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Spatiotemporal variation of the carbon footprint of tobacco production from 2004 to 2017 in China

Introduction: Tobacco, as a significant cash crop in China, warrants a comprehensive investigation into the spatiotemporal dynamics of its carbon footprint in order to address greenhouse gas (GHG) emissions and foster low-carbon, environmentally friendly agricultural practices. Methods: Employing th...

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Published in:Frontiers in environmental science 2024-04, Vol.12
Main Authors: Zheng, Yu, Qin, Yanqing, Duan, Weidong, Dong, Wenshuai, Zhang, Xi, Yin, Guangting, Li, Changgen, Song, Zonghao, Xie, Liangwen, Zhan, Lei, Ti, Jinsong
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creator Zheng, Yu
Qin, Yanqing
Duan, Weidong
Dong, Wenshuai
Zhang, Xi
Yin, Guangting
Li, Changgen
Song, Zonghao
Xie, Liangwen
Zhan, Lei
Ti, Jinsong
description Introduction: Tobacco, as a significant cash crop in China, warrants a comprehensive investigation into the spatiotemporal dynamics of its carbon footprint in order to address greenhouse gas (GHG) emissions and foster low-carbon, environmentally friendly agricultural practices. Methods: Employing the life cycle assessment (LCA) methodology, this study aims to scrutinize the temporal variations in the carbon footprint across different functional units of tobacco production in China from 2004 to 2017, thereby elucidating its composition and key influencing factors. Results and Discussion: The findings reveal that the average carbon footprint per unit area and per unit yield of tobacco production in China during the aforementioned period amounted to 4,098.99 kg CO 2 -eq∙ha −1 and 1.97 kg CO 2 -eq∙kg −1 , respectively, exhibiting an upward trend over time. Notably, fertilizer and agricultural films emerged as the primary sources of greenhouse gas emissions in Chinese tobacco production, accounting for 26.63% and 24.54% of the total emissions, respectively. Remarkably divergent carbon footprints were observed among various provinces in China. Specifically, Jiangxi, Hunan, and Guangdong exhibited the highest carbon footprints per unit area, with values of 4,908.65 kg CO 2 -eq∙ha −1 , 4,852.90 kg CO 2 -eq∙ha −1 and 4,833.56 kg CO 2 -eq∙ha −1 , respectively. Likewise, Jiangxi, Fujian, and Yunnan recorded the highest carbon footprints per unit yield, reaching 2.31 kg CO 2 -eq∙kg −1 , 2.23 kg CO 2 -eq∙kg −1 and 2.22 kg CO 2 -eq∙kg -1 , respectively. Conversely, Inner Mongolia, Hebei, Jilin, and Heilongjiang exhibited lower carbon footprints per unit area, namely, 3,952.06 kg CO 2 -eq∙ha −1 , 3,751.08 kg CO 2 -eq∙ha −1 , 2,935.81 kg CO 2 -eq∙ha −1 , 3,264.83 kg CO 2 -eq∙ha −1 and 2,830.92 kg CO 2 -eq∙ha −1 , respectively. Moreover, these regions displayed both high yield and productivity. This investigation highlights the significance of implementing measures such as scientific fertilization, reducing agricultural film usage, and expediting the mechanization process of tobacco cultivation to foster the development of an environmentally sustainable tobacco industry in China.
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Specifically, Jiangxi, Hunan, and Guangdong exhibited the highest carbon footprints per unit area, with values of 4,908.65 kg CO 2 -eq∙ha −1 , 4,852.90 kg CO 2 -eq∙ha −1 and 4,833.56 kg CO 2 -eq∙ha −1 , respectively. Likewise, Jiangxi, Fujian, and Yunnan recorded the highest carbon footprints per unit yield, reaching 2.31 kg CO 2 -eq∙kg −1 , 2.23 kg CO 2 -eq∙kg −1 and 2.22 kg CO 2 -eq∙kg -1 , respectively. Conversely, Inner Mongolia, Hebei, Jilin, and Heilongjiang exhibited lower carbon footprints per unit area, namely, 3,952.06 kg CO 2 -eq∙ha −1 , 3,751.08 kg CO 2 -eq∙ha −1 , 2,935.81 kg CO 2 -eq∙ha −1 , 3,264.83 kg CO 2 -eq∙ha −1 and 2,830.92 kg CO 2 -eq∙ha −1 , respectively. Moreover, these regions displayed both high yield and productivity. This investigation highlights the significance of implementing measures such as scientific fertilization, reducing agricultural film usage, and expediting the mechanization process of tobacco cultivation to foster the development of an environmentally sustainable tobacco industry in China.</description><identifier>ISSN: 2296-665X</identifier><identifier>EISSN: 2296-665X</identifier><identifier>DOI: 10.3389/fenvs.2024.1331530</identifier><language>eng</language><publisher>Lausanne: Frontiers Research Foundation</publisher><subject>Agricultural practices ; Agricultural production ; Agriculture ; Biological fertilization ; Carbon dioxide ; Carbon footprint ; Cash crops ; Climate change ; emission reduction ; Emissions ; Farm buildings ; Fertilization ; Fertilizers ; Footprint analysis ; global warming ; Greenhouse gases ; Life cycle analysis ; Life cycle assessment ; Life cycles ; Mechanization ; Sustainable development ; Temporal variations ; Tobacco ; Tobacco industry</subject><ispartof>Frontiers in environmental science, 2024-04, Vol.12</ispartof><rights>2024. 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Methods: Employing the life cycle assessment (LCA) methodology, this study aims to scrutinize the temporal variations in the carbon footprint across different functional units of tobacco production in China from 2004 to 2017, thereby elucidating its composition and key influencing factors. Results and Discussion: The findings reveal that the average carbon footprint per unit area and per unit yield of tobacco production in China during the aforementioned period amounted to 4,098.99 kg CO 2 -eq∙ha −1 and 1.97 kg CO 2 -eq∙kg −1 , respectively, exhibiting an upward trend over time. Notably, fertilizer and agricultural films emerged as the primary sources of greenhouse gas emissions in Chinese tobacco production, accounting for 26.63% and 24.54% of the total emissions, respectively. Remarkably divergent carbon footprints were observed among various provinces in China. Specifically, Jiangxi, Hunan, and Guangdong exhibited the highest carbon footprints per unit area, with values of 4,908.65 kg CO 2 -eq∙ha −1 , 4,852.90 kg CO 2 -eq∙ha −1 and 4,833.56 kg CO 2 -eq∙ha −1 , respectively. Likewise, Jiangxi, Fujian, and Yunnan recorded the highest carbon footprints per unit yield, reaching 2.31 kg CO 2 -eq∙kg −1 , 2.23 kg CO 2 -eq∙kg −1 and 2.22 kg CO 2 -eq∙kg -1 , respectively. Conversely, Inner Mongolia, Hebei, Jilin, and Heilongjiang exhibited lower carbon footprints per unit area, namely, 3,952.06 kg CO 2 -eq∙ha −1 , 3,751.08 kg CO 2 -eq∙ha −1 , 2,935.81 kg CO 2 -eq∙ha −1 , 3,264.83 kg CO 2 -eq∙ha −1 and 2,830.92 kg CO 2 -eq∙ha −1 , respectively. Moreover, these regions displayed both high yield and productivity. This investigation highlights the significance of implementing measures such as scientific fertilization, reducing agricultural film usage, and expediting the mechanization process of tobacco cultivation to foster the development of an environmentally sustainable tobacco industry in China.</abstract><cop>Lausanne</cop><pub>Frontiers Research Foundation</pub><doi>10.3389/fenvs.2024.1331530</doi><oa>free_for_read</oa></addata></record>
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subjects Agricultural practices
Agricultural production
Agriculture
Biological fertilization
Carbon dioxide
Carbon footprint
Cash crops
Climate change
emission reduction
Emissions
Farm buildings
Fertilization
Fertilizers
Footprint analysis
global warming
Greenhouse gases
Life cycle analysis
Life cycle assessment
Life cycles
Mechanization
Sustainable development
Temporal variations
Tobacco
Tobacco industry
title Spatiotemporal variation of the carbon footprint of tobacco production from 2004 to 2017 in China
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