Advances in inhalation dosimetry models and methods for occupational risk assessment and exposure limit derivation

Kuempel, ED; Sweeney, LM; Morris, JB; Jarabek, AM

HERO ID

3223850

Reference Type

Journal Article

Year

2015

Language

English

PMID

26551218

HERO ID 3223850
In Press No
Year 2015
Title Advances in inhalation dosimetry models and methods for occupational risk assessment and exposure limit derivation
Authors Kuempel, ED; Sweeney, LM; Morris, JB; Jarabek, AM
Journal Journal of Occupational and Environmental Hygiene
Volume 12
Issue Suppl 1
Page Numbers S18-S40
Abstract The purpose of this article is to provide an overview and practical guide to occupational health professionals concerning the derivation and use of dose estimates in risk assessment for development of occupational exposure limits (OELs) for inhaled substances. Dosimetry is the study and practice of measuring or estimating the internal dose of a substance in individuals or a population. Dosimetry thus provides an essential link to understanding the relationship between an external exposure and a biological response. Use of dosimetry principles and tools can improve the accuracy of risk assessment, and reduce the uncertainty, by providing reliable estimates of the internal dose at the target tissue. This is accomplished through specific measurement data or predictive models, when available, or the use of basic dosimetry principles for broad classes of materials. Accurate dose estimation is essential not only for dose-response assessment, but also for interspecies extrapolation and for risk characterization at given exposures. Inhalation dosimetry is the focus of this paper since it is a major route of exposure in the workplace. Practical examples of dose estimation and OEL derivation are provided for inhaled gases and particulates.
Doi 10.1080/15459624.2015.1060328
Pmid 26551218
Wosid WOS:000364358700002
Is Certified Translation No
Dupe Override No
Is Public Yes
Language Text English
Keyword deposition; dosimetry models and methods; fibers; gases; inhaled particles; clearance and retention kinetics; interspecies extrapolation