• DocumentCode
    1060616
  • Title

    Nanocomposite Insulation for HTS Applications

  • Author

    Walsh, Jennifer K. ; Hooker, Mathew W. ; Lizotte, Mark J. ; Tuncer, Enis ; Sauers, Isidor

  • Author_Institution
    Composite Technol. Dev., Inc., Lafayette, CO, USA
  • Volume
    19
  • Issue
    3
  • fYear
    2009
  • fDate
    6/1/2009 12:00:00 AM
  • Firstpage
    2363
  • Lastpage
    2366
  • Abstract
    High temperature superconducting (HTS) cable technology is rapidly developing for use in the areas of power generation and distribution. While significant progress has been made thus far in developing this technology, further effort is needed to improve the efficiency and cost of dielectric materials for use in these systems. These materials must be compatible with cryogenic operation, exhibit excellent dielectric properties at cryogenic temperatures, and provide a high level of reliability when in service. Moreover, the dielectric materials must be able to be produced into complex forms using cost-effective, industrially scalable processes. To improve upon current fiber-reinforced-polymer composite dielectric materials, the present study investigates the advantages of including nanomaterial reinforcement within the polymer resins. It was found that the nanomaterial additions did not greatly impact the polymer viscosity or increase the cure rate, which enables the nanomaterial-enhanced polymer to be used in fabricating fiber-reinforced composite dielectric materials. The nanomaterial-enhanced composite dielectric materials demonstrated greater than 60% higher AC dielectric breakdown strengths and improved consistency of performance compared to the current standard, G10. Similarly, shear and compression strengths of nanomaterial-enhanced composite dielectric materials compared well with those of G10.
  • Keywords
    dielectric materials; electric power generation; high-temperature superconductors; nanocomposites; power cable insulation; power distribution; superconducting cables; AC dielectric breakdown; G10; fiber-reinforced-polymer composite dielectric materials; high temperature superconducting cable technology; nanocomposite insulation; nanomaterial reinforcement; nanomaterial-enhanced polymer; polymer resins; polymer viscosity; power distribution; power generation; Cryogenic; HTS; dielectric; nanomaterials;
  • fLanguage
    English
  • Journal_Title
    Applied Superconductivity, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    1051-8223
  • Type

    jour

  • DOI
    10.1109/TASC.2009.2019140
  • Filename
    5067177