Current research degree projects

Explore our current postgraduate research degree and PhD opportunities.
Explore our current postgraduate research degree and PhD opportunities.
Tidal Turbines (underwater wind turbines) are able to operate close together and this can increase power capture. To get it to work well we need to understand many different aspects of device design and operating environment. Building on existing work you will experimentally and numerically investigate ways to boost performance.
This project aims to study the extreme physical conditions on neutron star surfaces.
Unlike optical telecoms, where amplifiers compensate losses, in the world of Quantum Technology, every photon is precious. This project will create new ultra-low-loss optical components, reducing losses and allowing us to create large, entangled quantum states.
Nonlinear parametric photonics is used to control quantum systems and as a source for photonic qubits. We have led the development of quasi-phase-matched non-linear systems. This project combines novel fabrication approaches with established commercial materials to expand the operation range into the ultra-violet and mid-infrared wavelength regions for quantum photonics.
In this project, you will design, fabricate, and test atom and ion trap systems while working with experimentalists to demonstrate quantum sensing and computing.
This project focuses on experimentally characterizing and predicting noise from tip vortex-blade interactions in eVTOL aircraft, addressing a key challenge in reducing noise for urban air mobility. Using advanced techniques like Particle Image Velocimetry (PIV) and hotwire measurements, this study will inform noise reduction strategies in next-generation urban air mobility systems.
This project aims to explore a Multimodal Large Language Model framework that enables Social Robots to interpret interaction contexts from various modality inputs, such as vision, language or audio, and provide interactions to users through multiple communication channels, such as speech, gestures or images.
It is the aim of this project to enable heterogeneous integration of our high-resistivity substrate with RF MEMS which will enable the resulting system to power the next generation of 6G communications as well as many other applications.
MXenes are a promising new family of nanomaterials. They have unique properties and show great promise in many applications fundamental to the net-zero transition (e.g. gas storage, energy storage). This project aims to develop environmentally-friendly, safe, and scalable methods to enable large-scale manufacture of MXenes to meet future industrial needs.
Black holes in our Galaxy, with masses between 5 and 15 times that of our Sun, form when massive stars explode in supernovae. These dense objects are so compact that not even light can escape their immense gravitational pull. Fortunately, some black holes reside in binary systems with companion stars. When the black hole is close enough to its stellar companion, it draws gas from the star, gradually reshaping it into a pear-like form. This pulled gas doesn’t plunge directly into the black hole but spirals inwards, forming an accretion disk—similar to water swirling down a drain.