• DocumentCode
    1740249
  • Title

    Bias field/frequency characteristic of millimeter wave semiconductor resonators at 77°K

  • Author

    Sheikh, S.I.

  • Author_Institution
    King Fahd Univ. of Pet. & Miner., Dhahran, Saudi Arabia
  • fYear
    2000
  • fDate
    2000
  • Firstpage
    514
  • Lastpage
    517
  • Abstract
    Axially magnetized planar gyroelectric resonators are characterized for both InSb and GaAs semiconductors at 77°K. The calculations assume that these materials are represented by the tensor permittivity derived from the Drude model of cyclotron motion in a plasma. Modal information is presented in terms of bias field and signal frequency. Resonance and loss regions are identified. The dependency of the modal characteristics on changing material and geometrical properties of the resonator are illustrated. In order to measure the millimeter-wave properties of the magnetized semiconductor disk, a two port network is analyzed using the Green´s function approach. This method is vital in calibrating the semiconductor material before designing magnetized semiconductor junction circulators for high-Tc superconductive circuits
  • Keywords
    Green´s function methods; cryogenic electronics; losses; millimetre wave circulators; millimetre wave devices; permittivity; resonators; semiconductor devices; 77 K; EHF; GaAs; Green function method; InSb; MM-wave semiconductor resonators; axially magnetized planar resonators; bias field characteristic; frequency characteristic; geometrical properties; high-Tc superconductive circuits; loss regions; magnetized semiconductor disc; magnetized semiconductor junction circulators; material properties; millimeter wave resonators; millimeter-wave properties; modal characteristics; planar gyroelectric resonators; resonance regions; signal frequency; tensor permittivity; two port network; Frequency; Gallium arsenide; Magnetic materials; Magnetic resonance; Magnetic semiconductors; Millimeter wave measurements; Millimeter wave technology; Plasma measurements; Semiconductor materials; Superconducting magnets;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Microwave and Millimeter Wave Technology, 2000, 2nd International Conference on. ICMMT 2000
  • Conference_Location
    Beijing
  • Print_ISBN
    0-7803-5743-4
  • Type

    conf

  • DOI
    10.1109/ICMMT.2000.895734
  • Filename
    895734