Air pollution impact of thermal power industry in Shandong Province under carbon peak and carbon neutrality scenario
WANG Sheng1, ZHOU Bin2, QU Jia-Bao3, LI Jian-Hui4, YU Li-Zhao4, WU Xin5, YANG Ying4, XU Xin4, BO Xin4
1. State Key Laboratory of Low-carbon Smart Coal-fired Power Generation and Ultra-clean Emission, China Energy Science and Technology Research Institute Co., Ltd., Nanjing 210023, China; 2. Artificial Intelligence applied Technology Research Center, National Institute of Clean-and-Low-Carbon Energy, Beijing 102211, China; 3. State Environmental Protection Key Laboratory of Numerical Modeling for Environment Impact Assessment, Ministry of Ecology and Environment, Beijing 100012, China; 4. Department of Environmental Science and Engineering, Beijing University of Chemical Technology, Beijing 100029, China; 5. Linyi People's Hospital, Linyi 276000, China
摘要 This study took Shandong Province, a major province of thermal power generation, as an example, calculated the emissions of atmospheric pollutants from thermal power under the scenario of carbon peaking and carbon neutrality, and adopted the CALPUFF model to simulate the contribution of SO2, NOx, PM10,and PM2.5 pollution from the thermal power industry in Shandong under different scenarios. The results show that under the carbon peak scenario, the emissions of SO2, NOx, PM10,and PM2.5 in the Shandong thermal power industry decreased by 2483.42, 23448.71, 364.31, and 341.01t, respectively, compared with the baseline scenario in 2018. The contribution concentration of thermal power to SO2, NOx, PM10,and PM2.5 in each city decreased by 0.22%~26.61%, 0.66%~51.21%, 0.63%~23.82%, and 4.36%~24.38%, respectively, compared with the baseline scenario concentration in 2018. Under the carbon neutral scenario, SO2, NOx, PM10,and PM2.5 in the thermal power industry in Shandong Province SO2, NOx, PM10,and PM2.5 emissions decreased by 10947.71, 44358.58, 1606.00, 1503.29t, respectively, compared with the 2018 base scenario. The contribution concentration of thermal power to SO2, NOx, PM10, and PM2.5 in each city decreased by 22.66%~44.14%, 7.10%~54.37%, 23.08%~42.02%, and 27.20%~42.44%, respectively, compared with the baseline scenario concentration in 2018. Under the scenario of carbon peak and carbon neutrality, thermal power generation is still the "ballast stone" for energy security and stable supply in Shandong Province, and the collaborative control of pollution reduction and carbon reduction is crucial for Shandong thermal power industry.
Abstract:This study took Shandong Province, a major province of thermal power generation, as an example, calculated the emissions of atmospheric pollutants from thermal power under the scenario of carbon peaking and carbon neutrality, and adopted the CALPUFF model to simulate the contribution of SO2, NOx, PM10,and PM2.5 pollution from the thermal power industry in Shandong under different scenarios. The results show that under the carbon peak scenario, the emissions of SO2, NOx, PM10,and PM2.5 in the Shandong thermal power industry decreased by 2483.42, 23448.71, 364.31, and 341.01t, respectively, compared with the baseline scenario in 2018. The contribution concentration of thermal power to SO2, NOx, PM10,and PM2.5 in each city decreased by 0.22%~26.61%, 0.66%~51.21%, 0.63%~23.82%, and 4.36%~24.38%, respectively, compared with the baseline scenario concentration in 2018. Under the carbon neutral scenario, SO2, NOx, PM10,and PM2.5 in the thermal power industry in Shandong Province SO2, NOx, PM10,and PM2.5 emissions decreased by 10947.71, 44358.58, 1606.00, 1503.29t, respectively, compared with the 2018 base scenario. The contribution concentration of thermal power to SO2, NOx, PM10, and PM2.5 in each city decreased by 22.66%~44.14%, 7.10%~54.37%, 23.08%~42.02%, and 27.20%~42.44%, respectively, compared with the baseline scenario concentration in 2018. Under the scenario of carbon peak and carbon neutrality, thermal power generation is still the "ballast stone" for energy security and stable supply in Shandong Province, and the collaborative control of pollution reduction and carbon reduction is crucial for Shandong thermal power industry.
王圣, 周斌, 屈加豹, 李建晖, 余历钊, 吴鑫, 杨迎, 徐鑫, 伯鑫. 双碳情景下山东省火电行业大气污染影响[J]. 中国环境科学, 2024, 44(11): 5990-5998.
WANG Sheng, ZHOU Bin, QU Jia-Bao, LI Jian-Hui, YU Li-Zhao, WU Xin, YANG Ying, XU Xin, BO Xin. Air pollution impact of thermal power industry in Shandong Province under carbon peak and carbon neutrality scenario. CHINA ENVIRONMENTAL SCIENCECE, 2024, 44(11): 5990-5998.
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