Water recovery efficiency improvement using the enhanced structure of the mist eliminator

Thermal power plants are users of high water consumption, and the water consumption of cooling towers accounts for more than half of the total water consumption of the whole plant. Therefore, water saving of cooling towers is the key to water saving in thermal power plants. Wave-plate demister as a...

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Veröffentlicht in:Process safety and environmental protection 2021-10, Vol.154, p.433-446
Hauptverfasser: Yu, Zhikang, Sun, Cheng, Fang, Jiamei, Zhang, Lin, Hu, Yiyang, Bao, Bingguo, Bu, Shi, Xu, Weigang, Ji, Yixiang
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container_end_page 446
container_issue
container_start_page 433
container_title Process safety and environmental protection
container_volume 154
creator Yu, Zhikang
Sun, Cheng
Fang, Jiamei
Zhang, Lin
Hu, Yiyang
Bao, Bingguo
Bu, Shi
Xu, Weigang
Ji, Yixiang
description Thermal power plants are users of high water consumption, and the water consumption of cooling towers accounts for more than half of the total water consumption of the whole plant. Therefore, water saving of cooling towers is the key to water saving in thermal power plants. Wave-plate demister as a component of cooling tower influences the performance of entire system. Demister realizes the collection of liquid droplets with the penalty of extra pressure loss. Curved bends and drainage hooks are proposed as enhancing structures of demister to increase separation efficiency and reducing pressure loss simultaneously. Computational result shows that interaction between curved bend and hooks improves the overall performance of demister. Moreover, effect of enhancing parameters on the performance is presented, specifically, Euler number and separation efficiency are correlated as functions of curved bend radius and hook length. Most importantly, an experiment is conducted on a real cooling tower. It shows that the overall thermal capacity is lowered with the presence of demister. Pressure drop, separation efficiency and heat transfer of the entire system are tested with and without demisters, based on which a new criterion is proposed to evaluate the influence of demister on the overall performance of cooling tower in terms of thermal efficiency and droplets collection. Performance indexes as functions of enhancing parameters and droplets dynamic are plotted. Therefore, a quick design of demister can be realized in achieving an optimal performance of cooling tower.
doi_str_mv 10.1016/j.psep.2021.08.018
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Therefore, water saving of cooling towers is the key to water saving in thermal power plants. Wave-plate demister as a component of cooling tower influences the performance of entire system. Demister realizes the collection of liquid droplets with the penalty of extra pressure loss. Curved bends and drainage hooks are proposed as enhancing structures of demister to increase separation efficiency and reducing pressure loss simultaneously. Computational result shows that interaction between curved bend and hooks improves the overall performance of demister. Moreover, effect of enhancing parameters on the performance is presented, specifically, Euler number and separation efficiency are correlated as functions of curved bend radius and hook length. Most importantly, an experiment is conducted on a real cooling tower. It shows that the overall thermal capacity is lowered with the presence of demister. Pressure drop, separation efficiency and heat transfer of the entire system are tested with and without demisters, based on which a new criterion is proposed to evaluate the influence of demister on the overall performance of cooling tower in terms of thermal efficiency and droplets collection. Performance indexes as functions of enhancing parameters and droplets dynamic are plotted. Therefore, a quick design of demister can be realized in achieving an optimal performance of cooling tower.</description><identifier>ISSN: 0957-5820</identifier><identifier>EISSN: 1744-3598</identifier><identifier>DOI: 10.1016/j.psep.2021.08.018</identifier><language>eng</language><publisher>Rugby: Elsevier B.V</publisher><subject>Bend radius ; Bends ; CFD ; Computer applications ; Cooling ; Cooling tower ; Cooling towers ; Droplets ; Efficiency ; Heat transfer ; Hooks ; Mist ; Mist eliminator ; Parameters ; Performance indices ; Power consumption ; Power plants ; Pressure ; Pressure drop ; Pressure loss ; Separation ; Separation efficiency ; Thermal capacity ; Thermal power ; Thermal power plants ; Thermodynamic efficiency ; Thermoelectricity ; Water conservation ; Water consumption</subject><ispartof>Process safety and environmental protection, 2021-10, Vol.154, p.433-446</ispartof><rights>2021 Institution of Chemical Engineers</rights><rights>Copyright Elsevier Science Ltd. 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Therefore, water saving of cooling towers is the key to water saving in thermal power plants. Wave-plate demister as a component of cooling tower influences the performance of entire system. Demister realizes the collection of liquid droplets with the penalty of extra pressure loss. Curved bends and drainage hooks are proposed as enhancing structures of demister to increase separation efficiency and reducing pressure loss simultaneously. Computational result shows that interaction between curved bend and hooks improves the overall performance of demister. Moreover, effect of enhancing parameters on the performance is presented, specifically, Euler number and separation efficiency are correlated as functions of curved bend radius and hook length. Most importantly, an experiment is conducted on a real cooling tower. It shows that the overall thermal capacity is lowered with the presence of demister. 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subjects Bend radius
Bends
CFD
Computer applications
Cooling
Cooling tower
Cooling towers
Droplets
Efficiency
Heat transfer
Hooks
Mist
Mist eliminator
Parameters
Performance indices
Power consumption
Power plants
Pressure
Pressure drop
Pressure loss
Separation
Separation efficiency
Thermal capacity
Thermal power
Thermal power plants
Thermodynamic efficiency
Thermoelectricity
Water conservation
Water consumption
title Water recovery efficiency improvement using the enhanced structure of the mist eliminator
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