Evaluasi dan Modifikasi Alat Penukar Ion dengan Penambahan Kolom Adsorpsi Karbon Aktif untuk Menurunkan Kesadahan

Endang Kusumawati, Retno Dwi Jayanti, Lestari Herlianti Putri, Nurul Annisa, Tifa Paramitha
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Abstract

Ion exchange is one of the water treatment methods used to reduce hardness. To improve the performance of the ion exchange columns, modification can be done by adding an activated carbon column placed after the ion exchange column to adsorb ions that were not exchanged by the resin so that the treated water met boiler feed water quality standards. The purposes of this study were to determine the best flow rate to reduce hardness in the configuration of the ion exchange and activated carbon columns, determine the saturation time of each column, and determine their exchange/adsorption capacities. The steps of this study included modifications and repair of equipment, leak tests, and configuration system performance tests. Performance tests were conducted by varying the feed flow rates by 0.2; 0.4; 0.6; 0.8; 1 GPM and analyzed the efficiency of hardness reduction. The results of this study showed that the best flow rate to reduce the initial hardness of 499 mg/ L CaCO3 was a flow rate of 0.6 GPM or 2.2 LPM. The efficiency of hardness reduction in the configuration system was 100%. The conductivity of the effluent of anion column and activated carbon column decreased compared to the conductivity of the effluent of cation column with an average decrease of 33.17% in the anion column and 18.35% in the activated carbon column. The saturation time of the configuration system was 168 minutes in cation resin, 46.4 minutes in anion resin, and 159 minutes in activated carbon. Furthermore, the adsorption capacity of cation resin, anion resin, and activated carbon were 35.28 mg/g, 43.98 mg/g, and 9.61 mg/g, respectively. The addition of activated carbon in the configuration system lowers the conductivity of the effluent and decreases hardness. 
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添加活性炭吸附柱以降低硬度的离子交换装置的评估和改造
离子交换是用于降低硬度的水处理方法之一。为了提高离子交换柱的性能,可以在离子交换柱之后添加一个活性炭柱,以吸附未被树脂交换的离子,从而使处理后的水符合锅炉给水水质标准。本研究的目的是确定离子交换柱和活性炭柱配置中降低硬度的最佳流速,确定每个柱的饱和时间,并确定它们的交换/吸附能力。这项研究的步骤包括设备改造和维修、泄漏测试和配置系统性能测试。通过改变进料流速 0.2、0.4、0.6、0.8 和 1 GPM 进行了性能测试,并分析了降低硬度的效率。研究结果表明,降低 499 mg/ L CaCO3 初始硬度的最佳流速为 0.6 GPM 或 2.2 LPM。配置系统的硬度降低效率为 100%。阴离子柱和活性炭柱的出水电导率与阳离子柱的出水电导率相比有所下降,阴离子柱平均下降 33.17%,活性炭柱平均下降 18.35%。配置系统的饱和时间阳离子树脂为 168 分钟,阴离子树脂为 46.4 分钟,活性炭为 159 分钟。此外,阳离子树脂、阴离子树脂和活性炭的吸附容量分别为 35.28 毫克/克、43.98 毫克/克和 9.61 毫克/克。在配置系统中加入活性炭可降低污水的电导率和硬度。
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