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爱沙尼亚中西部碳酸盐含水层系统中氟和硼的赋存及其水化学特征

The occurrence and hydrochemistry of fluoride and boron in carbonate aquifer system, central and western Estonia.

机构信息

Department of Geology, Institute of Ecology and Earth Sciences, University of Tartu, Ravila 14A, 50411 Tartu, Estonia.

出版信息

Environ Monit Assess. 2013 May;185(5):3735-48. doi: 10.1007/s10661-012-2824-5. Epub 2012 Aug 19.

DOI:10.1007/s10661-012-2824-5
PMID:22903335
Abstract

Silurian-Ordovician (S-O) aquifer system is an important drinking water source of central and western Estonia. The fluoride and boron contents of groundwater in aquifer system vary considerably. The fluoride concentration in 60 collected groundwater samples ranged from 0.1 to 6.1 mg/l with a mean of 1.95 mg/l in the study area. Boron content in groundwater varied from 0.05 mg/l to 2.1 mg/l with a mean value of 0.66 mg/l. Considering the requirements of EU Directive 98/83/EC and the Estonian requirements for drinking water quality, the limit value for fluoride (1.5 mg/l) and for boron (1.0 mg/l) is exceeded in 47 and 28 % of wells, respectively. Groundwater with high fluoride and boron concentrations is found mainly in western Estonia and deeper portion of aquifer system, where groundwater chemical type is HCO3-Cl-Na-Mg-Ca, water is alkaline, and its Ca(2+) content is low. Groundwater of the study area is undersaturated with respect to fluorite and near to equilibrium phase with respect to calcite. The comparison of TDS versus Na/(Na + Ca) and Cl/(Cl + HCO3) points to the dominance of rock weathering as the main process, which promotes the availability of fluoride and boron in the groundwater. The geological sources of B in S-O aquifer system have not been studied so far, but the dissolution of fluorides from carbonate rocks (F = 100-400 mg/kg) and K-bentonites (F = 2,800-4,500 mg/kg) contributes to the formation of F-rich groundwater.

摘要

志留系-奥陶系(S-O)含水层系统是爱沙尼亚中部和西部的重要饮用水源。该含水层系统中的地下水氟和硼含量差异很大。在研究区域内,60 个采集地下水样本的氟浓度范围为 0.1 至 6.1 毫克/升,平均值为 1.95 毫克/升。地下水中的硼含量从 0.05 毫克/升变化到 2.1 毫克/升,平均值为 0.66 毫克/升。考虑到欧盟指令 98/83/EC 的要求以及爱沙尼亚对饮用水质量的要求,氟(1.5 毫克/升)和硼(1.0 毫克/升)的限值分别在 47%和 28%的水井中超标。高氟和高硼浓度的地下水主要分布在爱沙尼亚西部和含水层系统的深部,那里的地下水化学类型为 HCO3-Cl-Na-Mg-Ca,水呈碱性,Ca(2+)含量较低。研究区域的地下水相对于萤石处于不饱和状态,相对于方解石则接近平衡相。TDS 与 Na/(Na + Ca)和 Cl/(Cl + HCO3)的比较表明,岩石风化是主要过程,促进了地下水氟和硼的可用性。S-O 含水层系统中硼的地质来源尚未得到研究,但碳酸盐岩(F = 100-400 毫克/公斤)和 K-膨润土(F = 2800-4500 毫克/公斤)中氟化物的溶解有助于形成富氟地下水。

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