• DocumentCode
    2005448
  • Title

    MEMS-based slow-wave sheet-beam amplifier

  • Author

    Holstein, Danny G. ; Dokmeci, Mehmet ; Chen, Chia-Ling ; Tracy, Mike

  • Author_Institution
    Performance Microwave, Sparta, NJ
  • fYear
    2008
  • fDate
    22-24 April 2008
  • Firstpage
    56
  • Lastpage
    57
  • Abstract
    New micro-machining technologies are being evaluated for applicability to millimeter-wave RF devices. Sample RF circuits have been fabricated on diamond, sapphire, and SiO2-coated silicon wafers; wire patterns (1 mum thick) have been optically patterned in aluminum and molybdenum. Dispersion for such a circuit is examined as as well as electron/RF interaction. Unlike traditional means of fabricating vacuum RF devices, micro-machining technologies are expected to scale quite well beyond many of the currently used methods. As well, ribbon beam formation and technologies are evolving and will be perfectly suited to interaction with a flat, micro-machined RF structure. This paper is presented in two parts, design analysis and device fabrication. Details of the design analysis and numerical methods applied to this problem and corresponding results will be presented. This is followed by details of the micro-machining techniques, processes used, and fabrication results.
  • Keywords
    aluminium; diamond; micromachining; micromechanical devices; millimetre wave amplifiers; molybdenum; sapphire; silicon; silicon compounds; slow wave structures; Al2O3; C; MEMS-based slow-wave sheet-beam amplifier; RF circuits; SiO2-Si; aluminum; diamond; micromachining technology; millimeter-wave RF devices; molybdenum; ribbon beam formation; sapphire; size 1 mum; wire patterns; Electron optics; Fabrication; Millimeter wave circuits; Millimeter wave technology; Optical amplifiers; Radio frequency; Radiofrequency amplifiers; Silicon; Stimulated emission; Wire;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Vacuum Electronics Conference, 2008. IVEC 2008. IEEE International
  • Conference_Location
    Monterey, CA
  • Print_ISBN
    978-1-4244-1715-5
  • Type

    conf

  • DOI
    10.1109/IVELEC.2008.4556413
  • Filename
    4556413