The Cronin Group

Research in the Cronin Group is motivated by the fascination for complex chemical systems, and the desire to construct complex functional molecular architectures that are not based on biologically derived building blocks.

Cronin Group in Hydrogen Production Breakthrough

The production of hydrogen via the electrolysis of water is the subject of considerable research activity as, coupled with renewable sources of electricity, it can provide a route to “green” hydrogen but the high cost, the need for precious metals, and extra infrastructure to cope with fluctuating power supplies are all important problems that need to be solved. Writing in this week’s issue of Science, researchers in the Cronin group report on a new way to split water using a redox mediator that allows the one-step electrolysis of water with an electrical input, followed by the on demand release of hydrogen simply by adding a catalyst after the redox mediator has been reduced, and oxygen evolved. This process not only allows the amount of precious metals to be reduced, or the speed of hydrogen production to be increased, but also gives a new route to the temporal and spatial split of the water splitting reaction providing new fundamental insights and new potential electrolyser systems for hydrogen.

BBC News Story

Full paper in Science

Prof. Leroy (Lee) Cronin

Prof Leroy (Lee) Cronin
Regius Chair of Chemistry
Advanced Research Centre (ARC)
Level 5, Digital Chemistry
University of Glasgow
11 Chapel Lane
Glasgow G11 6EW
Tel: +44 141 330 6650

Latest Publications


476. An artificial intelligence enabled chemical synthesis robot for exploration and optimization of nanomaterials


475. An autonomous portable platform for universal chemical synthesis


474. Robotic synthesis of peptides containing metal-oxide-based amino acids


473. Selection of assembly complexity in a space of tetrapeptides


472. Digitization and validation of a chemical synthesis literature database in the ChemPU


471. Formalising the pathways of life to using assembly spaces


470. Engineering Highly Reduced Molybdenum Polyoxometalates via the Incorporation of d and f Block Metal Ions


469. Effective Storage of Electrons in Water by the Formation of Highly Reduced Polyoxometalate Clusters

468. A Probabilistic Chemical Programmable Computer


467. Digitizing Chemical Synthesis in 3D Printed Reactionware

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