I investigate questions in theoretical particle physics and cosmology using a computational approach. I develop numerical methods, algorithms and open-source software to tackle challenging computational problems and answer fundamental scientific questions.
My research spans particle physics, cosmology, gravitational waves, Bayesian inference, numerical optimisation and scientific computing. I enjoy building robust computational tools that enable new scientific investigations and are useful to the wider research community.
- TransitionSolver — Cosmological phase transitions: transition analysis, cosmological phase history and gravitational-wave predictions.
- PhaseTracer — Vacuum structure and phase transition analysis in multi-field scalar theories.
- FlexibleSUSY — Precision spectrum generators for beyond-the-Standard-Model theories.
- GAMBIT — Global fits of beyond the standard model physics.
- BubbleProfiler — Numerical calculation of bounce solutions for vacuum decay.
- GM2Calc — Precision calculations of the anomalous magnetic moment of the muon.
- Next-to-Minimal SoftSUSY — Spectrum generator for the Next-to-Minimal Supersymmetric Standard Model.
- Cosmological phase transitions
- Gravitational waves
- Precison calculations
- Higgs and electroweak symmetry breaking
- Global Fitting
- Bayesian statistics
- Numerical methods
- Scientific computing
- C++ and Python