Toward the Next Generation of Air Quality Monitoring: Persistent Organic Pollutants

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Toward the Next Generation of Air Quality Monitoring : Persistent Organic Pollutants. / Hung, Hayley; MacLeod, Matthew; Guardans, Ramon et al.

In: Atmospheric Environment, Vol. 80, 01.12.2013, p. 591-598.

Research output: Journal contributionsJournal articlesResearchpeer-review

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Hung H, MacLeod M, Guardans R, Scheringer M, Barra R, Harner T et al. Toward the Next Generation of Air Quality Monitoring: Persistent Organic Pollutants. Atmospheric Environment. 2013 Dec 1;80:591-598. doi: 10.1016/j.atmosenv.2013.05.067

Bibtex

@article{9d588f1a0d7a4a1e90ddab983a22aeab,
title = "Toward the Next Generation of Air Quality Monitoring: Persistent Organic Pollutants",
abstract = "Persistent Organic Pollutants (POPs) are global pollutants that can migrate over long distances and bioaccumulate through food webs, posing health risks to wildlife and humans. Multilateral environmental agreements, such as the Stockholm Convention on POPs, were enacted to identify POPs and establish the conditions to control their release, production and use. A Global Monitoring Plan was initiated under the Stockholm Convention calling for POP monitoring in air as a core medium; however long temporal trends (>10 years) of atmospheric POPs are only available at a few selected sites. Spatial coverage of air monitoring for POPs has recently significantly improved with the introduction and advancement of passive air samplers. Here, we review the status of air monitoring and modeling activities and note major uncertainties in data comparability, deficiencies of air monitoring and modeling in urban and alpine areas, and lack of emission inventories for most POPs. A vision for an internationally-integrated strategic monitoring plan is proposed which could provide consistent and comparable monitoring data for POPs supported and supplemented by global and regional transport models. Key recommendations include developing expertise in all aspects of air monitoring to ensure data comparability and consistency; partnering with existing air quality and meteorological networks to leverage synergies; facilitating data sharing with international data archives; and expanding spatial coverage with passive air samplers. Enhancing research on the stability of particle-bound chemicals is needed to assess exposure and deposition in urban areas, and to elucidate long-range transport. Conducting targeted measurement campaigns in specific source areas would enhance regional models which can be extrapolated to similar regions to estimate emissions. Ultimately, reverse-modeling combined with air measurements can be used to derive “emission” as an indicator to assess environmental performance with respect to POPs on the country, region, or global level.",
keywords = "Chemistry, air monitoring, Persistent Organic Pollutants, Transport and environmental fate models, Emission inventory, Environmental Performance",
author = "Hayley Hung and Matthew MacLeod and Ramon Guardans and Martin Scheringer and Ricardo Barra and Tom Harner and Gan Zhang",
year = "2013",
month = dec,
day = "1",
doi = "10.1016/j.atmosenv.2013.05.067",
language = "English",
volume = "80",
pages = "591--598",
journal = "Atmospheric Environment",
issn = "1352-2310",
publisher = "Elsevier Ltd",

}

RIS

TY - JOUR

T1 - Toward the Next Generation of Air Quality Monitoring

T2 - Persistent Organic Pollutants

AU - Hung, Hayley

AU - MacLeod, Matthew

AU - Guardans, Ramon

AU - Scheringer, Martin

AU - Barra, Ricardo

AU - Harner, Tom

AU - Zhang, Gan

PY - 2013/12/1

Y1 - 2013/12/1

N2 - Persistent Organic Pollutants (POPs) are global pollutants that can migrate over long distances and bioaccumulate through food webs, posing health risks to wildlife and humans. Multilateral environmental agreements, such as the Stockholm Convention on POPs, were enacted to identify POPs and establish the conditions to control their release, production and use. A Global Monitoring Plan was initiated under the Stockholm Convention calling for POP monitoring in air as a core medium; however long temporal trends (>10 years) of atmospheric POPs are only available at a few selected sites. Spatial coverage of air monitoring for POPs has recently significantly improved with the introduction and advancement of passive air samplers. Here, we review the status of air monitoring and modeling activities and note major uncertainties in data comparability, deficiencies of air monitoring and modeling in urban and alpine areas, and lack of emission inventories for most POPs. A vision for an internationally-integrated strategic monitoring plan is proposed which could provide consistent and comparable monitoring data for POPs supported and supplemented by global and regional transport models. Key recommendations include developing expertise in all aspects of air monitoring to ensure data comparability and consistency; partnering with existing air quality and meteorological networks to leverage synergies; facilitating data sharing with international data archives; and expanding spatial coverage with passive air samplers. Enhancing research on the stability of particle-bound chemicals is needed to assess exposure and deposition in urban areas, and to elucidate long-range transport. Conducting targeted measurement campaigns in specific source areas would enhance regional models which can be extrapolated to similar regions to estimate emissions. Ultimately, reverse-modeling combined with air measurements can be used to derive “emission” as an indicator to assess environmental performance with respect to POPs on the country, region, or global level.

AB - Persistent Organic Pollutants (POPs) are global pollutants that can migrate over long distances and bioaccumulate through food webs, posing health risks to wildlife and humans. Multilateral environmental agreements, such as the Stockholm Convention on POPs, were enacted to identify POPs and establish the conditions to control their release, production and use. A Global Monitoring Plan was initiated under the Stockholm Convention calling for POP monitoring in air as a core medium; however long temporal trends (>10 years) of atmospheric POPs are only available at a few selected sites. Spatial coverage of air monitoring for POPs has recently significantly improved with the introduction and advancement of passive air samplers. Here, we review the status of air monitoring and modeling activities and note major uncertainties in data comparability, deficiencies of air monitoring and modeling in urban and alpine areas, and lack of emission inventories for most POPs. A vision for an internationally-integrated strategic monitoring plan is proposed which could provide consistent and comparable monitoring data for POPs supported and supplemented by global and regional transport models. Key recommendations include developing expertise in all aspects of air monitoring to ensure data comparability and consistency; partnering with existing air quality and meteorological networks to leverage synergies; facilitating data sharing with international data archives; and expanding spatial coverage with passive air samplers. Enhancing research on the stability of particle-bound chemicals is needed to assess exposure and deposition in urban areas, and to elucidate long-range transport. Conducting targeted measurement campaigns in specific source areas would enhance regional models which can be extrapolated to similar regions to estimate emissions. Ultimately, reverse-modeling combined with air measurements can be used to derive “emission” as an indicator to assess environmental performance with respect to POPs on the country, region, or global level.

KW - Chemistry

KW - air monitoring

KW - Persistent Organic Pollutants

KW - Transport and environmental fate models

KW - Emission inventory

KW - Environmental Performance

UR - http://www.scopus.com/inward/record.url?scp=84885172662&partnerID=8YFLogxK

UR - https://www.mendeley.com/catalogue/1ff52a7b-1a03-3376-8e8e-e80fff3e6d26/

U2 - 10.1016/j.atmosenv.2013.05.067

DO - 10.1016/j.atmosenv.2013.05.067

M3 - Journal articles

VL - 80

SP - 591

EP - 598

JO - Atmospheric Environment

JF - Atmospheric Environment

SN - 1352-2310

ER -