Turbulent transport is a key physics process for confining magnetic fusion plasma. Recent
theoretical and experimental studies of existing fusion experimental devices revealed the …

In recent years tokamak experiments and modelling have increasingly indicated that the
interaction between suprathermal (fast) ions and thermal plasma can lead to a reduction of …

The key result of the present work is the theoretical prediction and observation of the
formation of a new type of transport barrier in fusion plasmas, called F-ATB (fast ion-induced …

In state-of-the-art stellarators, turbulence is a major cause of the degradation of plasma
confinement. To maximize confinement, which eventually determines the amount of nuclear …

Since the first H-mode transitions were observed in TJ-II plasmas in 2008, an extensive
experimental effort has been done aiming at better physics understanding of confinement …

In the present Letter, first-of-its-kind computer simulations predicting plasma profiles for
modern optimized stellarators—while self-consistently retaining neoclassical transport …

This paper presents a mechanism for enhanced regulation of drift wave turbulence by zonal
flows in the presence of a fast ion population. It demonstrates that dilution effects due to the …

In strong electromagnetic regimes, gyrokinetic simulations have linked a substantial ion-
scale turbulence stabilization to the presence of supra-thermal particles, capturing …

In order to realize high performance burning plasmas in magnetic-confinement fusion
devices, such as tokamaks, both bulk plasma transport and that of energetic fusion alpha …

The ongoing development of electromagnets based on high temperature superconductors
has led to the conceptual exploration of high-magnetic-field fusion reactors of the tokamak …