Jon Beves

Professor Jon Beves is a distinguished academic in the School of Chemistry at the University of New South Wales (UNSW), where he was promoted to Professor in 2025. His academic journey began with a BSc (Hons) and MSc from the University of Sydney, followed by a PhD in Basel, Switzerland under Professors Ed Constable and Catherine Housecroft. He completed postdoctoral work at the University of Edinburgh and Nanjing University before joining UNSW in 2013.

Professor Beves' research spans supramolecular and applied coordination chemistry, with particular expertise in crystal engineering, molecular sensors, and light-switchable molecular devices and machines. His work demonstrates a consistent focus on creating and controlling molecular systems that respond to external stimuli, particularly light. The trajectory of his research shows an evolution from fundamental coordination chemistry toward increasingly sophisticated molecular machines and responsive materials.

Analysis of his recent publications (2022-2025) reveals a strong emphasis on photoswitchable molecular systems, with significant contributions to molecular cages, light-responsive catalysis, and molecular devices controlled by visible light. His work bridges fundamental chemistry with potential applications in materials science, sensing, and nanotechnology. The research consistently employs advanced techniques including NMR spectroscopy, crystallography, and photophysical characterization to understand molecular behavior.

• ARC Future Fellowship (2017)

Professor Beves has established a productive research group that has generated numerous high-impact publications in top chemistry journals. His work often involves interdisciplinary collaborations across chemistry, materials science, and physics. The Beves Group maintains an active research program focused on developing novel molecular systems with controllable properties, particularly those responsive to light stimuli. Current projects appear to focus on molecular machines, photoswitchable catalysts, and light-controlled assembly processes with potential applications in smart materials and nanotechnology.