Intelligent High-Frequency Pulse Control for Ultra-Low Emission Electrostatic Precipitation
DOI:
https://doi.org/10.54097/dc97n594Keywords:
Smoke precipitator, optimize, High frequency pulse power supply.Abstract
With the upgrading of environmental protection standards, traditional electrostatic precipitator technology faces bottlenecks such as high energy consumption and low fine particle capture efficiency due to insufficient high-frequency voltage regulation and limited pulse voltage application. In response to challenges such as unclear application scenarios of high-frequency voltage and pulse voltage, insufficient response of multivariable collaborative control, and weak generalization ability of intelligent algorithms, studies have shown that high-frequency voltage technology combined with resonant soft switching can reduce energy consumption by 90%, reduce smoke emissions by 70%, increase PM2.5 capture efficiency by 20%~35%, and increase corona threshold voltage by 40%~60%. The intelligent control solution reduces comprehensive energy consumption by more than 40%, and the PM2.5 emission concentration is stabilized below 5mg/m³. This study innovatively integrates high-frequency voltage dynamic regulation and pulse voltage transient enhancement technology, combined with AI algorithm optimization, to provide an efficient and energy-saving technical path for ultra-low industrial flue gas emissions. It has both theoretical value and practical engineering significance, and helps the green transformation under the "dual carbon" goal.
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[1] Zheng Yan. Research and Application of High-Frequency Power Supply in Electrostatic Precipitators of Thermal Power Plants [D]. China University of Mining and Technology, 2019.
[2] He Chao. Development of High-Frequency High-Voltage Power Supply for Electrostatic Precipitators Based on Resonant Soft-Switching Technology [D]. Dalian University of Technology, 2014.
[3] Wu Xiaofei, Wang Qunfeng. Application of High-Frequency Energy-Saving DC Power Supply Technology in Electrostatic Precipitators [C]// China Electromechanical Integration Technology Application Association. Proceedings of the 6th National Petroleum and Chemical Electrical Design and Application Paper Competition. PetroChina Lanzhou Petrochemical Company, 2023: 151 - 156. DOI: 10.26914/c.cnkihy.2023.003567.
[4] Chen Duo. Research and Application of High-Frequency Power Supply in Electrostatic Precipitators of Thermal Power Plants [D]. South China University of Technology, 2013.
[5] Gui Bin. Design of Pulse Power Supply Control System for Electrostatic Precipitators [D]. Jiangsu University of Science and Technology, 2019. DOI: 10.27171/d.cnki.ghdcc.2019.000036. Fangfang. Research on power load forecasting based on Improved BP neural network. Harbin Institute of Technology, 2011.
[6] Pan Yun, Liu Xingchen. Discussion on High-Voltage Pulse Power Supply Technology for Electrostatic Precipitators [J]. Electric Power Technology and Environmental Protection, 2016, 32 (04): 35 - 37.
[7] Zhao Zhigang. Research on High-Voltage Pulse Dust Removal Power Supply and Its Control System [D]. Southeast University, 2020. DOI: 10.27014/d.cnki.gdnau.2020.002113.
[8] Xiao Huihai, Dong Bingyan, Hao Xiaofei, et al. Comparative Study on the Performance of Cyclone Electrostatic Precipitators under Pulse and DC Power Supply [J]. China Mining Magazine, 2006, (05): 67 - 69.
[9] Xiong Zhengming, Li Jiwu, Cai Weijian, et al. Study on the Influence of Power Supply Methods on the Dust Removal Performance of Electrostatic Cyclone Precipitators [J]. Journal of Zhongyuan University of Technology, 2003, (S1): 62 - 64.
[10] Yang Zhiyu, Zhang Yugang, Chang Qingsong, et al. Research on Energy-Saving Technology for Intelligent Control of Electrostatic Precipitators in Thermal Power Plants [C]// Jilin Provincial Society of Electrical Engineering. Proceedings of the 2024 Academic Annual Conference of Jilin Provincial Society of Electrical Engineering. Huaneng Jilin Power Generation Co., Ltd. Jiutai Power Plant; Huaneng Jilin Power Generation Co., Ltd., 2024: 487 - 493. DOI: 10.26914/c.cnkihy.2024.033710.
[11] Lan Ziming. Research on the Application of Electrical Automatic Control Technology in Electrostatic Precipitators [J]. Energy and Energy Conservation, 2024, (12): 270 - 272. DOI: 10.16643/j.cnki.14-1360/td.2024.12.103.
[12] Zhai Youpeng. Operational Optimization Measures for Electrostatic Precipitator Systems [J]. Applications of IC, 2022, 39 (07): 304 - 306. DOI: 10.19339/j.issn.1674 - 2583.2022.07.130.
[13] Bai Yun. Application and Optimization of the Intelligent Energy Management System for the Electrostatic Precipitator in Unit 1 of Yuheng Hengshan Power Plant [J]. China Plant Engineering, 2025, (01): 40 - 42.
[14] Hao Jianhong, Ma Yongguang. Optimization of Energy-Saving Control Strategies for Electrostatic Precipitators [J]. North China Electric Power Technology, 2010, (01): 1 - 4. DOI: 10.16308/j.cnki.issn1003 - 9171.2010.01.001.
[15] Tao Xin, Fu Yao, Su Zhigang, et al. Prediction of Outlet Dust Concentration and Optimization of Control Parameters for Dry Electrostatic Precipitators in Coal-Fired Units [J]. Energy Research and Utilization, 2022, (06): 8 - 12+22. DOI: 10.16404/j.cnki.issn1001-5523.2022.06.011.
[16] Xue Junying, Jian Dong, Gu Jiangqi, et al. Design and Application Research of Energy-Saving Optimization Control System for Dry Electrostatic Precipitators in Thermal Power Units [J]. Energy Research and Utilization, 2024, (01): 8 - 12. DOI: 10.16404/j.cnki.issn1001-5523.2024.01.002.
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