COD Reduction in Petrochemical Wastewater using the Solar Photo-Fenton Process

B. Aghel, M. Mohadesi, M. H. Razmegir
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引用次数: 3

Abstract

Water has been recognized as the most fundamental factor in the life of organisms and the most widely used element in industries while currently, the world is dealing with water scarcity in many areas. This emphasizes the importance of preventing water contamination as well as returning contaminated water produced by industries to the production and consumption cycle. Yet, the need for environmental protection is a certain principle that is generalized in today's world so this necessity has become more important as the growth of industries and technologies and subsequent contamination. Advanced oxidation technology has been substantially developed in recent decades becoming increasingly important in the treatment process of industrial wastewaters containing resistant organic materials which cannot be removed through conventional treatment methods to reduce water quality parameters. The present study has examined the chemical oxygen demand (COD) in the synthetic monoethylamine wastewater prepared by the solar Photo-Fenton process. Principal effective parameters in the advanced oxidation technology, including the process time, the concentration of hydrogen peroxide ion, the concentration of iron (II) ion, and pH, were investigated by the response surface methodology (RSM) through 30 random experiments using central composite design method (CCD) to optimize reaction conditions. The most sufficient operational conditions were achieved at pH=4, [Fe2+] =2 mM, [H2O2] =20 mM, and t=90 min for the COD removal rate of 77.08%.
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太阳能光- fenton法降低石化废水COD的研究
水被认为是生物生命中最基本的因素,也是工业中应用最广泛的元素,而目前世界上许多地区都面临着缺水的问题。这强调了防止水污染以及将工业生产的受污染的水返回生产和消费周期的重要性。然而,对环境保护的需求是当今世界普遍存在的一个原则,因此随着工业和技术的发展以及随之而来的污染,这种必要性变得更加重要。近几十年来,高级氧化技术得到了长足的发展,在工业废水处理过程中发挥着越来越重要的作用,这些工业废水含有通过常规处理方法无法去除的抗性有机物质,以降低水质参数。研究了太阳能光fenton法合成一乙胺废水的化学需氧量(COD)。采用响应面法(RSM),通过30个随机实验,采用中心复合设计方法(CCD)对工艺时间、过氧化氢离子浓度、铁(II)离子浓度、pH等主要有效参数进行研究,优化反应条件。当pH=4, [Fe2+] =2 mM, [H2O2] =20 mM, t=90 min时,COD去除率为77.08%。
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CiteScore
1.20
自引率
0.00%
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0
审稿时长
8 weeks
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