Olivier Février is a Researcher at the Swiss Plasma Center (SPC-PB) and a Lecturer at the School of Basic Sciences (SB), both affiliated with École Polytechnique Fédérale de Lausanne (EPFL). His academic career spans advanced plasma physics research and teaching in nonlinear dynamics and complex systems. Research Focus: Plasma detachment, divertor optimization, tokamak power exhaust, magnetic confinement, and impurity transport. Teaching: Nonlinear dynamics, chaos theory, and complex systems with hands-on numerical applications. Publications & Trends: His work emphasizes tokamak edge plasma scenarios, nitrogen seeding for detachment, X-point radiator regimes, and computational modeling using SOLPS-ITER. Key themes include magnetic topology, neutral baffling, and ELM mitigation strategies. Student Supervision: Advises PhD candidates such as Brown Benjamin Yong Kwak, Carpita Massimo, and Durr-Legoupil-Nicoud Garance Hélène Salomé, focusing on advanced plasma confinement and exhaust techniques.
Lorenzo Frassinetti is a Professor at the Division of Electromagnetic Engineering and Fusion Science at KTH Royal Institute of Technology. His research focuses on fusion plasma physics, specifically tokamak operation, plasma confinement, and edge physics. Prior to his current position, he served as an Associate Professor at KTH from 2012 to 2022, and held post-doctoral research fellow positions at KTH and the National Institute of Advanced Industrial Science and Technology in Japan. Ph.D. in Physics, University of Padova, Italy (2003) Degree in Physics, University of Bologna, Italy (2000), Grade: 110/110 cum laude Frassinetti's research spans multiple critical areas of fusion science including pedestal physics, edge localized modes (ELMs), divertor physics, and plasma turbulence. His work heavily involves experimental analysis from major tokamaks like JET and TCV, with particular focus on understanding transport barriers, stability properties, and power exhaust challenges. Recent work demonstrates increasing emphasis on predictive modeling for next-generation devices like ITER and the Divertor Tokamak Test facility. His recent publications reveal strong trends toward predictive modeling for future fusion devices, with significant focus on the Divertor Tokamak Test facility (DTT) scenarios. There's notable emphasis on understanding the effects of plasma shaping, particularly negative triangularity, and developing control strategies for disruptions. His work bridges experimental observations from JET and other tokamaks with theoretical models to address critical challenges for ITER operation. Frassinetti actively participates in major international fusion research collaborations, particularly within the EUROfusion consortium, contributing to JET experiments and ITER preparation efforts. His work often involves multi-institutional teams across European fusion laboratories. His laboratory work centers around analysis of data from major European tokamaks including JET (Joint European Torus), TCV (Tokamak à Configuration Variable), and ASDEX Upgrade. His research group at KTH appears to focus on integrating experimental observations with theoretical models to develop predictive capabilities for next-generation fusion devices.
Professor Janne Ruostekoski holds the Chair in Theoretical Condensed Matter Physics at Lancaster University . His research focuses on Quantum Optics , Cold Atoms , Metamaterials , and Topological Properties of Matter and Light . He has pioneered studies in cooperative light-matter interactions and topological optical phenomena. Quantum optics and cold atom dynamics Cooperative light scattering and spectroscopy Topological defects and textures in spinor condensates Quantum technologies and photonic applications Ruostekoski's work explores how atomic arrays enable negative refraction , skyrmion generation , and superradiant phase transitions , bypassing traditional metamaterial limitations. His team investigates topological interfaces and disorder-induced collective effects . Scientific awards include: Institute of Physics (IoP) Joseph Thomson Medal and Prize 2024 EPSRC Physical Sciences Established Career Research Fellow Ruostekoski supervises PhD students James Doughty and Aref Salem in the Condensed Matter Theory group. His current projects span quantum optical phenomena in cold atomic ensembles (2019–2027) and cooperative light propagation (2017–2021).
