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在玄武岩含水层中的反硝化作用:对含水层储存和恢复的影响。

Denitrification in a deep basalt aquifer: implications for aquifer storage and recovery.

机构信息

GSI Water Solutions, Inc., Portland, OR 97204.

出版信息

Ground Water. 2014 May-Jun;52(3):414-23. doi: 10.1111/gwat.12082. Epub 2013 Jul 9.

DOI:10.1111/gwat.12082
PMID:23837490
Abstract

Aquifer storage and recovery (ASR) can provide a means of storing water for irrigation in agricultural areas where water availability is limited. A concern, however, is that the injected water may lead to a degradation of groundwater quality. In many agricultural areas, nitrate is a limiting factor. In the Umatilla Basin in north central Oregon, shallow alluvial groundwater with elevated nitrate-nitrogen of <3 mg/L to >9 mg/L is injected into the Columbia River Basalt Group (CRBG), a transmissive confined aquifer(s) with low natural recharge rates. Once recovery of the injected water begins, however, NO3 -N in the recovered water decreases quickly to <3 mg/L (Eaton et al. 2009), suggesting that NO3 -N may not persist within the CRBG during ASR storage. In contrast to NO3 -N, other constituents in the recovered water show little variation, inconsistent with migration or simple mixing as an explanation of the NO3 -N decrease. Nitrogen isotopic ratios (δ(15) N) increase markedly, ranging from +3.5 to > +50, and correlate inversely with NO3 -N concentrations. This variation occurs in <3 weeks and recovery of <10% of the originally injected volume. TOC is low in the basalt aquifer, averaging <1.5 mg/L, but high in the injected source water, averaging >3.0 mg/L. Similar to nitrate concentrations, TOC drops in the recovered water, consistent with this component contributing to the denitrification of nitrate during storage.

摘要

含水层储存和恢复(ASR)可以为水资源有限的农业地区提供灌溉用水储存的手段。然而,人们担心注入的水可能会导致地下水水质恶化。在许多农业地区,硝酸盐是一个限制因素。在俄勒冈州中北部的乌姆蒂拉盆地,浅层冲积地下水的硝酸盐氮含量为<3mg/L 至 >9mg/L,注入哥伦比亚河玄武岩组(CRBG),这是一个具有低自然补给率的可渗透承压含水层。然而,一旦开始回收注入的水,回收水中的 NO3-N 迅速下降到<3mg/L(Eaton 等人,2009 年),表明在 ASR 储存期间,NO3-N 可能不会在 CRBG 中持续存在。与 NO3-N 相反,回收水中的其他成分变化不大,这与迁移或简单混合作为 NO3-N 减少的解释不一致。氮同位素比值(δ(15)N)显着增加,范围从+3.5 到>+50,并与 NO3-N 浓度呈反比。这种变化发生在<3 周内,回收的水量不到最初注入量的 10%。TOC 在玄武岩含水层中含量较低,平均<1.5mg/L,但在注入的源水中含量较高,平均>3.0mg/L。与硝酸盐浓度相似,TOC 在回收水中下降,这表明该成分在储存期间有助于硝酸盐的反硝化作用。

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