Summary
We are delighted to offer a fully funded PhD studentship and applications are invited from strongly motivated and academically excellent candidates for PhD study in our large and vibrant Applied Mathematics & Mathematical Physics department, within these strategic priority Research areas:
Full descriptionApplied Nonlinear Dynamics: Dr Cédric Beaume, Professor Mauro Mobilia, Dr Jitse Niesen, Professor Alastair Rucklidge, Professor Rob Sturman, Dr Jon Ward
A vibrant research area lying at the heart of problems of fundamental and practical importance. We employ a wealth of mathematical techniques, from statistical to geometrical, from computational to algebraic, and from qualitative to analytical. The main concern is systems that change with time, where the presence of nonlinearities can produce hugely complicated behaviour. We possess cutting-edge expertise in pattern formation (from quasipatterns to spatial localisation), network dynamics, stochastic processes (e.g. the voter model, agent-based models), physics (from statistical mechanics to fluid dynamics), life sciences and numerical methods. Developments in the basic theory and techniques of Nonlinear Dynamics go hand-in-hand with investigations of particular applications, such as fluid dynamics experiments, dynamics on complex networks and mixing in microfluidics.
Integrable Systems and Mathematical Physics: Dr Vincent Caudrelier, Dr Oleg Chalykh, Professor Alexander Mikhailov
Symmetry is a central unifying theme in Mathematical and Physics which finds its ultimate form in the area of Integrable Systems. These are systems characterised by a very large number of symmetries, which control their dynamics and make them amenable to exact solution methods. Our group in Leeds has been at the forefront of this area of Mathematical Physics for several decades. We offer a research environment based on expertise in geometric and algebraic aspects of integrable systems with applications to physics: classical and quantum integrable many-body systems (e.g. Calogero and Ruijsenaars models), integrable quantum field theories, (in)finite dimensional Lie algebras (e.g. double affine Hecke algebras, affine and Kac-Moody algebras, automorphic Lie algebras), Lagrangian and Hamiltonian formalism of integrable systems, classical and quantum Yang-Baxter equations, soliton theory, quivers and representation theory. There are strong connections with the Geometry and the Algebra groups and we coordinate the UK-wide LMS national network "Classical and Quantum Integrability”.
A list of related PhD projects in this area:
Pattern Formation (Applied Nonlinear Dynamics)
Instabilities in fluid dynamics
Exponential integrators
Particle methods for plasma physics
Solving differential equations with Fourier extension
Quantisation of integrable field theories and Lagrangian multiform
