Stability and control of resistive wall modes in high beta, low rotation DIII-D plasmas - Garofalo, A.M; Jackson, G.L; La Haye, R.J; Okabayashi, M; Reimerdes, H; Strait, E.J; Ferron, J.R; Groebner, R.J; In, Y; Lanctot, M.J; Matsunaga, G; Navratil, G.A; et al. (Nuclear fusion, 2007)
Keywords: Exact sciences and technology; Ideal & resistive mhd modes; kinetic modes; Magnetic confinement and equilibrium; Magnetohydrodynamic waves (e.g., alfven waves); Physics; Physics of gases, plasmas and electric discharges; Physics of plasmas and electric discharges; Plasma heating (beam injection, radio-frequency and microwave, ohmic, icr, ecr and current drive heating); Plasma production and heating; Tokamaks; Waves, oscillations, and instabilities in plasmas and intense beams; Alfven waves; Rotating plasma; Resistive wall mode; Plasma pressure; Plasma beam injection heating; Confinement time; Injection heating; DIII-D tokamak; Transients; H-mode plasma confinement; Bootstrap current; Magnetic confinement; Plasma instability; Feedback; Confined plasma; Energy confinement; Steady-state fusion reactors; Edge localized modes; Neutral atom beam injection; Experimental study; Internal transport barrier; High pressure; High-beta plasma; High current; Doublet 3 device; Angular momentum; Plasma transport processes