TURNING AIR POLLUTION MAPS INTO EPIDEMIOLOGICAL EVIDENCE: A GIS-BASED APPROACH TO INDUSTRIAL PM10 EXPOSURE
Price
Free (open access)
Transaction
Volume
266
Pages
11
Page Range
197 - 207
Published
2026
Paper DOI
10.2495/AIR260161
Copyright
Author(s)
ALESSANDRA CHIAPPINI, SIMONE VIRGILI, MARTINA TOMMASI, MARCO BALDINI, GIORGIO PASSERINI
Abstract
Air pollution research increasingly requires interdisciplinary approaches capable of connecting environmental modelling, geospatial analysis and public health needs. This study explores the application of a GIS-based air pollution mapping framework to support exposure-oriented planning in an industrial area, with specific reference to the municipality of Falconara Marittima, Italy. The case study addresses PM10 emissions associated with a petrochemical plant in a context where environmental authorities and public health stakeholders are interested in improving the spatial characterization of population exposure. The work builds on a geospatial workflow originally developed for air-quality mapping and adapts it to a health-oriented application. Site-specific atmospheric dispersion outputs were integrated within a GIS environment and combined with ancillary spatial layers, including land use, residential areas and georeferenced population data derived from the regional healthcare registry. This multilayer approach enabled the transformation of modelled concentration fields into spatial information suitable for distinguishing areas potentially affected by industrial emissions from areas mainly representative of background conditions. Rather than providing a full epidemiological assessment, the study focuses on the operational role of geospatial analysis in supporting the design of subsequent human biomonitoring activities. Modelled PM10 concentration patterns were processed through spatial interpolation, iso-concentration mapping and criterion-based refinement of the exposure domain, allowing residential receptors to be interpreted in relation to the industrial emission footprint. The application demonstrates how GIS-based exposure mapping can act as an interface between atmospheric dispersion modelling and public-health-oriented study design. By translating environmental model outputs into spatially explicit exposure zones, the approach supports the identification of potentially exposed and control populations and locations while preserving flexibility for further methodological development.
Keywords
GeoHealth, exposure mapping, industrial PM10, public health risk and monitoring, GIS





