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(生物)电化学氨回收:进展与展望。

(Bio)electrochemical ammonia recovery: progress and perspectives.

机构信息

Wetsus, European Centre of Excellence for Sustainable Water Technology, Oostergoweg 9, 8911 MA, Leeuwarden, The Netherlands.

Sub-Department of Environmental Technology, Wageningen University, Bornse Weilanden 9, P.O. Box 17, 6700 AA, Wageningen, The Netherlands.

出版信息

Appl Microbiol Biotechnol. 2018 May;102(9):3865-3878. doi: 10.1007/s00253-018-8888-6. Epub 2018 Mar 9.

Abstract

In recent years, (bio)electrochemical systems (B)ES have emerged as an energy efficient alternative for the recovery of TAN (total ammonia nitrogen, including ammonia and ammonium) from wastewater. In these systems, TAN is removed or concentrated from the wastewater under the influence of an electrical current and transported to the cathode. Subsequently, it can be removed or recovered through stripping, chemisorption, or forward osmosis. A crucial parameter that determines the energy required to recover TAN is the load ratio: the ratio between TAN loading and applied current. For electrochemical TAN recovery, an energy input is required, while in bioelectrochemical recovery, electric energy can be recovered together with TAN. Bioelectrochemical recovery relies on the microbial oxidation of COD for the production of electrons, which drives TAN transport. Here, the state-of-the-art of (bio)electrochemical TAN recovery is described, the performance of (B)ES for TAN recovery is analyzed, the potential of different wastewaters for BES-based TAN recovery is evaluated, the microorganisms found on bioanodes that treat wastewater high in TAN are reported, and the toxic effect of the typical conditions in such systems (e.g., high pH, TAN, and salt concentrations) are described. For future application, toxicity effects for electrochemically active bacteria need better understanding, and the technologies need to be demonstrated on larger scale.

摘要

近年来,(生物)电化学系统(BES)作为一种从废水中回收总氨氮(包括氨和铵)的节能替代方法而出现。在这些系统中,在电流的影响下,废水中的 TAN 被去除或浓缩,并输送到阴极。随后,它可以通过汽提、化学吸附或正向渗透去除或回收。决定回收 TAN 所需能量的一个关键参数是负载比:TAN 负荷与施加电流的比值。对于电化学 TAN 回收,需要输入能量,而在生物电化学回收中,可以与 TAN 一起回收电能。生物电化学回收依赖于 COD 的微生物氧化来产生电子,从而驱动 TAN 的运输。本文描述了(生物)电化学 TAN 回收的最新进展,分析了(B)ES 对 TAN 回收的性能,评估了不同废水在基于 BES 的 TAN 回收中的潜力,报道了处理高 TAN 废水的生物阳极上发现的微生物,并描述了这些系统中典型条件(例如高 pH 值、TAN 和盐浓度)的毒性效应。为了未来的应用,需要更好地了解电化学活性细菌的毒性效应,并且需要在更大规模上展示这些技术。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/bc07/5895672/b04324520879/253_2018_8888_Fig1_HTML.jpg

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