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采用电过氧乙酸工艺在水相环境中降解酸性红 88:中心复合设计的新动力学研究和能耗。

Employing electro-peroxone process for degradation of Acid Red 88 in aqueous environment by Central Composite Design: A new kinetic study and energy consumption.

机构信息

Jundi-Shapur Research Institute, Dezful, Iran.

出版信息

Chemosphere. 2022 Jun;296:133817. doi: 10.1016/j.chemosphere.2022.133817. Epub 2022 Feb 4.

DOI:10.1016/j.chemosphere.2022.133817
PMID:35131276
Abstract

The Azo dyes are primarily employed in textile industries to produce high amounts of colored organic and inorganic wastewater. Therefore, their treatments are critical. In this research, the removal and mineralization of Acid red 88 (AR88), as a widely used mono Azo dye, was inspected by the Electro-peroxone(E-peroxone) method. It is a coupling of electrochemically produced HO and ozone that can produce robust hydroxyl radicals. The Central Composite Design (CCD) was applied to explore the influence of operational variables on the removal of AR88 as a response. The optimal conditions predicted by the CCD were as the following; Applied current at 0.7 A, pH at 7.35, O Flowrate at 1.03 L min and the concentration of AR88 at 527.29 mg. L. The Pareto chart showed that the concentration of AR88 has a significant influence on the response. At the predicted optimal conditions, the actual and predicted AR 88 removal were 95.4 and 92.96%, respectively. The removal of COD after 45 min was 70% representing the excessive efficiency of E-peroxone in mineralization of AR88. The E-peroxone follows the pseudo-first-order kinetics (k = 6.56 × 10 min), which was more remarkable than the single ozonation, and electrolysis. The calculated specific energy consumption (SEC) in the E-peroxone was 40.14 kWh/Kg AR 18 removal, which was lower than the individual ozonation, and electrolysis methods. The operative production of HO from O at the cathode is the critical factor in the high removal of AR88 in this process.

摘要

偶氮染料主要用于纺织工业生产大量的有色有机和无机废水。因此,对它们的处理至关重要。在这项研究中,通过电过氧(E-peroxone)法去除和矿化酸性红 88(AR88),作为一种广泛使用的单偶氮染料。它是电化学产生的 HO 和臭氧的耦合,可以产生强大的羟基自由基。采用中心组合设计(CCD)探讨操作变量对去除 AR88 的影响作为响应。CCD 预测的最佳条件如下;应用电流为 0.7 A,pH 值为 7.35,O 流速为 1.03 L min 和 AR88 的浓度为 527.29 mg.L。Pareto 图表明,AR88 的浓度对响应有显著影响。在预测的最佳条件下,实际和预测的 AR88 去除率分别为 95.4%和 92.96%。45 分钟后 COD 的去除率为 70%,表明 E-peroxone 在 AR88 矿化中的效率过高。E-peroxone 遵循伪一级动力学(k=6.56×10 min),比单独的臭氧化和电解更为显著。E-peroxone 中的计算比特定能量消耗(SEC)为 40.14 kWh/Kg AR 18 去除,低于单独的臭氧化和电解方法。阴极上 O 产生的 HO 的操作生成是该过程中 AR88 高去除率的关键因素。

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