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Visit our website for more information on fees, scholarships, postgraduate loans and other funding options to study Medicine and Life Sciences at Swansea University - 'Welsh University of the Year 2017' (Times and Sunday Times Good University Guide 2017). Read more

Visit our website for more information on fees, scholarships, postgraduate loans and other funding options to study Medicine and Life Sciences at Swansea University - 'Welsh University of the Year 2017' (Times and Sunday Times Good University Guide 2017).

The MRes in Medicine and Life Sciences is a one year full time programme, which provides an ideal opportunity and environment in which to gain practical training in Research Methods and to join a thriving research team within Swansea University College of Medicine. The Medicine and Life Sciences course has been developed with an emphasis on providing students with a research-oriented approach to their learning. Students are able to tailor their studies towards a career in one of the College’s internationally recognised research themes:

– Biomarkers and Genes,

– Devices,

– Microbes and Immunity,

– Patient & Population Health and Informatics.

Key Features of MRes in Medicine and Life Sciences

The Medicine and Life Sciences programme is committed to supporting the development of evidence within the areas of Health, Medicine and Life Science through the training of researchers whose findings will directly inform their own understanding and that of others. The ethos of this programme is to produce graduates with the research skill and knowledge to become effective researchers, who will contribute to the body of knowledge within their chosen area of interest that will have an impact upon the health and well-being of all.

- The advantage of a MRes over other formats is that it provides a structured yet in-depth approach, taking the taught component of FHEQ Level 7 teaching as a framework for conducting research on the candidates own practice.

- Innovative and integrated curriculum that reflects the various aspects of the research process.

- Multidisciplinary teaching team with vast experience and expertise in conducting high quality research.

- Research informed teaching.

- Teaching is supported by online learning and support.

-Flexibility for you to gain specialist knowledge.

- A one year full-time taught masters programme designed to develop the essential skills and knowledge required for a successful research career.

- This course is also available for two years part-time study.

- The opportunity to conduct an individual research project with an interdisciplinary team within a supportive environment.

- Students will be assigned a research-active supervisory team

The aim of the MRes in Medicine and Life Sciences is to provide students with a broad research training to prepare them for a research career in Medical and Life Science research with emphasis on: Biomarkers & Genes, Devices, Microbes & Immunity, and Patient & Population Health and Informatics. The course has been developed to enable graduates to pursue a variety of research careers in Medical and Life Sciences. The programme comprises both taught and research elements.

By the end of the Medicine and Life Sciences programme students will have:

Developed necessary skills to critically interpret and evaluate research evidence; Gained experience the in analysis and interpretation of research data; Advanced knowledge at the forefront of Medical and Life Science research, with the ability to integrate the theoretical and practical elements of research training; Developed the ability to conceptualise, design and implement a research project for the generation of new evidence that informs Health, Medicine and Life Science; Developed practical research skills by working with an interdisciplinary research team; The ability to confidently communicate research ideas and conclusions clearly and effectively to specialist and non-specialist audiences; Acquired transferable skills which enhance your employability and future research career.

Modules

Modules on the Medicine and Life Sciences course may include:

PMRM01 Critical Appraisal and Evaluation

PMRM02 Data Analysis for Health and Medical Sciences

PMRM03 Research Leadership and Project Management OR any topic specific FHEQ Level 7 module from the College of Medicine ’s portfolio

Mode of delivery:

The 60 credits of the taught element will be delivered face-to-face, combining formal lecturing, seminars, and group work in addition to tutor-led practical classes. The remaining 120 credits for the research element will be available as distance learning either off or on-site. Irrespective of the location for conducting the research project, students will supported through monthly online (Skype)/or face-to-face supervisory meetings.

Course Structure

Students must complete 3 modules of 20 credits each and produce a 120 credits thesis on a research project aligned to one the College’s research theme. Each taught module of the programme requires a short period of attendance that is augmented by preparatory and reflective material supplied via the course website before and after attendance.

The Medicine and Life Sciences programme is designed in two phases:

Phase 1 – Training and Application (October – January; 60 credits)

Taught modules in Research Methods and their application to Medicine and Life Science. Personalised education and training relevant to student’s research interests. Identification of research questions and how they might be addressed.Focused on students existing knowledge and research skills.

Phase 2 – Research Project (February – September; 120 credits)

The project is selected by the student in combination with an academic supervisory team. Focussed on one of the College’s four main research themes: Biomarkers and Genes, Devices, Microbes and Immunity, and Patient & Population Health and Informatics. At the end of Part 2 students submit a 40,000 word thesis worth 120 credits leading to the award of Master of Research in Medicine and Life Science.

Attendance Pattern

Students are required to attend the University for 1 week (5 consecutive days) for each module in Phase One. Attendance during Phase Two is negotiated with the supervisor.

You are also encouraged to attend the Postgraduate Taught Induction Event during the induction week and any programme associated seminars, together with Postgraduate research events.



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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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Haematologists specialise in disorders of the blood and blood-forming tissues, and their contribution to patient care is fundamental and wide-ranging. Read more
Haematologists specialise in disorders of the blood and blood-forming tissues, and their contribution to patient care is fundamental and wide-ranging. Whether you’re analysing data from patients' samples, matching donated blood with someone who needs a transfusion or researching cures for blood cancers, your work will improve and save countless lives.


Why study MSc Biomedical Science -Haematology and Transfusion Science at Middlesex?

Our Biomedical Science courses have a burgeoning international reputation, due to our world-class research in areas including biomarkers, public health and bio modelling. Our Centre for Investigative and Diagnostic Oncology has pioneered techniques for cancer diagnosis and treatment, and the Haematology department is very active in research into blood cancers, HIV and AIDS.

Our course has a strong practical element, with an emphasis on developing laboratory skills and gaining hands-on experience of diagnostic techniques. Our teaching and research facilities surpass those at some UK medical schools, with £3 million specialist labs equipped with the most up-to-date technology- the perfect place to work on your own research project. You’ll learn to use cutting-edge equipment, including MALDI-TOF mass spectrometers and flow cyto meters; we have a molecular biology laboratory for techniques such as DNA sequencing, real-time PCR, electrophoresis and HPLC, fully-equipped proteomics facilities, a microbiology lab and an incredibly modern cell culture facility.

Course highlights

- Course leader Dr Colin Casimir is famed for his research into the biology of haemopoietic stem cells and gene therapy for haematologic conditions. He is the holder of a number of international patents, and his research has been published in top international journals, including the British Journal of Haematology.
- Other teaching staff include Dr Stephen Butler, a world expert on cancer biomarkers and reproductive biochemistry; Dr Ajit Shah, a former principal scientist at GlaxoSmithKline; and Dr Lucy Ghali, an expert in immunohistochemistry. Guest lecturers include Peter Gregory, haematology services manager at Barnet and Chase Farm Hospitals Trust.
- Our staff are supportive and hands-on – ever-ready with advice on your studies, they’re also known for their strong pastoral care and for going the extra mile for their students. All our teaching staff are involved in research.
- The course is accredited by the Institute of Biomedical Science, so on graduation you’ll have fulfilled the academic requirement for Licentiate membership of the institute; you can apply for student membership while you study.
- We work with London hospitals and NHS laboratories to ensure you’re fully versed in both the latest practice and the latest research. - You’ll visit diagnostic laboratories and of course, our location gives you easy access to the British Library, the Science Museum, the Royal Institution and more.

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Cellular pathology is the study of structural and functional changes in cells, tissues and organs that underlie disease. It is a dynamic, fast-evolving specialism which saves many lives by providing rational clinical care and therapy in the fight against many serious diseases, particularly cancer. Read more
Cellular pathology is the study of structural and functional changes in cells, tissues and organs that underlie disease. It is a dynamic, fast-evolving specialism which saves many lives by providing rational clinical care and therapy in the fight against many serious diseases, particularly cancer.


Why study MSc Cellular Pathology at Middlesex?

Our Biomedical Science courses have a burgeoning international reputation, due to our world-class research in areas including biomarkers, public health and biomodelling. Our Centre for Investigative and Diagnostic Oncology has pioneered techniques for cancer diagnosis and treatment, including our breakthrough in the development of a vaccine for bladder cancer.

Our course has a strong practical element, with an emphasis on developing the skills needed in a laboratory and gaining hands-on experience of diagnostic techniques, and our teaching and research facilities surpass those at some UK medical schools. Our £3 million specialist labs are equipped with the most up-to-date technology; here you'll learn to use cutting-edge techniques and equipment for cellular and molecular analysis, such as MALDI-TOF mass spectrometers, flow cytometers, DNA sequencing, real-time PCR, electrophoresis and high-performance liquid chromatography, histology and confocal microscopy. We also have fully-equipped proteomics facilities, a histopathology lab and an incredibly modern cell culture facility.

Course highlights

- All our teaching staff are involved in research and many are pioneers in their own field. Course leader Professor Lucy Ghali is an expert in immunohistochemistry; other teaching staff include Dr Frank Hills, a former clinical scientist at St Bartholomew's Hospital; Dr Ajit Shah, a former principal scientist at GlaxoSmithKline; Sandra Appiah, a former research scientist at Leatherhead Food Research; and Professor Stephen Dilworth, Professor Lucy Ghali and Dr Song Wen are world experts on cancer and Biomarkers.
- The course is accredited by the Institute of Biomedical Science, so on graduation you'll have fulfilled the academic requirement for Licentiate membership of the institute; you can apply for student membership while you study.
- We work with London hospitals and NHS laboratories to ensure you're fully versed in both the latest practice and the latest research. - You'll visit diagnostic laboratories and of course, our location gives you easy access to the British Library, the Science Museum, the Royal Institution and more.
- Our staff are supportive and hands-on – ever-ready with advice on your studies, they're also known for their strong pastoral care and for going the extra mile for their students.
- Our flexible timetable means you'll only spend two days a week at university if you're studying full-time, or one if you're part-time.

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This full-time MSc course is designed to provide graduates with advanced knowledge, understanding and skills in the rapidly advancing field of Cancer Biology and Therapeutics. Read more
This full-time MSc course is designed to provide graduates with advanced knowledge, understanding and skills in the rapidly advancing field of Cancer Biology and Therapeutics.

The course offers advanced teaching in the cellular aspects of cancer biology together with the molecular mechanisms underlying cancer development and progression. It provides in-depth training in cancer therapeutics, encompassing biomarkers and diagnosis, therapeutic targets, drug discovery and clinical trials and chemo/radio therapy, as well as aiming to develop your theoretical and practical research skills. This postgraduate programme offers a balanced combination of theory and practice that would serve as preparation for doctoral research or as a self-contained advanced qualification in its own right.

Graduates from this course should gain a breadth and depth of cancer-focused training that will make them highly attractive candidates to start or continue a career within the healthcare sector and research establishments.

The course offers research skills training and a laboratory-based research project that can provide you with the skills required to develop research hypotheses and critically evaluate translational approaches with respect to the development of contemporary cancer therapeutics.

Distinctive features

• A broad ranging course that covers basic molecular cancer cell biology through to translational research and therapeutics.

• A course developed in collaboration with researchers, academics and clinicians and delivered by leading academic cancer researchers at Cardiff University.

• Key lectures and case study workshops delivered by practising oncologists and cancer surgeons.

• Opportunity to study at Cardiff University, one of the UK’s major teaching and research universities.

• Opportunity to undertake a research project in one of the internationally recognized cancer research groups at Cardiff.

• Close academic support from an experienced personal tutor.
Opportunity to join a vibrant postgraduate community studying at Cardiff.

Structure

This is a full-time course over one academic year. You will study 180 credits: 120 of taught material, followed by a 60 credit project.

Core modules:

Data Handling and Statistics
Cellular and Molecular Biology of Cancer
Translational Oncology and Therapeutics
Academic Research Skills
Research Methodology
Research Project

Teaching

The programme will provide advanced teaching in the cellular aspects of cancer biology together with the molecular mechanisms underlying cancer development and progression. In-depth training will be provided in the area of cancer therapeutics, encompassing biomarkers and diagnosis, therapeutic targets, drug discovery and clinical trials and chemo/radio therapy, in addition to developing the student’s theoretical and practical research skills.

Assessment

Assessment for the course will comprise a combination of exams, written essays, posters, laboratory coursework and case studies.

Career Prospects

Graduates from this course should gain a breadth and depth of cancer-focused training that could make them highly attractive candidates to start or continue a career within the healthcare sector and research establishments.

Potential employment opportunities include PhD student, research technician, medical laboratory science officer, clinical trials co-ordinator, and medical writer.

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Our MRes Experimental Cancer Medicine master's course will give nurses, doctors and clinical researchers the skills needed to work in early phase clinical studies. Read more

Our MRes Experimental Cancer Medicine master's course will give nurses, doctors and clinical researchers the skills needed to work in early phase clinical studies.

You will learn how to master experimental cancer through a combination of traditional teaching and hands-on learning, spending a year as a member of the Experimental Cancer Medicine Team at The Christie while also taking four structured taught units.

The taught units will see you learn the details of designing and delivering Phase 1 clinical studies, understanding the pre-clinical data required before a clinical programme can commence, and how to optimise early clinical studies to provide evidence for progressing a promising drug into Phase II/III clinical testing.

Alongside the taught elements, you will be allocated to one or more clinical trials that are being conducted by The Christie experimental cancer medicine team. You will have a named trainer and be exposed to tasks required in the setup, delivery, interpretation and audit of a clinical study.

Nursing and physician students will be expected to participate in patient care, including new and follow-on patient clinics, treatment and care-giving episodes with patients.

For clinical trials coordinators, no direct patient contact is envisaged and duties will involve clinical trial setup, protocol amendments, database setup, data entry, costing and billing for clinical research.

You will be able to choose two aspects of your direct clinical trial research experience to write up for your two research projects in a dissertation format. This will give you the skills and knowledge required to critically report medical, scientific and clinically related sciences for peer review.

Aims

The primary purpose of the MRes in Experimental Cancer Medicine is to provide you with the opportunity to work within a premier UK Phase 1 cancer clinical trials unit and, through a mix of taught and experiential learning, master the discipline of Experimental Cancer Medicine.

Special features

Extensive practical experience

You will spend most of your time gaining hands-on experience within The Christie's Experimental Cancer Medicine Team.

Additional course information

Meet the course team

Dr Natalie Cook is a Senior Clinical Lecturer in Experimental Cancer Medicine at the University and Honorary Consultant in Medical Oncology at The Christie. She completed a PhD at Cambridge, investigating translational therapeutics and biomarker assay design in pancreatic cancer.

Professor Hughes is Chair of Experimental Cancer Medicine at the University and Strategic Director of the Experimental Cancer Medicine team at The Christie. He is a member of the research strategy group for Manchester Cancer Research Centre. He serves on the Biomarker evaluation review panel for CRUK grant applications.

Professor Hughes was previously Global Vice-President for early clinical development at AstraZeneca, overseeing around 100 Phase 0/1/2 clinical studies. He was previously Global Vice-President for early phase clinical oncology, having been involved in over 200 early phase clinical studies.

Dr Matthew Krebs is a Clinical Senior Lecturer in Experimental Cancer Medicine at the University and Honorary Consultant in Medical Oncology at The Christie.

He has a PhD in circulating biomarkers and postdoctoral experience in single cell and ctDNA molecular profiling. He is Principal Investigator on a portfolio of phase 1 clinical trials and has research interests in clinical development of novel drugs for lung cancer and integration of biomarkers with experimental drug development.

Teaching and learning

Our course is structured around a 2:1 split between clinical-based research projects and taught elements respectively.

Taught course units will predominantly use lectures and workshops.

For the research projects, teaching and learning will take place through one-to-one mentoring from a member of the Experimental Cancer Medicine team.

The clinical and academic experience of contributors to this course will provide you with an exceptional teaching and learning experience.

Coursework and assessment

You will be assessed through oral presentations, single best answer exams, written reports and dissertation.

For each research project, you will write a dissertation of 10,000 to 15,000 words. Examples of suitable practical projects include the following.

Research proposal

  • Compilation of a research proposal to research council/charity
  • Writing a protocol and trial costings for sponsor
  • Research and write a successful expression of interest selected by grant funder for full development

Publication-based/dissertation by publication

  • Writing a clinical study report
  • Authoring a peer-review journal review/original article

Service development/professional report/ report based dissertation

  • Public health report/outbreak report/health needs assessment/health impact assessment
  • Proposal for service development/organisational change
  • Audit/evaluate service delivery/policy
  • Implement recommended change from audit report

Adapted systematic review (qualitative data)

  • Compiling the platform of scientific evidence for a new drug indication from literature
  • Review of alternative research methodologies from literature

Full systematic review that includes data collection (quantitative data)

  • Referral patterns for Phase 1 patients

Qualitative or quantitative empirical research

  • Design, conduct, analyse and report an experiment

Qualitative secondary data analysis/analysis of existing quantitative data

  • Compilation, mining and analysis of existing clinical data sets

Quantitative secondary data analysis/analysis of existing qualitative data/theoretical study/narrative review

  • Policy analysis or discourse analysis/content analysis
  • A critical review of policy using framework analysis

Facilities

Teaching will take place within The Christie NHS Foundation Trust , Withington.

Disability support

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

Career opportunities

This course is relevant to physician, nursing and clinical research students who are considering a career in Phase 1 clinical studies.

The course provides a theoretical and experiential learning experience and offers a foundation for roles within other experimental cancer medicine centres within the UK and EU, as well as careers in academia, the pharmaceutical industry, clinical trials management and medicine.

The MRes is ideal for high-calibre graduates and professionals wishing to undertake directly channelled research training in the clinical and medical oncology field.



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Bioimaging sciences have played a vital role in improving human life. Read more
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 Imperial's 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.

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The MRes in Biomedical Research offers advanced research training in a broad range of laboratory based medical science. The emphasis of the course is how to do successful research and the research area is decided by the student. Read more
The MRes in Biomedical Research offers advanced research training in a broad range of laboratory based medical science. The emphasis of the course is how to do successful research and the research area is decided by the student. Participating departments include Biomolecular Medicine, Molecular Medicine, Cancer Medicine, Reproductive and Developmental Biology, Anaesthetics, Pain Medicine and Intensive Care, Biosurgery and Surgical Technology, Leukocyte Biology and Cardiovascular Sciences.

The research interests of the participating departments cover many aspects of molecular, cellular and physiological science including Bacterial virulence, Biomarkers of disease, Bioinformatics, Carcinogenesis, Cancer Biology, Cell Biology, Cell Signalling, Chemokines and their receptors, DNA damage and Repair, Electrophysiology, Immunosuppression, Leukocyte biology, Live cell imaging, Metabolomics/Metabonomics, Microbial Pathogenesis, Molecular Genetics, Molecular Motors, Molecular Pharmacology, Molecular Toxicology, Muscle Physiology, and Vascular Development, Neurological receptors, Nuclear receptors, Sepsis, Single molecule microscopy, Stem Cell Biology.

Students complete two research projects of their own choosing and through a core programme learn how to collect, analyse and interpret scientific research findings. They learn how to prepare data for publication, how to present and defend research data at scientific meetings and how to put together a grant application. The core programme also introduces students to advanced research techniques through a series of workshops and offers students a wide range of transferable skills courses. In addition to the core programme, the course comprises of other streams that offer further opportunities in specific areas. The course is an excellent grounding for students wishing to pursue a career in research and about 90% of past graduates have progressed to the PhD degree.

Please visit the course website for more information about how to apply, and for more information about the streams of specialism which run within the course.

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The Department of Oncology and the Department for Continuing Education’s CPD Centre offer a part-time MSc in Experimental Therapeutics that brings together some of Oxford's leading clinicians and scientists to deliver an advanced modular programme designed for those in full-time employment, both in the UK and overseas. Read more
The Department of Oncology and the Department for Continuing Education’s CPD Centre offer a part-time MSc in Experimental Therapeutics that brings together some of Oxford's leading clinicians and scientists to deliver an advanced modular programme designed for those in full-time employment, both in the UK and overseas.

The Programme draws on the world-class research and teaching in experimental therapeutics at Oxford University and offers a unique opportunity to gain an understanding of the principles that underpin clinical research and to translate this into good clinical and research practice.

Visit the website https://www.conted.ox.ac.uk/about/msc-in-experimental-therapeutics

The first deadline for applications is Friday 20 January 2017

If your application is completed by this January deadline and you fulfil the eligibility criteria, you will be automatically considered for a graduate scholarship. For details see: http://www.ox.ac.uk/admissions/graduate/fees-and-funding/graduate-scholarships.

Programme details

The MSc in Experimental Therapeutics is a part-time course consisting of six modules and a research project and dissertation. The programme is normally completed in two to three years. Students are full members of the University of Oxford and are matriculated as members of an Oxford college.

The modules in this programme can also be taken as individual short courses. It is possible to transfer credit from up to three previously completed modules into the MSc programme, if the time elapsed between commencement of the accredited module(s) and registration for the MSc is not more than two years.

Programme modules:

- The Structure of Clinical Trials and Experimental Therapeutics
- Drug Development, Pharmacokinetics and Imaging
- Pharmacodynamics, Biomarkers and Personalised Therapy
- Adverse Drug Reactions, Drug Interactions, and Pharmacovigilance
- How to do Research on Therapeutic Interventions: Protocol Preparation
- Biological Therapeutics

Course aims

The aim of the MSc programme is to provide students with the necessary training and practical experience to enable them to understand the principles that underpin clinical research, and to enable them to translate that understanding into good clinical and research practice.

By the end of the MSc programme, students should understand the following core principles:

- Development, marketing and regulations of drugs
- Pharmaceutical factors that affect drug therapy
- Pharmacokinetics, pharmacogenetics and pharmacodynamics
- Adverse drug reactions, drug interactions, and pharmacovigilance
- Designing phase I, II and III clinical trials for a range of novel therapeutic interventions (and imaging agents).
- Application of statistics to medicine
- Laboratory assays used to support trial end-points
- Use of non-invasive imaging in drug development
- Application of analytical techniques

By the end of the programme, students should be equipped to:

- demonstrate a knowledge of the principles, methods and techniques for solving clinical research problems and translate this into good clinical and research practice
- apply skills gained in techniques and practical experience from across the medical and biological sciences
- develop skills in managing research-based work in experimental therapeutics
- carry out an extended research project involving a literature review, problem specification and analysis in experimental therapeutics and write a short dissertation

Guidance from the UK Royal College of Physician's Faculty of Pharmaceutical Medicine

The Faculty have confirmed that if enrolled for Pharmaceutical Medicine Specialty Training (PMST), trainees may be able to use knowledge provided by Experimental Therapeutics modules to cover aspects of a module of the PMST curriculum. Trainees are advised to discuss this with their Educational Supervisor.

Experimental Therapeutics modules may also be used to provide those pursuing the Faculty's Diploma in Pharmaceutical Medicine (DPM) with the necessary knowledge required to cover the Diploma syllabus. Applicants for the DPM exam are advised to read the DPM syllabus and rules and regulations.

Members of the Faculty of Pharmaceutical Medicine who are registered in the Faculty's CPD scheme can count participation in Experimental Therapeutics modules towards their CPD record. Non-members may wish to obtain further advice about CPD credit from their Royal College or Faculty.

Assessment methods

To complete the MSc, students need to:

Attend the six modules and complete an assessed written assignment for each module.
Complete a dissertation on a topic chosen in consultation with a supervisor and the Course Director.

Dissertation:
The dissertation is founded on a research project that builds on material studied in the taught modules. The dissertation should normally not exceed 15,000 words.

The project will normally be supervised by an academic supervisor from the University of Oxford, and an employer-based mentor.

The following are topics of dissertations completed by previous students on the course:

- The outcomes of non-surgical management of tubal pregnancy; a 6 month study of the South East London population

- Analysis of the predictive and prognostic factors of outcome in a cohort of patients prospectively treated with perioperative chemotherapy for adenocarcinoma of the stomach or of the gastroesophageal junction

- Evolution of mineral and bone disorder in early Chronic Kidney Disease (CKD): the role of FGF23 and vitamin D

- Survey of patients' knowledge and perception of the adverse drug reporting scheme (yellow cards) in primary care

- The predictive role of ERCC1 status in oxaliplatin based Neoadjuvant for metastatic colorectal cancer (CRC) to the liver

- Endothelial Pathophysiology in Dengue - Dextran studies during acute infection

- Literature review of the use of thalidomide in cancer

- An investigation into the phenotypical and functional characteristics of mesenchymal stem cells for clinical application

- Identification of genetic variants that cause capecitabine and bevacizumab toxicity

- Bridging the evidence gap in geriatric medicines via modelling and simulations

Teaching methods

The class-based modules will include a period of preparatory study, a week of intensive face-to-face lectures and tutorials, followed by a period for assignment work. Attendance at modules will be a requirement for study. Some non-classroom activities will be provided at laboratory facilities elsewhere in the University. The course will include taught material on research skills. A virtual learning environment (VLE) will provide between-module support.

The taught modules will include group work, discussions, guest lectures, and interaction and feedback with tutors and lecturers. Practical work aims to develop the students' knowledge and understanding of the subject.

Find out how to apply here - http://www.ox.ac.uk/admissions/graduate/applying-to-oxford

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The range of research topics for our Ageing MPhil, PhD and MD programmes is diverse. They include. biology of ageing; age-related diseases; ageing health and society; technology; nutrition and oral health; and ethics. Read more
The range of research topics for our Ageing MPhil, PhD and MD programmes is diverse. They include: biology of ageing; age-related diseases; ageing health and society; technology; nutrition and oral health; and ethics.

Increased life expectancy is one of the most notable human achievements of the last century. We are living longer, and our quality of life depends on healthy ageing. Older people are at increased risk of disease and disability. This can seriously affect their quality of life and impact on their families. This is why Newcastle's research and treatment of our ageing population is important for us all.

MPhil supervision is normally available in the following areas:

Biological mechanisms of ageing

Intrinsic cellular and molecular mechanisms and biomarkers of the ageing process.

Clinical studies of age-related diseases

Experimental medicine and translation of basic science for patient benefits.

Ageing health and society

The social dimensions of population ageing, and health care policy and provision.

Technology for an ageing population

Research and development of innovative assistive technologies to support independence and quality of life.

Nutrition and oral health

The role of nutritional factors in healthy ageing and the impacts of oral health.

Ethics, philosophy and engagement

Ethics and principles underlying attempts to improve the quality of later life. This includes working with older people and their representative organisations.

Pharmacy

Our new School of Pharmacy has scientists and clinicians working together on all aspects of pharmaceutical sciences and clinical pharmacy.

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One of the most rapidly developing areas of toxicology is the use of molecular, cell biology and omics to identify adverse outcome pathways (AOPs) and to develop a mechanistic understanding of chemical toxicity at the cellular and molecular level. Read more
One of the most rapidly developing areas of toxicology is the use of molecular, cell biology and omics to identify adverse outcome pathways (AOPs) and to develop a mechanistic understanding of chemical toxicity at the cellular and molecular level. This is not only of fundamental interest (i.e., understanding the mechanism of action) but it also relates to an increased need for a mechanistic component in chemical risk assessment and development of high throughput screens for chemical toxicity.

The MRes in Molecular Mechanistic Toxicology is a one-year full-time programme that provides students with a research-orientated training in a lively, highly interactive teaching and research environment.

Programme content

The programme is coordinated by the School of Biosciences, which is recognised internationally as a major centre for both teaching and research in Toxicology. Molecular Toxicology is a major component of the School of Biosciences research activities along with interactions with other departments including Chemistry and the Medical School.

Specific areas of active research include:

- Mechanisms of cell toxicity
- Development of novel DNA binding chemicals
- Cellular proliferation and differentiation
- Environmental genomics and metabolomics
- Molecular biomarkers of genotoxicity, oxidative stress and cellular responses
- Role of environmental and genetic factors in disease
- Learning and teaching

Two five-week taught modules are held in Semester 1 in conjunction with the taught MSc in Toxicology programme. Training in generic and laboratory research skills is also an important element of the programme. The programme also includes a six-month research project, which provides students with an opportunity for further advanced research training and hands-on experience of molecular and cellular biology techniques embedded in a research laboratory. Research projects can take place either in academic or industrial institutions.

About the School of Biosciences

As one of the top biosciences departments in the UK, our research covers the entire spectrum of cutting-edge biosciences. We are home to the Institute of Microbiology and Infection and part of the University’s Systems Science for Health initiative.
Our research focuses on a number of important themes that run through modern biological and biochemical research: Biosystems and Environmental Change; Microbiology and Infection; Molecules, Cells, Signalling and Health; and Plant Science.
Our postgraduate students join a diverse international community of staff and students. For students on research degrees, the annual Biosciences Graduate Research Symposium, organised by PhD students, is an example of an event where the whole School comes together to talk about science.
We have extensive high-technology facilities in areas such as functional genomics, proteomics and metabolomics, including a world-class Advanced Mass Spectrometry Facility. Our cutting-edge facilities extend to protein structure determination and analysis, confocal microscopy, drug discovery, horticulture, structural biology and optical imaging. The £8 million Phenome Centre Birmingham is a large metabolic phenotyping facility led by internationally recognised metabolomics and clinical experts at the University of Birmingham, in collaboration with Birmingham Health Partners.

Funding and Scholarships

There are many ways to finance your postgraduate study at the University of Birmingham. To see what funding and scholarships are available, please visit: http://www.birmingham.ac.uk/postgraduate/funding

Open Days

Explore postgraduate study at Birmingham at our on-campus open days.
Register to attend at: http://www.birmingham.ac.uk/postgraduate/visit

Virtual Open Days

If you can’t make it to one of our on-campus open days, our virtual open days run regularly throughout the year. For more information, please visit: http://www.pg.bham.ac.uk

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The course combines an introduction to the theory behind and technologies currently used in drug discovery, pharmacokinetics, role of biomarkers and surrogate endpoints, preclinical safety assessment, first-time-in-human studies, clinical investigation paradigms, research governance and medical statistics. Read more
The course combines an introduction to the theory behind and technologies currently used in drug discovery, pharmacokinetics, role of biomarkers and surrogate endpoints, preclinical safety assessment, first-time-in-human studies, clinical investigation paradigms, research governance and medical statistics.

Suitable for all medical disciplines, but of particular interest to Cardiovascular/Respiratory, Neuroscience, Oncology, and Metabolic medicine, the programme is highly suitable for graduates in medicine who wish to pursue a career as clinical academics and for medical professionals in industry.

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Overview. Advances in molecular biology have enabled major developments in biotechnology which in turn has lead to huge advances in medicine, molecular biology and industry. Read more
Overview
Advances in molecular biology have enabled major developments in biotechnology which in turn has lead to huge advances in medicine, molecular biology and industry. Students choosing this MSc degree will enjoy a comprehensive course that covers the key aspects of practical and theoretical medically-related molecular biology, developing advanced skills in this area.

Description
The course is composed of a modular 120-credit taught component and a 60-credit research project and dissertation. The taught component covers a broad range of medical molecular topics and techniques and includes thorough laboratory training. The course is run in conjuncture with our School of Medicine to ensure that students gain a broad view of modern molecular biology and laboratory techniques.

Overseas Students
A two-year course aimed at students from non-European Union countries who come to the UK requiring pre-MSc level training in English language and basic pre-MSc molecular biology. The first year of this course will bring students up to a level where they will be capable of studying for a full MSc degree and it will develop English language skills to the minimum level required for MSc level learning. Year one will be run in conjunction with ELCOS (English Language Courses for Overseas Students). Students can obtain the minimal English certification for MSc entry.

Module list (1st year of English-life sciences modules)
The English language content and life sciences teaching are integrated to enable students to undertake MSc level life-sciences modules through the medium of English

Life-sciences for none native English speakers - 50 credits
Academic Writing & Grammar
Speaking & Listening
Ad.Vocabulary Use & Reading
Near Native English 1
Near Native English 2

Modules list: (for first year of 1 year course and 2nd year of 2 year course)

Semester 1
Molecular and Medical Techniques
Techniques of molecular biology and biotechnology
Medical microbes viruses and parasites
Development, cancer and the human body
Genomes and Genetics
IT skills for medical and molecular research

Semester2
Project preparation course
Medical Biotechnology
Cellular causes of disease
Biomarkers in autoimmunity

Summer term
Research Project (Experimental research into a medical/molecular or genetics research topic)

Aims and Objectives
* Provide an excellent grounding in laboratory techniques and a critical approach to research planning and implementation.
* Develop understanding of molecular biology and the molecular basis of disease.
* Develop transferable skills, including their ability to work as a member of a team, and communicate in scientific writing and speech.
* Provide the opportunity for students to gain and enhance skills required by research organisations and biotechnology companies.
*Provide the ability to attain a level required to carry out research for a higher degree (PhD) in medical molecular and related areas.

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This modular part-time programme is particularly suitable for academically gifted medical and dental trainees with the potential to be the independent researchers of the future. Read more
This modular part-time programme is particularly suitable for academically gifted medical and dental trainees with the potential to be the independent researchers of the future.

Applications for admisson in October 2016 are now open, the deadline to receive applications by is Friday 29 July 2016 (12 noon UK time).

Description

This progamme is designed to be taken by Academic Clinical Fellows alongside work commitments, the Health Research programme exists to enable students to:

- develop skills of research, design and data analysis in both qualitative and quantitative research

- critically evaluate health research

- identify, critically appraise and incorporate the results of medical and social science research into the day-to-day decision-making of clinical, scientific and administrative practice

- apply the principles of evidence-based practice in health care settings

- plan how to implement the findings of research to improve health care

- use theories and principles underpinning clinical research to inform their own research practice.

The programme is delivered through the Department for Continuing Education, with the expertise in curriculum design and teaching drawn from the Nuffield Department of Primary Care Health Sciences, the Centre for Evidence-Based Medicine, and the Oxford University Clinical Academic Graduate School.

Visit the website https://www.conted.ox.ac.uk/about/postgraduate-certificate-in-health-research

Programme details

The Postgraduate Certificate is normally completed between 1-2 years. It consists of three assessed taught modules and includes thorough introductions to the principles of evidence-based practice in health, and to study design and research methods.

Compulsory Modules

• The Practice of Evidence-Based Health Care
• Introduction to Study Design and Research Methods

The third module may be chosen from the following list:

- Clinical Trial Management
- Ethics for Biosciences
- Mixed Methods in Health Research
- Knowledge into Action
- Evidence-based Diagnosis and Screening
- Introduction to Statistics for Health Care Research
- Systematic Reviews
- Randomized Controlled Trials
- Qualitative Research Methods
- The Structure of Clinical Trials and Experimental Therapeutics
- How to do Research on Therapeutic Interventions: Protocol preparation
- Biological Therapeutics
- Pharmacodynamics, Biomarkers and Personalised Therapy
- Adverse drug reactions, drug interactions and Pharmacovigilance
- Drug development, Pharmacokinetics and Imaging

Course aims

At the end of the course students will be able to:

- demonstrate a knowledge of the principles, methods and techniques appropriate for solving evidence-based health care/health-research problems and be able to translate (through a critical comprehension of the relative advantages and disadvantages) that understanding into good clinical practice

- demonstrate a range of research skills enabling them to complete research successfully, either as part of a research team or as an individual

- acquire, interpret and analyse biological information with a critical understanding of the appropriate contexts for their use through the study of the existing primary literature in the field

- apply skills and expertise gained across the medical and biological sciences expected of professional researchers

Students will know and understand:

- health-care organizations, their management and the changing context in which they operate

- the ethical issues in health research and research governance

- methods to integrate and synthesise different sorts of information, from diverse sources, when making both individual patient and health-policy decisions in a wide range of situations

- the key issues for evidence-based practice in their own professional area or specialty

- how to work comfortably in situations of uncertainty and make sound judgements in the absence of definitive evidence

- research methods and concepts in the field of health and health care

All graduates of the Postgraduate Certificate in Health Research will be able to:

- understand the role of most commonly used methods appropriate for specifying problems through a critical comprehension of the relative advantages and disadvantages of these methods

- understand and express the main principles of some commonly applied techniques and methods

- explain the rationale for the selection of tools used in the analysis of phenomena.

Assessment methods

To complete the Postgraduate Certificate students must:

- Attend and complete the 2 compulsory modules and 1 option module.

Students will also be expected to complete three written assignments, usually of no more than 4000 words, one on each of the chosen modules above.

With the exception of the online modules, the EBHC modules are based on an eight week study cycle. Week One is a preparatory week where you may be required to undertake some pre-reading and to familiarise yourself with the Virtual Learning Environment. During Week Two you are required to attend the face to face teaching week in Oxford. This is followed by an additional six weeks where you are expected to participate in online activities and submit your assignment

Level and demands

Candidates will, in all but exceptional circumstances be admitted to the Postgraduate Certificate with optional progression on successful completion to the Diploma, provided that a candidate:

- has successfully completed the final year of the Bachelor of Medicine and Bachelor of Surgery or Bachelor of Dental Surgery or equivalent; or

- has an appropriate degree or equivalent professional qualification in a profession allied to medicine with post-qualification experience

Applicants will be expected to demonstrate an approach to their study which includes demonstrable skills of critical analysis, wide contextual knowledge and the ability to manage their own time.

Additionally candidates should:

- have a good working knowledge of email, internet, word processing and Windows applications (for communications with course members, course team and administration)

- show evidence of the ability to commit time to study and an employer's commitment to make time available to study, complete course work and attend course and University events and modules

Successful candidates will normally provide evidence of all of the following:

- A professional interest in Health Research, evidenced by prior experience, qualification and work

- Motivation and ability to complete the course

- A clear and well argued understanding of the benefits of the course to the candidate's current employment and future prospects

Find out how to apply here - http://www.ox.ac.uk/admissions/graduate/applying-to-oxford

Visit the Postgraduate Certificate in Health Research page on the University of Oxford website for more details!

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The Cancer MSc reflects the depth and breadth of research interests, from basic science to translational medicine, within the UCL Cancer Institute. Read more

The Cancer MSc reflects the depth and breadth of research interests, from basic science to translational medicine, within the UCL Cancer Institute. The programme, taught by research scientists and academic clinicians, provides students with an in-depth look at the biology behind the disease processes which lead to cancer.

About this degree

This programme offers a foundation in understanding cancer as a disease process and its associated therapies. Students learn about the approaches taken to predict, detect, monitor and treat cancer, alongside the cutting-edge research methods and techniques used to advance our understanding of this disease and design better treatment strategies.

Students undertake modules to the value of 180 credits.

The programme consists of two core modules (60 credits), four specialist modules (60 credits) and a research project (60 credits).

A Postgraduate Diploma (120 credits, full-time nine months) is offered.

A Postgraduate Certificate (60 credits, full-time 12 weeks) is offered.

Core modules

  • Basic Biology and Cancer Genetics
  • Cancer Therapeutics

Specialist modules

  • Behavioural Science and Cancer
  • Biomarkers in Cancer
  • Cancer Clinical Trials
  • Haematological Malignancies and Gene Therapy

Dissertation/report

All MSc students undertake a laboratory project, clinical trials project or systems biology/informatics project, which culminates in a 10,000–12,000 word dissertation and an oral research presentation.

Teaching and learning

Students develop their knowledge and understanding of cancer through lectures, self-study, database mining, wet-lab based practicals, clinical trial evaluations, laboratory training, assigned reading and self-learning. Each taught module is assessed by an unseen written examination and/or coursework. The research project is assessed by the dissertation (75%) and oral presentation (25%).

Further information on modules and degree structure is available on the department website: Cancer MSc

Careers

The knowledge and skills developed will be suitable for those in an industrial or healthcare setting, as well as those individuals contemplating a PhD or medical studies in cancer.

Employability

Skills include critical evaluation of scientific literature, experimental planning and design interpretation of data and results, presentation/public speaking skills, time management, working with a team, working independently and writing for various audiences.

Why study this degree at UCL?

UCL is one of Europe's largest and most productive centres of biomedical science, with an international reputation for leading basic, translational and clinical cancer research.

The UCL Cancer Institute brings together scientists from various disciplines to synergise multidisciplinary research into cancer, whose particular areas of expertise include: the biology of leukaemia, the infectious causes of cancer, the design of drugs that interact with DNA, antibody-directed therapies, the molecular pathology of cancer, signalling pathways in cancer, epigenetic changes in cancer, gene therapy, cancer stem cell biology, early phase clinical trials, and national and international clinical trials in solid tumours and blood cancers.

Research Excellence Framework (REF)

The Research Excellence Framework, or REF, is the system for assessing the quality of research in UK higher education institutions. The 2014 REF was carried out by the UK's higher education funding bodies, and the results used to allocate research funding from 2015/16.

The following REF score was awarded to the department: Cancer Institute

80% rated 4* (‘world-leading’) or 3* (‘internationally excellent’)

Learn more about the scope of UCL's research, and browse case studies, on our Research Impact website.



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