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印度南部半城市地区氟化物和硝酸盐含量升高的地下水的化学性质及健康危害风险评估

Groundwater chemistry and health hazard risk valuation of fluoride and nitrate enhanced groundwater from a semi-urban region of South India.

作者信息

Dhakate Ratnakar, More Shekhar, Duvva Laxman Kumar, Enjamuri Satyanarayana

机构信息

CSIR-National Geophysical Research Institute, Uppal Road, Hyderabad, 500007, Telangana, India.

Academy of Scientific and Innovative Research (AcSIR), Ghaziabad, 201002, India.

出版信息

Environ Sci Pollut Res Int. 2023 Mar;30(15):43554-43572. doi: 10.1007/s11356-023-25287-z. Epub 2023 Jan 20.

DOI:10.1007/s11356-023-25287-z
PMID:36658319
Abstract

Evaluation of groundwater chemistry and its related health hazard risk for humans is a prerequisite remedial measure. The semi-urban region in southern India was selected to measure the groundwater quality to know the human health risk valuation for different age groups of adults and children through oral intake and skin contact with elevated concentrations of fluoride ([Formula: see text]) and nitrate ([Formula: see text]) groundwater. Groundwater samples were collected from the semi-urban region for pre- and post-rainfall periods and resolute its major ion chemistry. The pH values showed the water is alkaline to neutral in nature. Total dissolved solid (TDS) ranged from 201 to 3612 mg/l and 154 to 3457 mg/l. However, [Formula: see text] concentration ranges from 0.28 to 5.48 mg/l and 0.21 to 4.43 mg/l; and NO ranges from 0.09 to 897.28 mg/l and 0.0 to 606.10 mg/l elevating the drinking water standards of [Formula: see text] in 32% and 38% samples and for [Formula: see text] about 62% and 38% during pre- and post-rainfall seasons, respectively. The fluoride-bearing minerals are the main sources of elevated concentrations of [Formula: see text] and excessive use of chemical fertilizers as the chief source of NO concentration in the aquifer regime. Water quality index (WQI) ranged from 18.3 to 233 and 12.97 to 219.14; 20% and 22% showed poor water quality for pre- and post-rainfall seasons with WQI ≥ 200. Piper plot suggests that 46% and 51% of samples signify carbonate water type ([Formula: see text]), and 32% and 28% of groundwater samples show ([Formula: see text]) type water for pre- and post-rainfall seasons respectively. Gibbs' plot suggests the dominance of water-rock interaction in the aquifer system. Further, the principal component analysis (PCA) revealed three and four components which explain 74.85% and 79.30% of the variance in pre- and post-rainfall seasons with positive loading of EC, TDS, Ca, Na, Mg, K, [Formula: see text], Cl, and [Formula: see text] due to mineral weathering and water-rock interactions altering the chemistry for an elevated concentration of [Formula: see text] and [Formula: see text] in groundwater. Cluster analyses of chemical variables observed four clusters with a linkage distance of 5 to 25 with a linkage between different variables displaying predominant ion exchange, weathering of silicate and fluoride-rich minerals, salinization of the water, and a high value of [Formula: see text] concentration, resulting from fertilizers. The hazard quotient (HQ) through ingestion (HQ) and dermal (HQ) pathways of F and NO was observed higher than its acceptable limit of 1.0 for different age groups indicating the non-carcinogenic effect on human health. Effective strategic measures like defluoridation, denitrification, safe drinking water supply, sanitary facilities, and rainwater harvesting structures are to be implemented in the area for improvement of human health conditions and also bring awareness to the local community about the health hazard effects of using high concentrated [Formula: see text] and [Formula: see text] water for daily uses.

摘要

评估地下水化学性质及其对人类的相关健康危害风险是一项必要的补救措施。印度南部的半城市地区被选来测量地下水质量,以通过成年人和儿童不同年龄组经口摄入以及皮肤接触氟化物([化学式:见原文])和硝酸盐([化学式:见原文])浓度升高的地下水来了解人类健康风险评估。在半城市地区采集了降雨前后时期的地下水样本,并测定其主要离子化学性质。pH值表明水的性质呈碱性至中性。总溶解固体(TDS)范围为201至3612毫克/升以及154至3457毫克/升。然而,[化学式:见原文]浓度范围为0.28至5.48毫克/升以及0.21至4.43毫克/升;而硝酸盐范围为0.09至897.28毫克/升以及0.0至606.10毫克/升,在降雨前和降雨后季节分别有32%和38%的样本中氟化物超过饮用水标准,约62%和38%的样本中硝酸盐超过标准。含氟矿物是氟化物浓度升高的主要来源,而过度使用化肥是含水层系统中硝酸盐浓度的主要来源。水质指数(WQI)范围为18.3至233以及12.97至219.14;降雨前和降雨后季节分别有20%和22%的样本水质较差,WQI≥200。派珀图表明46%和51%的样本表示碳酸盐水质类型([化学式:见原文]),降雨前和降雨后季节分别有32%和28%的地下水样本显示为([化学式:见原文])类型的水。吉布斯图表明含水层系统中以水 - 岩相互作用为主导。此外,主成分分析(PCA)揭示了三个和四个成分,分别解释了降雨前和降雨后季节74.85%和79.30%的方差,由于矿物风化和水 - 岩相互作用改变了化学性质,导致地下水中氟化物和硝酸盐浓度升高,电导率(EC)、总溶解固体(TDS)、钙(Ca)、钠(Na)、镁(Mg)、钾(K)、[化学式:见原文]、氯(Cl)和[化学式:见原文]呈正负荷。对化学变量的聚类分析观察到四个聚类,连接距离为5至25,不同变量之间的连接显示出主要的离子交换、富含硅酸盐和氟化物矿物的风化、水的盐渍化以及因化肥导致的高浓度[化学式:见原文]。通过摄入(HQ)和皮肤接触(HQ)途径的氟化物和硝酸盐的危害商(HQ)对于不同年龄组均高于其可接受限值1.0,表明对人类健康有非致癌影响。该地区应实施诸如除氟、脱硝、安全饮用水供应、卫生设施和雨水收集结构等有效战略措施以改善人类健康状况,并使当地社区认识到使用高浓度[化学式:见原文]和[化学式:见原文]水用于日常用途对健康的危害影响。

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