DocumentCode
1433381
Title
Electrical and Mechanical Characterizations of Nanocomposite Insulation for HTS Systems
Author
Walsh, Jennifer K. ; Fabian, Paul E. ; Hooker, Matthew W. ; Lizotte, Mark J. ; Tuncer, Enis ; Sauers, Isidor
Author_Institution
Composite Technol. Dev., Inc., West Lafayette, CO, USA
Volume
21
Issue
3
fYear
2011
fDate
6/1/2011 12:00:00 AM
Firstpage
3123
Lastpage
3126
Abstract
As HTS wire technology continues to advance, a critical need has emerged for dielectric materials that can be used in superconducting components such as terminations, fault current limiters, transformers, and motors. To address this need, CTD is developing nanocomposite insulations based on epoxy and benzoxazine chemistries. Depending on part geometry, some processing methods are more efficient than others. For this reason, CTD is investigating both fiber-reinforced and filled resin systems for use in these applications. A thorough set of electrical testing including AC breakdown, breakdown as a function of thickness, and flashover shows promising performance characteristics. In addition, mechanical testing (short beam shear and compression) indicate that these new materials to have as good or better performance than G10.
Keywords
compressive testing; fibre reinforced composites; filled polymers; flashover; high-temperature superconductors; insulation testing; machine insulation; nanocomposites; nanofabrication; power cable insulation; resins; superconducting cables; AC breakdown; HTS systems; HTS wire technology; benzoxazine chemistry; compression; dielectric materials; electrical characterization; electrical testing; epoxy chemistry; fault current limiters; fiber-reinforced resin system; filled resin system; flashover; mechanical characterization; mechanical testing; motors; nanocomposite insulation; performance characteristics; processing methods; short beam shear; superconducting components; terminations; transformers; Dielectrics; Electric breakdown; High temperature superconductors; Insulation; Resins; Testing; Cryogenics; dielectric breakdown; dielectric materials; high-temperature superconductors; nanotechnology;
fLanguage
English
Journal_Title
Applied Superconductivity, IEEE Transactions on
Publisher
ieee
ISSN
1051-8223
Type
jour
DOI
10.1109/TASC.2010.2100015
Filename
5699375
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