This one-year research programme provides an opportunity for graduates with an interest in biomedical science to complete a masters level course during which they carry out a research project in their specific area of interest working under the supervision of an academic member of staff. Biomedical Science covers the area of basic science which focuses on the study of fundamental biological processes involved in health and disease. Spanning a wide variety of disciplines in the life and physical sciences, biomedical research employs cross-disciplinary approaches with the overall aim to understand and treat disease.
This is not a taught course and does not require completion of specific taught modules. The MSc by Research is often a popular choice for those wanting a full-time research experience and can provide a valuable stepping stone to those wishing to embark on a PhD programme.
Studying across a range of disciplines you will have access to tailored York Biomedical Research Institute (YBRI) training activities focussed on the biomedical sciences and the core YBRI themes:
- Degree awarded: MSc by Research in Biomedical Science
- Entry requirements: We require applicants to hold or expect to gain an Upper Second class Honours degree (or equivalent) in a related subject area for entry into this Masters programme.
- Funding: We welcome applications at any time from those who are able to fund their own studies. Information on funding for postgraduate courses.
- Projects: A description of potential project areas and supervisors can be found by scrolling down to the bottom of this page.
- How to apply: Once you have chosen your project, make a note of its title and the name of the supervisors. Please follow our step-by-step guidance to submit your application. You will need the following documents ready to upload:
- Your academic transcript/s
- A short (one page) personal statement to explain your background, relevant experience, research interests and why the project/s you have selected appeal to you. You should also explain your motivation for applying to the biomedical sciences programme. More guidance can be found here.
- Your CV (curriculum vitae). The CV should be approximately two pages long and should include:
- Your contact details (please do not include your photo or any personal information that is not directly relevant to the application, such as your date of birth, nationality, gender, marital status etc.)
- A short statement of academic interests (2-3 sentences)
- Your education, including: name of the programme and institution, degrees held or ongoing, dates and (expected) classification or overall mark, relevant modules covered
- Further details of research experience: this can include undergraduate projects, summer projects, or experience obtained in the workplace. Include project title, supervisor/s, dates, and a short description of the work undertaken and the main findings (2-3 sentences).
- Other work experience, volunteering experience and training courses that are relevant to the application
- Research skills, computer skills and any other relevant skills (for example, transferable skills)
- Scientific publications: list any peer-reviewed research papers, reviews, book chapters etc. you have contributed to. Make sure to reference the publications so they can be easily and unambiguously traced.
- Attendance and/or presentation at local, national or international conferences, including titles of any oral or poster presentations
- Any other relevant information
- Contact details for two independent academic references
- Apply Now
- Contact us: If you have any questions, please contact firstname.lastname@example.org
If English isn't your first language you may need to provide evidence of your English language ability. For more information see our Postgraduate English language requirements.
York’s MSc by Research in Biomedical Science aims to bring students from all over the world to our first class research facilities. Over a one-year period you will develop and execute research in your chosen field.
Areas of research fall within, but are not limited to, the diverse biomedical portfolio of our academic staff, neuroscience, molecular and cellular medicine, immunology, haematology and infection.
Working under the supervision of world-leading, research-active supervisors, you will be encouraged to contribute to the development of new techniques, ideas or approaches as you pursue research in biomedical science at an advanced level.
The MSc by Research in Biomedical Science has the following contributing departments; Biology, Chemistry, Electronic Engineering, Health Sciences, Physics and Hull York Medical School (HYMS), as partners in the York Biomedical Research Institute (YBRI).
Training and cohort-building programme: A dedicated Biomedical Science training and cohort-building programme will draw on the training offered by the collaborating departments, whilst offering the students on the programme additional training and opportunities to promote collaboration and networking across the programme.
Cohort activities will include: a monthly journal club, an annual research symposium, and other cross-departmental YBRI seminars and events.
Mentoring: All new research students are offered mentorship from within the existing research student community. For those new to York, mentors work in the same research area. Those who have previously studied at York will be offered a mentor working in a different research area. The mentor partnership is a means to explore options and understand more about working as a research student at the University of York.
Please see potential project areas and supervisors listed below. We welcome applications at any time.
|Prof Fred Antson||Chemistry||Protein-nucleic acid interactions|
|Dr Christoph Baumann||Biology||A variety of cellular processes, including transcription, replication and recombination, involve simultaneous melting and unwinding of the two DNA strands, and translocation of the strands within a DNA-bound protein complex.|
|Dr Jamie Blaza||Chemistry|
|Dr Dave Boucher||Biology||Inflammasome and protease signalling|
|Dr Katherine Bridge||Biology||Understanding and targeting the hypoxic response in acute myeloid leukaemia (AML)|
|Prof James Chong||Biology||Anaerobic applied systems biology|
|Dr Simon Crouch||Health Sciences|
|Prof Anne-Kathrin Duhme-Klair||Chemistry||Metal ions in biology and medicine|
|Dr Paul Fogg||Biology||Horizontal Gene Transfer (HGT), which is a fundamental and powerful process for the exchange of genes between bacteria.|
|Dr Ville Friman||Biology||Ecology and evolution of antibiotic resistance. Use of phage therapy to treat bacterial infections. Cystic fibrosis lung microbiomes.|
|Dr James Hewitson||Biology||Mammalian immune responses to parasitic worm infections.|
|Dr Chris Hill||Biology|
|Prof Ian Hitchcock||Biology||My group have identified a key interaction between a cell surface receptor and a mutated protein that is essential for myeloproliferative neoplasms (MPN) development.|
|Dr Daniel Jeffares||Biology||Population and comparative genomics. Incuding quantative genetics, landscape genetics and the evolution of drug resistance.|
|Dr Steven Johnson||Electronic Engineering|
|Prof Paul Kaye||HYMS||The immunopathology of leishmaniasis, with emphasis both on exploring opportunities for developing novel host-directed therapies and also for gaining new insight into myeloid cell function.|
|Dr David Kent||Biology||The biology of adult blood stem cells and the process by which single blood stem cells are subverted to drive blood cancers such as leukaemia.|
|Dr Ioannis Kourtzelis||HYMS||The study of mechanisms that orchestrate the onset and resolution of sterile and pathogen-induced inflammation.|
|Prof Thomas Krauss||Physics|
|Prof Charles Lacey||HYMS||A multi-arm HPV vaccine study including evaluating one dose regimes in schoolgirls in Tanzania.|
|Dr Dimitris Lagos||HYMS||The overarching working hypothesis of our work is that modulation of immune responses is a key function of non-coding RNAs in mammals and that coordination of the machineries that control non-coding and coding RNA metabolism is required for optimal mammalian immunity.|
|Prof Mark Leake||Biology & Physics|
|Prof Jeremy Mottram||Biology||Molecular genetics, cell biology and biochemistry of Leishmania, the parasitic protozoan that causes the neglected tropical disease leishmaniasis|
|Dr Elmarie Myburgh||HYMS||My research focusses on the complex interplay between pathogens and their hosts, with a particular interest in the kinetoplastids Leishmania and African trypanosomes.|
|Prof Rob Newton||Health Sciences|
|Dr Samadhan Patil||Electronic Engineering|
|Dr Michael Plevin||Biology||Biomolecular recognition and the structural and chemical features that define interaction surfaces of proteins and nucleic acids.|
|Prof Eve Roman||Health Sciences|
|Dr Nathalie Signoret||HYMS||Chemokines and their receptors have emerged as essential controls for the trafficking and activation of immune cells, in both homeostatic and inflammatory conditions. Our research aims to define how these molecules influence immune responses and establish the mechanisms by which they exert their activity.|
|Dr Alex Smith||Health Sciences|
|Prof Gavin Thomas||Biology||The Thomas group has two main interests that are linked by the bacterium Escherichia coli. We are interested in the mechanisms used by different bacteria, mainly huma|
|Prof Reidun Twarock||Biology & Maths||The structure and assembly of viruses. Viruses have a protein shell that encapsulates and hence provides protection for the viral genome.|
|Dr Laurence Wilson||Physics|
|Dr Marjan Van der Woude||HYMS||We are interested in molecular strategies at both the single cell level and population level that enable a bacterial pathogen's success. Our main focus is cell surface structures and modulation and gene regulation in E. coli and Salmonella spp.|
|Dr Pegine Walrad||Biology||Kinetoplastid parasites which cause human disease worldwide; afflicting the poorest of society.|
|Prof Tony Wilkinson||Chemistry||Structure function analysis of proteins relevant to (i) disease processes and drug discovery in parasites and (ii) cell fate and virulence in spore-forming bacteria|
|Prof Gavin Wright||Biology & HYMS||The Wright Laboratory is interested in identifying new therapeutic targets for both genetic and infectious diseases by using systematic large-scale protein-based approaches to discover extracellular receptor-ligand interactions that are essential for cellular recognition processes.|
|Dr Gonzalo Blanco||Biology||Understanding the mechanisms underlying muscle plasticity|
|Dr Will Brackenbury||Biology||Ion channels, membrane excitability and cancer|
|Prof Nia Bryant||Biology||Control of Intracellular Membrane Traffic|
|Prof Marek Brzozowski||Chemistry||Structural endocrinology; Membrane proteins; Development of methods for protein crystallisation|
|Dr Manish Chuhan||Electronic Engineering|
|Prof Dawn Coverley||Biology||Structure, function and maintenance of the mammalian cell nucleus|
|Prof Gideon Davies||Chemistry||Structural enzymology and carbohydrate chemistry|
|Dr Martin Fascione||Chemistry||Chemical glycobiology and glycomedicine|
|Prof Paul Genever||Biology||Stem cells and regenerative medicine. Repair and regeneration of skeletal tissues|
|Dr Yvette Hancock||Physics|
|Dr Andrew Holding||Biology||How cells respond to steroid hormones, both in cancer and in healthy tissues, with a focus on breast cancer|
|Prof Neil Hunt||Chemistry||Physical chemistry|
|Prof Roland Kroger||Physics|
|Dr Chris MacDonald||Biology|
|Dr Andrew Mason||Biology|
|Dr Agnes Noy||Physics|
|Prof Peter O'Brien||Chemistry|
|Dr Betsy Pownall||Biology||Embryonic development orchestrates the proliferation and differentiation of many hundreds of cell types that will interact to form tissues, underpinning organ and organismal function|
|Dr Paul Pryor||HYMS|
|Prof Jenny Southgate||Biology||Human epithelial tissue homeostasis and regulation of differentiation versus regeneration in health and disease, including cancer|
|Dr Chris Spicer||Chemsitry||Bioconjugation and biomaterials for tissue engineering. We are particularly interested in developing new methods to functionalise materials with proteins in a controlled and specific way|
|Dr Lianne Willems||Chemistry||Chemical Biology of Carbohydrates and Carbohydrate-Processing Enzymes|
|Dr Heidi Baseler||HYMS||To understand the neural mechanisms specialised for processing central and peripheral vision, and how these mechanisms respond to sensory loss (visual or auditory)|
|Dr Sangeeta Chawla||Biology||Transcriptional regulation of neuronal plasticity-associated and antioxidant genes|
|Dr Han-Jou Chen||Biology||Why do proteins aggregate and how that contributes to neurodegenerative diseases?|
|Prof Simon Duckett||Chemistry||Organometallic chemistry and reaction mechanisms|
|Dr Gareth Evans||Biology||Protein kinase signalling in neuronal development and neurological disorders|
|Dr Darren Goffin||Biology||Research is focused on understanding the pathogenesis of autism spectrum disorders using electrophysiological and molecular biology techniques|
|Dr David Halliday||Electronic Engineering|
|Dr Aneurin Kennerley||Chemistry||Neuroimaging|
|Dr Adar Pelah||Electronic Engineering|
|Dr Steven Quinn||Physics|
|Prof Steven Smith||Electronic Engineering|
|Dr Sean Sweeney||Biology||Min neurons, the endosome regulates signals controlling synapse growth. Appropriate regulation of synaptic growth is a key mechanism in refining the fidelity of synaptic communication|
|Prof Zion Tse||Electronic Engineering|
|Prof Christina Van Der Feltz-Cornelis||HYMS & Health Sciences|