Title :
Latest Improvements of Current Carrying Capability of Niobium Tin and Its Magnet Applications
Author :
Hong, Seung ; Field, Michael B. ; Parrell, Jeffrey A. ; Zhang, Youzhu
Author_Institution :
Supercond. Technol., Oxford Instruments, NJ
fDate :
6/1/2006 12:00:00 AM
Abstract :
Practical high field superconducting magnets are exclusively built with Nb3Sn multi-filamentary composites. Over the last few years there have been significant improvements in the current carrying capability of Nb3Sn strand, and these improvements offer the possibility to build more efficient and higher field strength magnets. The Nb3Sn composite requirements are somewhat different depending on the application, such as magnetically confined fusion, high energy physics accelerators, and solenoids for NMR or laboratory magnets, and thus require different designs. We will present the current status of Nb3Sn strand development at Oxford Instruments, Superconducting Technology (OST) for these applications, along with magnet results
Keywords :
accelerator magnets; critical current density (superconductivity); multifilamentary superconductors; niobium alloys; superconducting magnets; tin alloys; NMR; Nb3Sn; accelerator magnets; critical current density; current carrying capability; high energy physics accelerators; high field superconducting magnets; laboratory magnets; magnetically confined fusion; multifilamentary composites; niobium tin; nuclear magnetic resonance; solenoids; superconducting materials; Accelerator magnets; Instruments; Laboratories; Magnetic confinement; Multifilamentary superconductors; Niobium; Nuclear magnetic resonance; Solenoids; Superconducting magnets; Tin; Accelerator magnets; niobium alloys; niobium compounds; nuclear magnetic resonance; superconducting magnets; superconducting materials;
Journal_Title :
Applied Superconductivity, IEEE Transactions on
DOI :
10.1109/TASC.2005.864270