Resource efficient ferritizatio treatment for concentrated wastewater from electroplating production with aftertreatment by nanosorbents

G. Kochetov, T. Prikhna, D. Samchenko, O. Prysiazhna, M. Monastyrov, V. Mosshchil, A. Mamalis
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引用次数: 9

Abstract

A BSTRACT . Currently, much attention is paid to the treatment of industrial wastewater, which would provide the necessary degree of decontamination for organizing a recycled water supply and further disposal of the treatment-generated by-product. The paper presents an advanced technology using a new nanomaterial that decreases initial concentrations of heavy metal ions in electroplating production wastewater from 25 g/L to less than 0.6 mg/L. An integrated process of wastewater treatment consists of two stages: energy- and resource-efficient ferritization followed by sorption onto suspensions of nanopowders of polyvalent iron oxides. The advantages of an electromagnetic pulse method for achieving ferritization at frequencies up to 0.9 kHz in comparison with expensive thermal treatment at temperatures up to 75 °C are demonstrated. The polyvalent iron oxide nanosorbents were obtained by electroerosion dispersion. The result of the integrated treatment is that the purified water meets the requirements for water reuse in electroplating production. The treatment-generated by-product has high chemical stability and a significant content of magnetic ferrite phases, thus having a high potential for further utilization. In contrast to the widely used reagent-based treatment of concentrated wastewater contaminated by heavy metals (> 25 g/L), the integrated method developed here prevents environmental contamination by toxic effluents and ensures the rational use of water and energy inputs in the system of industrial production.
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纳米吸附剂后处理电镀浓缩废水的资源高效加铁处理
摘要。目前,人们非常关注工业废水的处理,这将为组织循环水供应和进一步处理处理产生的副产品提供必要程度的净化。本文介绍了一种使用新型纳米材料的先进技术,该技术可将电镀生产废水中重金属离子的初始浓度从25 g/L降低到0.6 mg/L以下。废水处理的综合过程包括两个阶段:能源和资源高效的铁氧体化,然后吸附到多价氧化铁纳米粉末的悬浮液上。与在高达75°C的温度下进行昂贵的热处理相比,电磁脉冲方法在高达0.9 kHz的频率下实现铁氧体化的优势得到了证明。采用电蚀分散法制备了多价氧化铁纳米吸附剂。综合处理后的净化水满足电镀生产中水回用的要求。处理产生的副产物具有高的化学稳定性和大量的铁氧体相,因此具有很高的进一步利用潜力。与广泛使用的基于试剂的重金属(>25 g/L)浓缩废水处理不同,这里开发的综合方法防止了有毒废水对环境的污染,并确保了工业生产系统中水和能源投入的合理使用。
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Nanotechnology Perceptions
Nanotechnology Perceptions Engineering-Engineering (all)
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