A Commercial Tokamak Reactor Using Super High Field Superconducting Magnets
J. Schwartz, L. Bromberg, Daniel R. Cohn, John E. C. Williams
Abstract
J. Schwartz, L. Bromberg, Daniel R. Cohn, John E. C. Williams
Abstract
This paper explores the range of possibilities for producing super high fields with advanced superconducting magnets. Obtaining magnetic fields greater than about 18 T at the coil in a large superconducting magnet system will require advances in many areas of magnet technology. These needs are discussed and potential solutions (advanced superconductors, structural materials and design methods) evaluated. A point design for a commercial reactor with magnetic field at the coil of 24 T and fusion power of 1800 MW is presented. Critical issues and parameters for magnet design are identified.
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This paper explores the range of possibilities for producing super high fields with advanced superconducting magnets. Obtaining magnetic fields greater than about 18 T at the coil in a large superconducting magnet system will require advances in many areas of magnet technology. These needs are discussed and potential solutions (advanced superconductors, structural materials and design methods) evaluated. A point design for a commercial reactor with magnetic field at the coil of 24 T and fusion power of 1800 MW is presented. Critical issues and parameters for magnet design are identified.
Key concepts: Magnet, Electromagnetic coil, Superconducting magnet, Tokamak, Nuclear engineering, Fusion power, Superconductivity, Materials science