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Dependence of Intake Fraction on Release Location in a Multimedia Framework

A Case Study of Four Contaminants in North America

Bibliographic Data

ID19467292
AuthorsMatthew MacLeod (0000-0003-2562-7339, Lawrence Berkeley National Laboratory, corresponding author), Deborah H Bennett (0000-0001-6698-2316, Harvard University), Merike Perem (NOAA Environmental Modeling Center), Randy L Maddalena (Lawrence Berkeley National Laboratory), Thomas E McKone (0000-0001-8931-1443, Lawrence Berkeley National Laboratory), Don Mackay (Trent University)
Year2004
Volume8
Issue3
Pages89-102
Publication date2004-07-01
Open AccessYes
TypeARTICLE
VenueJournal of Industrial Ecology (JOURNAL)
Journal identifiersISSN: 1088-1980 • E-ISSN: 1530-9290
PublisherSpringer Science and Business Media LLC (PUBLISHER)
DOI10.1162/1088198042442360
OpenAlexW1855986903
LanguageEN
Citations received2
References cited16

A defining feature of industrial ecology is the design of processes to minimize any disruption of the functioning of the natural ecosystem that supports life, including human beings. The extent of human exposure to anthropogenic contaminants in the environment is a complex function of the amount of chemical emitted, its physicochemical properties and reactivity, the nature of the environment, and the characteristics of the pathways for human exposure, such as inhalation, dermal contacts, and intake of food and water. For some chemicals, the location of emissions relative to areas of high population density or intense food production may also be an important factor. We explore the relative importance of these variables using the regionally segmented Berkeleyf‐Trent (BETR) North America contaminant fate model and data for food production patterns and population density for North America. The model is applied to fourfff contaminants emitted to air: benzene, carbon tetrachloride, benzo‐a‐pyrene, and 2,3,7,8 tetrachlorodibenzo‐pff‐dioxin. The total continental intake fraction (iF), relating exposure quantity to emission quantity, is employed as a metric for assessing population exposure to these contaminants. Results show that the use of continentally averaged parameters for population density and food production provides an accurate estimate of the median of iF calculated for emissions in individual regions; however, iF can range from this median by up to 3 orders of magnitude, especially for chemicals transferred to humans through foods. The locations of population and food production relative to sources of chemicals are important variables that should be considered when assessing the possible human health impacts of chemical emissions as in life‐cycle assessment

Biology · Ecosystem · Environmental health · Exposure assessment · Food chain · Population · Population density · Statistics · Air Quality and Health Impacts · Chemistry · Environmental Science · Indoor Air Quality and Microbial Exposure · Mathematics · Toxic Organic Pollutants Impact · Ecology · Environmental Chemistry

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    Open Access•Jingjing Huang, Yan Wang et al.•Environmental Impact Assessment…•2021

Citations per year0.1
Citation span2005 - 2021 (17)
Highly citedNo

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