• DocumentCode
    1094625
  • Title

    A model to predict current distributions in heavy current parallel conductor configurations

  • Author

    Ghandakly, Adel A. ; Curran, Richard L.

  • Author_Institution
    Dept. of Electr. Eng., Toledo Univ., OH, USA
  • Volume
    30
  • Issue
    2
  • fYear
    1994
  • Firstpage
    240
  • Lastpage
    244
  • Abstract
    This paper presents a model for predicting the current distribution in high current cables consisting of relatively widely spaced parallel conductors. These cables are typically used in electric glass melters to interconnect the power transformers and the melter secondary bus installations. Due to mutual inductive coupling between the conductors, electromagnetic forces will cause a nonuniform current distribution. The proposed model has been developed to account for these forces in specified parallel conductor configurations. The model also takes into account the “skin effect” impact on the individual conductor resistances and self inductances. The model is coded in a simple computer program which can be used to predict current distributions in electric glass melters and similar heavy current applications. Results obtained using the proposed model for a Scott-T transformer system with a variety of multiconductor cable configurations are presented in the paper for demonstration purposes
  • Keywords
    current distribution; digital simulation; electric heating; glass industry; melting; power cables; power engineering computing; skin effect; Scott-T transformer system; bundled conductors; computer program; conductor resistances; current distributions; electric glass melters; electromagnetic forces; heavy current parallel conductor configurations; melter secondary bus installations; multiconductor cable configurations; mutual inductive coupling; nonuniform current distribution; power transformers; self inductances; skin effect; widely spaced parallel conductors; Cables; Conductors; Current distribution; Distributed computing; Electromagnetic coupling; Electromagnetic forces; Glass; Mutual coupling; Power transformers; Predictive models;
  • fLanguage
    English
  • Journal_Title
    Industry Applications, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0093-9994
  • Type

    jour

  • DOI
    10.1109/28.287538
  • Filename
    287538