登录
注册
E-alert
登录
注册
E-alert
Exploration and practice of energy conservation and consumption reduction in an underground wastewater treatment plant in Zhengzhou
-
摘要: “双碳”背景下，地埋式污水处理厂如何根据自身特点加强工艺创新与科学调控，最大程度利用现有条件实现节能降耗，是污水处理行业亟需探讨的问题。郑州市某地埋式污水处理厂通过梳理厂区主要用电构成和大功率用电设备的运行模式，利用精准曝气、设备运行模式优化和技术创新，成功将该污水厂的年均单位污水处理耗电量由0.416 kW·h/m3降至0.340 kW·h/m 3 ，下降18.27%；其中，气水比、鼓风机吨水单耗、进水泵年吨水耗电量和通风风机与照明设施的年耗电量下降明显，下降幅度均在5%以上，节能降耗效果显著，生产运行能力达到部分地区城镇污水处理能耗消耗先进水平，能够为同类型污水处理厂低碳运行提供实际参考。Abstract: Against the backdrop of the “dual carbon” goals， exploring how underground wastewater treatment plants can enhance process innovation and scientific regulation based on their own characteristics， and maximize the use of existing conditions to achieve energy conservation and consumption reduction， remains an urgent issue for the wastewater treatment industry. By analyzing the main power consumption components and operating modes of high-power electrical equipment， an underground wastewater treatment plant in Zhengzhou successfully reduced its average annual power consumption from 0.416 kW·h/m3 to 0.340 kW·h/m3 through precise aeration， optimized equipment operation， and technological innovation， representing an 18.27% effective decrease in specific power consumption. Notably， indicators including the air-water ratio， electricity consumption per ton of water for blowers， annual electricity consumption per ton of water for influent pumps， and annual electricity consumption of ventilation fans and lighting facilities all decreased significantly， with each reduction exceeding 5%. This practice has yielded remarkable results in energy conservation and consumption reduction， and the plant's production and operation capacity has reached an advanced level in terms of energy consumption for urban wastewater treatment in some regions. It provides a practical reference for the low-carbon operation of similar underground wastewater treatment plants.
-
[1] CHEN X C. Analysis of energy consumption indicators and energy-saving directions for underground wastewater treatment plants［J］. Water& Wastewater Engineering，2022，58（3）:35-39. 陈秀成. 地下式污水处理厂能耗指标分析及节能方向［J］. 给水排水，2022，58（3）:35-39. [2] WANG Y H，LUO M X，DU H Y，et al. Construction and comprehensive utilization of all-underground wastewater treatment plants with sports and leisure parks［J］. China Water& Wastewater，2025，41（4）:104-108. 王银海，罗明星，杜虹余，等. 全地埋式污水处理厂建设与运动休闲公园综合利用［J］. 中国给水排水，2025，41（4）:104-108. [3] XIANG F X，MA Z，FAN X L. Research on key points of low-carbon design technology for new concept wastewater treatment plants［J］. Urban Road& Bridge and Flood Control，2025（3）:174-177. 相凤欣，马昭，范晓莉. 新概念污水处理厂的低碳设计技术要点研究［J］. 城市道桥与防洪，2025（3）:174-177. [4] ZHANG H. Research status and development trend analysis of low-carbon technologies in urban wastewater treatment industry［J］. Water Purification Technology，2024，43（7）:1-9. 张惠. 城镇污水处理行业低碳技术研究现状与发展趋势分析［J］. 净水技术，2024，43（7）:1-9. [5] CHAI C S，ZHANG W. Engineering case of upgrading and reconstruction of nitrogen and phosphorus removal by AB process［J］. Industrial Water Treatment，2021，41（8）:135-139. 柴春省，张伟. AB法工艺脱氮除磷提标改造工程实例［J］. 工业水处理，2021，41（8）:135-139. [6] LI B J，ZANG C，LIU Y，et al. Study on energy consumption analysis and energy-saving measures of a sewage treatment plant in Jiangxi［J］. Technology of Water Treatment，2015，41（6）:119-122. 李保建，臧超，刘垚，等. 江西某污水处理厂能耗分析与节能措施研究［J］. 水处理技术，2015，41（6）:119-122. [7] LIU C X，SUN P F，WU X H，et al. Analysis on the path of carbon reduction and emission reduction in sewage treatment industry under the background of“double carbon”［J］. Environmental Engineering，2023，41（S2）:135-137. 刘春霞，孙鹏飞，吴晓辉，等.“双碳”背景下污水处理行业降碳减排路径探析［J］. 环境工程，2023，41（增刊2）:135-137. [8] CUI D D，YIN H S，XIONG H T. Review on energy-saving and carbon-reduction of aeration systems in wastewater treatment plants［J］. China Resources and Utilization，2024，42（6）:257-260. 崔丹丹，尹华升，熊海涛. 污水处理厂曝气系统节能降碳综述［J］. 中国资源综合利用，2024，42（6）:257-260. [9] Water Industry Branch of China Civil Engineering Society，Water Treatment and Reuse Professional Committee of China Environmental Science Society. Development report of urban wastewater treatment and reuse in China（1978—2020）［R］. Beijing:China Architecture& Building Press，2022. 中国土木工程学会水工业分会，中国环境科学学会水处理与回用专业委员会. 中国城镇污水处理与再生利用发展报告（1978—2020）［R］. 北京:中国建筑工业出版社，2022. [10] TWIYEBOAH N，OSEI D，DONTOH W H，et al. Enhancing energy efficiency and resource recovery in wastewater treatment plants［J］. Energies，2024，17（13）:3060. [11] JIANG F H，LI J Q，ZHANG X Z，et al. Research on fine management and control of pollution reduction and carbon emission reduction in urban wastewater treatment plants［J］. China Water& Wastewater，2024，40（12）:13-20. 蒋富海，李俊奇，张显忠，等. 城镇污水处理厂治污降碳的精细化管控研究［J］. 中国给水排水，2024，40（12）:13-20. [12] MYSZOGRAJ S，BOCHEŃSKI D，MĄKOWSKI M，et al. Biogas，solar and geothermal energy—the way to a net-zero energy wastewater treatment plant—a case study［J］. Energies，2021，14（21）:6898. [13] RANIERI E，GIULIANO S，RANIERI A C. Energy consumption in anaerobic and aerobic based wastewater treatment plants in Italy［J］. Water Practice and Technology，2021（3）:16. [14] Low-carbon operation practice of Qinghe No.2 Reclaimed Water Plant by Beijing Drainage Group［EB/OL］.［ 2022-12-26］. Environmental Protection Network BJX. 北排清河第二再生水厂低碳运行实践［EB/OL］.［ 2022-12-26］. 北极星环保网. -
点击查看大图
计量
- 文章访问数: 5
- HTML全文浏览量: 1
- PDF下载量: 0
- 被引次数: 0
下载:
