Inspired by societal challenges, we develop functional materials, catalysts, and nanoscale architectures that enable low-energy chemical synthesis, efficient molecular separations, selective chemical sensing, and other emerging technologies. A central theme in our research is the translation of fundamental understanding of molecular and interfacial chemistry at the nanoscale into the rational design and controlled processing of advanced materials and miniature functional systems. Through the integration of inorganic chemistry, solid-state chemistry, surface and interface science, and materials processing, we seek general principles for the design–structure–property–function relationships that underpin next-generation functional materials.

We actively pursue the translation of fundamental materials research into technologies with societal and industrial impact, while maintaining a strong connection to the underlying science. Our approach to valorisation begins with the identification of materials and material concepts that address unmet technological needs and extends through proof-of-concept development, intellectual property, collaboration with industrial partners, and entrepreneurship. This is exemplified by Nanohybrids spin-off that emerged from research in our group. Nanohybrids develops environmentally more sustainable routes for producing hybrid core–shell nanoparticles for applications in biomedicine and chemical sensing. The company demonstrates how fundamental expertise in the synthesis and characterization of inorganic and hybrid inorganic–organic materials can be translated into sustainable, yet scalable materials technologies. We also participate in collaborative innovation programmes, industry partnerships, and proof-of-concept activities allowing us to actively engage in pathways through which discoveries in functional materials can progress from fundamental understanding and laboratory-scale synthesis to processable materials, device fabrication, and applications.

Education is an integral part of our research mission, with a strong emphasis on connecting fundamental scientific knowledge, research-based learning, and the skills required for technological transitions. We develop educational approaches that bring students, educators, researchers, and industry together around authentic scientific and technological challenges. Through initiatives such as, STEM-CPD Erasmus+ partnership,  Amcel, the LLO Katalysator programme, and H2LEARN, we contribute to professionalisation of educators, research-based and challenge-based learning, with particular attention to emerging fields such as electrochemistry and green hydrogen. By connecting education directly to research and industrial practice, we support the development of the next generation of scientists and educators to contribute effectively to the energy and sustainability transitions.