• DocumentCode
    894411
  • Title

    Assessment of the Current Intensity for Preventing Ice Accretion on Overhead Conductors

  • Author

    Péter, Zsolt ; Farzaneh, Masoud ; Kiss, László I.

  • Author_Institution
    Quebec Univ., Chicoutimi, Que.
  • Volume
    22
  • Issue
    1
  • fYear
    2007
  • Firstpage
    565
  • Lastpage
    574
  • Abstract
    This paper concerns the determination of the electric current requirements for an anti-icing technique based on the Joule effect. The minimum current intensity needed for preventing ice accretion depends on several conductor parameters, including external diameter, electrical resistance, as well as surface geometry (number and diameter of external strands). It depends also on meteorological conditions, such as air temperature, wind velocity, and liquid water content. The study comprises the elaboration of a mathematical model and the laboratory experiments for validation. This research work is mainly concerned with power-line conductor and atmospheric parameters. Therefore, four different types of single A1/S1 power-line conductors are investigated. The analytical model was validated with the experiments performed in the wind tunnel of CIGELE Icing Research Pavilion at the University of Quebec, Chicoutimi. In order to complete the mathematical model, it is necessary to assess the overall heat transfer coefficient (HTC) for stranded conductors. The HTC measurements are presented for conductors with different surface geometries
  • Keywords
    heat transfer; mathematical analysis; overhead line conductors; power cables; wind tunnels; Joule effects; antiicing techniques; conductor parameters; electrical resistance; heat transfer coefficient; ice accretion prevention; mathematical model; minimum current intensity assessment; overhead conductors; power line conductors; surface geometry; wind tunnels; Conductors; Current; Electric resistance; Geometry; Ice surface; Mathematical model; Meteorology; Surface resistance; Temperature dependence; Wind speed; Atmospheric parameters; Joule effect; heat-transfer coefficient; ice prevention; stranded conductors; wind tunnel;
  • fLanguage
    English
  • Journal_Title
    Power Delivery, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0885-8977
  • Type

    jour

  • DOI
    10.1109/TPWRD.2006.877091
  • Filename
    4039463