Design of a 10-T superconducting dipole magnet using niobium-tin conductor
Journal Article
·
· IEEE Trans. Magn.; (United States)
In order to minimize the size and cost of conventional facilities -- land, tunneling, shielding, cryogenic and vacuum system -- the dipole magnets for the next generation of particle accelerators must produce as strong a magnetic field as possible. Ten tesla seems to be a reasonable goal, and can be attained by using either niobium-tin conductor at 4.2 K or niobium-titanium at 1.8 K. The beam diameter in a multi-TeV accelerator, can in principle, be quite small, say 20 mm, depending on the design of the injection and extraction systems, and on beam-cooling technology. Magnet cost is strongly dependent on bore diameter, so there is a strong incentive to minimize that. The authors believe that a 40-mm bore diameter -- about 60-mm winding inside diameter is feasible and is a reasonable goal for initial research and development. For such a high field and small bore, there is an incentive to achieve a high overall current density in order to minimize the amount of superconductor. The authors' design is based on an overall current density of 400 A/sq mm.
- Research Organization:
- Lawrence Berkeley Lab, University of California, Berkeley, CA 94720
- DOE Contract Number:
- AC03-76SF00098
- OSTI ID:
- 5535910
- Journal Information:
- IEEE Trans. Magn.; (United States), Journal Name: IEEE Trans. Magn.; (United States) Vol. 19:3; ISSN IEMGA
- Country of Publication:
- United States
- Language:
- English
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Related Subjects
36 MATERIALS SCIENCE
360104 -- Metals & Alloys-- Physical Properties
420201* -- Engineering-- Cryogenic Equipment & Devices
43 PARTICLE ACCELERATORS
430100 -- Particle Accelerators-- Design
Development
& Operation
656102 -- Solid State Physics-- Superconductivity-- Acoustic
Electronic
Magnetic
Optical
& Thermal Phenomena-- (-1987)
71 CLASSICAL AND QUANTUM MECHANICS
GENERAL PHYSICS
75 CONDENSED MATTER PHYSICS
SUPERCONDUCTIVITY AND SUPERFLUIDITY
ACCELERATORS
ALLOYS
BEAM COOLING
BEAM PROFILES
COST BENEFIT ANALYSIS
CURRENT DENSITY
DESIGN
DIPOLES
ELECTRICAL EQUIPMENT
ELECTROMAGNETS
ELECTRON COOLING
EMISSION
EQUIPMENT
FIELD EMISSION
MAGNETIC DIPOLES
MAGNETIC FIELDS
MAGNETIC FLUX
MAGNETS
MULTIPOLES
NIOBIUM ALLOYS
OPTIMIZATION
SIZING
SUPERCONDUCTING DEVICES
SUPERCONDUCTING MAGNETS
TIN ALLOYS
TITANIUM ALLOYS
360104 -- Metals & Alloys-- Physical Properties
420201* -- Engineering-- Cryogenic Equipment & Devices
43 PARTICLE ACCELERATORS
430100 -- Particle Accelerators-- Design
Development
& Operation
656102 -- Solid State Physics-- Superconductivity-- Acoustic
Electronic
Magnetic
Optical
& Thermal Phenomena-- (-1987)
71 CLASSICAL AND QUANTUM MECHANICS
GENERAL PHYSICS
75 CONDENSED MATTER PHYSICS
SUPERCONDUCTIVITY AND SUPERFLUIDITY
ACCELERATORS
ALLOYS
BEAM COOLING
BEAM PROFILES
COST BENEFIT ANALYSIS
CURRENT DENSITY
DESIGN
DIPOLES
ELECTRICAL EQUIPMENT
ELECTROMAGNETS
ELECTRON COOLING
EMISSION
EQUIPMENT
FIELD EMISSION
MAGNETIC DIPOLES
MAGNETIC FIELDS
MAGNETIC FLUX
MAGNETS
MULTIPOLES
NIOBIUM ALLOYS
OPTIMIZATION
SIZING
SUPERCONDUCTING DEVICES
SUPERCONDUCTING MAGNETS
TIN ALLOYS
TITANIUM ALLOYS