• DocumentCode
    1257881
  • Title

    Dependence of resonance condition on pressure in an RF resonance method

  • Author

    Goto, Naohiko

  • Author_Institution
    Komae Res. Lab., Central Res. Inst. of Electr. Power Ind., Tokyo, Japan
  • Volume
    27
  • Issue
    5
  • fYear
    1999
  • fDate
    10/1/1999 12:00:00 AM
  • Firstpage
    1353
  • Lastpage
    1357
  • Abstract
    The plasma density is shown as functions of pressure and magnetic flux density in an RF resonance method using the XPDP1 simulation code. The RF resonance method has the unique feature that a strong electric field in bulk controls the plasma density. Owing to the balance between the electric field decrease and the collision rate increase, the plasma density in the RF resonance method has a peak with respect to pressure. The plasma density with respect to the magnetic flux density depends on the condition of the RF resonance method, and the dependence is strong at low pressure because of the strong resonance. Sheath thickness is the most important parameter that determines the strength of the resonance induced. It is shown that the sheath thickness s is related to the plasma density n as a function of ns, obtained from a dispersion relation at constant external parameters. The magnetic flux density which induces the strong resonance is determined from sheath thickness. The plasma density in the RF resonance method can be predicted from discharge parameters using the relation between plasma density and sheath thickness
  • Keywords
    plasma density; plasma electrostatic waves; plasma pressure; plasma simulation; RF resonance method; XPDP1 simulation code; collision rate increase; constant external parameters; discharge parameters; dispersion relation; electric field decrease; electrostatic waves; induced resonance strength; magnetic flux density; plasma density; plasma pressure; resonance condition; sheath thickness; strong electric field; Dispersion; Electrons; Electrostatics; Magnetic flux density; Magnetic resonance; Plasma density; Plasma sheaths; Plasma simulation; Plasma waves; Radio frequency;
  • fLanguage
    English
  • Journal_Title
    Plasma Science, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0093-3813
  • Type

    jour

  • DOI
    10.1109/27.799812
  • Filename
    799812