• DocumentCode
    3233036
  • Title

    Physics-Based Phase Noise Analysis of CMOS RF Oscillators

  • Author

    Hong, Sung Min ; Park, Chan Hyeong ; Lee, Myoung Jin ; Min, Hong Shick ; Park, Young June

  • Author_Institution
    Sch. of Electr. Eng. & Comput. Sci., Seoul Nat. Univ.
  • fYear
    2006
  • fDate
    6-8 Sept. 2006
  • Firstpage
    95
  • Lastpage
    98
  • Abstract
    A TCAD framework that can predict the phase noise spectrum of the oscillator using the nonlinear perturbation analysis is developed. The device-circuit mixed-mode simulation technique based upon the shooting-Newton method is exploited to evaluate the periodic steady-state solution of the oscillator. The influence of noise sources inside the devices on the phase deviation is calculated in an efficient and accurate way using the perturbation projection vector. The output power spectrum can be easily obtained in this framework. As its application, the output power spectrum of a CMOS LC voltage-controlled oscillator is calculated
  • Keywords
    CMOS integrated circuits; Newton method; integrated circuit modelling; integrated circuit noise; phase noise; radiofrequency oscillators; technology CAD (electronics); voltage-controlled oscillators; CMOS LC voltage-controlled oscillator; CMOS RF oscillators; TCAD framework; device-circuit mixed-mode simulation technique; noise sources; nonlinear perturbation analysis; periodic steady-state solution; perturbation projection vector; phase noise spectrum; physics-based phase noise analysis; shooting-Newton method; Circuit noise; Kirchhoff´s Law; Nonlinear equations; Phase noise; Power generation; Radio frequency; Semiconductor device noise; Steady-state; Voltage; Voltage-controlled oscillators;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Simulation of Semiconductor Processes and Devices, 2006 International Conference on
  • Conference_Location
    Monterey, CA
  • Print_ISBN
    1-4244-0404-5
  • Type

    conf

  • DOI
    10.1109/SISPAD.2006.282846
  • Filename
    4061589