• DocumentCode
    1025749
  • Title

    Application specific CMOS output driver circuit design techniques to reduce simultaneous switching noise

  • Author

    Senthinathan, R. ; Prince, J.L.

  • Author_Institution
    Motorola Inc., Austin, TX, USA
  • Volume
    28
  • Issue
    12
  • fYear
    1993
  • fDate
    12/1/1993 12:00:00 AM
  • Firstpage
    1383
  • Lastpage
    1388
  • Abstract
    Application specific CMOS circuit design techniques to reduce simultaneous switching noise (SSN-also known as Delta-I noise or ground bounce) were analyzed. Detailed investigation on the CMOS output driver switching current components was performed. The limitations in using current controlled (CC) CMOS output drivers in high-speed (>30 MHz) design applications are explained. Application specific, high-speed, controlled slew rate (CSR) CMOS output drivers were studied and designed. For a given device channel length, once the predriver and driver device sizes are fixed, the performance (speed, switching noise, sink/source capabilities) is determined. With controlled slew rate output drivers, more than 50% improvement was found in the input receiver noise immunity (measure of maximum tolerable SSN) compared to conventional drivers, while the speed and sink/source capabilities are preserved. This effective SSN reduction improvement is achieved with only a small increase in output driver silicon area. The CSR output driver uses distributed and weighted switching driver segments to control the output driver´s slew rate for a given load-capacitance. These CSR CMOS output drivers were compared with standard CMOS output drivers, showing significant reduction in effective switching noise pulse width
  • Keywords
    CMOS integrated circuits; application specific integrated circuits; digital integrated circuits; driver circuits; equivalent circuits; interference suppression; semiconductor device noise; switching; 30 MHz; Delta-I noise; application specific CMOS circuit; controlled slew rate; distributed switching driver segments; ground bounce; high-speed design applications; input receiver noise immunity; output driver circuit design techniques; simultaneous switching noise; switching current components; weighted switching driver segments; CMOS technology; Circuit noise; Circuit synthesis; Driver circuits; Noise measurement; Noise reduction; Silicon; Space vector pulse width modulation; Switching circuits; Velocity measurement;
  • fLanguage
    English
  • Journal_Title
    Solid-State Circuits, IEEE Journal of
  • Publisher
    ieee
  • ISSN
    0018-9200
  • Type

    jour

  • DOI
    10.1109/4.262016
  • Filename
    262016