Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China

Research output: Contribution to journalJournal articleResearchpeer-review

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Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China. / Li, Baoling; Song, Xianfang; Yang, Lihu; Yao, Dongxu; Xu, Yingchun.

In: Water, Vol. 12, No. 7, 1939, 2020.

Research output: Contribution to journalJournal articleResearchpeer-review

Harvard

Li, B, Song, X, Yang, L, Yao, D & Xu, Y 2020, 'Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China', Water, vol. 12, no. 7, 1939. https://doi.org/10.3390/w12071939

APA

Li, B., Song, X., Yang, L., Yao, D., & Xu, Y. (2020). Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China. Water, 12(7), [1939]. https://doi.org/10.3390/w12071939

Vancouver

Li B, Song X, Yang L, Yao D, Xu Y. Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China. Water. 2020;12(7). 1939. https://doi.org/10.3390/w12071939

Author

Li, Baoling ; Song, Xianfang ; Yang, Lihu ; Yao, Dongxu ; Xu, Yingchun. / Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China. In: Water. 2020 ; Vol. 12, No. 7.

Bibtex

@article{ef0d9941fb384a8db1b69fc42bca8d23,
title = "Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China",
abstract = "Understanding the hydrologic and hydrochemistry processes in the riparian area is of great importance for managing and protecting riparian water resources. This paper took a highly disturbed and polluted Shaying River Basin (SRB) of China as the study area. In this research, environmental tracers (hydrochemical and isotopic data of(222)Rn, delta O-18, and delta D) and corresponding models (two-component mixing model and(222)Rn mass balance model) were employed to investigate the hydrologic and associated hydro-chemical process of riparian groundwater. The results indicated that rivers received groundwater discharge located at Xihua (J8), Zhoukou (Y1), Luohe (S2), and Shenqiu (SY2), and the mixing extent with groundwater was greater in wet seasons than in dry seasons. The(222)Rn mass balance model showed that the flux of river water leakage was 3.27 x 10(-4)m(3)/(s center dot m) at the front of Zhoukou sluice while groundwater discharge was 3.50 x 10(-3)m(3)/(s center dot m) at the front of Shenqiu sluice during the sampling period. The cation exchange and the dissolution/precipitation of aquifer minerals (including calcite, dolomite, gypsum, and halite) were dominated by geochemical processes. The untreated sewage discharge and fertilizer usage were the main anthropogenic activities affecting the hydrochemistry process in surface water and riparian groundwater. Additionally, our results found that nitrate pollutants derived by riparian groundwater were potential threats to river quality at the lower reaches of Jialu River and Shenqiu county of Shaying River, where the nitrate inputs could be larger during the wet seasons because of higher groundwater discharge.",
keywords = "hydrochemistry, environmental tracers, radon, riparian groundwater, Shaying River, SURFACE-WATER, STABLE-ISOTOPES, GEOCHEMICAL EVOLUTION, SEMIARID AREA, MASS-BALANCE, RN-222, QUALITY, DISCHARGE, RECHARGE, O-18",
author = "Baoling Li and Xianfang Song and Lihu Yang and Dongxu Yao and Yingchun Xu",
year = "2020",
doi = "10.3390/w12071939",
language = "English",
volume = "12",
journal = "Water",
issn = "2073-4441",
publisher = "M D P I AG",
number = "7",

}

RIS

TY - JOUR

T1 - Insights onto Hydrologic and Hydro-Chemical Processes of Riparian Groundwater Using Environmental Tracers in the Highly Disturbed Shaying River Basin, China

AU - Li, Baoling

AU - Song, Xianfang

AU - Yang, Lihu

AU - Yao, Dongxu

AU - Xu, Yingchun

PY - 2020

Y1 - 2020

N2 - Understanding the hydrologic and hydrochemistry processes in the riparian area is of great importance for managing and protecting riparian water resources. This paper took a highly disturbed and polluted Shaying River Basin (SRB) of China as the study area. In this research, environmental tracers (hydrochemical and isotopic data of(222)Rn, delta O-18, and delta D) and corresponding models (two-component mixing model and(222)Rn mass balance model) were employed to investigate the hydrologic and associated hydro-chemical process of riparian groundwater. The results indicated that rivers received groundwater discharge located at Xihua (J8), Zhoukou (Y1), Luohe (S2), and Shenqiu (SY2), and the mixing extent with groundwater was greater in wet seasons than in dry seasons. The(222)Rn mass balance model showed that the flux of river water leakage was 3.27 x 10(-4)m(3)/(s center dot m) at the front of Zhoukou sluice while groundwater discharge was 3.50 x 10(-3)m(3)/(s center dot m) at the front of Shenqiu sluice during the sampling period. The cation exchange and the dissolution/precipitation of aquifer minerals (including calcite, dolomite, gypsum, and halite) were dominated by geochemical processes. The untreated sewage discharge and fertilizer usage were the main anthropogenic activities affecting the hydrochemistry process in surface water and riparian groundwater. Additionally, our results found that nitrate pollutants derived by riparian groundwater were potential threats to river quality at the lower reaches of Jialu River and Shenqiu county of Shaying River, where the nitrate inputs could be larger during the wet seasons because of higher groundwater discharge.

AB - Understanding the hydrologic and hydrochemistry processes in the riparian area is of great importance for managing and protecting riparian water resources. This paper took a highly disturbed and polluted Shaying River Basin (SRB) of China as the study area. In this research, environmental tracers (hydrochemical and isotopic data of(222)Rn, delta O-18, and delta D) and corresponding models (two-component mixing model and(222)Rn mass balance model) were employed to investigate the hydrologic and associated hydro-chemical process of riparian groundwater. The results indicated that rivers received groundwater discharge located at Xihua (J8), Zhoukou (Y1), Luohe (S2), and Shenqiu (SY2), and the mixing extent with groundwater was greater in wet seasons than in dry seasons. The(222)Rn mass balance model showed that the flux of river water leakage was 3.27 x 10(-4)m(3)/(s center dot m) at the front of Zhoukou sluice while groundwater discharge was 3.50 x 10(-3)m(3)/(s center dot m) at the front of Shenqiu sluice during the sampling period. The cation exchange and the dissolution/precipitation of aquifer minerals (including calcite, dolomite, gypsum, and halite) were dominated by geochemical processes. The untreated sewage discharge and fertilizer usage were the main anthropogenic activities affecting the hydrochemistry process in surface water and riparian groundwater. Additionally, our results found that nitrate pollutants derived by riparian groundwater were potential threats to river quality at the lower reaches of Jialu River and Shenqiu county of Shaying River, where the nitrate inputs could be larger during the wet seasons because of higher groundwater discharge.

KW - hydrochemistry

KW - environmental tracers

KW - radon

KW - riparian groundwater

KW - Shaying River

KW - SURFACE-WATER

KW - STABLE-ISOTOPES

KW - GEOCHEMICAL EVOLUTION

KW - SEMIARID AREA

KW - MASS-BALANCE

KW - RN-222

KW - QUALITY

KW - DISCHARGE

KW - RECHARGE

KW - O-18

U2 - 10.3390/w12071939

DO - 10.3390/w12071939

M3 - Journal article

VL - 12

JO - Water

JF - Water

SN - 2073-4441

IS - 7

M1 - 1939

ER -

ID: 249486607