• DocumentCode
    3578982
  • Title

    A Novel scaling theory for Single Gate AlInSb/InSb High Electron Mobility Transistors

  • Author

    LakshmiPriya, G. ; Manikandan, S. ; Balamurugan, N.B. ; Theodore Chandra, S.

  • Author_Institution
    Dept. of ECE, Thiagarajar Coll. of Eng., Madurai, India
  • fYear
    2014
  • Firstpage
    211
  • Lastpage
    215
  • Abstract
    A Novel scaling theory for Single Gate AlInSb/InSb High Electron Mobility Transistors (HEMTs)is derived by solving the 2D Poisson equation. To combat with the issues introduced by device scaling,Effective Conductive Path Effect (ECPE) has been taken into account.From literature, scaling Metal Oxide Semiconductor Field Effect Transistors (MOSFETs)with ECPE has shown stronger immunity towards short channel effects (SCEs). Hence, on introducing the ECPE in HEMT, a simple scaling equation has been derived and on solving this equation the minimum channel potential Φdeff,min and the new scaling factor α is obtained to model the subthreshold behavior of high electron mobility transistors. The analytical model has been further extended in finding the various device parameters. Then simulations of the proposed work are performed using 2D TCAD sentaurus device simulator. The analytical results are compared and verified with the TCAD simulation results. Finally, results of the proposed work are compared with the scaling theory for MOSFETs with ECPE.
  • Keywords
    MOSFET; Poisson equation; aluminium compounds; high electron mobility transistors; indium compounds; semiconductor device models; 2D Poisson equation; 2D TCAD sentaurus device simulator; AlInSb-InSb; ECPE; HEMT; MOSFET; SCE; TCAD simulation; device scaling; effective conductive path effect; metal oxide semiconductor field effect transistors; scaling equation; scaling factor; scaling theory; short channel effects; single gate high electron mobility transistors; Electric potential; Equations; HEMTs; Logic gates; MOSFET; Mathematical model; Simulation; Scaling theory; effective conducting path effect; natural length; scaling factor; short channel effects; subthreshold behavior; surface potential;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Communication and Network Technologies (ICCNT), 2014 International Conference on
  • Print_ISBN
    978-1-4799-6265-5
  • Type

    conf

  • DOI
    10.1109/CNT.2014.7062757
  • Filename
    7062757