• DocumentCode
    1422636
  • Title

    Fundamental properties of inert gas mixtures for plasma display panels

  • Author

    Veronis, Georgios ; Inan, Umran S. ; Pasko, Victor P.

  • Author_Institution
    Dept. of Electr. Eng., Stanford Univ., CA, USA
  • Volume
    28
  • Issue
    4
  • fYear
    2000
  • fDate
    8/1/2000 12:00:00 AM
  • Firstpage
    1271
  • Lastpage
    1279
  • Abstract
    A fundamental kinetic model is used to compare the luminous efficiency of different compositions of Ne-Xe, He-Xe, and Ne-Xe-Ar mixtures in plasma display panels. A self-sustaining condition is used to estimate the breakdown electric field Ek, accounting also for Penning ionization. The excitation frequency of Xe states that emit UV photons is calculated for applied electric field values ranging from 0.2 Ek to 5 Ek. Light generation efficiency, defined as the ratio of the energy spent in excitation of UV emitting states of Xe per unit volume and per unit time versus dissipated electrical power, is an increasing function of the Xe concentration N Xe in both the Ne-Xe and He-Xe cases, although He-Xe mixtures were found to be somewhat less efficient. The fractional increase in efficiency is very small for NXe>0.1 N. The addition of small amounts of Ar in Ne-Xe mixtures leads to insignificant changes in efficiency or breakdown voltage level. Results of a one-dimensional (1-D) self-consistent simulation of an AC plasma display cell are consistent with the conclusions derived based on the homogeneous unbounded kinetic analysis
  • Keywords
    Penning ionisation; digital simulation; gas mixtures; inert gases; plasma displays; AC plasma display cell; He-Xe; He-Xe mixtures; Ne-Xe; Ne-Xe mixtures; Ne-Xe-Ar; Ne-Xe-Ar mixtures; Penning ionization; UV emitting states; UV photon emission; Xe concentration; breakdown electric field; breakdown voltage level; dissipated electrical power; electric field; excitation frequency; homogeneous unbounded kinetic analysis; inert gas mixtures; kinetic model; light generation efficiency; luminous efficiency; one-dimensional self-consistent simulation; plasma display panels; self-sustaining condition; Analytical models; Argon; Electric breakdown; Frequency; Ionization; Kinetic theory; Plasma displays; Plasma properties; Plasma simulation; Power generation;
  • fLanguage
    English
  • Journal_Title
    Plasma Science, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0093-3813
  • Type

    jour

  • DOI
    10.1109/27.893316
  • Filename
    893316