Performance Investigation of the Reverse Anoxic/Anaerobic/Oxic Microbial Fuel Cell

Supawadee Siripratum, P. Pengchai
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Abstract

A reverse anaerobic/anoxic/aerobic (A2O) process is recognized as a developed biological nutrient removal process for wastewater treatment. A few researchers recently integrated a microbial fuel cell (MFC) into an A2O process to generate electricity during wastewater treatment. However, no published studies show the outcome of combining the MFC with the reverse A2O process. The performance of a reverse A2O-MFC during the treatment of raw duck pond water was investigated in this study. For suitable electrode placement, nine patterns of anode and cathode location (CH01-CH09) were also investigated. As a result, 60-79%, 14-52%, 57-82%, and 50-82% of phosphates, nitrates, total ammonia nitrogen, and COD were removed, respectively. Lineweaver-Burk plots could be used to estimate the system's phosphate removal rates. The highest electrical energy was observed at CH05 (162.5 Wh) in the first period of the treatment operation and at CH02 (710.3 Wh) in the second period. The electrode placement patterns of CH05, where the anode and cathode were installed in an anaerobic tank and an oxic tank, and CH02, where the anode and cathode were installed in an anoxic tank and an anaerobic tank, were recommended for the reverse A2O-MFC with a 35-cm electrode distance.
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反相缺氧/厌氧/好氧微生物燃料电池性能研究
反厌氧/缺氧/好氧(A2O)工艺被认为是一种发达的污水处理生物营养物去除工艺。最近,一些研究人员将一种微生物燃料电池(MFC)集成到A2O过程中,以在废水处理过程中发电。然而,没有发表的研究表明MFC与反向A2O工艺相结合的结果。研究了反相a20 - mfc处理鸭池水的性能。为了寻找合适的电极位置,还研究了9种正极和负极位置(CH01-CH09)。结果表明,磷酸盐、硝酸盐、总氨氮和COD去除率分别为60-79%、14-52%、57-82%和50-82%。Lineweaver-Burk图可以用来估计系统的磷酸盐去除率。在处理操作的第一阶段,CH05 (162.5 Wh)和CH02 (710.3 Wh)的电能最高。建议采用电极距离为35cm的反向a20 - mfc,电极放置方式为CH05(阳极和阴极分别安装在厌氧池和氧池中)和CH02(阳极和阴极分别安装在厌氧池和厌氧池中)。
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审稿时长
20 weeks
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