The lab takes PhD, MPhys/MSc, visiting, and postdoctoral researchers when the project and funding fit. Strong preparation in physics, applied mathematics, or engineering helps, especially in continuum mechanics, numerics, and scientific computing.
We share code early and keep simulation repositories public whenever the paper allows it. Most projects use GitHub from the start, so discussion happens around equations, runs, figures, and commits rather than around polished final files.
These examples show the current scope. Details change with funding, timing, and the person joining the project.
Model bubble bursting in complex fluids such as respiratory mucus and volcanic mudpots. Basilisk C simulations resolve capillary-wave focusing, viscoelastic stress buildup, jet formation, and droplet ejection; experiments at Twente and Delft validate the jetting regimes.
Thin films transition between instability regimes as inclination varies. Use Basilisk CFD to map stability boundaries, characterize wave dynamics via spectral analysis, and study coupling between Kapitza, Rayleigh–Taylor, and Rayleigh–Plateau instabilities.
Numerically investigate how viscoelasticity affects filament breakup — the second stage of droplet formation. Simulate viscoelastic filaments, compare with Newtonian benchmarks, and improve predictions of droplet size distributions in respiratory events.
Test how submicron impurities trigger hole nucleation in micron‑thick sheets. Using CLSVOF in Basilisk C, simulate radial drainage flows to reveal a double threshold for breakup and develop scaling laws for hole formation relevant to aerosols and sprays.
Liquid-infused surfaces enable control over fluid spreading. Use Basilisk’s adaptive VOF solver to capture capillary-wave cascades when fluids contact LIS, map spreading regimes, and reveal how wave convergence entrains secondary droplets. Develop scaling laws with experimental partners at TU Delft and Univ. Twente.
Simulate droplet bouncing on superhydrophobic surfaces — from Scott Kelly’s space ping‑pong to hydrodynamic singularities. Map bouncing regimes, quantify force profiles and dissipation, and study Worthington jet formation with high-fidelity CFD.
Study hot droplet impacts on cold substrates in gels transitioning from Newtonian to yield‑stress behavior. Implement temperature‑dependent rheology in DNS and correlate with experimental data for printing applications.
When funding is available, postdocs lead projects in DNS of free-surface or non-Newtonian flows, maintain the accompanying code, and work with PhD and MPhys/MSc students.
What we’re looking for:
Opportunities include:
When positions are available, they will be advertised here.
We also support applications to externally funded postdoctoral fellowships that require a UK host, including:
If you’re interested, please email a brief statement of interest and your CV. Reaching out 2–4 months before a call deadline is ideal so we can plan a strong application together.
PhD projects are usually computational and sit in free-surface flow, soft singularities, or non-Newtonian rheology. Funded studentships are advertised here when available; strong candidates should make contact before the Durham ranking cycle.
Research Areas:
Lab support:
Admissions and studentships:
Bachelor’s, MPhys, and MSc projects usually involve a small DNS problem, a scaling argument, or data analysis tied to an active paper.
Project Types:
What you’ll gain:
Contact us to discuss project fit and scope for your specific interests and timeline.
Summer internships and short research visits are possible when there is a well-scoped project and enough supervision time.
Internship Details:
Ideal candidates have:
Application process:
Send a short note describing your interests and any prior experience, along with your transcript, to the email addresses above. Include your preferred internship timeline and any specific research areas of interest.
Eligible PhD candidates from Commonwealth countries may also consider the Commonwealth Split-site PhD Scholarships to undertake a 1‑year research period at CoMPhy Lab as part of their PhD.