Fusion Science & Technology · 2007 · 35 citations · 45 references
Natural SciencesNuclear EngineeringPhysicsFusion EngineeringHeat TransferPlasma PhysicsFusion PlasmasMagnetic Confinement FusionMagnetized PlasmaNuclear FusionPlasma ConfinementPlasma HeatingCoaxial ResonatorsFusion Reactor PhysicsHeating In Magnetic ConfinementHeating Of Tokamak PlasmasHigh-efficiency ConverterPlasma Heating SystemsPlasma SustainmentSelf-ignition
Recent progress on the worldwide development of gyrotrons for fusion application is presented. After breakthroughs of gyrotron technologies in the 1990s, significant progress has been made in the 2000s, in particular, on a long-pulse gyrotron for a wide range of frequencies from 84 to 170 GHz. And, activities for advanced gyrotrons, for example, a high-power gyrotron using a coaxial resonator, a multifrequency gyrotron, etc., have proceeded. With this progress have come improvements of gyrotron components such as a high-efficiency mode converter, a wide-band window, etc. The gyrotrons have been applied to major fusion devices for heating and magnetohydrodynamics controls. At present, the development of a 1-MW-class continuous-wave gyrotron is in the scope, which is applicable for the self-ignition experiment of fusion plasma and its confinement at the International Thermonuclear Experimental Reactor (ITER).
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Major Improvement of Gyrotron Efficiency with Beam Energy Recovery
K. Sakamoto, M. Tsuneoka, Atsushi Kasugai et al. · Physical Review Letters · 1994 · 173 citations
A. Isayama, Yoshihiro Kamada, S. Ide et al. · Plasma Physics and Controlled Fusion · 2000 · 168 citations