PhD Materials and Fluid Flow Modelling

Sheffield Hallam University, established in 1843 and based in Sheffield, is a large modern university serving around 31,000 students, including approximately 3,100 international learners. The university is known for applied teaching, industry-aligned courses and strong professional links across disciplines from business and health to engineering and the creative industries. Students benefit from modern facilities, well-equipped labs and specialist studios tailored to career-focused learning.

The campus ethos emphasizes employability: placements, work-based projects and employer partnerships are embedded across many programs, helping students gain practical experience and build professional networks. Academic staff work closely with industry and regional employers on applied research and innovation, creating pathways into internships and graduate roles. Dedicated student support services assist with academic skills, careers advice and wellbeing.

Sheffield itself is a friendly, affordable student city with good transport links to the north of England and easy access to green spaces and cultural venues. International students often highlight the city’s welcoming community, active student societies and opportunities to balance study with outdoor activities. For those seeking a practical, career-oriented university experience in the UK, Sheffield Hallam offers strong employer engagement, supportive services and an accessible urban lifestyle.

Sheffield Hallam University’s Materials and Engineering Research Institute (MERI) provides a world-class environment for doctoral research, where a significant proportion of output is recognized as 'world-leading' or 'internationally excellent.' This PhD programme is designed for ambitious researchers seeking to make a substantive contribution to the complex, multidisciplinary field of materials and fluid flow modelling.

Students engage in a varied and intellectually rigorous subject area that spans fundamental thermodynamics, liquid crystals, self-assembled structures, polymers, and food science. By utilizing sophisticated simulation methodologies—such as molecular dynamics and Monte Carlo techniques—candidates address real-world challenges alongside an expert supervisory team. The programme is highly collaborative, often involving direct partnerships with industrial entities, which may require periods of research at external premises.

Research Community and Facilities

You will join a vibrant research culture, benefiting from access to high-performance computing hardware, including a Beowulf cluster equipped with hundreds of cores. Beyond digital infrastructure, candidates have access to the extensive experimental facilities housed within MERI. The programme emphasizes professional development through mandatory ethics and integrity training, teacher training, and active participation in the MERI Research Colloquium, where students present their work to peers and experts.