Recipient organisationCardiff UniversitySource-published name: Cardiff University
Funding£1.3M
PeriodMar 2016 — Feb 2020
In plain English
AI plain-English summary
Turning carbon dioxide into fuel usually takes more energy than the fuel provides—this project aims to break that deadlock by using renewable electricity and sunlight to drive the conversion. The problem is that CO₂ is a stable molecule, so breaking it apart to make fuels or chemicals requires large energy inputs, often from fossil fuels. That defeats the purpose. This research tackles that gap by developing two low-energy routes: electrocatalysis powered by renewables, and catalytic reduction using hydrogen made from sunlight. The team will also use ionic liquid solvents to activate CO₂ more efficiently, and apply computational modelling to predict better catalysts before testing them in the lab. If successful, the work could produce a practical, scalable way to turn captured CO₂ into synthetic fuels or chemical feedstocks without adding net carbon to the atmosphere. That would affect energy grids and industrial supply chains—not by changing how people drive tomorrow, but by offering a way to store renewable energy as liquid fuel and to decarbonise chemical manufacturing. A full life-cycle analysis will check whether the process genuinely saves energy overall, preventing the kind of hidden inefficiencies that have undermined earlier carbon-capture-to-fuel schemes.
View original technical description
One of the major current scientific and technological challenges concerns the conversion of carbon dioxide to fuels and useful products in effective and economically viable manner. This proposal responds to the major challenge of developing low energy routes to convert carbon dioxide to fuels and useful chemicals. The project has the following four main strands: (i) The use of electricity generated by renewable technologies to reduce CO2 electrocatalytically, where we will develop new approaches involving the use of ionic liquid solvents to activate the CO2 (ii) The use of hydrogen in the catalytic reduction of CO2, where we will apply computational procedures to predict new materials for this key catalytic process and subsequently test them experimentally (iii) The development of new materials for use in the efficient solar generation of hydrogen which will provide the reductant for the catalytic CO2 reduction (iv) A detailed life cycle analysis which will assess the extent to which the new technology achieves the overall objective of developing low carbon fuels. Our approach aims, therefore, to exploit renewably generated energy directly via the electrocatalytic route or indirectly via the solar generated hydrogen in CO2 utilisation for the formation of fuels and/or chemicals. The different components of the approach will be fully integrated to achieve coherent, new low energy technologies for this key process, while the rigorous life-cycle analysis will ensure that it satisfies the need for a low energy technology.
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