and give you a good indication of what to expect. However, they may change if the course modules change. 

Accreditation

This course is accredited by the European Association of Nuclear Medicine – EANM (Radiopharmacy Education Board) and the Royal Society of Chemistry – RSC.

Career prospects

Expected destinations are the NHS and commercial nuclear medicine services, the pharmaceutical industry or PhD research.

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Combined Positron Emission Tomography (PET) and Magnetic Resonance (MR) is an imaging technology which allows information on metabolic function, physiology, and anatomy to be collected in a single scanning session for diagnostic and research purposes (e.g. Read more

Combined Positron Emission Tomography (PET) and Magnetic Resonance (MR) is an imaging technology which allows information on metabolic function, physiology, and anatomy to be collected in a single scanning session for diagnostic and research purposes (e.g. investigating dementias & cancers).

PET-MR scanners are increasingly being installed in clinical and research settings, but currently training in how to run and best use such facilities is limited, often requiring long periods of residency, away from work and personal commitments at home.

The University of Edinburgh is among the few UK centres with a PET-MR scanner and personnel with the expertise in how to run and use it. This programme harnesses our expertise in imaging technology, which will allow learners to train in this field via an online learning environment.



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The studies in Biomedical Imaging provide you with strong knowledge on either cellular biology, anatomy and physiology, nanomedicine or biophysics, depending on the area of specialisation. Read more

The studies in Biomedical Imaging provide you with strong knowledge on either cellular biology, anatomy and physiology, nanomedicine or biophysics, depending on the area of specialisation. You will study in a highly international environment and gain excellent theoretical and practical skills in a wide range of imaging techniques and applications as well as in image analysis.

In addition, the courses cover for instance light microscopy, advanced fluorescence techniques, super-resolution imaging techniques, PET, electron microscopy, and atomic force microscopy. Also an understanding of the use of multimedia in a scientific context and excellent academic writing skills are emphasised. The interdisciplinary curriculum provides you with a broad spectrum of state-of-the-art knowledge in biomedical imaging related to many different areas in cell biology and biomedicine.

The graduates have the possibility to continue their studies as doctoral candidates in order to pursue a career as a scientist, in industry or science administration, and in an imaging core facility or a hospital research laboratory.

Academic excellence and experience

The strong imaging expertise of Turku universities is a great environment for the studying Biomedical Imaging. Imaging is one of the strongholds of the two universities in Turku, Åbo Akademi University and the University of Turku. Both universities also maintain the Turku BioImaging, which is a broad-based, interdisciplinary science and infrastructure umbrella that unites bioimaging expertise in Turku, and elsewhere in Finland. Turku is especially known for its PET Centre and the development of super-resolution microscopy.

Winner of the 2014 Nobel Prize in Chemistry Stefan Hell did his original discoveries on STED microscopy at the University of Turku. Turku is also a leader of the Euro-BioImaging infrastructure network which provides imaging services for European researchers.

Turku has a unique, compact campus area, where two universities and a university hospital operate to create interdisciplinary and innovative study and research environment.

Research facilities include a wide array of state-of-the-art imaging technologies ranging from atomic level molecular and cellular imaging to whole animal imaging, clinical imaging (e.g. PET) and image analysis.

Studies in bioimaging are highly research oriented and the courses are tailored to train future imaging experts in various life science areas.

Biomedical Imaging specialisation track is very interdisciplinary with a unique atmosphere where people from different countries and educational backgrounds interact and co-operate. Students are motivated to join courses, workshops and internship projects also elsewhere in Finland, in Europe and all around the world. Programme has Erasmus exchange agreements with University of Pecs in Hungary and L’Institut Supérieur de BioSciences in Paris, France.

Master's thesis and topics

Master’s thesis in biomedical imaging consists of two parts: an experimental laboratory project, thesis plan and seminar presentation, and the written thesis.

The aim of the thesis is to demonstrate that the student masters their field of science, understands the research methodology as well as the relevant literature, and is capable of scientific thinking and presenting the obtained data to the scientific community.

Usually the Master’s thesis is conducted in a research group as an independent sub-project among the group’s research projects. Experimental research work will be conducted under the guidance of a supervisor.

Examples of thesis topics:

  • Exercise and brown adipose tissue activation in humans (EXEBAT)
  • Stimulated emission depletion microscopy of sub-diffraction polymerized structures
  • Optimization of immunofluorescence protocols for detection of biomarkers in cancer tissues.
  • Exploring the feasibility of a new PET tracer for assessment of atherosclerotic plaques in mice.
  • Morphology of the inner mitochondrial membrane
  • Accuracy and precision of advanced T2 mapping in cardiac magnetic resonance imaging
  • Prevalence of perfusion-diffusion mismatch in acute stroke patients

Competence description

After completing the studies, you will:

  • have a strong basic knowledge in either cellular biology, anatomy and physiology or biophysics depending on your interests and area of specialisation
  • have excellent theoretical and practical skills in a wide range of imaging techniques and applications as well as in image analysis
  • have a degree from a highly international learning environment where students from all around the world have a chance to interact and collaborate with each other
  • understand the use of multimedia in scientific contexts and see it as a powerful tool of popularising science
  • master scientific writing in English
  • have excellent readiness for postgraduate studies

Job options

The interdisciplinary curriculum provides you with broad knowledge on biomedical imaging that is related to many areas of biomedicine and life sciences.

The Biomedical Imaging spesialisation track aims to train future imaging and image analysis experts to meet the increasing needs in the fields of basic and medical research as well as the high demand for imaging core facility personnel.

The Programme provides excellent possibilities for a career in life sciences. For example, you can:

  • continue as postgraduate students to pursue a career as a scientist
  • work in core facility management
  • work in science administration nationally or internationally
  • work in hospital research laboratories
  • work in industry and industrial research
  • work in imaging network or project management

Career in research

Master of Science degree provides you with eligibility for scientific postgraduate degree studies.

Graduates from the Biomedical Sciences Programme are eligible to apply for a position in the University of Turku Graduate School, UTUGS. The Graduate School consists of 16 doctoral programmes covering all disciplines and doctoral candidates of the University.

Together with the doctoral programmes the Graduate School provides systematic and high quality doctoral training. UTUGS aims to train highly qualified experts with the skills required for both professional career in research and other positions of expertise.

Several doctoral programmes at University of Turku are available for graduates:



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The programme provides you with strong knowledge on one or more of the following topics. design and synthesis of new drugs, radiolabelling and enhanced targeting of drugs, or screening, isolation and modification of new drug candidates from bioactive plants. Read more

The programme provides you with strong knowledge on one or more of the following topics: design and synthesis of new drugs, radiolabelling and enhanced targeting of drugs, or screening, isolation and modification of new drug candidates from bioactive plants. In addition, you will learn to master the state-of-the-art methods needed for the full identification of drug molecules and for their quantitation from different types of tissues and metabolite mixtures.

Our programme offers you three options, all covering the chemistry of drug development from slightly different perspectives: bio-organic chemistry, radiopharmaceutical chemistry and natural compound chemistry. You can either choose to learn to synthesize drugs and drug components yourself, or let them be produced by plants first and then learn how to isolate and perhaps modify the plant-derived compounds to enhance their activity. Radiochemistry is then needed to developed techniques for labelling of drug candidates so that their distribution can be first monitored in vivo by positron emission tomography (PET) techniques and then the targeting optimized by further modifications. Our approach gives you strong hands-on knowledge on medicinal chemistry, since practical laboratory work forms the soul of our programme.

Academic excellence and experience

Our approach on medicinal and radiopharmaceutical chemistry is a unique combination of research areas that are closely related, but that require different type of expertise, if you really want to master one of the areas. All of the three options we offer you are represented by well-established, top of the line research groups: Bioorganic GroupRadiopharmaceutical Chemistry Group, and Natural Chemistry Research Group. You need to choose your orientation between these groups, but you may take courses from all of them. This way you are able to specialize, but at the same time acquire wide enough knowledge on the relevant topics related to the chemistry of drug development.

The main target in studies of Bio-organic Chemistry is to master the key concepts of organic reactions, stereochemistry and physical organic chemistry. This way the student can design and execute organic syntheses and understand chemical biology. The Bioorganic Group is specialized into the synthesis of biopolymers (oligonucleotides, oligosaccharides and peptides), their interaction mechanisms at the molecular level and to the application of this knowledge into solving medicinal problems.

Students of Radiopharmaceutical Chemistry can specialize into radiochemistry, i.e. the synthesis and use of short-lived, isotopically labelled positron emitting organic tracers. These tracers are used in positron emission tomography (PET) that enables imaging of biochemical processes in vivo in both health and disease. The synthesis of radiotracers involves both low molecular weight small molecules as well as macromolecules, typically peptides, proteins and their fragments. Teaching of radiopharmaceutical chemistry takes place in close collaboration with the Turku PET Centre, a National Institute jointly owned by the University of Turku, the Åbo Akademi University and the Hospital District of Southwestern Finland.

With Natural Compound Chemistry you learn to master numerous chromatographic and mass spectrometric techniques together with other methods used for characterization and activity measurement of plant-derived biomolecules. The Natural Chemistry Research Group is specialized into the screening of the plant kingdom for bioactive molecules, especially large polyphenols such as ellagitannins. The screening phase can be accompanied by purification of active substances and measuring their structure/activity relationships, or developing new activity methods.

The facilities of Medicinal and Radiopharmaceutical Chemistry are state-of-the-art. We have direct access to the Turku PET Centre preclinical and clinical groups. The PET Centre has four cyclotrons for radionuclide production and 25 hot cells for radiotracer synthesis. At the Department of Chemistry we have recently updated NMR facilities with modern 500 and 600 MHz magnets with cryo-probes that facilitate operation at low drug concentrations. We have direct access to UPLC-MS/MS instruments with both triple quadrupole and high-resolution mass spectrometry detectors. An efficient ECD spectrometer complements the equipment needed for the accurate identification of the produced and purified drug candidates. To know how to master these equipment and techniques is a true advantage to the chemist who graduates from our programme.

Master's thesis and topics

Studies in Medicinal and Radiopharmaceutical Chemistry combine theory and practise in an optimal manner so that you have ample chances of gaining hands-on knowledge on different aspects of chemistry of drug development. This is obtained by many courses having lab practicals and by the Oriented Laboratory Project that is a five-week period of laboratory work on some specific challenge related to one of the three thematic research areas.

After the Oriented Laboratory Project you have an excellent chance to use your gained knowledge and expertise in the Master’s Laboratory Project that will form the basis for your Master’s Thesis as well. This five months lasting laboratory project is a crucial and customized part of a true research project taking place in one of the thematic research groups. Alternatively, you have a chance to do the Master’s Laboratory Project in some other Finnish University or abroad, depending on the project details and collaborators available for the project.

After the Master’s Laboratory Project is finalized, you will prepare the Master’s Thesis on the very same or similar topic as the lab project. All this is naturally done under the guidance of a supervisor. Your thesis writing process will benefit from the simultaneous Thesis Seminars, where students discuss of challenges related to their projects, and will present their results both orally and via poster presentations.

Examples of thesis topics:

  • Fluorescent oligonucleotide probes for screening high-affinity nucleobase surrogates
  • Solid-supported NOTA and DOTA chelators useful for the synthesis of 3′-radiometalated oligonucleotides
  • Solution-phase synthesis of short oligo-2′-deoxyribonucleotides using clustered nucleosides as a soluble support
  • 18F-labelled nitrogen-fluorine-bond containing radiolabeling precursors
  • Production of 11C-methylated radiopharmaceuticals
  • New quantitation methods for and screening of anthocyanin-tannin adducts in 300 red wine varieties
  • Isolation, purification and structure/activity studies on rare ellagitannins of the Onagraceae plant family
  • Enhancement of anthelmintic activities of plant metabolites by chemical modifications


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Our MSc in Medical Imaging Science covers a multidisciplinary topic of central importance in diagnosis, treatment monitoring and patient management. Read more

Our MSc in Medical Imaging Science covers a multidisciplinary topic of central importance in diagnosis, treatment monitoring and patient management.

It is also a key tool in medical research and it is becoming increasingly possible to relate imaging studies to genetic traits in individuals and populations. Novel imaging biomarkers of disease can enable more rapid and precise diagnosis and inform decision making in drug discovery programmes.

As medical imaging involves knowledge of anatomy, physiology, pathology, physics, mathematics and computation, our course is suitable if you want to expand your disciplinary horizons and pursue a career in an image-related field in clinical medicine, medical research, or technological research or development.

You will cover the basic science and technology behind the principal imaging modalities currently used in medicine and medical research, as well as advanced imaging methods, clinical and research applications, imaging biomarkers and computational methods.

You will learn how advanced imaging techniques are applied in medical research and drug discovery with an emphasis on magnetic resonance (MR) and positron emission tomography (PET) imaging. You will also receive training in computational and quantitative methods of image analysis or in the interpretation of clinical images from different imaging modalities.

This course comprises both a taught component and a research project, giving you the skills and knowledge required for a career in an image-related field in clinical practice, clinical or scientific research, or technical development.

Aims

We aim to provide you with:

  • with a systematic understanding of the scientific basis of the major medical imaging modalities;
  • a broad understanding of the principal clinical applications of medical imaging and its role in diagnosis, monitoring and therapy;
  • an understanding of the capabilities and limitations of medical imaging for deriving quantitative anatomical and physiological data;
  • knowledge of how advanced imaging techniques are applied in medical research and drug discovery;
  • the experience to plan, implement and complete a research project;
  • generic transferrable skills required in a multidisciplinary scientific or clinical research environment;
  • the knowledge and skills required for a career in an image-related field in clinical practice, clinical research, scientific research or technical development.

Special features

Excellent facilities

Benefit from research-dedicated imaging facilities at several hospital sites and a dedicated molecular imaging centre co-located with the Christie Hospital.

Learn from experts

Manchester has an imaging and image computing research group with a strong international reputation. Our research groups and facilities are staffed by scientists conducting research in novel imaging and image analysis methods, and clinicians who apply these methods in clinical practice.

Flexible learning

Learn when it suits you thanks to options for either full-time or part-time study.

Multidisciplinary learning

Study alongside physicists, engineers, mathematicians, computer scientists, chemists, biologists and clinicians working in hospitals and research-dedicated imaging facilities.

Teaching and learning

As this course aims to produce graduates equipped to pursue either clinically or technically-focused careers in imaging, it is important to provide an adequate knowledge base. For this reason, much of the teaching takes the form of lectures.

However, in most course units, this is supplemented by group discussions and practical exercises. Other than the introductory units, most course units provide you with an understanding of research methods by requiring submission of a critical review of appropriate research literature or clinical material, either as a report or presentation.

Where appropriate, practical imaging exercises are provided, requiring you to cooperate in acquiring images and analysing results.

All units require a considerable component of independent research and study.

Coursework and assessment

Assessment will occur in a variety of forms.

Summative assessment takes the form of written assignments, examinations, oral presentations and online quizzes. Written assignments and presentations, as well as contributing to summative assessment, have a formative role in providing feedback, particularly in the early stages of course units.

Online quizzes provide a useful method of regular testing, ensuring that you engage actively with the taught material. As accumulation of a knowledge base is a key aim of the course, examinations (both open-book and closed-book) form an important element of summative assessment.

In addition, formal assessment of your research and written communication skills is achieved via the dissertation. This is a 10,000 to 15,000-word report, written and organised to appropriate scientific standards, describing the design, execution and results of the research project.

Course unit details

The MSc requires students to pass 180 credits composed of eight course units of 15 credits each and a 60-credit research project.

We provide course units in Human Biology and Introductory Mathematics and Physics to bring students up to the required level in these topics.

Semester 1: Compulsory units

  • Scientific Skills
  • Mathematical Foundations of Imaging
  • Radioisotope Imaging (PET/SPET)
  • Non-radioisotope Imaging (MRI, CT, US)

Semester 2: Compulsory units

  • Advanced MR Imaging
  • Advanced PET Imaging
  • Quantitative Imaging into Practice (Imaging Biomarkers for Healthcare and Research)

Semester 2: Elective units (select one)

  • Imaging in Clinical Diagnosis
  • Medical Image Analysis and Mathematical Computing

Semester 3:

  • Research project

Facilities

You will benefit from research-dedicated imaging facilities at several hospital sites and a dedicated molecular imaging centre co-located with the Christie Hospital.

Each student will have an identified personal tutor who can provide advice and assistance throughout the course. During the research project, you will be in regular contact with your research supervisor.You will also be able to access a range of other library and e-learning facilities throughout the University.

Disability support

Practical support and advice for current students and applicants is available from the Disability Advisory and Support Service. Email: 

Career opportunities

Graduates will be in an excellent position to pursue careers in image-related fields in healthcare and research. This MSc will also form a sound basis for students who wish to proceed to PhD research in any aspect of medical imaging.

Intercalating medical students may use this qualification as a platform to pursue a clinical career in radiology.

Physical science/engineering graduates may see this as a route to imaging research or development in an academic or commercial environment.



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The studies in Drug Discovery and Development give you a deep understanding of up-to-date methods applied to identify and validate new drug targets and to generate lead drug molecules. Read more

The studies in Drug Discovery and Development give you a deep understanding of up-to-date methods applied to identify and validate new drug targets and to generate lead drug molecules. It also provides knowledge of technological innovations as well as methods of clinical drug research and development phases, clinical trial design, study planning and biostatistics. In addition, you will learn about drug regulatory science and pharmacovigilance.

After graduation, you will master drug discovery and development processes as well as procedures applied in drug regulatory science. You will also be familiar with the role of drug regulatory authorities during the life-span of a drug. The University of Turku also offers Drug Research Doctoral Programme for post-graduate studies.

You will get comprehensive skills to work in the field of biomedicine and drug discovery in companies, universities, research institutes or drug regulatory authorities. The Programme also gives a good foundation for those interested in entrepreneurship.

Academic excellence and experience

Turku is a great place to study drug discovery and development! Of the Finnish drug innovations, 90 per cent have been made in Turku. To support the future discoveries, the University of Turku has chosen drug development as one of its strategic profiling areas.

The research in biosciences and medicine is internationally ranked among the top in the world. The keys for success lie in long biomedical research traditions and a compact campus area where two universities and a university hospital operate to create an interdisciplinary and innovative study and research environment.

Research focus is on translational medicine, disease modelling and biomedical imaging. Available infrastructure includes the world famous Turku PET Centre and Turku Centre for Disease Modeling, both of which offer services for drug development research.

Turku also has the largest cluster of pharma industry in Finland. Nearby companies not only provide experts for visiting lectures, but also create internship and job opportunities for the graduates.

Master's thesis and topics

The Master’s thesis project is based on independent, experimental research work.

You must always agree on your thesis topic with your thesis examiner who also accepts the topic. You will write a research plan, conduct a research project in a laboratory, analyse obtained results, and demonstrate your ability to interpret results and write a report in a form of a scientific article. The project work is always performed under the guidance of a supervisor.

In order to also practice scientific communication, you will present your results in a seminar and write a press release to stimulate collaboration between the academia and the media.

Examples of thesis topics:

  • Drug development for receptor antagonists and their potential in treating cognitive disorders
  • Pharmacological characterization of ion channels
  • Diagnostics tools for coronary artery diseases – characterization of antibodies
  • Modelling of schizophrenic disorders in rats
  • RNA interference in HSV-virus treatment
  • Optimization of synthesis of indatsole structures for drug development
  • The use of positron emission tomography (PET) to measure the effect of disease modifying therapies in MS disease
  • PET-imaging of molecules targeted in inflammation – preclinical studies with arthritis model

Competence description

The studies in Drug Discovery and Development provide you with a deep understanding of:

  • up-to-date methods applied to identify and validate new drug targets, and to generate lead drug molecules that modulate biological activity of the target
  • technological innovations made in lead optimisation process
  • how new drug candidates are investigated during the non-clinical drug development phase
  • methods of clinical drug research, clinical drug development phases, clinical trial design and biostatistical study planning
  • various aspects of the drug regulatory science and pharmacovigilance

Job options

After graduation, you will be an expert in drug discovery and development processes. You will know the procedures applied in drug regulatory science and the role of drug regulatory authorities during the life-span of a drug.

You will learn comprehensive skills to work in the field of biomedicine and drug discovery in companies, universities, research institutes or drug regulatory authorities. The Programme also gives a good foundation for those interested in entrepreneurship.

  • Possible job titles are:
  • medical liaison
  • medical writer
  • regulatory consulting expert
  • scientific/technical advisor
  • research director
  • project manager
  • drug development pharmacologist
  • university lecturer/researcher

Career in research

The Master of Science degree completed in the Programme qualifies the graduates for PhD studies in Turku, elsewhere in Finland or universities worldwide. Graduates from the Programme are eligible to apply for a position in the University of Turku Graduate School, UTUGS. The Graduate School consists of 16 doctoral programmes which cover all disciplines and doctoral candidates of the University.

Together with the doctoral programmes, the Graduate School provides systematic and high quality doctoral training. UTUGS aims to train highly qualified experts with the skills required for both professional career in research and other positions of expertise.

Several doctoral programmes at University of Turku are available for graduates:



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Students of the new Master’s Degree Programme will get a deep understanding of human brain function. They will learn noninvasive imaging methods to investigate brain activation and structure as well as behavioural methods to measure human cognition and performance. Read more

Students of the new Master’s Degree Programme will get a deep understanding of human brain function. They will learn noninvasive imaging methods to investigate brain activation and structure as well as behavioural methods to measure human cognition and performance. The Programme gives a strong foundation to work as a human neuroscience expert in various industries requiring knowledge and skills to tackle the complex brain-behaviour issues. Graduates are expected to find jobs, for example, in drug development, in companies developing novel health and game products, and in customised marketing research. The Programme also gives a strong basis to continue studies towards a PhD.

Programme structure

The extent of the Master’s Degree Programme is 120 ECTS to be completed in two years. The studies consist of brain imaging methods (20 ECTS), clinical neuroscience (25 ECTS), behavioural methods to measure human cognition, perception, consciousness and performance (15 ECTS), other studies (20 ECTS) and a Master’s thesis (40 ECTS). All programme parts contain lectures, group work, independent studies and practical exercises. The Programme requires a basic understanding of key neuroscience concepts. Depending on previous study history, this may require completion of introductory neuroscience courses during the first semester.

Academic excellence and experience

University of Turku (est. 1640) is among the top one percent of all universities in the world. Turku is well known particularly for its PET Centre which provides several state-of-art PET and MRI scanners for human studies. With a long research tradition in neuroscience, strong research groups and excellent facilities, Turku is a great place to study neuroscience. Turku has a unique, compact campus area with two universities, a university hospital and a strong cluster of medical and technology companies nearby, which creates an inspiring environment to study and work.

The Programme is run by the Turku Brain and Mind Center (TBMC) in collaboration with experts from three faculties (Faculty of Medicine, Faculty of Social Sciences, and Faculty of Mathematics and Natural Sciences). TBMC provides a multidisciplinary context for comprehensive theoretical and practical education in human neurosciences. University of Turku has excellent research facilities for noninvasive brain imaging including PET, MRI, fMRI, EEG, TMS, and optical imaging. Researchers of TMBC have a wide network of connections within the Turku area, in Finland and internationally. This provides the students ample opportunities to work and learn in practical research projects.

Master's thesis and topics

Master’s thesis (40 ECTS) is an important part of the Programme’s curriculum. Students will write a research plan, participate in a research seminar, conduct practical research work and write a theoretical report of their results. The thesis will be based on analyses of behavioural and/or brain-imaging data conducted in collaboration with research groups or companies in the Turku area or elsewhere.

Competence description

In the Master’s Degree Programme you will

  • learn to understand and measure complex brain functions at systems level
  • learn to measure human cognition, perception and behaviour
  • learn to integrate brain-level and behavioural measurements to investigate human performance in different contexts
  • gain knowledge and skills suitable for pursuing a scientific career
  • design and manage your research project
  • analyse behavioural and imaging data
  • work in international and interdisciplinary research groups

Job options

The interdisciplinary Master’s Degree Programme in Human Neuroscience provides you with broad knowledge to use behavioural methods, noninvasive brain imaging and structural brain measures as indices of the complex brain–behaviour relationship in different settings.

The Programme gives a strong basis to pursue a career as a human neuroscience expert. For example, graduates of the Programme can

  • work in medical companies and drug development
  • work in health and game industries
  • continue studies and research towards a PhD

Career in research

Master of Science degree provides you with eligibility for PhD studies. Graduates from the Programme are eligible to apply for a position in the University of Turku Graduate School, UTUGS. The Graduate School consists of 16 doctoral programmes which cover all disciplines and doctoral candidates of the University.



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The M.Sc. in Medical Physics is a full time course which aims to equip you for a career as a scientist in medicine. You will be given the basic knowledge of the subject area and some limited training. Read more
The M.Sc. in Medical Physics is a full time course which aims to equip you for a career as a scientist in medicine. You will be given the basic knowledge of the subject area and some limited training. The course consists of an intense program of lectures and workshops, followed by a short project and dissertation. Extensive use is made of the electronic learning environment "Blackboard" as used by NUI Galway. The course has been accredited by the Institute of Physics and Engineering in Medicine (UK).

Syllabus Outline. (with ECTS weighting)
Human Gross Anatomy (5 ECTS)
The cell, basic tissues, nervous system, nerves and muscle, bone and cartilage, blood, cardiovascular system, respiratory system, gastrointestinal tract, nutrition, genital system, urinary system, eye and vision, ear, hearing and balance, upper limb – hand, lower limb – foot, back and vertebral column, embryology, teratology, anthropometrics; static and dynamic anthropometrics data, anthropometric dimensions, clearance and reach and range of movement, method of limits, mathematics modelling.

Human Body Function (5 ECTS)
Biological Molecules and their functions. Body composition. Cell physiology. Cell membranes and membrane transport. Cell electrical potentials. Nerve function – nerve conduction, nerve synapses. Skeletal muscle function – neuromuscular junction, muscle excitation, muscle contraction, energy considerations. Blood and blood cells – blood groups, blood clotting. Immune system. Autonomous nervous system. Cardiovascular system – electrical and mechanical activity of the heart. – the peripheral circulation. Respiratory system- how the lungs work. Renal system – how the kidneys work. Digestive system. Endocrine system – how hormones work. Central nervous system and brain function.

Occupational Hygiene (5 ECTS)
Historical development of Occupational Hygiene, Safety and Health at Work Act. Hazards to Health, Surveys, Noise and Vibrations, Ionizing radiations, Non-Ionizing Radiations, Thermal Environments, Chemical hazards, Airborne Monitoring, Control of Contaminants, Ventilation, Management of Occupational Hygiene.

Medical Informatics (5 ECTS)
Bio statistics, Distributions, Hypothesis testing. Chi-square, Mann-Whitney, T-tests, ANOVA, regression. Critical Appraisal of Literature, screening and audit. Patient and Medical records, Coding, Hospital Information Systems, Decision support systems. Ethical consideration in Research.
Practicals: SPSS. Appraisal exercises.

Clinical Instrumentation (6 ECTS)
Biofluid Mechanics: Theory: Pressures in the Body, Fluid Dynamics, Viscous Flow, Elastic Walls, Instrumentation Examples: Respiratory Function Testing, Pressure Measurements, Blood Flow measurements. Physics of the Senses: Theory: Cutaneous and Chemical sensors, Audition, Vision, Psychophysics; Instrumentation Examples: Evoked responses, Audiology, Ophthalmology instrumentation, Physiological Signals: Theory Electrodes, Bioelectric Amplifiers, Transducers, Electrophysiology Instrumentation.

Medical Imaging (10 ECTS)
Theory of Image Formation including Fourier Transforms and Reconstruction from Projections (radon transform). Modulation transfer Function, Detective Quantum Efficiency.
X-ray imaging: Interaction of x-rays with matter, X-ray generation, Projection images, Scatter, Digital Radiography, CT – Imaging. Fundamentals of Image Processing.
Ultrasound: Physics of Ultrasound, Image formation, Doppler scanning, hazards of Ultrasound.
Nuclear Medicine : Overview of isotopes, generation of Isotopes, Anger Cameras, SPECT Imaging, Positron Emitters and generation, PET Imaging, Clinical aspects of Planar, SPECT and PET Imaging with isotopes.
Magnetic Resonance Imaging : Magnetization, Resonance, Relaxation, Contrast in MR Imaging, Image formation, Image sequences, their appearances and clinical uses, Safety in MR.

Radiation Fundamentals (5 ECTS)
Review of Atomic and Nuclear Physics. Radiation from charged particles. X-ray production and quality. Attenuation of Photon Beams in Matter. Interaction of Photons with Matter. Interaction of Charged Particles with matter. Introduction to Monte Carlo techniques. Concept to Dosimetry. Cavity Theory. Radiation Detectors. Practical aspects of Ionization chambers

The Physics of Radiation Therapy (10 ECTS)
The interaction of single beams of X and gamma rays with a scattering medium. Treatment planning with single photon beams. Treatment planning for combinations of photon beams. Radiotherapy with particle beams: electrons, pions, neutrons, heavy charged particles. Special Techniques in Radiotherapy. Equipment for external Radiotherapy. Relative dosimetry techniques. Dosimetry using sealed sources. Brachytherapy. Dosimetry of radio-isotopes.

Workshops / Practicals
Hospital & Radiation Safety [11 ECTS]
Workshop in Risk and Safety.
Concepts of Risk and Safety. Legal Aspects. Fundamental concepts in Risk Assessment and Human Factor Engineering. Risk and Safety management of complex systems with examples from ICU and Radiotherapy. Accidents in Radiotherapy and how to avoid them. Principles of Electrical Safety, Electrical Safety Testing, Non-ionizing Radiation Safety, including UV and laser safety.
- NUIG Radiation Safety Course.
Course for Radiation Safety Officer.
- Advanced Radiation Safety
Concepts of Radiation Protection in Medical Practice, Regulations. Patient Dosimetry. Shielding design in Diagnostic Radiology, Nuclear Medicine and Radiotherapy.
- Medical Imaging Workshop
Operation of imaging systems. Calibration and Quality Assurance of General
radiography, fluoroscopy systems, ultrasound scanners, CT-scanners and MR scanners. Radiopharmacy and Gamma Cameras Quality Control.

Research Project [28 ECTS]
A limited research project will be undertaken in a medical physics area. Duration of this will be 4 months full time

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Sign up to the . King's Postgraduate Health & Life Sciences Open Evening.  . - Wednesday 14 March 2018. . Read more

Sign up to the King's Postgraduate Health & Life Sciences Open Evening - Wednesday 14 March 2018. 

New Master's Scholarships available. Find out more and apply.

Our Neuroimaging MSc course will provide you with training in all the scientific and methodological aspects of neuroimaging. It has a strong focus on applied neuroimaging, including practical experience of scanning techniques and analysis methodologies. You will develop the broad set of skills that are essential to anybody wanting to work in the competitive world of neuroimaging.

Key benefits

  • Interdisciplinary research environment, which specialises in a world-leading combination of application-oriented brain imaging and analysis techniques. Neuroimaging is today one of the most successful research fields within the Institute of Psychiatry, Psychology & Neuroscience.
  • Breadth of applications, including psychiatry, neurology, psychology, clinical neuroscience, neuroscience and beyond.
  • Based in the state-of-the-art Centre for Neuroimaging Sciences, with direct access to five MR scanners (one 1.5T, three 3T and one preclinical 9.4T) and to EEG labs.
  • Strong partnerships with sister hospitals, industries and other research centres hosting complementary technologies, such as PET, MEG, CT, Ultrasound and Stem Cell Imaging.
  • World-class team of academic physicists and methodologists, as well as leading psychiatrists, neurologists, psychologists and clinical psychologists.
  • Extensive collaboration within King’s and with other universities and industries.
  • Lectures given by experts in their field providing students with in-depth knowledge of their subject areas.
  • Strong practical and experiential course components aimed at immersing students in all aspects of day-to-day neuroimaging techniques and their applications.

Description

Our Neuroimaging course aims to train the neuroimaging researchers of tomorrow by focusing on teaching you the scientific and methodological aspects of neuroimaging techniques in parallel to their application to psychiatry, neurology, psychology, clinical psychology, neuroscience, and beyond.

In addition to theoretical approaches, our course has a strong applied element, which will allow you to gain practical experience of scanning techniques, with a focus on the skills needed to run a scanning session and to analyse and interpret the data produced. It also includes visits to other centres providing PET, MEG and NIRS among other imaging techniques.

Course format and assessment

You will be taught through a combination of lectures, seminars and tutorials.

You will be assessed through a combination of coursework and examinations.

Examination (40%) | Coursework (40%) | Practical (20%) 

The study time and assessment methods detailed above are typical and give you a good indication of what to expect. However, they may change if the course modules change. 

Extra information

Regulating body

King’s College is regulated by the Higher Education Funding Council for England

Career prospects

Upon completion, you will have a solid understanding of the techniques and applications of Neuroimaging and will be well equipped to work in Neuroimaging or related professions. You may also wish to use the course programme as preparation for PhD study in either Neuroimaging or a related research area. 

Sign up for more information. Email now

Have a question about applying to King’s? Email now



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Technical specialists with environmental skills and competencies are increasingly valued by the global oil and gas industry in the 21st century. Read more
Technical specialists with environmental skills and competencies are increasingly valued by the global oil and gas industry in the 21st century. Developed in consultation with the industry and delivered by the largest group of oil and gas specialists at Coventry University, Petroleum and Environmental Technology MSc offers a unique, comprehensive and advanced level introduction to the technical operation of the petroleum industry linked to an assessment of the most important emerging environmental issues of concern to the sector. This course is professionally accredited by the Energy Institute: the leading chartered professional body for the global energy industry.

WHY CHOOSE THIS COURSE?

Uniquely at Coventry University, this course will give you the opportunity to study all major components of the upstream petroleum operation including reservoir technology and simulation, enhanced oil recovery, drilling and well completion, and petroleum processing and gas technology. It also combines this with the development of complementary expertise in key environmental issues such as oil spills trajectory simulation and remediation, environmental impacts of oil and gas, climate change, renewable energies and water/wastewater treatment. Particular highlights include training in industry standard PETREL and ECLIPSE reservoir simulation software (used by multinational oil companies like Shell, BP and ExxonMobil and kindly donated by Schlumberger to support your learning), and the opportunity to obtain a NEBOSH accredited Managing Safely Certificate. MSc PET students can also participate in a vibrant Student Chapter of the Society of Petroleum Engineers (SPE).

Upon successful completion of the course you should be recognised as a rounded and highly competent upstream technical oil and gas professional, with a distinctive and marketable environmental bias.

The course is professionally accredited by the Energy Institute. Obtaining Energy Institute accreditation involves a rigorous assessment, by a specialist visiting panel, of the quality of the course, the School, its facilities and its staff and students. On successful completion of this course, students will have met the entry requirement for working towards MEI chartered professional status for the Energy Institute. In summary, MSc Petroleum and Environmental Technology:
-Can prepare you for a rewarding career in the fast growing energy and hydrocarbon industry
-Will build your skills in all major technical components of the upstream petroleum industry linked to a distinctive and marketable understanding of the nature and management of relevant environmental issues;
-Is professionally accredited by the Energy Institute and offers the opportunity to obtain a NEBOSH accredited health and safety certificate on successful completion of the course

WHAT WILL I LEARN?

A wide range of subjects are available giving you a multidisciplinary approach to understanding the petroleum industries.

Mandatory subjects
-Drilling and Well Completion
-Reservoir Technology
-Oil and Gas Processing Technology
-HSE Management in the Oil and Gas Industry
-Oil Spill Science, Response and Remediation
-Petroleum Contracts and Economics
-Research Project

Optional subjects (choose two)
-Environmental Monitoring
-Water and Wastewater Treatment
-Impacts of Petroleum Exploration Production and Transportation
-Project and Quality Management in the Energy Industry
-Reservoir Simulation
-Clean Energy, Climate and Carbon

HOW WILL THIS COURSE ENHANCE MY CAREER PROSPECTS?

PET Equipment - TexasThe Petroleum and Environmental Technology MSc aims to equip graduates with the expertise required to confront the technological and environmental challenges confronting the oil and gas industry in the 21st century. The course is accredited by the Energy Institute and all students benefit from free membership of the Institute for the duration of their studies. The Energy Institute is the leading chartered professional membership body for the energy industry, supporting over 20,000 individuals working or studying within the energy sector worldwide. Membership of the EI provides access to extensive learning and networking opportunities to support professional, management, technical and scientific career development within the industry. On successful completion of the course, students will also have the opportunity to obtain a highly marketable NEBOSH accredited health and safety certificate.

Successful graduates could find employment in areas within the upstream technical oil and gas industry, and related fields in the chemical, environmental and energy sector.

GLOBAL LEADERS PROGRAMME

To prepare students for the challenges of the global employment market and to strengthen and develop their broader personal and professional skills Coventry University has developed a unique Global Leaders Programme.

The objectives of the programme, in which postgraduate and eligible undergraduate students can participate, is to provide practical career workshops and enable participants to experience different business cultures.

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This taught Masters is designed to provide you with an advanced programme of study in Medical Physics. It provides an understanding of the application of physics and technology to a range of disciplines within medical physics at a level appropriate for a professional physicist. Read more
This taught Masters is designed to provide you with an advanced programme of study in Medical Physics. It provides an understanding of the application of physics and technology to a range of disciplines within medical physics at a level appropriate for a professional physicist. We have expertise in traditional areas like ionising radiation, but also specialist sections in PET Scanning, Ophthalmology, Urology, Informatics and leading researchers in MRI.

Why this programme

◾A key strength of this programme is that you will be taught mostly by physicists working in the NHS. It will quip you for employment in a clinical environment.
◾Due to the large size of the NHS medical physics department in Glasgow, all mainstream areas of medical physics are covered along with some specialised fields.
◾The programme is accredited with the Institute of Physics & Engineering in Medicine (IPEM), the UK professional body for medical physicists.
◾The department has access to 1.5, 3 and 7 Tesla MRI, Pet Scanning, a cyclotron, dedicated SPECT and has its own radiosotope dispensary.
◾Your lecturers are operating at the forefront of the profession with a balance of research and clinical practice, perfect for studying Medical Science.
◾The research component of this programme allows you to develop valuable skills for practising and interpreting research.
◾We draw on expert resources within the wider university for anatomy, statistics and the two optional courses.

Programme structure

You will attend lectures, seminars and tutorials, take part in e-learning and undertake a research project.

Core courses
◾Radiation physics
◾Anatomy and physiology
◾Statistics and experimental techniques
◾Medical imaging physics
◾Programming
◾Scientific management
◾Clinical medical imaging
◾Radiotherapy
◾Clinical measurement
◾Research dissertation.

Optional courses
◾Advanced data analysis
◾Problem solving.

Career prospects

Career opportunities include positions in the NHS, private healthcare and equipment manufacturers. This is the course followed by the NHS trainees in Scotland so it is highly attuned to preparing the successful student for employment.

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This MSc is the only programme in the UK entirely focused on the imaging of cancer and has been purpose-built to meet a demand for expert researchers and clinicians. Read more

This MSc is the only programme in the UK entirely focused on the imaging of cancer and has been purpose-built to meet a demand for expert researchers and clinicians. Medical imaging is central to the management of cancer, and this course has been designed to cover all aspects of imaging, from basic physics to image analysis. It also aims to give a solid grounding in current concepts of cancer biology and therapy as they apply ‘bench to bedside’.

Designed in close collaboration with a leading team of radiologists, medical physicists, oncologists and research specialists, the programme takes a theoretical and a practical approach to ensure it provides you with the specialist knowledge and skills required.

A key part of the programme is the study of real patient data and there are opportunities for project work in state-of-the-art clinical facilities for oncology imaging at both Hull Royal Infirmary and Castle Hill Hospital. You can also undertake preclinical research in the University's PET (Positron Emission Tomography) Research Centre, a recently completed cutting edge facility that hosts the only research-dedicated cyclotron in the UK, along with extensive radiochemistry provision and preclinical PET-CT and SPECT-CT scanners.

Study information

You study the basic theory and practice of image analysis and interpretation as well as advanced research applications. Students obtain a deep appreciation of the importance of image analysis as a discipline in the generation of scientific data that underpins patient management.

You gain an understanding of imaging theory, technology and application as relates to clinical practice across modalities, and of the biology of cancer as manifested in the clinic, integrated with key physiological and pharmacological concepts.

The programme aims to give graduate students from a range of backgrounds an understanding of imaging theory, an overview of the current understanding of cancer and how this underlies the use of imaging in patient management and the assessment of cancer treatments.

The programme comprises a combination of lectures, state-of-the-art computer-based image analysis, practical work, and projects supported by 'problem classes', workshops and tutorials.

A 12-week cancer imaging research project, carried out in the laboratory of an internationally-recognised cancer imaging scientist or clinician, is a key part of the course.

Programme Content:

  • Introduction to Cancer Imaging
  • Research Skills
  • Imaging Modalities I
  • Imaging Modalities II
  • Image Analysis
  • Organ-Specific Cancers: Bench-to-Bedside
  • Research Project and Dissertation 

* All modules are subject to availability.

Future prospects

This MSc is designed for recent graduates who wish to pursue a career in medical imaging with a cancer focus.

The coverage of all aspects of medical imaging used in the management of cancer patients, from the basic physics through to clinical practice as seen in a modern UK NHS radiology department, also make it suitable for professionals working towards clinical qualification as well as those already qualified.

The programme is also the ideal pathway for biomedical science graduates or physicists who wish to develop their biological understanding of this disease prior to PhD study or employment in industry. Students will become independent life-long learners and scientific investigators with an ability to communicate across all disciplines involved with imaging.



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Your programme of study. If you want to study Medical Physics with applications in nuclear medicine, radiotherapy, electronics and MRI University of Aberdeen has an world renowned historic reputation within major global innovation in this health area. Read more

Your programme of study

If you want to study Medical Physics with applications in nuclear medicine, radiotherapy, electronics and MRI University of Aberdeen has an world renowned historic reputation within major global innovation in this health area. Did you know the first MRI (Magnetic Resonance Imaging) scanner was invented at Aberdeen over 30 years ago? Major innovations to this technology are still being researched at Aberdeen today. You learn everything you need to know as an advanced grounding in medical physics such as understanding anatomy and how cells are altered by disease. You look at the engineering behind MRI and other visual scanning techniques to understand how applications are made in areas such as nuclear, Positron, Tomography, Radio diagnosis (X-ray), MRI and Ultrasound. You understand radiation and you apply electronics and computing to medical physics. The degree ensures plenty of practical understanding and application and you learn MRI within the department that built it.

If you want to work within imaging and medical physics to pursue a medical career in hospitals, industry and healthcare and diagnose disease by different methods of imaging the degree in Medical Physics will help you towards this goal. You can also develop your own research portfolio and PhD from this MSc and work within academia to pursue innovation in the discipline.

You receive a thorough academic grounding in Medical Physics, are exposed to its practice in a hospital environment, and complete a short research project. Many graduates take up careers in health service medical physics, either in the UK or their home country. The MSc programme is accredited by the Institute of Physics & Engineering in Medicine as fulfilling part of the training requirements for those wishing to work in the NHS. You can also work as a researcher, risk manager, radiation physics specialist and within the medical device industry in product development and innovation.

Courses listed for the programme

Semester 1

  • Biomedical and Professional Topics in Healthcare Science
  • Imaging in Medicine
  • Radiation in Medicine
  • Computing and Electronics in Medicine
  • Generic Skills

Semester 2

  • Radiation and Radiation Physics
  • Nuclear Medicine and Post Emission Tomography
  • Magnetic Resonance Imaging
  • Medical Electronics and Instrumentation
  • Medical Image Processing and Analysis
  • Diagnostic Radiology and Radiation Protection

Semester 3

  • Project Programmes in Medical Physics and Medical Imaging

Find out more detail by visiting the programme web page

Why study at Aberdeen?

  • You are taught by renowned researchers with opportunity to contribute to the expanding research portfolio
  • You learn in a cutting edge medical facility adjacent to the teaching hospital including a PET-CT scanner, radiotherapy centre and linac treatment machines, plus MRI scanners
  • The MRI scanner was invented and developed at University of Aberdeen

Where you study

  • University of Aberdeen
  • 12 months or 24 months
  • Full time or Part Time
  • September start

International Student Fees 2017/2018

Find out about fees

*Please be advised that some programmes have different tuition fees from those listed above and that some programmes also have additional costs.

Scholarships

View all funding options on our funding database via the programme page

Living in Aberdeen

Find out more about:

Your Accommodation

Campus Facilities

Find out more about living in Aberdeen and living costs



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Your programme of study. If you are interested in medical imaging and highly sophisticated ways of assisting in diagnostics visually the medical imaging programme comes from a long heritage of major world innovation which was led by research at Aberdeen. Read more

Your programme of study

If you are interested in medical imaging and highly sophisticated ways of assisting in diagnostics visually the medical imaging programme comes from a long heritage of major world innovation which was led by research at Aberdeen. Did you know researchers at Aberdeen invented the first MRI scanner (Magnetic Resonance Imaging) for instance? Since this time much has been done to further work on the MRI scanner and deliver some of the most advanced forms of body visualisation tools available to the health area. If you have ever wondered how X rays work or you are interested in the latest radiotherapy techniques to provide therapeutic tools from radiographic equipment and advances this programme not only gives you the theory and practice in applying imaging in a health setting, it also gives you opportunities to think about the technologies involved and the applications. There is a lot of Physics and Maths required behind the different technologies involved in medical imaging so if you have these subjects and a life science background plus engineering or similar science disciplines this will make the programme more accessible.

By the end of the MSc programme you will have received a thorough academic grounding in Medical Imaging, been exposed to the practice of Medical Imaging in a hospital Department, and carried out a short research project. The MSc programme is accredited by the Institute of Physics & Engineering in Medicine as fulfilling part of the training requirements for those wishing to work in the NHS. There are wide ranging career possibilities after graduation. You may wish to go straight into clinic settings to apply your skills within diagnostics or you may wish to study further for a PhD towards teaching or researching. There have also been spin out companies as a result of understanding and applying imaging technologies towards innovative applications. This subject also aligns with some major innovations in Photonics and other areas of medical science which you may like to explore further if you are interested in invention and innovation at the Scottish Innovation Centres: http://www.innovationcentres.scot/

Courses listed for the programme

Semester 1

  • Radiation in Imaging
  • Introduction to Computing and Image Processing
  • Biomedical and Professional Topics in Healthcare Science
  • Imaging in Medicine
  • Generic Skills

Semester 2

  • Nuclear Medicine and Positron Emission Tomography
  • Magnetic Resonance Imaging
  • Medical Image Processing and Analysis
  • Diagnostic and Radiation Protection

Semester 3

  • MSc Project for Programme in Medical Physics and Medical Imaging

Find out more detail by visiting the programme web page

Why study at Aberdeen?

  • You have the opportunity to contribute research within the department, expanding the knowledge of medical imaging technology within the largest teaching hospital and Medical School in Europe
  • You have access to a PET-CT scanner, new radiotherapy centre and linac treatment machines.
  • The university won the Queens Anniversary Prize in recognition of achievements in new medical imaging techniques
  • The MRI scanner was invented at the University over 30 years ago - a major innovation which has been global in impact

Where you study

  • University of Aberdeen
  • 12 or 24 months
  • Full Time or Part Time
  • September start

International Student Fees 2017/2018

Find out about fees

*Please be advised that some programmes have different tuition fees from those listed above and that some programmes also have additional costs.

Scholarships

View all funding options on our funding database via the programme page

Living in Aberdeen

Find out more about:

Your Accommodation

Campus Facilities

Find out more about living in Aberdeen and living costs



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This multidisciplinary course covers the fundamentals of modern imaging methodologies, including their techniques and application, along with the chemistry behind imaging agents and biomarkers. Read more

This multidisciplinary course covers the fundamentals of modern imaging methodologies, including their techniques and application, along with the chemistry behind imaging agents and biomarkers.

Bioimaging sciences have played a vital role in improving human life. A wide range of imaging techniques, such as magnetic resonance imaging (MRI), positron emission tomography (PET), ultrasound and optical imaging, are now important tools for the early detection of disease, understanding basic molecular aspects of living organisms and the evaluation of medical treatment.

This one-year MRes course covers the fundamentals of modern imaging methodologies, including their techniques and application within medicine and the pharmaceutical industry, along with the chemistry behind imaging agents and biomarkers.

Imperial's research strength in imaging sciences is recognised both nationally and internationally, as exemplified by the creation of the Imaging Sciences Centre (ISC).

The course will progress interdisciplinary development in imaging sciences and create a multidisciplinary team involving chemists, immunologists, radiologists, image scientists, physicists, biomedical scientists and computer scientists.

Careers

Our MRes in Bioimaging Sciences places graduates in an excellent position to begin a PhD or pursue an industrial career in imaging science.

You will have developed the ability to carry out research within multidisciplinary teams, and possess knowledge of basic and advanced concepts in bioimaging sciences.

The course aims to produce highly trained and motivated scientists who will be ideal candidates for research (industrial and academic) positions within imaging science.

With the current world-wide lack of well-trained imaging scientists we are confident that MRes in Bioimaging Sciences graduates will have exceptional career prospects.

Further information

For full information on this course, including how to apply, see: http://www.imperial.ac.uk/study/pg/chemistry/bioimaging-sciences/

If you have any enquiries you can contact our team at:



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