Calculation Method and Application of Methane Life Cycle Emission Reduction in Coal Mine
DOI:
https://doi.org/10.62051/ijnres.v8n1.02Keywords:
Full Life Cycle; Coal Mine Methane; Emission Accounting Method; Well Mining; Abandoned Mine.Abstract
The second largest greenhouse gas, methane (CH4), is mainly emitted from the coal industry. In order to propose targeted emission reduction measures, it is urgent to establish a refined emission accounting method. Based on the whole life cycle theory and carbon emission characteristics of coal mines, the mining and mining mines are divided into four stages: geological exploration, coal mining, post-mining activities and abandoned mines. The “IPC-2019 Guidelines” and “GB/T 32151.11-2018” established a method for accounting methane emissions during the whole life cycle of Jingong coal mines. Taking the methane emission of Fangzhuang Coal Mine in Jiaozuo, Henan Province from 2010 to 2017 as an example, it is calculated that the methane emission of coal mining stage in the whole life cycle accounts for about 80%, which is consistent with the historical methane emission law of coal mines in China revealed by the evaluation results based on T3 method. The establishment of this method can provide a theoretical basis for proposing effective measures to reduce methane emission and greenhouse effect in coal mines.
References
[1] LI Shanshan, YUAN Liang. Carbon emission accounting and influencing factors for whole life cycle of coal industry [J]. Journal of China Coal Society,2023,48(07):2925-2935.
[2] WANG Li, HE Sheng, ZHANG Yang-yang, et al. Research on Greenhouse Gas Emission Accounting of Underground Coal Mining Enterprises[J]. China Environmental Protection Industry, 2022,(11):60-65.
[3] IPCC A. IPCC fifth assessment report—synthesis report[J]. IPPC Rome, Italy,2014.
[4] LIU Hong, ZHAO Meilin, XUE Wenlin, et al. Methane emissions and utilization in coal mines under the background of climate change[J]. Coal Economic Research,2021,41(12):41-45.
[5] LI Xuewu, ZHANG Wei, LI Yue, et al. CMM utilization and emission reduction based on gush factor analysis[J]. Journal of China Coal Society,2014,39(S2):390-396.
[6] Gao J, Guan C H, Zhang B. China's CH4 emissions from coal mining: A review of current bottom-up inventories[J]. Science of the total environment,2020,725:138295.
[7] Shen L, Gautam R, Omara M, et al. Satellite quantification of oil and natural gas methane emissions in the US and Canada including contributions from individual basins[J].Atmospheric Chemistry and Physics,2022, 22(17):11203-11215.
[8] WANG Xiaolin, JI Changsheng, ZHANG Zhenfang, et al. Analysis on the Composition of Carbon Emission Sources in Coal Mining Areas Based on Carbon Footprint[J]. Safety in Coal Mines,2012,43(04):169-172.
[9] FAN Jinlu, SUN Jian, ZHAO Rao. Carbon emission and carbon flow chart for whole life cycle of China coal industry[J]. Coal Economic Research, 2017,37(9):4.
[10] CAO Yuan-guang, LIU Na. Whole life cycle carbon emission characteristics of underground coal mining [J].Coal Engineering,2023,55(1):162-167.
[11] YUAN Baiyuan, YUE Zongyao, GAO Baobin, et al. Capture accounting and emission reduction of methane in the whole life cycle of underground coal mine [J]. Journal of Mining Science and Technology,2024,9(01):11 6-125.
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