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Jet-Efda Contributors

Researcher at International Atomic Energy Agency

Publications -  834
Citations -  20119

Jet-Efda Contributors is an academic researcher from International Atomic Energy Agency. The author has contributed to research in topics: Jet (fluid) & Divertor. The author has an hindex of 61, co-authored 816 publications receiving 18429 citations. Previous affiliations of Jet-Efda Contributors include European Atomic Energy Community & Joint European Torus.

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Plasma control systems relevant to ITER and fusion power plants

TL;DR: This article reviews on system configurations and essential functions used for plasma control systems in existing tokamaks, from the viewpoint of technical inheritance of both hardware and software and provides the current design of the ITER plasma control system.
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Relevance of collisionality in the transport model assumptions for divertor detachment multi-fluid modelling on JET

TL;DR: In this paper, a revised formulation of the perpendicular diffusive transport model in 2D multi-fluid edge codes is proposed based on theoretical predictions and experimental observations, and a dependence on collisionality is introduced into the transport model of EDGE2D-EIRENE, which can mask features of the new transport model: a smoothly decaying target recycling flux roll over, an asymmetric drop of temperature and pressure along the field lines as well as macroscopic power dependent plasma oscillations near the density limit.
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Resonant Excitation of Shear Alfv\'en Perturbations by Trapped Energetic Ions in a Tokamak

TL;DR: In this article, a new analytic expression is derived for the resonant drive of high n Alfvenic modes by particles accelerated to high energy by Ion Cyclotron Resonance Heating.
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Predictive transport modelling of type I ELMy H-mode dynamics using a theory-motivated combined ballooning–peeling model

TL;DR: In this paper, the authors discuss predictive transport simulations of the type I ELMy high confinement mode (H-mode) with a theory-motivated edge localized mode (ELM) model based on linear ballooning and peeling mode stability theory.