Optimizing the PM2.5 Tradeoffs: The Case of Taiwan

Abstract The causes of PM2.5 is dynamic and systematic. However, many studies approach the PM2.5 problem by focusing only on either socioeconomic factors or geo-meteorological factors in isolation such data insufficiency might undermine the effort to control PM2.5. We propose a LSTM-XGBoost model co...

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Main Authors: Shihping Kevin Huang, Sin-Yao Chen, Kuei-Lan Chou, Wei Chung Hsu, Kang-Hua Lai, Tung-Hung Chueh, Lopin Kuo, William Lu
Format: Article
Language:English
Published: Springer 2022-07-01
Series:Aerosol and Air Quality Research
Subjects:
Online Access:https://doi.org/10.4209/aaqr.210315
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author Shihping Kevin Huang
Sin-Yao Chen
Kuei-Lan Chou
Wei Chung Hsu
Kang-Hua Lai
Tung-Hung Chueh
Lopin Kuo
William Lu
author_facet Shihping Kevin Huang
Sin-Yao Chen
Kuei-Lan Chou
Wei Chung Hsu
Kang-Hua Lai
Tung-Hung Chueh
Lopin Kuo
William Lu
author_sort Shihping Kevin Huang
collection DOAJ
description Abstract The causes of PM2.5 is dynamic and systematic. However, many studies approach the PM2.5 problem by focusing only on either socioeconomic factors or geo-meteorological factors in isolation such data insufficiency might undermine the effort to control PM2.5. We propose a LSTM-XGBoost model composing both socioeconomic and geo-meteorological factors together to improve the PM2.5 monitoring system. We forecast the weekly PM2.5 concentrations in five regions in Taiwan based on machine learning training data. The results indicate that overall small trucks usage should be reduced by 80% while maintaining semi-trucks and passenger cars at current level. In addition, coal and IPP Gas power have no impact on PM2.5 concentrations in central Taiwan while usage in passenger cars, small tracks and tractor trailers should be reduced by 80% in central Taiwan. Overall, central Taiwan and Chiayi regions have the highest PM2.5 projections at XGBoost output of 68.5 and 59.1 level. Finally, our model indicates that the use of fossil fuel based small tracks and tractor trailers should be reduced by 80% to maintain a reasonable level of PM2.5.
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institution Kabale University
issn 1680-8584
2071-1409
language English
publishDate 2022-07-01
publisher Springer
record_format Article
series Aerosol and Air Quality Research
spelling doaj-art-a96004f041e94d1d90c9bdc151c4f2d22025-02-09T12:18:02ZengSpringerAerosol and Air Quality Research1680-85842071-14092022-07-01221011310.4209/aaqr.210315Optimizing the PM2.5 Tradeoffs: The Case of TaiwanShihping Kevin Huang0Sin-Yao Chen1Kuei-Lan Chou2Wei Chung Hsu3Kang-Hua Lai4Tung-Hung Chueh5Lopin Kuo6William Lu7Institute of Management of Technology, National Yang Ming Chiao Tung UniversityInstitute of Management of Technology, National Yang Ming Chiao Tung UniversityGreen Energy and Environment Research Laboratories, Industrial Technology Research InstituteGreen Energy and Environment Research Laboratories, Industrial Technology Research InstituteGreen Energy and Environment Research Laboratories, Industrial Technology Research InstituteGreen Energy and Environment Research Laboratories, Industrial Technology Research InstituteTamKang UniversityInstitute of Management of Technology, National Yang Ming Chiao Tung UniversityAbstract The causes of PM2.5 is dynamic and systematic. However, many studies approach the PM2.5 problem by focusing only on either socioeconomic factors or geo-meteorological factors in isolation such data insufficiency might undermine the effort to control PM2.5. We propose a LSTM-XGBoost model composing both socioeconomic and geo-meteorological factors together to improve the PM2.5 monitoring system. We forecast the weekly PM2.5 concentrations in five regions in Taiwan based on machine learning training data. The results indicate that overall small trucks usage should be reduced by 80% while maintaining semi-trucks and passenger cars at current level. In addition, coal and IPP Gas power have no impact on PM2.5 concentrations in central Taiwan while usage in passenger cars, small tracks and tractor trailers should be reduced by 80% in central Taiwan. Overall, central Taiwan and Chiayi regions have the highest PM2.5 projections at XGBoost output of 68.5 and 59.1 level. Finally, our model indicates that the use of fossil fuel based small tracks and tractor trailers should be reduced by 80% to maintain a reasonable level of PM2.5.https://doi.org/10.4209/aaqr.210315Air pollutionMachine learningPM2.5Forecasting
spellingShingle Shihping Kevin Huang
Sin-Yao Chen
Kuei-Lan Chou
Wei Chung Hsu
Kang-Hua Lai
Tung-Hung Chueh
Lopin Kuo
William Lu
Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
Aerosol and Air Quality Research
Air pollution
Machine learning
PM2.5
Forecasting
title Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
title_full Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
title_fullStr Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
title_full_unstemmed Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
title_short Optimizing the PM2.5 Tradeoffs: The Case of Taiwan
title_sort optimizing the pm2 5 tradeoffs the case of taiwan
topic Air pollution
Machine learning
PM2.5
Forecasting
url https://doi.org/10.4209/aaqr.210315
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