AbstractLawrence Berkeley National Laboratory (LBNL) is developing Wind-and-React (W&R) Bi2Sr2CaCu2O8+δ (Bi-2212) accelerator magnet technology for insert coils, to surpass the intrinsic limitations of Nb-based magnets, and eventually develop hybrid systems that can approach 20 T dipole fields. The Bi-2212 technology is being developed in close collaboration with industry, and has been partly supported by the US Very High Field Superconducting Magnet Collaboration (VHFSMC). Steady improvements were made over the last several years, with coil HTS-SC08 reaching 2636 A, or about 85% of its witness sample critical current (Ic). Though this is still a factor 3 to 4 too low to be competitive with Nb-based materials, it is expected that the require...
The objective of this study was to develop techniques to be used in the manufacture of superconducti...
High-temperature superconductors (HTS) could enable high-field magnets stronger than is possible wit...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper...
Lawrence Berkeley National Laboratory (LBNL) is developing Wind-and-React (W&R) Bi2sr2cacu2o8+δ ...
We report on the progress in our R&D program, targetedto develop the technology for the application ...
We report on the progress in our R&D program, targeted to develop the technology for the applica...
Wind & react Bi-2212 inserts have been manufactured and tested inside a wide-bore NbTi-Nb3Sn mag...
Higher Field Magnets demand higher field materials such as Bi-2212 round superconducting wire. The B...
We report on our progress in the development of the technology for the application of Bi{sub 2}Sr{su...
Sub-scale coils are being manufactured and tested at Lawrence Berkeley National Laboratory in order ...
NbTi accelerator dipoles are limited to magnetic fields (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...
AbstractUltra high field magnets for research applications require development of insert coils devel...
Developing HTS dipole inserts producing fields larger than 5 T within 15 T Nb3Sn outserts is necessa...
We fabricated three racetrack coils (RC1, RC2, and RC3) from Bi-2212 Rutherford cables (17-strand, t...
The objective of this study was to develop techniques to be used in the manufacture of superconducti...
High-temperature superconductors (HTS) could enable high-field magnets stronger than is possible wit...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper...
Lawrence Berkeley National Laboratory (LBNL) is developing Wind-and-React (W&R) Bi2sr2cacu2o8+δ ...
We report on the progress in our R&D program, targetedto develop the technology for the application ...
We report on the progress in our R&D program, targeted to develop the technology for the applica...
Wind & react Bi-2212 inserts have been manufactured and tested inside a wide-bore NbTi-Nb3Sn mag...
Higher Field Magnets demand higher field materials such as Bi-2212 round superconducting wire. The B...
We report on our progress in the development of the technology for the application of Bi{sub 2}Sr{su...
Sub-scale coils are being manufactured and tested at Lawrence Berkeley National Laboratory in order ...
NbTi accelerator dipoles are limited to magnetic fields (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...
AbstractUltra high field magnets for research applications require development of insert coils devel...
Developing HTS dipole inserts producing fields larger than 5 T within 15 T Nb3Sn outserts is necessa...
We fabricated three racetrack coils (RC1, RC2, and RC3) from Bi-2212 Rutherford cables (17-strand, t...
The objective of this study was to develop techniques to be used in the manufacture of superconducti...
High-temperature superconductors (HTS) could enable high-field magnets stronger than is possible wit...
NbTi accelerator dipoles are limited to magneticfields (H) of about 10 T, due to an intrinsic upper...