First EBS image: The data that could revolutionise histology
EBS mage of a COVID-19-injured lung where blue represents open airways. Credit Dr Paul Tafforeau (ESRF) At present count, Peter Lee and his medical…Read more
n the aim to reduce carbon footprint and environmental impact of the energy sector, there is a huge drive to decarbonise existing combustion technologies. Gas turbines will be essential components of the future energy ecosystem, and hence manufacturers are striving to develop turbines which offer high efficiencies with low/zero pollutant emissions. Ammonia is a potential carbon-free energy vector which can be used directly for combustion of as a carrier for hydrogen. However, the use of either of these fuels with current gas turbines has considerable scientific challenges due to issues of flame instability, flashback, combustion oscillations and pollutant emissions.
This studentship is linked to an EPSRC funded project (further details: https://bit.ly/2ZQ3x9z) and will involve developing a fundamental understanding of flame stabilisation and dynamics relevant to ammonia combustion. The project will involve utilisation of optical diagnostic techniques to study these phenomena as they enable highly-resolved, non-intrusive measurements of flame structure and species. Additionally, the research will focus on understanding the thermoacoustic behaviour of ammonia combustion systems, particularly non-linear flame response. The candidate will be working with a group of highly driven and specialist researchers at UCL and will have opportunities to liaise with leading industrial companies who are part of this project. Understanding fundamental ammonia flame behaviour will allow development of effective retrofitting strategies for existing engine infrastructure.
The position will also offer opportunities to engage in teaching assistant activities, and work with researchers and engineers in the Energy and Environment group. As a PhD student at UCL, the candidate will benefit from training in high-impact research and high-performance computing, and access to state-of-the-art experimental laboratories. Furthermore, the candidate will be encouraged to publish work in leading journals and present findings in national/international conferences.
Applicants must have a first class of upper 2:1 degree in engineering, chemistry, physics or related discipline, with an interest in thermofluids, experimental characterisation, and data analysis. Excellent organisational, interpersonal and communication skills are essential. Background in thermodynamics, fluid mechanics, design (CAD) and MATLAB is desirable.