Completed Clean Energy Chemistry

Low carbon jet fuel through integration of novel technologies for co-valorisation of CO2 and biomass

In plain English

AI plain-English summary

Aircraft engines could soon burn fuel made from waste wood and captured CO₂ instead of crude oil. This project brings together engineers and chemists from four UK universities to build a new production pathway for low-carbon jet fuel. The team will develop catalysts and electrodes that convert agricultural and forestry waste—combined with captured carbon dioxide—into synthetic aviation fuel, using renewable energy to drive the reactions. They will also analyse the full lifecycle of the fuel, from carbon source to combustion, and assess the economic and social factors that could make or break the supply chain. If the approach works, it could help the UK cut aviation emissions without redesigning aircraft or airports. Jet fuel made this way would slot directly into existing engines and infrastructure. The project also tackles two problems at once: disposing of biomass waste and reusing CO₂ that would otherwise stay in the atmosphere. The research is applied from the start—there is no gap between the lab work and the real-world fuel supply chain. Success would mean a tangible, drop-in replacement for fossil kerosene, produced from materials the UK already has in abundance.

View original technical description
Low-carbon aviation fuels must be developed to help the UK to transition to a low carbon future, whilst meeting security of energy supply. This multidisciplinary proposal unites leading engineers and scientists from the Universities of Heriot-Watt, Aston, Oxford and University of Edinburgh to realise our vision of production of low carbon jet fuels through the integration of novel technologies for co-valorisation of carbon dioxide (CO2) and biomass. Our project aims to produce low carbon synthetic aviation jet fuel using renewable energy from waste agricultural and forestry biomass and captured CO2. An integrated chemistry (bottom-up method to develop novel catalysts and electrodes) and engineering (top-down method to tailor heat and mass transport parameters influencing reaction conditions) approach will be implemented towards high selective and efficient jet fuel production. Process integration and life cycle analysis will be performed by incorporating the newly developed process into a greater domain (e.g. various options of carbon sources), and to investigate the social/political/economic valuation of the biomass and CO2 to jet fuel value added chain.

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Researchers

Adam Lee (Co-Investigator)Bing Xu (Co-Investigator)Daniel Wright (Co-Investigator)Huizhi Wang (Co-Investigator)Jamal Ouenniche (Co-Investigator)Jim Scott (Co-Investigator)Jin Xuan (Co-Investigator)John Andresen (Co-Investigator)Maja Piecyk (Co-Investigator)Mercedes Maroto-Valer (Principal Investigator)Peter Edwards (Co-Investigator)Philip Greening (Co-Investigator)

Related Research

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Original classification

Research Grant

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