Rate My Professor Eun-jin Kim

Eun-jin Kim is Professor of Applied Mathematics and Physics in the Research Centre for Fluid and Complex Systems at Coventry University, UK. She obtained her PhD in Physics from the University of Chicago and her degree in Physics from Yonsei University. Her academic career encompasses an Associate Professor position and Lecturer/Senior Lecturer roles at the University of Sheffield, as well as postdoctoral research fellowships at the University of California, San Diego, University of Exeter, and University of Leeds. Additional appointments include Assistant Research Scientist at UC San Diego and Postdoctoral Visitor at the National Centre for Atmospheric Research.

Professor Kim's research specializes in complexity, self-organisation, and non-equilibrium processes in nonlinear dynamical systems. She advances theoretical models employing non-equilibrium statistical theory—such as probability density functions, path integrals, stochastic differential equations, and fractional calculus—along with geometric and information-theoretic methods like information length. Applications cover laboratory and astrophysical plasmas, including turbulence, mixing, momentum transport, dynamos, magnetic activities, diffusion, magnetohydrodynamic turbulence, confinement in fusion plasmas, transport barrier dynamics, and evolution of solar and stellar magnetic fields and rotations. Extending to biosystems, her work addresses homeostasis and its breakdown in cardiac dynamics, tumors, and heart rhythms. She has earned competitive fellowships, including one in 2023 for novel strategies in high-performance fusion plasma operation via non-perturbative transport theory, the Exceptional Performance Award 2020, and a 2018 fellowship on variability and self-organisation in stellar evolution. Professor Kim has supervised over a dozen PhD students to completion and several postdoctoral researchers. Key publications feature 'Zonal Flows and Transient Dynamics of the Transition' (Physical Review Letters, 2003), 'Information geometry, fluctuations, non-equilibrium thermodynamics, and geodesics in complex systems' (Entropy, 2021), 'Drift wave turbulence and zonal flow development measured by information rate' (Plasma Physics and Controlled Fusion, 2025), and 'Evaluating brain electroencephalogram signal dynamics across cognitive disorders using information geometry' (PLOS Complex Systems, 2025).