Location: | Leeds |
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Salary: | £38,205 to £45,585 per annum |
Hours: | Full Time |
Contract Type: | Fixed-Term/Contract |
Placed On: | 23rd September 2024 |
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Closes: | 10th October 2024 |
Job Ref: | ENVEE1767 |
This role will be based on the University of Leeds campus. There is scope for it to be undertaken in a hybrid manner. We are also open to discussing flexible working arrangements.
Are you an ambitious researcher looking for your next challenge? Do you have a background in atmospheric science? Do you want to further your career in one of the world’s leading climate-research groups?
You will join a team of climate and atmospheric scientists at the University of Leeds to work on two complementary projects funded by the Natural Environment Research Council (NERC) and Department for Transport (DfT) research programme “Jet zero: Aviation’s non-CO2 impacts on the climate”. You will work with Dr Alex Rap, Prof Amanda Maycock and Prof Piers Forster, employing the SOCRATES radiative transfer scheme and line-by-line models to quantify the contrail radiative forcing from climate-optimised aircraft designs and alternative fuels. You will also collaborate closely with the other researchers involved in the projects at the University of Southampton, Imperial College London, and University College London, as well as with our project partners Airbus and Rolls-Royce.
The ‘Contrail Assessment of Future Aircraft and Propulsion Architectures’ project is a collaboration between research groups at the University of Southampton and the University of Leeds. The overarching aim of the project is to assess the contrail climate impact of future low-CO2 aircraft by incorporating rigorous analysis of turbulence/microphysics interactions into climate-optimised aircraft design. The ‘Contrails from SAF and H2 combustion; from lab experiments to global mitigation policy’ is a partnership between Imperial College London, University College London and the University of Leeds. The aim of the project is to assess the impact of alternative aircraft fuels (sustainable aviation fuels, SAF, and hydrogen) on contrail formation and radiative forcing and model the feedback arising from the different aviation climate impacts on future aviation policy.
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