The Nb{sub 3}Sn dipole HD1, recently fabricated and tested at LBNL, pushes the limits of accelerator magnet technology into the 16 T field range, and opens the way to a new generation of HEP colliders. HD1 is based on a flat racetrack coil configuration and has a 10 mm bore. These features are consistent with the HD1 goals: exploring the Nb{sub 3}Sn conductor performance limits at the maximum fields and under high stress. However, in order to further develop the block-coil geometry for future high-field accelerators, the bore size has to be increased to 30-50 mm. With respect to HD1, the main R&D challenges are: (a) design of the coil ends, to allow a magnetically efficient cross-section without obstructing the beam path; (b) design of ...
HD3 is the latest magnet of a series of block-type Nb3Sn dipole model magnets developed by the Super...
Availability of 20 T operational field dipole magnets would open the way for a 16.5 TeV beam energy ...
The magnet group at LBNL is currently in the process of developing high-field accelerator magnets fo...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory (LBNL) is continuing the...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory (LBNL) has developed the...
For the last several years, the Lawrence Berkeley National Laboratory has been engaged in the develo...
For the last several years, the Lawrence Berkeley National Laboratory has been engaged in the develo...
The 1 m long Nb{sub 3}Sn dipole magnet HD2, fabricated and tested at Lawrence Berkeley National Labo...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory has designed and tested ...
The Lawrence Berkeley National Laboratory (LBNL) Supcrconducting Magnet Group has completed the desi...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper ...
NbTi accelerator dipoles are limited to magnetic fields (H) of about 10 T, due to an intrinsic uppe...
HD3 is the latest magnet of a series of block-type Nb$_3$Sn dipole model magnets developed by the Su...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper...
Accelerator magnets fabricated using NbTi technology are limited to magnetic fields of about 10 T, d...
HD3 is the latest magnet of a series of block-type Nb3Sn dipole model magnets developed by the Super...
Availability of 20 T operational field dipole magnets would open the way for a 16.5 TeV beam energy ...
The magnet group at LBNL is currently in the process of developing high-field accelerator magnets fo...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory (LBNL) is continuing the...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory (LBNL) has developed the...
For the last several years, the Lawrence Berkeley National Laboratory has been engaged in the develo...
For the last several years, the Lawrence Berkeley National Laboratory has been engaged in the develo...
The 1 m long Nb{sub 3}Sn dipole magnet HD2, fabricated and tested at Lawrence Berkeley National Labo...
The Superconducting Magnet Program at Lawrence Berkeley National Laboratory has designed and tested ...
The Lawrence Berkeley National Laboratory (LBNL) Supcrconducting Magnet Group has completed the desi...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper ...
NbTi accelerator dipoles are limited to magnetic fields (H) of about 10 T, due to an intrinsic uppe...
HD3 is the latest magnet of a series of block-type Nb$_3$Sn dipole model magnets developed by the Su...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper...
Accelerator magnets fabricated using NbTi technology are limited to magnetic fields of about 10 T, d...
HD3 is the latest magnet of a series of block-type Nb3Sn dipole model magnets developed by the Super...
Availability of 20 T operational field dipole magnets would open the way for a 16.5 TeV beam energy ...
The magnet group at LBNL is currently in the process of developing high-field accelerator magnets fo...