Name: Emergency Preparedness Significance Quantification Process: Proof of Concept (en Inglés)
Price: 122873.00 COP
Availability: InStock
Author: Commission, U. S. Nuclear Regulatory
ISBN: 9781499649000

portada Emergency Preparedness Significance Quantification Process: Proof of Concept (en Inglés)

Formato

Libro Físico

Editorial

Createspace Independent Publishing Platform

Autor

Commission, U. S. Nuclear Regulatory

Idioma

Inglés

N° páginas

146

Encuadernación

Tapa Blanda

Dimensiones

28.0 x 21.6 x 0.8 cm

Peso

0.35 kg.

ISBN13

9781499649000

Categorías

Ciencias matemáticas

Emergency Preparedness Significance Quantification Process: Proof of Concept (en Inglés)

Commission, U. S. Nuclear Regulatory (Autor) · Createspace Independent Publishing Platform · Tapa Blanda

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Reseña del libro "Emergency Preparedness Significance Quantification Process: Proof of Concept (en Inglés)"

In an ongoing effort to increase effectiveness and efficiency through improved prioritization of regulatory activities, a decision process has been developed to aid in the determination of risk significance of Emergency Preparedness (EP) program elements. The DedUctive Quantification Index (DUQI) method was developed and used in a proof of concept application for two representative nuclear power plant sites. The results show the cumulative population dose is reduced through implementation of a formal EP program compared to conditions in which an emergency response would be implemented in an ad hoc manner. Dose was shown to be consistently lower for all analyses. The DUQI method was also applied to determine risk significance of specific EP elements. Analyses included a response where sirens are assumed not operable in the 2-5 mile area around the nuclear power plant, and for a delay in notification to offsite response organizations. Detailed consequence analysis modeling was performed using site specific information. The process used information from historical studies, such as NUREG-1150 combined with current knowledge. Data for specific sites was used in selected areas to increase the credibility of the product, but the results are not applicable to any specific site. Improvements were made to the modeling approach by simulating evacuee road loading in greater detail than previous studies. The 95th percentile cumulative population dose results were produced and used to support the study conclusions.