PhD Studentship: Comp Mechanics & Engineering Simulation: Fully Funded PhD Studentship in A Fin[...]

Swansea University; Swansea; On-site; GBP 20,000 - 24,000; Full time

Job summary

A fully funded 4-year PhD project at Swansea University invites candidates to explore high-speed multi-material flows through advanced computational techniques. The role includes investigating interface tracking and nonlinear Riemann-solvers within a supportive research environment.

Benefits

Full tuition fees covered

Annual stipend at UKRI rate

Up to £1,000 research expenses per year

Qualifications

• Candidate must have a strong background in computational techniques.
• Knowledge in solid dynamics, dynamic fracture/contact, and multi-physics is preferred.

Responsibilities

• Investigate multi-material capability and develop closure models.
• Explore interface tracking and capturing strategies.

Job description

Computational verification of high-speed multi-material flows, where physical experimentation is highly limited, is seen as critical by the defence Sector (source: the UK Atomic Weapons Establishment). Recent work by the group (leading to REF 4* rated outputs and several Keynotes) has contributed to bridging the gap between Computational Solid and Fluid Dynamics, with a unified computational framework exploiting the use of physical and geometrical conservation laws in a variety of spatial discretisation schemes (i.e. Finite Element, Finite Volume, Meshless). The resulting conservation-type formulation, which displays striking similarities to that used by the Computational Fluid Dynamics (CFD) community, has inspired the investigators to adopt conventional CFD algorithms in the novel context of Computational Solid Dynamics

Building upon very recent work made by the supervisory team, this FULLY FUNDED 4-year PhD project will investigate challenging aspects such as: (1) exploration of a truly “n” multi-material capability with a suitable closure model; (2) improved strategy for interface tracking/capturing; (3) very high-speed scenarios with use of nonlinear Riemann-solvers. If time allows exploratory 3D development could be foreseen in Year 4.

The recruited PhD candidate will become a member of an active research group working on the development and application of cutting-edge computational techniques for large strain solid dynamics, dynamic fracture/contact and computational multi-physics.

This scholarship covers the full cost of tuition fees and an annual stipend at UKRI rate (currently £20,780 2025/26). Additional research expenses of up to £1,000 per year will also be available.