My research lies at the interface of applied mathematics, science and engineering. I integrate mathematical tools (from PDEs, calculus of variations and multiscale methods) with physical theories (including solid and structural mechanics and soft matter physics) and biological and biochemical experiments to analyse natural phenomena and advance engineering design. I have a sustained record of cross-disciplinary collaboration with engineers, physicists, biologists and biochemists. I lead an active research group focused on the mechanics of complex solids, adaptive structures, and tissue and sensory biology.

In solid mechanics, I have worked on multiphase solids, including microstructure formation and evolution in superalloys, as well as damage and morphoelasticity.

My work on adaptive structures follows two central themes: Translating macromolecular behaviour to continuum scale, and designing bespoke architectured materials.

I have pioneered the mathematical modelling of aerial electroreception, a sensory modality that enables arthropods to detect ecologically relevant electric fields. This work, which has laid the groundwork for an electromechanical explanation of this recently discovered ability, was initially funded by a £0.8M grant from the Biotechnology and Biological Sciences Research Council (BBSRC). Other areas of interest in mathematical biology include plant mechanics and wound healing in epithelial tissues.