微生物燃料电池
有机质
废水
生化需氧量
化学需氧量
电解
硝酸盐
制浆造纸工业
污水处理
总有机碳
电化学
碳纤维
渗滤液
氨
环境科学
环境化学
化学
废物管理
阳极
环境工程
材料科学
电极
有机化学
复合材料
物理化学
工程类
复合数
电解质
作者
Wei Tze Mook,Mohammed Harun Chakrabarti,Mohamed Kheireddine Aroua,G. M. Arifuzzaman Khan,Brahim Si Ali,Md. Sakinul Islam,Mohd Ariffin Abu Hassan
出处
期刊:Desalination
[Elsevier]
日期:2012-01-01
卷期号:285: 1-13
被引量:390
标识
DOI:10.1016/j.desal.2011.09.029
摘要
Protein rich wastes from aquaculture systems result in total ammonia nitrogen (TAN), total organic carbon (TOC) and biochemical oxygen demand (BOD). A number of conventional approaches have been adopted for the removal of these wastes in aquaculture ponds and hatcheries with varying degrees of success but they face critical problems such as membrane fouling, high cost or the generation of toxic by-products. To overcome such issues, electrochemical technology is commonly employed. The advantages of electrochemical treatment include high efficiency, ambient operating conditions, small equipment sizes, minimal sludge generation and rapid start-up. An even better system involves bio-electrochemical reactors (BERs), which have the potential to generate energy from wastewater (by means of microbial fuel cells) or a valuable product such as hydrogen (using microbial electrolysis cells). Mechanisms of cathodic nitrate reduction and anodic oxidation in electrochemical and bio-electrochemical technology are reported in this review. Also some work on the simultaneous removal of nitrate and organic matter by Electro-Fenton and microbial fuel cells are elaborated upon. It is apparent that BERs can remove contaminants at high efficiencies (≈ 99%) whilst giving least impact upon the environment.
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