Adrian Mulholland

This PhD project at the University of Bristol focuses on mapping enhanced water density fluctuations around complex molecules, with applications ranging from hydrophobic surfaces to proteins. The research aims to deepen our understanding of the hydrophobic effect, a phenomenon central to processes such as protein folding, enzyme activity, drug binding, nanomaterial self-assembly, and biomolecular condensation. Recent findings suggest that the hydrophobic effect is driven by enhanced fluctuations in water near critical surface phase transitions, rather than solely by hydrogen bond disruption. Building on this insight, the project will bridge the gap between idealized models and realistic biological and soft matter systems, such as micelles and membranes. The work will link microscopic interfacial behavior to macroscopic function, providing new physical insights relevant to biophysics, pharmaceutical design, and nanotechnology. The research will employ both coarse-grained and atomistic models to study the effects of temperature, pressure, and chemistry on interfacial fluctuations. Advanced techniques like metadynamics and data-driven approaches will be used to connect surface properties to water behavior, aiming to develop a quantitative framework for predicting water-mediated interactions in biological and nanotechnological contexts. The project benefits from collaborations with experts in protein aggregation and biomolecular structures, and will utilize the University of Bristol's world-class computational facilities, including the ISAMBARD 3 supercomputer and BlueCrystal Phase 5 High Performance Cluster. As a member of the Physics Graduate School, the successful candidate will join a vibrant, diverse community and have access to comprehensive training, support, and career development resources. Funding is available for home students, covering living expenses at the UKRI rate, tuition fees, and training costs. A limited number of fully-funded places are available for outstanding international candidates, with the option for others to apply with external or partial funding. Applicants should have a strong background in physics or a related field, and meet the University's English language requirements. The application deadline is 19 January 2026. For more information, contact the Bristol Physics Graduate School at [email protected].

A fully funded 4-year PhD position is available in the group of Marc van der Kamp at the University of Bristol, UK, as part of the GW4 BioMed Doctoral Training Programme. The project focuses on overcoming β-lactamase-mediated antibiotic resistance by combining biomolecular simulation and experimental approaches. Students with a microbiology background are encouraged to apply. The research will involve both computational (dry-lab) and experimental (wet-lab) activities, including molecular dynamics, reaction simulations, enzyme assays, and crystallography. The aim is to understand how class C β-lactamases contribute to antibiotic resistance and to find links between enzyme structure and activity, helping to combat the growing threat of resistant bacteria. The project is co-supervised by James Spencer, Catherine Tooke, and Adrian Mulholland, all affiliated with the University of Bristol. Applicants are selected by the GW4 BioMed DTP, and the process is highly competitive. Interested candidates should contact Marc van der Kamp with a draft of their application text fields before October 5th and then apply through the DTP by October 20th. The position is fully funded, covering tuition and providing a stipend. For more information, visit the project and DTP links provided.

A fully funded 4-year PhD position is available in the group of Marc van der Kamp at the University of Bristol, offered through the GW4 BioMed Doctoral Training Programme (DTP). The project focuses on overcoming β-lactamase-mediated antibiotic resistance by combining biomolecular simulation and experimental approaches. Antibiotic resistance, driven by β-lactamases, poses a major threat to human health, especially as new variants emerge that can defeat even last-resort treatments. The research will use a combination of computational methods (molecular dynamics, reaction simulations) and experimental techniques (enzyme assays, crystallography) to investigate the links between enzyme structure and activity. The project is highly interdisciplinary, involving both dry-lab (computational) and wet-lab (biochemical) work, and will be co-supervised by James Spencer, Catherine Tooke, and Adrian Mulholland. Applicants should have a strong background in biology, chemistry, biochemistry, or related fields, and an interest in computational biology or experimental biochemistry. The position is fully funded for four years, covering tuition fees and a stipend at the UKRI rate, with additional support for research costs. Applications are highly competitive and are managed by the GW4 BioMed DTP, with a choice of multiple projects. Interested candidates should contact Marc van der Kamp by October 5th with a draft of their application text fields and apply via the DTP website before October 20th. For more information, visit the provided project and DTP links.