Our multidisciplinary research combines theoretical modelling, experimental synthesis, and application testing to advance nanotechnology capabilities across multiple domains.
Investigating novel quantum dots, perovskite nanocrystals, and two-dimensional materials for advanced optoelectronic applications including quantum computing, high-efficiency solar cells, and ultra-sensitive photodetectors.
Developing environmentally responsible synthesis routes that reduce energy consumption, eliminate toxic solvents, and enable circular economy approaches to nanomaterial production whilst maintaining precise control over material properties.
Creating smart nanoparticles for targeted therapeutics, advanced diagnostic systems, and regenerative medicine applications with enhanced biocompatibility and controlled release mechanisms for European healthcare markets.
Pioneering new analytical methods for nanomaterial characterisation including in-situ monitoring of synthesis processes, real-time property measurements, and predictive modelling of material behaviour under operational conditions.
