Dr Stuart Higgins is a Research Associate in the Departmental of Materials at Imperial College London. Stuart works within the group of Prof. Molly Stevens, focusing on the microfabrication of innovative materials for biomedical applications.
His current research interests include the microfabrication of novel interfaces for interacting with cells, biosensing and organic bioelectronics.
His work has also included exploring the fabrication of flexible electronics based on organic semiconductors. In particular he developed organic field-effect transistors for use in complementary logic circuits, and organic diodes for high-performance energy harvesting systems.
Previously, Stuart was a Research Associate in the group of Prof. Henning Sirringhaus in the Cavendish Laboratory at the University of Cambridge. He completed his PhD under the supervison of Prof. Alasdair Campbell in the Department of Physics at Imperial College London. He graduated from Imperial College London with an MSci degree in Physics, during which he spent a year working at the Max Planck Institute for Nuclear Physics in Germany under the supervision of Priv.-Doz. Dr. José Ramón Crespo López-Urrutia.
Stuart produces the award-winning podcast, Scientists not the Science, which explores the culture of working in science, and created the project Science in the Supermarket, which aims to bring engagement activities into neutral third spaces such as supermarkets, promoting the benefits of studying STEM subjects to young people.
et al., 2021, In memoriam Alasdair James Campbell (11 May 1961-27 February 2021), Journal of Materials Chemistry C, Vol:9, ISSN:2050-7526, Pages:6100-6102
et al., 2021, High-throughput peptide derivatization toward supramolecular diversification in microtiter plates, Acs Nano, Vol:15, ISSN:1936-0851, Pages:4034-4044
et al., 2021, Assessing the impact of silicon nanowires on bacterial transformation and viability of Escherichia coli, Journal of Materials Chemistry B, ISSN:2050-750X
et al., 2020, Coarse Grained Simulations Suggest the Epsin N-Terminal Homology Domain Can Sense Membrane Curvature Without its Terminal Amphipathic Helix, Acs Nano, Vol:14, ISSN:1936-0851, Pages:16919-6928
et al., 2020, Organic bioelectronics: using highly conjugated polymers to interface with biomolecules, cells and tissues in the human body, Advanced Materials Technologies, Vol:5, ISSN:2365-709X, Pages:1-35