Land Use Regression Models for Ultrafine Particles in Six European Areas
Technology
NUMBER CONCENTRATIONS
Environmental Sciences & Ecology
NO2
310
Partícules (Matèria)
01 natural sciences
Environmental
Engineering
Theoretical
Models
PARTICULATE MATTER
Air Pollution
MD Multidisciplinary
Anàlisi de regressió
SPATIAL VARIATION
INTERNATIONAL AIRPORT
NITROGEN-DIOXIDE
SDG 15 - Life on Land
0105 earth and related environmental sciences
Air Pollutants
Science & Technology
Engineering, Environmental
ESCAPE PROJECT
AIR-POLLUTION
Models, Theoretical
15. Life on land
Particles
PM2.5 ABSORBENCY
BLACK CARBON
Particulate Matter
Life Sciences & Biomedicine
Regression analysis
Environmental Sciences
Environmental Monitoring
DOI:
10.1021/acs.est.6b05920
Publication Date:
2017-02-28T14:09:30Z
AUTHORS (27)
ABSTRACT
Long-term ultrafine particle (UFP) exposure estimates at a fine spatial scale are needed for epidemiological studies. Land use regression (LUR) models were developed and evaluated for six European areas based on repeated 30 min monitoring following standardized protocols. In each area; Basel (Switzerland), Heraklion (Greece), Amsterdam, Maastricht, and Utrecht ("The Netherlands"), Norwich (United Kingdom), Sabadell (Spain), and Turin (Italy), 160-240 sites were monitored to develop LUR models by supervised stepwise selection of GIS predictors. For each area and all areas combined, 10 models were developed in stratified random selections of 90% of sites. UFP prediction robustness was evaluated with the intraclass correlation coefficient (ICC) at 31-50 external sites per area. Models from Basel and The Netherlands were validated against repeated 24 h outdoor measurements. Structure and model R2 of local models were similar within, but varied between areas (e.g., 38-43% Turin; 25-31% Sabadell). Robustness of predictions within areas was high (ICC 0.73-0.98). External validation R2 was 53% in Basel and 50% in The Netherlands. Combined area models were robust (ICC 0.93-1.00) and explained UFP variation almost equally well as local models. In conclusion, robust UFP LUR models could be developed on short-term monitoring, explaining around 50% of spatial variance in longer-term measurements.
SUPPLEMENTAL MATERIAL
Coming soon ....
REFERENCES (35)
CITATIONS (84)
EXTERNAL LINKS
PlumX Metrics
RECOMMENDATIONS
FAIR ASSESSMENT
Coming soon ....
JUPYTER LAB
Coming soon ....