Current research degree projects

Explore our current postgraduate research degree and PhD opportunities.
Explore our current postgraduate research degree and PhD opportunities.
This project aims to develop cutting-edge 3D X-ray imaging methods to improve histopathology and tissue diagnostics. It will advance non-destructive µCT -based imaging of histological specimens to guide sampling, reduce diagnostic error, and support spatial -omics. Based at the interface of engineering and medicine, this project combines imaging science, pathology, and translational biomedical research.
​​​​This PhD project builds on a newly funded NIHR research aiming at predicting response to methylphenidate (the most common medication for ADHD), based on pre-treatment clinical, cognitive, and physiological characteristics. Ultimately, this will help tailor treatment options and thus improve patients’ outcomes.​
Modern lightweight space structures face harsh environments and often exhibit nonlinear dynamics due to contacts, friction, and geometric nonlinearities. This project combines numerical, analytical, and experimental methods to develop physics-informed machine learning tools for efficient nonlinear system identification, enabling accurate modelling and validation of the next-generation space technologies.
The Department of Aeronautical and Astronautical Engineering at the University of Southampton is offering PhD scholarships focused on using active thermography to inspect aerospace composites. The project aims to improve how defects are detected and analysed in aircraft materials, helping ensure safer and more efficient maintenance.
This project repurposes photonic fibre technologies—central to global telecoms—for renewable energy applications, including solar generation and low-cost storage. Combining cleanroom fabrication, optical characterization, and simulation, it supports net-zero goals through scalable photonic platforms, guided by a multidisciplinary team in photonics, manufacturing, and decarbonisation.
This project focuses on designing and fabricating novel photonic computing devices using chalcogenide glass materials such as sulfur (S), selenium (Se) and tellurium (Te). These materials enable the creation of micro and nanoscale structures known as meta-optics, that precisely control light over a broad spectral range.