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Development and performance of a 2.9 Tesla dipole magnet using high-temperature superconducting CORC wires
- Wang, Xiaorong;
- Abraimov, Dmytro;
- Arbelaez, Diego;
- Bogdanof, Timothy J;
- Brouwer, Lucas;
- Caspi, Shlomo;
- Dietderich, Daniel R;
- DiMarco, Joseph;
- Francis, Ashleigh;
- Fajardo, Laura Garcia;
- Ghiorso, William B;
- Gourlay, Stephen A;
- Higley, Hugh C;
- Marchevsky, Maxim;
- Maruszewski, Maxwell A;
- Myers, Cory S;
- Prestemon, Soren O;
- Shen, Tengming;
- Taylor, Jordan;
- Teyber, Reed;
- Turqueti, Marcos;
- van der Laan, Danko;
- Weiss, Jeremy D
- et al.
Published Web Location
https://doi.org/10.1088/1361-6668/abc2a5Abstract
Although the high-temperature superconducting (HTS) REBa2Cu3O x (REBCO, RE-rare earth elements) material has a strong potential to enable dipole magnetic fields above 20 T in future circular particle colliders, the magnet and conductor technology needs to be developed. As part of an ongoing development to address this need, here we report on our CORC® canted cosθ magnet called C2 with a target dipole field of 3 T in a 65 mm aperture. The magnet was wound with 70 m of 3.8 mm diameter CORC® wire on machined metal mandrels. The wire had 30 commercial REBCO tapes from SuperPower Inc. each 2 mm wide with a 30 µm thick substrate. The magnet generated a peak dipole field of 2.91 T at 6.290 kA, 4.2 K. The magnet could be consistently driven into the flux-flow regime with reproducible voltage rise at an engineering current density between 400-550 A mm-2, allowing reliable quench detection and magnet protection. The C2 magnet represents another successful step towards the development of high-field accelerator magnet and CORC® conductor technologies. The test results highlighted two development needs: continue improving the performance and flexibility of CORC® wires and develop the capability to identify locations of first onset of flux-flow voltage.
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