Current research degree projects
Explore our current postgraduate research degree and PhD opportunities.
Explore our current postgraduate research degree and PhD opportunities.
As the need to decarbonise transportation, especially the maritime sector, intensifies, there is growing interest in hydrogen energy. Geological seeps of Natural Hydrogen have been known for decades but regarded as curiosities. The aim of this project is to understand more about the underlying chemistry responsible for the formation of this low cost and energy efficient source of hydrogen.
Supersonic and hypersonic flows contain density fluctuations that affect the performance of optical sensors, including non-intrusive flow measurement. An additional feature is the challenging aerothermodynamic environment with extreme surface heating. On this project you'll use scale-resolving numerical simulation to understand the flow physics and develop new prediction methods.
Noise production by turbulent boundary layers is an important practical problem that remains a challenge for prediction methods. On this industry-supported project you'll apply new techniques of large-scale numerical simulation and machine learning to understand the flow physics and develop new prediction methods.
Oceans are critical to the changing climate, having absorbed a third of all anthropogenic carbon dioxide; hence monitoring ocean uptake is essential for understanding, modelling, and mitigating climate change. This project looks to develop and test novel sensors to do so, based on droplet microfluidic technology.
This project will develop phage therapies to combat antibiotic-resistant bacterial infections. Using patient-derived bacteria and phages, the student will identify effective phage combinations, study bacterial survival mechanisms, and optimise treatments. The aim is to create personalised, safe, and clinically ready therapies, offering sustainable alternatives to antibiotics and addressing antimicrobial resistance.
This project focuses on exploring high-precision lithographic fabrication techniques for the development of multifunctional material structures at the nanoscale, with applications in wireless energy and information transfer, and in biomedicine.
This project will reimagine gel electrophoresis into an innovative engineered microfluidic system, tailored to match the latest long-read sequencing methods for genomic medicine and health data science. By shrinking a decades-old method, that remains essential to DNA analysis, we will enable faster, higher quality genomic analysis.
Traditional analytical methods are often overwhelmed by complex samples. In partnership with your supervisors and LECO Instruments UK Ltd, you'll develop new analytical methods, on world-leading comprehensive gas chromatography-mass spectrometry (GCxGC-MS) instrumentation, providing greater insights and helping to address challenges in a range of academic and industrial sectors.
This project aims to understand how simulation approaches and other experimental modelling can be used to optimise building performance in relation to user health, comfort, and environmental sustainability. It will also establish reliable methods for validating the results and enhance the standing of computational building physics methods in finding robust architectural design for housing.
This project will harness MXenes, cutting-edge two-dimensional materials, to create powerful new technologies for detecting and removing these pollutants, with the goal of developing MXene-based prototypes for use in real-life conditions.