Assistant Professor, Department of Electrical Engineering
I work on lightning-induced overvoltages, high-voltage transients, and smart-grid resilience — building the electromagnetic models and data-driven tools that predict how power networks respond when lightning strikes.
I'm an electrical engineering researcher and Assistant Professor with a Ph.D. in power systems, high-voltage transients, and smart-grid lightning protection. My work focuses on lightning-induced overvoltages, FDTD-based electromagnetic transient modelling, field-to-line coupling, grounding and soil parameter effects, insulation coordination, and data-driven prediction of power system transients.
I'm currently interested in postdoctoral research in high-voltage engineering, power system transients, grounding systems, overvoltage protection, condition monitoring, and smart-grid resilience — and in continuing collaborations with researchers in Egypt, Italy, Finland, China, and the USA.
10 journal articles, 5 conference papers, and a book — spanning lightning-induced overvoltages, insulation coordination, and power converter control.