• DocumentCode
    2703908
  • Title

    High-speed low-power charge-buffered active-pull-down ECL circuit

  • Author

    Chuang, C.T. ; Chin, K.

  • Author_Institution
    IBM Thomas J. Watson Res. Center, Yorktown Heights, NY, USA
  • fYear
    1990
  • fDate
    17-18 Sep 1990
  • Firstpage
    132
  • Lastpage
    135
  • Abstract
    The circuit features a charge-buffered coupling between the common-emitter node of the switching transistors and the base of an active-pull-down npn transistor. This coupling scheme provides a much larger dynamic current than that which can be reasonably achieved through the capacitor coupling and a DC path to alleviate the AC-testing requirement. Furthermore, the dynamic current is utilized effectively by the logic stage, thus allowing a reduction in the power consumption of the logic stage without sacrificing the switching speed. Based on an 0.8-μm double-poly self-aligned bipolar technology at a power consumption of 1.0 mW/gate, the circuit offers 37% improvement in both the speed and load driving capability for a loaded gate compared with the conventional ECL circuit. The design and scaling considerations of the circuit are discussed
  • Keywords
    bipolar integrated circuits; emitter-coupled logic; integrated logic circuits; logic design; 0.8 micron; DC path; charge-buffered active-pull-down ECL circuit; charge-buffered coupling; common-emitter node; double-poly self-aligned bipolar technology; dynamic current; load driving capability; logic stage; power consumption; power delay characteristics; scaling considerations; speed; switching speed; Buffer storage; Coupling circuits; Diodes; Energy consumption; Logic; Power dissipation; Switched capacitor circuits; Switches; Switching circuits; Very large scale integration;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Bipolar Circuits and Technology Meeting, 1990., Proceedings of the 1990
  • Conference_Location
    Minneapolis, MN
  • Type

    conf

  • DOI
    10.1109/BIPOL.1990.171145
  • Filename
    171145