• DocumentCode
    709832
  • Title

    Terrestrial SER characterization for nanoscale technologies: A comparative study

  • Author

    Mahatme, N.N. ; Bhuva, B. ; Gaspard, N. ; Assis, T. ; Xu, Y. ; Marcoux, P. ; Vilchis, M. ; Narasimham, B. ; Shih, A. ; Wen, S.-J. ; Wong, R. ; Tam, N. ; Shroff, M. ; Koyoma, S. ; Oates, A.

  • fYear
    2015
  • fDate
    19-23 April 2015
  • Abstract
    In this work, the efforts of an industry wide consortium to characterize the logic soft error rate of a multitude of combinational and sequential logic circuits across multiple technologies is reported. The basic intent of the approach was to bring together the designs and intellectual property of various semiconductor companies on a single technology platform to be tested and compared under the same experimental conditions. This ensures that the measured results are validated, comparable and benchmarked against other similar designs. More importantly, crucial findings associated with this collaborative effort are also outlined in this paper. Some of the key results include the fact that scaling has led to the steady decline of failure in time (FIT) rates for flip-flops as well as combinational logic circuits. Additionally, the improvement in the soft error resilience provided by redundant node flip-flops has reduced with technology miniaturization due to the effects of charge sharing and multiple node charge collection. In spite of this, however, at high frequencies, the combinational logic soft error rate is comparable to the soft error rate of typical flip-flops. The experimental results are complemented with modeling various soft error mechanisms that affect modern high speed logic circuits.
  • Keywords
    combinational circuits; failure analysis; flip-flops; industrial property; nanoelectronics; FIT rates; charge sharing effects; combinational logic circuits; combinational logic soft error rate; failure in time rates; high speed logic circuits; intellectual property; logic soft error rate characterization; multiple node charge collection; nanoscale technology; redundant node flip-flops; sequential logic circuits; single technology platform; soft error resilience; terrestrial SER characterization; Alpha particles; Flip-flops; Logic circuits; Neutrons; Radiation effects; Shift registers; Testing; CMOS technology; Terrestrial soft errors; alpha particles; combinational logic; logic flip-flops; neutrons; soft errors; tecnology scaling;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Reliability Physics Symposium (IRPS), 2015 IEEE International
  • Conference_Location
    Monterey, CA
  • Type

    conf

  • DOI
    10.1109/IRPS.2015.7112731
  • Filename
    7112731