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Machine Learning for Urban Air Quality Analytics: A Survey

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arxiv 2310.09620 v1 pith:ZDYWS2NN submitted 2023-10-14 cs.LG

Machine Learning for Urban Air Quality Analytics: A Survey

classification cs.LG
keywords qualitypollutionanalyticallearningresearchsurveyvariousanalytics
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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The increasing air pollution poses an urgent global concern with far-reaching consequences, such as premature mortality and reduced crop yield, which significantly impact various aspects of our daily lives. Accurate and timely analysis of air pollution is crucial for understanding its underlying mechanisms and implementing necessary precautions to mitigate potential socio-economic losses. Traditional analytical methodologies, such as atmospheric modeling, heavily rely on domain expertise and often make simplified assumptions that may not be applicable to complex air pollution problems. In contrast, Machine Learning (ML) models are able to capture the intrinsic physical and chemical rules by automatically learning from a large amount of historical observational data, showing great promise in various air quality analytical tasks. In this article, we present a comprehensive survey of ML-based air quality analytics, following a roadmap spanning from data acquisition to pre-processing, and encompassing various analytical tasks such as pollution pattern mining, air quality inference, and forecasting. Moreover, we offer a systematic categorization and summary of existing methodologies and applications, while also providing a list of publicly available air quality datasets to ease the research in this direction. Finally, we identify several promising future research directions. This survey can serve as a valuable resource for professionals seeking suitable solutions for their specific challenges and advancing their research at the cutting edge.

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Cited by 2 Pith papers

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    LSTM with time-lagged features and harmonic encodings calibrates low-cost sensors to higher R2 and regulatory-compliant uncertainties of 9.1-22.11% for three pollutants.

  2. Interpretable Machine Learning for Air Pollution and Respiratory Health Prediction: A Socioeconomic Subgroup Analysis

    cs.LG 2026-07 conditional novelty 2.0

    On a synthetic country-level climate-health dataset, PM2.5 is the dominant predictor of respiratory disease rate and AQI-derived air quality, and removing it sharply lowers classification accuracy.