Characteristics of Cu Stabilized Strands With Low Cu Ratio

Characteristics of recently developed F4-Nb 3 Al strand with low Cu ratio are described. The overall J c of the Nb 3 Al strand could be easily increased by decreasing of the Cu ratio. Although the quench of a pulse-like voltage generation is usually observed in superconducting unstable conductor, th...

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Veröffentlicht in:IEEE transactions on applied superconductivity 2009-06, Vol.19 (3), p.2678-2681
Hauptverfasser: Kikuchi, A., Yamada, R., Barzi, E., Kobayashi, M., Lamm, M., Nakagawa, K., Sasaki, K.-i., Takeuchi, T., Turrioni, D., Zlobin, A.V.
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container_issue 3
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container_title IEEE transactions on applied superconductivity
container_volume 19
creator Kikuchi, A.
Yamada, R.
Barzi, E.
Kobayashi, M.
Lamm, M.
Nakagawa, K.
Sasaki, K.-i.
Takeuchi, T.
Turrioni, D.
Zlobin, A.V.
description Characteristics of recently developed F4-Nb 3 Al strand with low Cu ratio are described. The overall J c of the Nb 3 Al strand could be easily increased by decreasing of the Cu ratio. Although the quench of a pulse-like voltage generation is usually observed in superconducting unstable conductor, the F4 strand with a low Cu ratio of 0.61 exhibited an ordinary critical transition of gradual voltage generation. The F4 strand does not have magnetic instabilities at 4.2 K because of the tantalum interfilament matrix. The overall J c of the F4 strand achieved was 80-85% of the RRP strand. In the large mechanical stress above 100 MPa, the overall J c of the F4 strand might be comparable to that of high J c RRP-Nb 3 Sn strands. The Rutherford cable with a high packing factor of 86.5% has been fabricated using F4 strands. The small racetrack magnet, SR07, was also fabricated by a 14 m F4 cable. The quench current, I q , of SR07 were obtained 22.4 kA at 4.5 K and 25.2 kA at 2.2 K. The tantalum matrix Nb 3 Al strands are promising for the application of super-cooled high-field magnets as well as 4.2 K operation magnets.
doi_str_mv 10.1109/TASC.2009.2018303
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The overall J c of the Nb 3 Al strand could be easily increased by decreasing of the Cu ratio. Although the quench of a pulse-like voltage generation is usually observed in superconducting unstable conductor, the F4 strand with a low Cu ratio of 0.61 exhibited an ordinary critical transition of gradual voltage generation. The F4 strand does not have magnetic instabilities at 4.2 K because of the tantalum interfilament matrix. The overall J c of the F4 strand achieved was 80-85% of the RRP strand. In the large mechanical stress above 100 MPa, the overall J c of the F4 strand might be comparable to that of high J c RRP-Nb 3 Sn strands. The Rutherford cable with a high packing factor of 86.5% has been fabricated using F4 strands. The small racetrack magnet, SR07, was also fabricated by a 14 m F4 cable. The quench current, I q , of SR07 were obtained 22.4 kA at 4.5 K and 25.2 kA at 2.2 K. 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The overall J c of the Nb 3 Al strand could be easily increased by decreasing of the Cu ratio. Although the quench of a pulse-like voltage generation is usually observed in superconducting unstable conductor, the F4 strand with a low Cu ratio of 0.61 exhibited an ordinary critical transition of gradual voltage generation. The F4 strand does not have magnetic instabilities at 4.2 K because of the tantalum interfilament matrix. The overall J c of the F4 strand achieved was 80-85% of the RRP strand. In the large mechanical stress above 100 MPa, the overall J c of the F4 strand might be comparable to that of high J c RRP-Nb 3 Sn strands. The Rutherford cable with a high packing factor of 86.5% has been fabricated using F4 strands. The small racetrack magnet, SR07, was also fabricated by a 14 m F4 cable. The quench current, I q , of SR07 were obtained 22.4 kA at 4.5 K and 25.2 kA at 2.2 K. 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The overall J c of the Nb 3 Al strand could be easily increased by decreasing of the Cu ratio. Although the quench of a pulse-like voltage generation is usually observed in superconducting unstable conductor, the F4 strand with a low Cu ratio of 0.61 exhibited an ordinary critical transition of gradual voltage generation. The F4 strand does not have magnetic instabilities at 4.2 K because of the tantalum interfilament matrix. The overall J c of the F4 strand achieved was 80-85% of the RRP strand. In the large mechanical stress above 100 MPa, the overall J c of the F4 strand might be comparable to that of high J c RRP-Nb 3 Sn strands. The Rutherford cable with a high packing factor of 86.5% has been fabricated using F4 strands. The small racetrack magnet, SR07, was also fabricated by a 14 m F4 cable. The quench current, I q , of SR07 were obtained 22.4 kA at 4.5 K and 25.2 kA at 2.2 K. 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subjects Copper
Copper stabilizer
Critical current
Degradation
Magnetic separation
magnetization
Materials science and technology
Pulse generation
Rutherford cable
small racetrack magnet
Stress
Superconducting magnets
Testing
Voltage
{\rm Nb}_{3}{\rm Al} strand
title Characteristics of Cu Stabilized Strands With Low Cu Ratio
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