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采用 UV 增强电芬顿工艺处理制药废水的比较研究。

Pharmaceutical wastewater treatment using UV-enhanced electro-Fenton process: Comparative study.

机构信息

Department of Chemical Engineering, Faculty of Engineering, Arak University, Arak, Iran.

出版信息

Water Environ Res. 2019 Nov;91(11):1526-1536. doi: 10.1002/wer.1153. Epub 2019 Jun 23.

DOI:10.1002/wer.1153
PMID:31152569
Abstract

In this research, treatment of a pharmaceutical wastewater (PhW) obtained from a factory by electro-Fenton (EF) and photoelectro-Fenton (PEF) processes was investigated. The effects of several parameters involving pH, current density, H O /Fe molar ratio, volume ratio of H O /PhW, UVA light, and time were studied. The experiments were designed by Design Expert software, and response surface methodology (RSM) was applied to determine the optimum conditions for the highest COD removal. According to the analysis of variance (ANOVA), time was the most significant parameter on the process response (COD removal) followed by current density. The optimal conditions for 86.85% of COD removal through the EF process were at pH of 2.96, current density of 42.90 mA/cm , H O /Fe molar ratio of 3.78, volume ratio of H O /PhW of 1.37 ml/L, and reaction time of 58.49 min, while the optimal conditions for 93.00% of COD removal through PEF process were at pH of 2.91, current density of 43.71 mA/cm , H O /Fe molar ratio of 4.29, volume ratio of H O /PhW of 1.67 ml/L, UVA light of 6 W, and reaction time of 54.24 min. It was concluded that UVA light can increase the COD removal through PEF process around 7% more than that of the EF process at optimum conditions. PRACTITIONER POINTS: Treatment of a pharmaceutical wastewater by EF and PEF processes was investigated. Effects of several parameters were entirely studied on both the processes. RSM was applied to determine optimum conditions for the highest COD removal for both the processes. UVA light increased COD removal through PEF process (around 7%) at the optimum conditions.

摘要

本研究考察了电芬顿(EF)和光电芬顿(PEF)工艺处理来自工厂的制药废水(PhW)的效果。研究了涉及 pH 值、电流密度、H2O2/Fe 摩尔比、H2O2/PhW 体积比、UVA 光和时间等几个参数的影响。实验由 Design Expert 软件设计,应用响应面法(RSM)确定最高 COD 去除率的最佳条件。根据方差分析(ANOVA),时间是对过程响应(COD 去除)最具显著影响的参数,其次是电流密度。EF 工艺去除 86.85%COD 的最佳条件为 pH 值 2.96、电流密度 42.90 mA/cm2、H2O2/Fe 摩尔比 3.78、H2O2/PhW 体积比 1.37 ml/L、反应时间 58.49 min,PEF 工艺去除 93.00%COD 的最佳条件为 pH 值 2.91、电流密度 43.71 mA/cm2、H2O2/Fe 摩尔比 4.29、H2O2/PhW 体积比 1.67 ml/L、UVA 光 6 W、反应时间 54.24 min。结果表明,在最佳条件下,与 EF 工艺相比,UVA 光可使 PEF 工艺的 COD 去除率提高约 7%。

实践者要点

考察了 EF 和 PEF 工艺处理制药废水的效果。全面研究了两个工艺的多个参数的影响。应用 RSM 确定了两个工艺中 COD 去除率最高的最佳条件。在最佳条件下,UVA 光可使 PEF 工艺的 COD 去除率提高约 7%(PEF 工艺)。

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