Abstract
The increase of energy in accelerators over the past decades has led to the design of superconducting magnets for both accelerators and the associated detectors. The use of Nb−Ti superconducting materials allows an increase in the dipole field by up to 10 T compared with the maximum field of 2 T in a conventional magnet. The field bending of the particles in the detectors and generated by the magnets can also be increased. New materials, such as Nb3Sn and high temperature superconductor (HTS) conductors, can open the way to higher fields, in the range 13–20 T. The latest generations of fusion machines producing hot plasma also use large superconducting magnet systems.
Védrine, P
[1]
- Saclay (France)
Citation Formats
Védrine, P.
Large Superconducting Magnet Systems.
CERN: N. p.,
2014.
Web.
Védrine, P.
Large Superconducting Magnet Systems.
CERN.
Védrine, P.
2014.
"Large Superconducting Magnet Systems."
CERN.
@misc{etde_22548691,
title = {Large Superconducting Magnet Systems}
author = {Védrine, P}
abstractNote = {The increase of energy in accelerators over the past decades has led to the design of superconducting magnets for both accelerators and the associated detectors. The use of Nb−Ti superconducting materials allows an increase in the dipole field by up to 10 T compared with the maximum field of 2 T in a conventional magnet. The field bending of the particles in the detectors and generated by the magnets can also be increased. New materials, such as Nb3Sn and high temperature superconductor (HTS) conductors, can open the way to higher fields, in the range 13–20 T. The latest generations of fusion machines producing hot plasma also use large superconducting magnet systems.}
place = {CERN}
year = {2014}
month = {Jul}
}
title = {Large Superconducting Magnet Systems}
author = {Védrine, P}
abstractNote = {The increase of energy in accelerators over the past decades has led to the design of superconducting magnets for both accelerators and the associated detectors. The use of Nb−Ti superconducting materials allows an increase in the dipole field by up to 10 T compared with the maximum field of 2 T in a conventional magnet. The field bending of the particles in the detectors and generated by the magnets can also be increased. New materials, such as Nb3Sn and high temperature superconductor (HTS) conductors, can open the way to higher fields, in the range 13–20 T. The latest generations of fusion machines producing hot plasma also use large superconducting magnet systems.}
place = {CERN}
year = {2014}
month = {Jul}
}