实验截面配置对冷却塔原型小说的工作影响

Dedi Afandi, Ahmad Syuhada, Ratna Sary, Z. Zulfan, Asra Yufandi
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摘要

冷却塔广泛应用于发电厂和炼油厂等行业,这些设备会产生多余的热量,需要去除。实验研究了不同挡板结构对新型冷却塔性能的影响。所使用的挡板的配置为无孔挡板段、15孔挡板段、25孔挡板段、35孔挡板段。进水口温度变化,即55⁰C、75⁰C和90⁰C。水通过水泵从主水库流向冷却塔的上水库,上水库的水落在冷却塔的挡板上。使用热电偶测量每个挡板的进水温度、出水温度和水温。结果表明,35孔挡板的冷却塔性能最优。在入口温度为55⁰C时,具有35孔挡板的冷却塔产生的传热率为624.64瓦。在进水温度为75⁰C时,具有35孔挡板的冷却塔产生的平均传热率增加了42.6%。在进水温度为90⁰C时,具有35孔挡板的冷却塔产生的平均传热率增加了62.6%。这是因为带有35孔挡板的冷却塔使通过挡板的水滴分裂得越来越多,从而换热率更高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Studi Eksperimental Pengaruh Konfigurasi Penampang Sekat Terhadap Kinerja Novel Cooling Tower Prototype
Cooling towers are widely applied in industries such as power plants and oil refineries, where the equipment produces excess heat that needs to be removed. The effect of baffles configuration on the performance of the novel cooling tower prototype was studied experimentally. The configuration of the baffles used is the baffle section without holes, the baffle section with 15 holes, the baffle section with 25 holes, and the baffle section with 35 holes. The water inlet temperature was varied, namely 55⁰C, 75⁰C, and 90⁰C. water is flowed from the main reservoir to the upper reservoir of the cooling tower using a pump, and water from the upper reservoir falls on the baffles of the cooling tower. Inlet water temperature, outlet water temperature, and water temperature at each baffle were measured using a thermocouple. The results showed that the cooling tower with a baffle of 35 holes produced the most optimal performance. The heat transfer rate produced by the cooling tower with a 35-hole baffle at an inlet temperature of 55⁰C is 624.64 Watts. At the water inlet temperature of 75⁰C, the average heat transfer rate produced by the cooling tower with a 35-hole baffle increased by 42.6%. The average heat transfer rate produced by a cooling tower with a 35-hole baffle at a water inlet temperature of 90⁰C increased by 62.6%. This is because the cooling tower with a baffle of 35 holes causes the water droplets that pass through the baffle to split into more and more so that the heat transfer rate is higher.
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