Health Physics · 2013 · 15 citations · 3 references
EngineeringEmergency PreparednessNuclear EngineeringRadiation ProtectionRadiation SafetyRisk AssessmentDeterministic Safety AnalysisNuclear Disaster ResponseNuclear Material SafeguardsNuclear Risk ReductionReactor Protection SystemsReactor SafeguardsEnvironmental Hazard MonitoringFission ReactionsNuclear Accident PreventionNuclear Facility Emergency ResponseNuclear Plant Accident ResponseNuclear Power Plant Accident ResponseStochastic EffectsStochastic Health Effects
Experience and studies show that for an emergency at a nuclear power plant involving severe core damage or damage to the fuel in spent fuel pools, the following actions may need to be taken in order to prevent severe deterministic health effects and reduce stochastic health effects: (1) precautionary protective actions and other response actions for those near the facility (i.e., within the zones identified by the International Atomic Energy Agency) taken immediately upon detection of facility conditions indicating possible severe damage to the fuel in the core or in the spent fuel pool; and (2) protective actions and other response actions taken based on environmental monitoring and sampling results following a release. This paper addresses the second item by providing default operational intervention levels [OILs, which are similar to the U.S. derived response levels (DRLs)] for promptly assessing radioactive material deposition, as well as skin, food, milk and drinking water contamination, following a major release of fission products from the core or spent fuel pool of a light water reactor (LWR) or a high power channel reactor (RBMK), based on the International Atomic Energy Agency's guidance.
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AN IMPROVED MODEL FOR PREDICTION OF RESUSPENSION
R. M. Maxwell, L.R. Anspaugh · Health Physics · 2011 · 29 citations