A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques

Abstract Particulate Matter (PM) air pollution poses significant threats to public health. We introduce a novel machine learning methodology to predict PM2.5 levels at 30 m long segments along the roads and at a temporal scale of 10 seconds. A hybrid dataset was curated from an intensive PM campaign...

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Main Authors: Arunik Baruah, Dimitrios Bousiotis, Seny Damayanti, Alessandro Bigi, Grazia Ghermandi, O. Ghaffarpasand, Roy M. Harrison, Francis D. Pope
Format: Article
Language:English
Published: Nature Portfolio 2024-12-01
Series:npj Climate and Atmospheric Science
Online Access:https://doi.org/10.1038/s41612-024-00859-z
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author Arunik Baruah
Dimitrios Bousiotis
Seny Damayanti
Alessandro Bigi
Grazia Ghermandi
O. Ghaffarpasand
Roy M. Harrison
Francis D. Pope
author_facet Arunik Baruah
Dimitrios Bousiotis
Seny Damayanti
Alessandro Bigi
Grazia Ghermandi
O. Ghaffarpasand
Roy M. Harrison
Francis D. Pope
author_sort Arunik Baruah
collection DOAJ
description Abstract Particulate Matter (PM) air pollution poses significant threats to public health. We introduce a novel machine learning methodology to predict PM2.5 levels at 30 m long segments along the roads and at a temporal scale of 10 seconds. A hybrid dataset was curated from an intensive PM campaign in Selly Oak, Birmingham, UK, utilizing citizen scientists and low-cost instruments strategically placed in static and mobile settings. Spatially resolved proxy variables, meteorological parameters, and PM properties were integrated, enabling a fine-grained analysis of PM2.5. Calibration involved three approaches: Standard Random Forest Regression, Sensor Transferability and Road Transferability Evaluations. This methodology significantly increased spatial resolution beyond what is possible with regulatory monitoring, thereby improving exposure assessments. The findings underscore the importance of machine learning approaches and citizen science in advancing our understanding of PM pollution, with a small number of participants significantly enhancing local air quality assessment for thousands of residents.
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institution Kabale University
issn 2397-3722
language English
publishDate 2024-12-01
publisher Nature Portfolio
record_format Article
series npj Climate and Atmospheric Science
spelling doaj-art-e258f9b416f64ae58a7fe9ae40a1e71a2024-12-22T12:23:52ZengNature Portfolionpj Climate and Atmospheric Science2397-37222024-12-017111210.1038/s41612-024-00859-zA novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniquesArunik Baruah0Dimitrios Bousiotis1Seny Damayanti2Alessandro Bigi3Grazia Ghermandi4O. Ghaffarpasand5Roy M. Harrison6Francis D. Pope7Dept. of Engineering ‘Enzo Ferrari’, University of Modena and Reggio EmiliaSchool of Geography, Earth and Environmental Sciences, University of BirminghamSchool of Geography, Earth and Environmental Sciences, University of BirminghamDept. of Engineering ‘Enzo Ferrari’, University of Modena and Reggio EmiliaDept. of Engineering ‘Enzo Ferrari’, University of Modena and Reggio EmiliaSchool of Geography, Earth and Environmental Sciences, University of BirminghamSchool of Geography, Earth and Environmental Sciences, University of BirminghamSchool of Geography, Earth and Environmental Sciences, University of BirminghamAbstract Particulate Matter (PM) air pollution poses significant threats to public health. We introduce a novel machine learning methodology to predict PM2.5 levels at 30 m long segments along the roads and at a temporal scale of 10 seconds. A hybrid dataset was curated from an intensive PM campaign in Selly Oak, Birmingham, UK, utilizing citizen scientists and low-cost instruments strategically placed in static and mobile settings. Spatially resolved proxy variables, meteorological parameters, and PM properties were integrated, enabling a fine-grained analysis of PM2.5. Calibration involved three approaches: Standard Random Forest Regression, Sensor Transferability and Road Transferability Evaluations. This methodology significantly increased spatial resolution beyond what is possible with regulatory monitoring, thereby improving exposure assessments. The findings underscore the importance of machine learning approaches and citizen science in advancing our understanding of PM pollution, with a small number of participants significantly enhancing local air quality assessment for thousands of residents.https://doi.org/10.1038/s41612-024-00859-z
spellingShingle Arunik Baruah
Dimitrios Bousiotis
Seny Damayanti
Alessandro Bigi
Grazia Ghermandi
O. Ghaffarpasand
Roy M. Harrison
Francis D. Pope
A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
npj Climate and Atmospheric Science
title A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
title_full A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
title_fullStr A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
title_full_unstemmed A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
title_short A novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors, machine learning and citizen science techniques
title_sort novel spatiotemporal prediction approach to fill air pollution data gaps using mobile sensors machine learning and citizen science techniques
url https://doi.org/10.1038/s41612-024-00859-z
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