Published 1998 | Version v1
Journal article

Development and use of biokinetic models for incorporated radionuclides (invited paper)

Creators

Description

Biokinetic models play a central role in the dosimetry of internally deposited radionuclides. The modelling approach presented in ICRP Publication 2 used single exponential retention curves to calculate doses to possible target or critical organs. In ICRP Publication 30, major advances were made in the amount of detail and the accuracy of the models used to quantify the distribution, retention, and dosimetry of radionuclides in groups of tissues and organs containing the highest concentrations and receiving the highest radiation dose rates. A key advantage of the ICRP 30 approach was the ability to calculate and account for the dose received by all the highest exposed organs and tissues, not just a critical organ. A number of models published by the ICRP since the ICRP 30 series have striven for additional physiological realism. The structures of these models make it possible to incorporate a broad range of physiological information and to adjust specific parameters as a function of age. In this way, the use of these models has been extended from occupational exposures to environmental exposures of people of different ages. This move to increased physiological realism mirrors the changes that have occurred or will soon occur in other ICRP dosimetry models. (author)

Availability note (English)

Available online at http://ntp.org.uk/

Additional details

Identifiers

Publishing Information

Journal Title
Radiation Protection Dosimetry
Journal Volume
79
Journal Issue
1-4
Journal Page Range
p. 223-228
ISSN
0144-8420
CODEN
RPDODE

Conference

Title
occupational and public exposure
Acronym
Workshop on intakes of radionuclides
Dates
15-18 Sep 1997
Place
Avignon (France)

INIS

Country of Publication
United Kingdom
Country of Input or Organization
South Africa
INIS RN
31063475
Subject category
S63: RADIATION, THERMAL, AND OTHER ENVIRONMENTAL POLLUTANT EFFECTS ON LIVING ORGANISMS AND BIOLOGICAL MATERIALS;
Resource subtype / Literary indicator
Conference
Descriptors DEI
RADIOISOTOPES; RADIONUCLIDE KINETICS; SIMULATION; URANIUM ISOTOPES
Descriptors DEC
ISOTOPES; KINETICS