
The burden of infectious disease to human health is significant, with parasitic, bacterial and viral diseases representing six of the ten leading causes of mortality world-wide. A major obstacle to the development of new diagnostic, therapeutic and preventative tools to combat these infections is understanding the complexity of the disease processes at the molecular, cellular and organismal level. The CIDCATS programme addresses this challenge by providing graduate training in the quantitative skills required to develop iterative programmes of research that cross discipline boundaries. The last decade has been noted for the development of increasingly powerful experimental technologies (e.g. 2-photon imaging, gene expression analysis, proteomics) that are now providing extensive and detailed data characterizing the structure, dynamics and properties of biological systems. This opens up exciting opportunities for the development of novel data analysis and visualization methods and further, the modelling and simulation of the complex biomolecular and cellular processes that underlie infectious disease.
The CIDCATS (Combating Infectious Disease: Computational Approaches in Translational Science) interdisciplinary PhD Programme in Infectious Disease is funded by the Wellcome Trust. This four-year PhD training programme will provide students (including those with a strong background in a non-biological science, engineering or mathematics) with in-depth knowledge of infectious diseases and the interdisciplinary skills necessary to conduct research in one of the following three inter-related research themes, that are central to our ability to combat these infections:
1. Drug Target Development
2. Predictive Modelling of Pathogenesis and Treatment Response
3. Development of Novel Tools for Complex Data Analysis.
The aim is to deliver the next generation of scientists who will drive quantitative biology to support interdisciplinary research in the biomedical sciences. To this end we will train five students per year for the next five years. (2011-2016)
Do you have a keen interest in biological problems?
Are you excited at the prospect of impacting on our knowledge and treatment of infectious diseases?
Have you excelled in your undergraduate degree in any of these or closely related disciplines: Computer Science, Mathematics, Physics, Chemistry, Electronics, Engineering, Biology?
We especially encourage applications from excellent non-biological scientists and mathematicians who seek to impact on biomedical research.
The programme is led and administered by the Department of Biology. Training and research supervision will be undertaken by staff from Biology, Mathematics, Physics, Chemistry, Computer Science, Electronics, and the Hull York Medical School.
A number of research centres at the University provide an environment that encourages and fosters interdisciplinary research. Three of these underpin the interdisciplinary research themes of this programme:
Additionally, York has key technical facilities that support modern biological research:
PhD thesis research topics within the scope of the programme will be identified and developed by the student at the end of the Foundation year in collaboration with academics drawn from the programme supervisory pool (please see training tab).
An indicative list of interdisciplinary researchers associated with the programme and available as prospective members of the PhD supervisory team are provided below.
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Name |
Department/ Centre Affiliation |
Research Area |
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Protein-nucleic acid interactions; X-ray crystallography |
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DNA/protein interactions, plasmid segregation; multidrug resistance |
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Single molecule techniques, molecular motors, microbiology |
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Structural biology, membrane proteins; method development |
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Simulation of complex biosystems; tools for data analysis/visualization |
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Developmental immunology; haematopoesis/stroma; 4D imaging |
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Machine learning; inductive logic programming; |
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Structural Biology / cellular roles for carbohydrates / |
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NMR, sensitive screening methods |
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Metal ions in biology and medicine |
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| Fairlamb, Ian |
Chemistry |
Therapeutic effects of carbon monoxide and development of carbon monoxide-releasing molecules (CO-RMs) |
| Franks, Daniel |
Biology/YCCSA |
Network analysis/modelling, agent-based systems, randomisation/bootstrapping |
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Plasma Physics, atmospheric pressure, microplasma applications |
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Targeted metabolomics for drug development |
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Immunology; auotimmune disease; diabetes |
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| Hancock, Yvette |
Physics |
Carbon-based nano-technologies (graphene), quantum magnetism and physics at the interdisciplinary interface |
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Structure based ligand discovery |
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Immune regulation; experimental leishmaniasis |
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| Immunology, immune regulation of intestinal inflammation | ||
| Lacey, Charles |
HYMS |
HIV, HPV, chlamydia, phase 1 trials, genital tract immunology |
| Lagos, Dimitris | ||
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Structure/function of papilloma virus; prostate cancer |
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Bacterial pathogenesis; antimicrobial strategies |
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Immunological responses to infectious disease |
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Statistical/mathematical applications for biological data analysis |
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| O'Connell, Deborah |
Physics |
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Stochastic modeling of uncertainty & dynamics in biological systems |
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| Polack, Fiona |
Computer Science |
Engineering simulations for research into complex systems |
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Structural biology, NMR spectroscopy; host pathogen interactions |
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Intracellular pathogen survival mechanisms; cell biology |
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Bio-organic chemistry, synthesis of potential therapeutic agents |
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Chemokine receptor function and regulation |
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Nanochemistry, nanomedicine, nanomaterials, gene therapy |
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Molecular parasitology, genomics, biochemistry, cell biology |
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Human epithelium; tissue development |
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Simulation of complex biosystems, computational modelling, artificial chemistries |
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Compound synthesis |
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Structure /function of bacterial transporters; systems biology, bioinformatics |
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Biological mass spectrometry; host-microbe interactions |
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Agent-based simulations, computational immunology |
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Novel analytical/computational tools; modeling virus structure/assembly |
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Microbial pathogenesis/ gene regulation, biofilms |
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Plasma physics; modelling medical plasmas and interactions with biofilms |
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Compound synthesis, bioinorganic chemisitry |
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Protein structure/function & crystallography |
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Chemoinformatics; novel pattern recognition techniques; metabolomics |
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Theoretical and simulation tools, biological models |
CIDCATS is a cross-disciplinary PhD programme that will provide you with the skill set necessary to work across traditional disciplinary boundaries. The focus is on developing the mathematical, statistical and computational skills to support quantitative biological research in the area of infectious disease.
The programme provides flexible training that is adaptable to your skills and background and to those of other students in your cohort.
It is a 4 year programme consisting of two phases. The Foundation Phase (Year 1) develops your basic science, research skills and experience in interdisciplinary research as a preparation for your individual research project in the Research Phase (Years 2-4).
Core Training. You will receive training in basic science, research skills and thematic topics to enable you to become an effective researcher in the area of Infectious Disease. The training is provided flexibly through a range of workshops, seminars and practical sessions. Topics include a practical course in basic laboratory skills in Biomedical research; Immunology and Infection; Modelling and Simulation techniques targeted to bacteriology, parasitology, immunology and virology; Networks and Complex Systems; Bioinformatics; Data analysis and Computer programming; Drug target development and predictive modeling of pathogenesis. Additionally, you will enhance your transferable skills in areas such as Ethics, History of Biomedicine, and Science Communication.
Elective Training. You can supplement and tailor your own training through elective modules from a range of Masters programmes.
Research Projects. You will undertake 3 research projects (1 group-based, 2 individual) in order to develop your scientific, technical and problem-solving skills in a range of research environments. The individual projects are “rotations”, allowing you to work within different research groups. The group project develops the team-working skills essential for effective interdisciplinary biomedical research.
At the end of the Foundation Phase, you will develop (and submit for approval to the programme committee, and the Wellcome Trust) a project proposal for your PhD thesis. You will have the chance to work with interdisciplinary supervisors drawn from across the University’s departments and research centres.
During this phase, you will focus on your PhD research project, submitting your thesis by the end of Year 4. Your cohort will engage in group activities, (e.g. workshops, journal clubs, research symposia) and you will continue to receive training in scientific skills (technical skills, experimental design, data analysis), as well as oral and written communication skills. There will also be the opportunity to attend conferences and engage in outreach activities.
Programme Director: Prof Deborah Smith. (Biology/CII)
Associate Director: Prof Reidun Twarock. (Maths/Biology/YCCSA)
Dr Fred Antson (Chemistry/YSBL)
Dr Leo Caves (Biology/YCCSA)
Professor Paul Kaye (HYMS/Biology/CII)
Professor Jon Timmis (Computer Science/Electronics)
Dr Marjan van der Woude (HYMS/Biology/CII)
Dr Roddy Vann (Physics)
Mrs Julie Knox (Biology Graduate School)
As a Research student at the University of York, in addition to your Supervisors, you can also expect:
In addition to the excellent research environment specific to this Programme, the University, the city and the environment has much to offer students.
The University of York is in the World Top 100 and recently won UK University of the Year 2010/11 at the Times Higher Education awards. On both the national and international stage, it ranks near the top of nearly every measure of quality – whether this is excellence in teaching, research achievements or the satisfaction of students. The collegiate system and campus help to form a strong, close-knit community of students and staff.
The University is undergoing an exciting expansion plan, with the £200 million first phase of the new Heslington East development opened in October 2010. This includes new accommodation for the Departments of Computer Science and Theatre, Film and Television and the York Law and Management Schools, as well as Goodricke College and the Ron Cooke Hub, which houses the York Centre for Complex Systems Analysis. The second phase of this expansion will include the relocation of Langwith College, a new social and catering building, a biomass gasification heat and power energy centre, and new sporting facilities. The first phase of the new York Sports Village will feature a competition-standard eight lane 25 metre pool, learner pool, 100 station gym, full size 3G astroturf pitch and three further five-a-side pitches.
General information about the University http://www.york.ac.uk/about/
Research at York http://www.york.ac.uk/research/
Information for visitors http://www.york.ac.uk/about/visitors/
York is in the North East of England, ~2 hours north of London by rail. York is an attractive location; the city is essentially medieval laid out on the original Roman pattern with 80% of the city walls intact and the 12th Century Minster (cathedral) dominating the town. The Roman Emperor Constantine was crowned/ anointed here. This rich history, together with good restaurants, pubs and shops, makes York a very popular tourist destination. The city has a vibrant music scene, ranging from classical music, to pubs with live jazz and folk music. There are multiple theatres and cinemas. Living in York is easy: a good public transportation system, sidewalks and bicycle paths make travelling straightforward, while the surrounding countryside and proximity to the coast provide plenty of opportunities for local travel.
York can easily be reached by car, train or plane from other parts of the UK. The city lies on a main train intersection, making Scotland and other parts of Britain very accessible: it is just a 2 hour train trip to London, Edinburgh or Manchester. For international travel, there is a direct rail link to Manchester airport (http://www.manchesterairport.co.uk/manweb.nsf#252) and excellent rail links to the London airports and train terminals, for travel to mainland Europe. Ferries to mainland Europe also depart from Hull, which lies 35 miles from York.
York tourism: http://www.visityork.org/
National Centre for Early Music: http://www.ncem.co.uk/
The British Music Society of York: http://www.bms-york.org.uk/about.htm
Black Swan Pub: www.blackswanyork.com/
Train schedules: http://www.eastcoast.co.uk/, and: http://www.thetrainline.com
York is close to the North Yorkshire Moors and not far away from the Yorkshire Dales and the coast. York’s environment therefore offers a wide range of opportunities for pursuing outdoor and cultural activities, including excellent hiking opportunities. Other activities pursued in the area include road and mountain biking, sailing, climbing and caving.
For enquiries, please contact the Biology Graduate School Office:
| Postal address: Biology Graduate School Office Department of Biology Wentworth Way University of York York YO10 5DD United Kingdom |
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