The superconducting magnets used in the construction of particle accelerators are mostly built from flat, multistrand cables with rectangular or keystoned cross sections. The superconducting strands are mostly circular but a design of a cable made of preflattened wires was proposed a few years ago under the name of Berkeley flat; such cable shows some interesting characteristics. Another design consists of a few smaller precabled wires (e.g. 6 around 1). This configuration allows smaller filaments and a better transposition of the current elements. The Superconducting Super Collider project involves the largest amount of superconducting cable ever envisaged for a single machine. Furthermore, the design calls for exceptional accuracy and imp...
The proposed Superconducting Supercollider presents several new challenges with regard to materials ...
The development of superconductors for magnet applications has received a strong boost from the High...
The objective of the EuCARD2 WP10 (Future Magnets) research activity is to demonstrate high-temperat...
Manufacturing of superconducting cable for the LHC main dipole magnet is in progress at The Furukawa...
A large bore 'High-Temperature Superconductor Cable Test Facility Magnet' for testing advanced cable...
Recent progress in technology of high-current-density cables for SSC model magnets is summarized. Nb...
Fermilab is developing 11 T superconducting dipole magnets for future accelerators based on Nb{sub 3...
The Large Hadron Collider (LHC) is a high energy, high luminosity particle accelerator under constru...
To minimize cost of the SSC facility, small-bore high field dipole magnets have been developed;some ...
In the framework of the upgrade of the Large Hadron Collider (LHC) machine, new superconducting line...
The Large Hadron Collider (LHC) project is the largest plant based on superconductivity and cryogeni...
Fermilab's cabling facility has been upgraded to a maximum capability of 42 strands. This facility i...
The high magnetic fields needed for guiding particles around the Large Hadron Collider (LHC) ring ar...
Wires based on the Bi-2212 HTS superconductor are becoming available commercially, with current dens...
The Accelerator Project for Upgrade of LHC (APUL) is a U.S. project participating in and contributin...
The proposed Superconducting Supercollider presents several new challenges with regard to materials ...
The development of superconductors for magnet applications has received a strong boost from the High...
The objective of the EuCARD2 WP10 (Future Magnets) research activity is to demonstrate high-temperat...
Manufacturing of superconducting cable for the LHC main dipole magnet is in progress at The Furukawa...
A large bore 'High-Temperature Superconductor Cable Test Facility Magnet' for testing advanced cable...
Recent progress in technology of high-current-density cables for SSC model magnets is summarized. Nb...
Fermilab is developing 11 T superconducting dipole magnets for future accelerators based on Nb{sub 3...
The Large Hadron Collider (LHC) is a high energy, high luminosity particle accelerator under constru...
To minimize cost of the SSC facility, small-bore high field dipole magnets have been developed;some ...
In the framework of the upgrade of the Large Hadron Collider (LHC) machine, new superconducting line...
The Large Hadron Collider (LHC) project is the largest plant based on superconductivity and cryogeni...
Fermilab's cabling facility has been upgraded to a maximum capability of 42 strands. This facility i...
The high magnetic fields needed for guiding particles around the Large Hadron Collider (LHC) ring ar...
Wires based on the Bi-2212 HTS superconductor are becoming available commercially, with current dens...
The Accelerator Project for Upgrade of LHC (APUL) is a U.S. project participating in and contributin...
The proposed Superconducting Supercollider presents several new challenges with regard to materials ...
The development of superconductors for magnet applications has received a strong boost from the High...
The objective of the EuCARD2 WP10 (Future Magnets) research activity is to demonstrate high-temperat...