• DocumentCode
    2008747
  • Title

    A low power architecture for digital sequence generation

  • Author

    Lowy, Menahem

  • Author_Institution
    Texas Univ., Arlington, TX, USA
  • fYear
    1993
  • fDate
    29 Nov-2 Dec 1993
  • Firstpage
    636
  • Abstract
    The conventional implementation of digital sequence generators suffers from two major drawbacks: (1) it generates only one bit per clock cycle and, (2) all the elements in the structure are clocked every clock cycle. Sequences implemented using this architecture will dissipate a significant amount of power when clocked at high frequency rate. This is detrimental to the operation of low-power communication equipment and other battery operated systems. This paper presents an architecture and an algorithm for the parallel implementation of digital sequences and digital systems in general. The advantages of the presented architecture are: (1) higher throughput rate and (2) reduced power dissipation which is much less dependent on the length of the shift register. This technique is applicable to most digital systems requiring low-power operation
  • Keywords
    CMOS integrated circuits; binary sequences; codes; digital integrated circuits; telecommunication equipment; battery operated systems; digital sequence generation; digital sequence generators; digital systems; low power architecture; low-power communication equipment; low-power operation; parallel implementation; power dissipation; shift register; throughput rate; Batteries; Clocks; Communication equipment; Digital systems; Frequency; Power dissipation; Power generation; Sequences; Shift registers; Throughput;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Global Telecommunications Conference, 1993, including a Communications Theory Mini-Conference. Technical Program Conference Record, IEEE in Houston. GLOBECOM '93., IEEE
  • Conference_Location
    Houston, TX
  • Print_ISBN
    0-7803-0917-0
  • Type

    conf

  • DOI
    10.1109/GLOCOM.1993.318158
  • Filename
    318158