• 综述 •
张瑞, 吴云, 王鲁天, 吴强, 张宏伟. 微生物燃料电池阴极脱氮[J]. 化学进展, 2020, 32(12): 2013-2021.
Rui Zhang, Yun Wu, Lutian Wang, Qiang Wu, Hongwei Zhang. Cathode Denitrification of Microbial Fuel Cells[J]. Progress in Chemistry, 2020, 32(12): 2013-2021.
微生物燃料电池(MFC)阴极电子受体的多样性可实现其阴极脱氮,从而将产生的电能合理利用,因此阴极脱氮成为了MFC的一个研究方向,同时也为实际废水中氮素的去除提供了新的可能。然而在反应过程中有众多因素会导致NOx-N与其他电子受体竞争阳极电子的现象,影响阴极反硝化过程对于电子的利用率,从而造成脱氮效率低等现实问题。目前已有许多研究通过优化MFC自身结构弥补产电的缺陷,及将与其他工艺系统耦合实现同步硝化反硝化等方法,取长补短以增加脱氮效率,降低对碳源的需求,以此解决微生物燃料电池阴极脱氮出现的问题。本文从MFC不同的脱氮历程、MFC工艺条件(pH、C/N、DO)、极室分隔材料等影响MFC阴极脱氮的因素及影响其阴极反硝化微生物群落构成等方面,进行了综述并预测未来研究方向。
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Separation materials | Advantage | Disadvantage |
---|---|---|
anionite membrane | effectively reduce the pH gradient | Deformation and bending increase internal resistance |
Nafion | High ion conduction efficiency high cycle life | It costs too much and depends on the presence of water |
No film MFC | effectively reduce the pH gradient | Oxygen enters the cathode to compete with nitrate for electrons |
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