TY - JOUR
T1 - Western european land use regression incorporating satellite- and ground-based measurements of NO2 and PM10
AU - Vienneau, Danielle
AU - De Hoogh, Kees
AU - Bechle, Matthew J.
AU - Beelen, Rob
AU - Van Donkelaar, Aaron
AU - Martin, Randall V.
AU - Millet, Dylan B.
AU - Hoek, Gerard
AU - Marshall, Julian D.
PY - 2013/12/3
Y1 - 2013/12/3
N2 - Land use regression (LUR) models typically investigate within-urban variability in air pollution. Recent improvements in data quality and availability, including satellite-derived pollutant measurements, support fine-scale LUR modeling for larger areas. Here, we describe NO2 and PM10 LUR models for Western Europe (years: 2005-2007) based on >1500 EuroAirnet monitoring sites covering background, industrial, and traffic environments. Predictor variables include land use characteristics, population density, and length of major and minor roads in zones from 0.1 km to 10 km, altitude, and distance to sea. We explore models with and without satellite-based NO2 and PM2.5 as predictor variables, and we compare two available land cover data sets (global; European). Model performance (adjusted R2) is 0.48-0.58 for NO2 and 0.22-0.50 for PM10. Inclusion of satellite data improved model performance (adjusted R2) by, on average, 0.05 for NO2 and 0.11 for PM10. Models were applied on a 100 m grid across Western Europe; to support future research, these data sets are publicly available.
AB - Land use regression (LUR) models typically investigate within-urban variability in air pollution. Recent improvements in data quality and availability, including satellite-derived pollutant measurements, support fine-scale LUR modeling for larger areas. Here, we describe NO2 and PM10 LUR models for Western Europe (years: 2005-2007) based on >1500 EuroAirnet monitoring sites covering background, industrial, and traffic environments. Predictor variables include land use characteristics, population density, and length of major and minor roads in zones from 0.1 km to 10 km, altitude, and distance to sea. We explore models with and without satellite-based NO2 and PM2.5 as predictor variables, and we compare two available land cover data sets (global; European). Model performance (adjusted R2) is 0.48-0.58 for NO2 and 0.22-0.50 for PM10. Inclusion of satellite data improved model performance (adjusted R2) by, on average, 0.05 for NO2 and 0.11 for PM10. Models were applied on a 100 m grid across Western Europe; to support future research, these data sets are publicly available.
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U2 - 10.1021/es403089q
DO - 10.1021/es403089q
M3 - Article
C2 - 24156783
AN - SCOPUS:84889853426
SN - 0013-936X
VL - 47
SP - 13555
EP - 13564
JO - Environmental Science and Technology
JF - Environmental Science and Technology
IS - 23
ER -