• DocumentCode
    106971
  • Title

    Modeling of Second Generation HTS Cables for Grid Fault Analysis Applied to Power System Simulation

  • Author

    del-Rosario-Calaf, Gerard ; Lloberas-Valls, Joaquim ; Sumper, A. ; Granados, X. ; Villafafila-Robles, Roberto

  • Author_Institution
    Area of Electr. Eng., Catalonia Inst. for Energy Res. (IREC), Sant Adria de Besos, Spain
  • Volume
    23
  • Issue
    3
  • fYear
    2013
  • fDate
    Jun-13
  • Firstpage
    5401204
  • Lastpage
    5401204
  • Abstract
    HTS power cable systems are an emerging technology aimed at competing with XLPE cable systems. Knowledge on the thermal operating conditions of HTS power devices is needed to estimate their availability when connected to a power system, because the HTS material must remain below its critical temperature to transport current. In this work, a simple finite difference method is used to assess the temperature distribution at certain cross-section of a second-generation coaxial HTS cable. This method has been implemented in MATLAB and its proper functioning has been verified with the software package FLUX. This method is a tool to establish temperature distributions among HTS cable layers under normal operating conditions. Additionally, the aim of this work is to serve as basis for future simulations including heat generation changes within the cable layers typically caused by grid fault events.
  • Keywords
    coaxial cables; finite difference methods; high-temperature superconductors; power grids; power system faults; power system simulation; superconducting cables; superconducting transition temperature; temperature distribution; FLUX; HTS material; HTS power cable systems; HTS power devices; MATLAB; XLPE cable systems; critical temperature; finite difference method; grid fault analysis; grid fault events; heat generation; power system simulation; second-generation coaxial HTS cable; software package; temperature distribution; thermal operating conditions; transport current; Cable shielding; Copper; Dielectrics; Heating; High temperature superconductors; Power cables; Superconducting cables; Finite difference methods; high temperature superconductors; power engineering computing; superconducting devices;
  • fLanguage
    English
  • Journal_Title
    Applied Superconductivity, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    1051-8223
  • Type

    jour

  • DOI
    10.1109/TASC.2012.2236673
  • Filename
    6395813