在共处理矿井水和污水处理厂废水的建构湿地中有效去除铁、营养物质、微污染物和粪便细菌

Jidapa Plaimart, Kishor Acharya, Adrian Blackburn, Wojciech Mrozik, R. Davenport, David Werner
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摘要

英格兰和威尔士的监管机构根据《2021 年环境法案》制定了到 2038 年淡水质量的新目标,其中包括将受废弃矿山有害金属污染的河流长度减少一半,并将经处理的废水中的磷负荷减少 80%。在此背景下,通过在人工湿地(CW)中进行共沉淀,去除废弃矿山中的铁和小型污水处理厂中的磷酸盐,是一个令人感兴趣的双赢机会。我们对位于英格兰东北部拉姆斯利的这样一个共沉淀湿地进行了调查,该湿地将废弃煤矿的废水和污水处理厂二级处理后的废水进行了共沉淀处理。我们评估了化武对营养物质、重金属、有机微污染物和粪大肠菌群的去除情况,并利用环境 DNA 全面描述了水体细菌学的变化。化武有效地去除了铵态氮、磷、铁和粪大肠菌群,平均去除率分别为 86%、74%、98%和 75%,去除水平低于受纳河流或与受纳河流相差不大。化武还能有效去除对乙酰氨基酚、咖啡因和舒必利等微污染物,去除率达 70%-100%。分子微生物学方法显示,污水和矿井水微生物群成功转化为淡水微生物群。总之,化学武器大大减少了对农村水环境的影响,而且操作要求极低。
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Effective removal of iron, nutrients, micropollutants, and faecal bacteria in constructed wetlands cotreating mine water and sewage treatment plant effluent
Regulators in England and Wales have set new targets under the Environment Act 2021 for freshwater quality by 2038 that include halving the length of rivers polluted by harmful metals from abandoned mines and reducing phosphorus loadings from treated wastewater by 80%. In this context, an intriguing win–win opportunity exists in the removal of iron from abandoned mines and phosphate from small sewage treatment plants by coprecipitation in constructed wetlands (CWs). We investigated such a CW located at Lamesley, Northeast England, which cotreats abandoned coal mine and secondary-treated sewage treatment plant effluents. We assessed the removal of nutrients, heavy metals, organic micropollutants, and faecal coliforms by the CW, and characterized changes in the water bacteriology comprehensively using environmental DNA. The CW effectively removed ammonium-nitrogen, phosphorus, iron, and faecal coliforms by an average of 86, 74, 98, and 75%, respectively, to levels below or insignificantly different from those in the receiving river. The CW also effectively removed micropollutants such as acetaminophen, caffeine, and sulpiride by 70–100%. Molecular microbiology methods showed successful conversion of sewage and mine water microbiomes into a freshwater microbiome. Overall, the CW significantly reduced impacts on the rural water environment with minimal operational requirements.
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