Nuclear Fusion · 2003 · 75 citations · 38 references
Natural SciencesNuclear EngineeringPhysicsFusion EngineeringPlasma PhysicsTransport PhenomenaFusion PlasmasMagnetic Confinement FusionNuclear FusionPlasma ConfinementPlasma SimulationPlasma TransportCore Heat TransportFusion Performance EvaluationFusion Reactor PhysicsH-mode ConfinementMagnetic Confinement Fusion ModelingPedestal PhysicsTokamak PhysicsTokamak Plasmas
The GLF23 and multi-mode core transport models are used along with models for the H-mode pedestal to predict the fusion performance for the International Thermonuclear Experimental Reactor, Fusion Ignition Research Experiment, and IGNITOR tokamak designs. Simulations using combinations of core and pedestal models have also been compared with experimental data for H-mode profiles in DIII-D, JET, and Alcator C-Mod. Power-independent (ballooning mode limit) and power-dependent pedestal scalings lead to very different predictions when used with the core models. Although the two drift-wave transport models reproduce the core profiles in a wide variety of tokamak discharges, they differ in their projections to burning plasma experiments for the same pedestal parameters. Differences in the core transport models in their response to the ion temperature gradient (i.e. their stiffness) and impact of the power dependence of the H-mode pedestal on fusion performance predictions are discussed.
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Neoclassical transport of impurities in tokamak plasmas
S. P. Hirshman, D. J. Sigmar · Nuclear Fusion · 1981 · 1.1K citations
Electron temperature gradient driven turbulence
F. Jenko, W. Dorland, M. Kotschenreuther et al. · Physics of Plasmas · 2000 · 1.1K citations
An Eulerian gyrokinetic-Maxwell solver
J. Candy, R. E. Waltz · Journal of Computational Physics · 2003 · 597 citations
A gyro-Landau-fluid transport model
R. E. Waltz, G. M. Staebler, W. Dorland et al. · Physics of Plasmas · 1997 · 540 citations