Efficient Ammonium Ion Removal from the State Company of Fertilizers Wastewater through Nano Zeolite Treatment

A. T. Abduljabbar, S. Dhahir, Muna Subhi Jamal
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Abstract

One of the most significant environmental problems of the day is ammonium ion pollution of wastewater, especially from sources that produce chemical fertilizers. Higher ammonia concentrations in lakes and rivers increase eutrophication, lower dissolved oxygen levels, and ultimately cause the aquatic ecosystem to collapse. The adsorption method using one of the best adsorbent materials is one of the methods that can be used to remove ammonium ions from water with excellent results. This study aims to use adsorption technology with nano zeolite (NZ) to treat ammonium ion-contaminated water and simulate water release from the State Company of Fertilizers. The best conditions were discovered to be (2.5 gm) adsorbent dose, (240 min) shaking duration, (100 ppm) starting ammonium ion concentration at pH 8.0, and constant temp. 25oC for the efficient adsorption of NH4+ ammonium ions and effective removal onto NZ. The result shows that the parameters have great influence on the ammonium removal using the NZ if the removal rate reaches 98% and the maximum ammonium adsorption capacity (qe) obtained is 11.5 mg/g. The Freundlich model best describes the adsorption isotherms with a higher coefficient of determination (R2=0.97) than the Langmuir model with a coefficient of determination (R2=0.80). The results imply that the NZ is an efficient adsorbent for ammonium ion removal.
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通过纳米沸石处理技术高效去除国营化肥公司废水中的铵离子
当今最重要的环境问题之一是废水中的铵离子污染,尤其是来自化肥生产源头的污染。湖泊和河流中较高的氨浓度会加剧富营养化,降低溶解氧水平,最终导致水生生态系统崩溃。使用一种最佳吸附材料的吸附法是去除水中铵离子效果极佳的方法之一。本研究旨在利用纳米沸石(NZ)的吸附技术处理受铵离子污染的水,并模拟国营化肥公司的水排放情况。最佳条件为:吸附剂剂量(2.5 克)、振荡时间(240 分钟)、起始铵离子浓度(100 ppm)(pH 值为 8.0)和恒温 25 摄氏度,以实现 NH4+ 氨离子在 NZ 上的有效吸附和去除。结果表明,如果氨的去除率达到 98%,且获得的最大氨吸附容量(qe)为 11.5 mg/g,则这些参数对使用 NZ 去除氨的影响很大。Freundlich 模型能最好地描述吸附等温线,其确定系数(R2=0.97)高于 Langmuir 模型的确定系数(R2=0.80)。这些结果表明,NZ 是一种去除铵离子的高效吸附剂。
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