Data-Driven Electrocatalysis for Energy and Chemical Systems: Hydrogen oxidation as a key enabler for electrified chemical synthesis beyond water

About the Project

The electrification of chemical synthesis is central to the transition towards sustainable energy and manufacturing systems. Non-aqueous electrochemical routes to reactions such as CO₂ and N₂ reduction offer important advantages over aqueous processes, including improved selectivity and access to new reaction pathways. However, these systems are currently limited by the anode reaction, hydrogen oxidation. Slow kinetics and electrolyte degradation at the anode remain major barriers to practical implementation.

The student will carry out high-throughput electrochemical testing to systematically evaluate hydrogen oxidation across multiple electrolyte compositions and synthesised catalyst materials. Data-driven analysis and machine-learning tools will be used to identify trends and guide experimental design. The experimental work will be closely integrated with collaborators in Denmark, developing molecular-scale models of the electrochemical interface, enabling direct links between atomistic insight and measured performance. The project will provide training in electrochemistry, materials synthesis, automated experimentation and data-enabled research methods.

Funding Notes

Initially this project is open for UK/home students but may become available for overseas students later