• DocumentCode
    1501017
  • Title

    Modeling and Simulation of Simple Flux-Trapping FCGs Utilizing PSpice Software

  • Author

    Young, Andrew ; Neuber, Andreas ; Kristiansen, Magne

  • Author_Institution
    Center for Pulsed Power & Power Electron., Texas Tech Univ., Lubbock, TX, USA
  • Volume
    38
  • Issue
    8
  • fYear
    2010
  • Firstpage
    1794
  • Lastpage
    1802
  • Abstract
    A novel modeling and simulation method for flux-trapping flux-compression generators (FT-FCGs) is presented, which utilizes PSpice circuit-simulation software to solve complex differential equations derived from circuit analysis. The primary motivation for the model development is the desire for a technique to rapidly design and prototype FT-FCGs for use as drivers in high-power microwave sources. The derivation of FT-FCG equations will be given, both in the ideal (lossless) and nonideal cases. For the nonideal case, three flux conservation coefficients are added to the equations to account for intrinsic flux loss in the circuit. Time-varying inductance curves are calculated using zero-dimensional models found in literature and adapted to fit this model. A simple FT-FCG design is used as an example to show the steps taken to complete a simulation. The same design was also fabricated and tested for comparison with predicted results from the model. A comparison of the waveforms acquired through simulation and experiment was found to result in good agreement for a given set of values for the flux conservation coefficients. A discussion of the derived equations, both lossless and nonideal, is given, as well as a discussion on the investigation of the impact of the three flux constants on the circuit. Analysis is offered on the results of this investigation, and conclusions are given on the effectiveness of this model to predict FT-FCG behavior.
  • Keywords
    flux pinning; power engineering computing; PSpice circuit-simulation software; flux-compression generators; high-power microwave sources; simple flux-trapping; time-varying inductance curves; FCG simulation; flux compression generator; flux-trapping;
  • fLanguage
    English
  • Journal_Title
    Plasma Science, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0093-3813
  • Type

    jour

  • DOI
    10.1109/TPS.2010.2048723
  • Filename
    5471092