• DocumentCode
    2378124
  • Title

    Integrating DFT in the physical synthesis flow

  • Author

    Guiller, L. ; Neuveux, F. ; Duggirala, S. ; Chandramouli, R. ; Kapur, R.

  • Author_Institution
    Synopsys, Inc, Mountain View, CA, USA
  • fYear
    2002
  • fDate
    2002
  • Firstpage
    788
  • Lastpage
    795
  • Abstract
    The industry´s adoption of powerful design methodologies, such as physical synthesis, formal verification, and static timing analysis are speeding the implementation and verification of multi-million gate ASICs and systems-on-chip (SoC). As the design community moves to the complete adoption of a physical synthesis flow, it is becoming evident that test synthesis must be aware of layout issues and well integrated within physical design tools. By bringing in key physical functions into the front-end of the DFT/physical synthesis flow, the designer is able to successfully meet all design and testability goals, with minimum impact on timing closure. In this paper, we present a DFT synthesis flow tightly integrated within physical synthesis to achieve physically optimized scan designs. This flow describes new test technology which uses physical information to achieve optimal scan chain partitioning, timing-driven scan ordering and DFT driven placement to dramatically reduce routing congestion, and achieve a rapid and predictable timing closure.
  • Keywords
    application specific integrated circuits; circuit CAD; circuit layout CAD; circuit optimisation; design for testability; integrated circuit design; network routing; software tools; system-on-chip; timing; ASIC; DFT driven placement; DFT integration; DFT synthesis flow; DFT/physical synthesis flow front-end; SoC; design implementation; design methodologies; design testability; design verification; formal verification; layout issues; optimal scan chain partitioning; physical design tool integration; physical synthesis flow; physically optimized scan designs; routing congestion; static timing analysis; system-on-chip; test synthesis; test technology; timing closure; timing-driven scan ordering; Bandwidth; Design for testability; Design methodology; Design optimization; Formal verification; Logic design; Logic testing; Routing; System-on-a-chip; Timing;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Test Conference, 2002. Proceedings. International
  • ISSN
    1089-3539
  • Print_ISBN
    0-7803-7542-4
  • Type

    conf

  • DOI
    10.1109/TEST.2002.1041832
  • Filename
    1041832