A study of the greenhouse gas emissions inventory and driving factors decomposition in Tongzhou, China

Abstract District-and county-level greenhouse gas (GHG) inventories remain insufficiently developed, limiting the formulation of targeted mitigation policies at the grassroots governance scale. Taking Tongzhou District, Beijing, as a representative rapidly urbanizing megacity sub-center, this study developed an integrated district-level GHG emissions inventory covering energy activities, agricultural production, LUCF, and waste treatment from 2018 to 2020, and applied the Logarithmic Mean Divisia Index (LMDI) method to identify sector-specific driving mechanisms. The results show that total GHG emissions excluding LUCF followed a “rise-then-decline” trajectory. Energy activities remained the dominant source, accounting for more than 94% of total emissions. The LMDI results revealed heterogeneous sectoral drivers: energy-sector changes were mainly influenced by energy intensity and emission intensity effects; agricultural emission reductions were primarily associated with African Swine Fever-induced contraction of livestock breeding; and waste-sector fluctuations were mainly driven by changes in municipal solid waste incineration, medical waste treatment, and wastewater-related emissions. These findings suggest that district-level mitigation should adopt differentiated strategies across energy, agriculture, and waste sectors.

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Publication Details

Journal
Scientific Reports
Published
2026-10-07
DOI
https://doi.org/10.1038/s41598-026-73432-8
Primary Topic
Environmental Impact and Sustainability
Type
article
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A study of the greenhouse gas emissions inventory and driving factors decomposition in Tongzhou, China

Liyao Shen, Xiaoqi Liu, Wei Wen, Shaorui Wang et al.
Scientific Reports
Environmental Impact and Sustainability
article

A study of the greenhouse gas emissions inventory and driving factors decomposition in Tongzhou, China

Liyao Shen, Xiaoqi Liu, Wei Wen, Shaorui Wang, Tao Yang, Xiaoyi Hu
article en

Abstract

Abstract District-and county-level greenhouse gas (GHG) inventories remain insufficiently developed, limiting the formulation of targeted mitigation policies at the grassroots governance scale. Taking Tongzhou District, Beijing, as a representative rapidly urbanizing megacity sub-center, this study developed an integrated district-level GHG emissions inventory covering energy activities, agricultural production, LUCF, and waste treatment from 2018 to 2020, and applied the Logarithmic Mean Divisia Index (LMDI) method to identify sector-specific driving mechanisms. The results show that total GHG emissions excluding LUCF followed a “rise-then-decline” trajectory. Energy activities remained the dominant source, accounting for more than 94% of total emissions. The LMDI results revealed heterogeneous sectoral drivers: energy-sector changes were mainly influenced by energy intensity and emission intensity effects; agricultural emission reductions were primarily associated with African Swine Fever-induced contraction of livestock breeding; and waste-sector fluctuations were mainly driven by changes in municipal solid waste incineration, medical waste treatment, and wastewater-related emissions. These findings suggest that district-level mitigation should adopt differentiated strategies across energy, agriculture, and waste sectors.

Scientific Reports
Openalex Percentile: Top 20%
Environmental Impact and Sustainability
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