Applicants should normally possess an upper second class honours degree in any relevant discipline with additional emphasis placed upon the student's preparedness for study and performance at interview which will inform the selection process. A lower second class degree may be mitigated by substantial relevant work experience.
Decisions concerning the allocation of credit, either for admission or advanced standing, will be the responsibility of a Credit Allocation Panel. Credit value will be given for appropriate certificated or experiential learning completed within the previous five years and through which an applicant can demonstrate prior achievement of learning outcomes related to one or more programme modules. A student seeking advanced standing must apply before enrolment.
Each student will be interviewed as required in all Chester Research Degrees and the Interview record form will be completed and submitted to Postgraduate Research Admissions with the completed application.
Months of entry
This Master by Research course provides ideal training for students who wish to move onto a PhD course, or for students who wish to undertake frontier research, that would equip them with professional experience in lab environment and/or computational modelling.
Students work on a research project in their chosen discipline and grow to become accomplished in the latest scientific developments in their field of research.
Our research staff ensure that all offered research projects are relevant to current industrial needs, providing highly employable skills to our graduates.
MRes Applied Sciences students take two taught modules at the start of the course before moving to the research component. You will choose your main discipline before joining the course, and this might include one of the following:
- Natural Sciences and Engineering
- Computer Science
- Sport and Exercise Sciences
- Food Science and Innovation
You will then join a research team in the appropriate department and start working on the research project of your choice. A list of research projects along with potential supervisors follows below:
- Analysis of the performance of a 20 kWe biomass fixed bed gasifier coupled to an internal combustion engine.
- Techno-economic modelling of a small islanded micro-grid with multiple generation and storage nodes.
For further information please contact Prof. John Brammer.
- A study of siloxanes indoors and out; the effects of humans on their own environments
- Measuring the effects of industrial air pollution on the indoor environment.
- Developing portable air pollution sensor networks for human health research.
- The development of UAV deployable air pollution sensors.
For further information please contact Dr. Gavin Phillips.
- Improving the performance and durability of 2nd Generation hydrogen PEM fuel cells
- Understanding 2nd Generation hydrogen PEM fuel cells
- Increasing the power density of redox flow batteries
- Fundamentals of carbon electrochemistry
- Developing new ultra low cost electrochemical sensors
For further information please contact Dr. Trevor Davies.
- Synthesis of new platinum compounds for cancer treatment.
- Targeted delivery of platinum compounds for cancer treatment.
For further information please contact Dr. Gabriele Wagner.
- Charge transfer at metal/organic and metal-oxide/organic interfaces.
- Surface physics of metal oxides in the presence of defects and impurities.
- Charge and exciton transport in π-conjugated materials.
- Electron transport in single-molecule junctions.
- Real-time attosecond electron dynamics in nano-clusters and molecules.
These projects are related to computational modelling of organic electronics and optoelectronics device applications. For further information please contact Dr. Theodoros Papadopoulos.
- Trace element analysis in food chemistry.
- Green chemistry with biodegradable polymers and non-toxic plasticisers.
- Microporous stainless steel mesh for fuel cell applications.
For further information please contact Dr Claudia Swanson.
- Investigation into the crystallisation of chemicals by polarisation-dependent Terahertz spectroscopy.
- Fast, non-invasive Terahertz spectroscopy and imaging for quality control in mass production industrials.
For further information please contact Dr Bin Yang.
The programme is designed to be consistent with Section 4 of the QAA (2008) framework for higher education qualifications in England, Wales and Northern Ireland, which identifies the necessary descriptors for L7 training.
Your successful portfolio would constitute an excellent start to your research career and ambitions.
Qualification and course duration
Course contact details
- Postgraduate Admissions
- +44 (0)1244 511 000