• DocumentCode
    3282606
  • Title

    Electrical Conduction in Metallic Nanotubes

  • Author

    Anantram, M.P. ; Svizhenko, Alexei ; Mehrez, Hatem

  • Author_Institution
    Center for Nanotechnology, NASA Ames Res. Center, Moffett Field, CA
  • fYear
    2005
  • fDate
    7-9 Dec. 2005
  • Firstpage
    32
  • Lastpage
    33
  • Abstract
    In this talk, the authors discuss their effort in modeling charge transport (1) in a single nanotube coupled to contacts (intra-nanotube transport) and (2) across multiple nanotubes representative of a simplified fiber (inter-nanotube transport). Accurate modeling of transport in these systems is intrinsically quantum mechanical because it is essential to model tunneling, even in metallic nanotubes. The computational model involves self-consistently solving the nonequilibrium Green´s function and Poisson equations, with electron-phonon interaction. To model inter-nanotube transport, the authors also find it essential to use molecular dynamics and density function theory based methods to generate the accurate atomic structure of a multiple nanotube system
  • Keywords
    Green´s function methods; Poisson equation; minimum metallic conductivity; nanocontacts; nanotube devices; Poisson equations; accurate atomic structure; charge transport; coupled contacts; density function; electrical conduction; electron-phonon interaction; intra-nanotube transport; metallic nanotubes; model tunneling; molecular dynamics; multiple nanotube system; nonequilibrium Green function; quantum mechanical; single nanotube; Carbon nanotubes; Charge carrier processes; Conductors; Current; Mechanical engineering; NASA; Nanotechnology; Physics; Scattering; Wires;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Semiconductor Device Research Symposium, 2005 International
  • Conference_Location
    Bethesda, MD
  • Print_ISBN
    1-4244-0083-X
  • Type

    conf

  • DOI
    10.1109/ISDRS.2005.1595962
  • Filename
    1595962