Controlling the boundary layer in fusion-grade, high-performance, plasma discharges is
essential for the successful development of toroidal magnetic confinement power generating …

The plasma response to resonant magnetic perturbation (RMP) and nonresonant
perturbation fields is computed within a linear, full toroidal, single-fluid resistive …

The resonant magnetic perturbation (RMP) fields, including the plasma response, are
computed within a linear, full toroidal, single-fluid resistive magnetohydrodynamic (MHD) …

The zero-frequency linear plasma response to static applied non-axisymmetric fields is
calculated using a resistive two-fluid model in diverted, toroidal geometry. Within this model …

The interaction of static Resonant Magnetic Perturbations (RMPs) with the plasma flows is
modeled in toroidal geometry, using the non-linear resistive MHD code JOREK, which …

The non-linear reduced four-field RMHD model in cylindrical geometry was extended to
include plasma rotation, neoclassical poloidal viscosity and two fluid diamagnetic effects …

Resonant magnetic perturbations (RMP) have extensively been demonstrated as a
plausible technique for mitigating or suppressing large edge localized modes (ELMs) …

Magnetic islands are a ubiquitous feature of magnetically confined plasmas. They arise as
the result of plasma instabilities as well as externally imposed symmetry-breaking …

Experiments have been performed on MAST using internal (n= 3) resonant magnetic
perturbation (RMP) coils. The application of the RMPs to L-mode discharges has shown a …

A robust theoretical framework for describing the explosive growth of the magneto-hydro-
dynamic (MHD) and turbulence-based instabilities in toroidal plasmas can only be achieved …