• DocumentCode
    853145
  • Title

    Quantitative Safety Goals

  • Author

    Joksimovic, V. ; Houghton, W.J.

  • Author_Institution
    General Atomic Company 10955 John Jay Hopkins Dr. San Diego, California 92121
  • Volume
    28
  • Issue
    1
  • fYear
    1981
  • Firstpage
    951
  • Lastpage
    954
  • Abstract
    An extensive heritage of quantitative safety knowledge now makes it feasible to consider quantitative safety goals for nuclear power plants. Comparative risk is the foundation for some of the deliberations, but most of the discussion is based on knowledge of probabilistic risk assessment (PRA) studies. The licensing notion of design basis accidents is retained for those families of events having mean frequencies above 10-4/reactor-year with PRA being used to screen the events. The consequence limit discussed, for individual risk, is that of no identifiable public injury for design basis accidents. This approach yields a dose limit of 5 rem at 10-4/reactor-year. A limit line is derived for the individual risk having a slope of -1.3. Societal risks are measured by latent cancers which could result from accidents. For safety policies which allow balancing of risks, more latent cancers can be tolerated because of the large and variable spontaneous cancer rate from non-nuclear causes. This may become a suitable and feasible policy for the present generation of light water reactors. If, on the other hand, safety policies were to emphasize nuclear risk in an attempt to lower it, a much smaller number of latent cancers might become an appropriate goal. A future generation of nuclear power plants might make such an approach more feasible. Risks from damage to public property are considered on a first cut basis.
  • Keywords
    Accidents; Cancer; Frequency; Inductors; Injuries; Licenses; Nuclear power generation; Power generation; Risk management; Safety;
  • fLanguage
    English
  • Journal_Title
    Nuclear Science, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0018-9499
  • Type

    jour

  • DOI
    10.1109/TNS.1981.4331312
  • Filename
    4331312