管理含水层补给实验室系统中氧化还原电位对生物膜和水质的影响

IF 4.3 Q1 ENVIRONMENTAL SCIENCES
Osher Adler, Taiwo Adeyemo, Tuvia Turkeltaub, Almog Gafni, Noam Weisbrod* and Edo Bar-Zeev*, 
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引用次数: 0

摘要

土壤含水层处理(SAT)是通过淹水和干燥循环进行的,因此可以迅速改变表土的氧化还原条件。目前,SAT表层土壤中氧化还原条件、生物膜活性和污染物去除之间的联系尚不清楚。在这里,两个极端氧化还原电位(由氧条件控制)被评估,而洪水发生在两个季节。所有试验都在30厘米的柱中进行,柱中填充了SAT表土,并注入了人工二次废水。测定了氨、布洛芬和噬菌体的氧化还原条件和去除效率,以及细菌活性和多样性。夏季和冬季,好氧条件下的生物膜活性比厌氧条件下的生物膜活性高(分别为83%和155%)。同样,好氧条件下氨和布洛芬的去除率更高(分别为82%和54%)。不同的是,噬菌体的还原不受氧化还原条件的影响,因为主要的去除机制是吸附。此外,生物膜丰富度在淹水48 h内具有高度适应性(Shannon指数:4.7±0.1),但在厌氧条件下多样性较低。这些结果强调了测量和控制SAT表土氧化还原电位的重要性。此外,连续监测地下的氧条件可以优化耕作间隔以及干湿循环,而不会牺牲水质。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Impact of Redox Potential on Biofilms and Water Quality in Managed Aquifer Recharge Lab System

Impact of Redox Potential on Biofilms and Water Quality in Managed Aquifer Recharge Lab System

Soil aquifer treatment (SAT) is operated by flooding and drying cycles, thus swiftly changing topsoil redox conditions. Currently, the links between the redox conditions, biofilm activity, and contaminants removal in SAT topsoil are not well understood. Here, two extreme-redox potentials (governed by oxic conditions) were evaluated while flooding occurred during two seasons. All tests were performed in 30 cm columns packed with SAT topsoil and flooded with artificial secondary wastewater. Redox conditions and removal efficiency of ammonia, ibuprofen, and bacteriophage, alongside bacterial activity and diversity, were determined. Biofilm activity was more intensive under aerobic than under anaerobic conditions during summer and winter (83 and 155%, respectively). Similarly, the removal of ammonia and ibuprofen was higher under aerobic conditions (82 and 54%, respectively). Differently, bacteriophage reduction was not affected by the redox conditions, as the main removal mechanism was adsorption. Additionally, biofilm richness was highly adaptive within 48 h of flooding (Shannon index: 4.7 ± 0.1) yet less diverse under anaerobic conditions. These results stress the importance of measuring and controlling the redox potential within the SAT topsoil. Moreso, continuous monitoring of the oxic conditions in the subsurface could optimize the tillage intervals as well as the wetting and drying cycles without sacrificing water quality.

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