Analysis of influence of the power plant ash storage yard on groundwater environment

LI Duo; WEI Ai-hua

Volume 4 Issue 1

Mar. 2016

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Article Navigation > Journal of Groundwater Science and Engineering > 2016 > 4(1): 35-40

LI Duo, WEI Ai-hua. 2016: Analysis of influence of the power plant ash storage yard on groundwater environment. Journal of Groundwater Science and Engineering, 4(1): 35-40.

Citation:

LI Duo, WEI Ai-hua. 2016: Analysis of influence of the power plant ash storage yard on groundwater environment. Journal of Groundwater Science and Engineering, 4(1): 35-40.

Citation:

LI Duo, WEI Ai-hua. 2016: Analysis of influence of the power plant ash storage yard on groundwater environment. Journal of Groundwater Science and Engineering, 4(1): 35-40.

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Analysis of influence of the power plant ash storage yard on groundwater environment

LI Duo^,,
WEI Ai-hua

1Shijiazhuang University of Economics, Shijiazhuang 050031, China.2Hebei Key Laboratory of Sustained Utilization and Development of Water Resources, Shijiazhuang 050031, China.

Publish Date: 2016-03-28

Abstract

Abstract

The fluoride contained in the filter liquor produced by fly ash in the thermal power plant which takes the coal as fuel can lead to groundwater pollution. Therefore, it is of great significance to study the migration characteristics of the pollutants in groundwater, in order to control and prevent the groundwater fluoride pollution. By adopting the numerical modeling method, this paper takes the ash-storage yard of Shahe Power Plant in Xingtai City as an example, to study the characteristics of fluoride migration in phreatic water, and establish a two-dimensional groundwater flow and water quality model on the basis of the hydrogeological condition analysis in this study area. Meanwhile, based on the Vmodflow software, the migration regulation of the fluoride in groundwater has been simulated. Because the phreatic aquifer of this area belonging to the Shahe alluvial-diluvial sediments and with a coarse lithology as well as high permeability, the migration and diffusion ability of the fluoride in this area is relatively strong. It turns out that the longest migration distance in 5 years is 892 m and that within 8 years is 1 515 m.
- Fluoride,
- Fly ash,
- Water quality model

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References(9)

References

YIN Guo-xun, LI Yan-fen. 2007. Sources analysis of source water Cr (VI) in Jiangzuo water supply plant. Environmental Monitoring in China, 23(6): 65-68.

Issa A I, Preston K P, et al. 2003. A study investigating the formation of artificial sub-surface enamel caries-like lesions in deciduous and permanent teeth in the presence and absence of fluoride. Archives of Oral Biology, 48(8): 567-5711.

LIU Chang-li, ZHANG Yun et al. 2006. Experimental studies of the filtration capability of clayey soils in the vadose zone and its influence on the evaluation of groundwater vulnerability to pollution. ACTA Geoscientica SINICA, 27(4): 349-354.

Subhashini G, Pant K K. 2005. Equilibrium, kinetics and breakthrough studies foradsorption of fluorine on activated alumina. Separation and Purification Technology, 42(3): 65-2711.

CHEN Cong-xi, LI Guo-min. 1996. Theory and model of karst groundwater solute. Wuhan: Publishing House of China University of Geosciences.

BAI Ji-hong, ZHANG Yong-bo. 2008. Experiment on the influence of the power plant ash storage yard on groundwater. Journal of Earth Sciences and Environment, 30(4): 408-411.

WANG Bin-bin, ZHENG Bao-shan, LIAO Ang. 2010. Fluoride enrichment and leaching in the soil. ACTA Mineralogica SINICA, 30(4): 496-500.

Ruiz T, Persin F, et al. 2003. Modelisation of fluoride removal in Donnan dialysis. Journal of Membrane Science, 212(1): 113-121.

YIN Guo-xun, YAN Yin, FAN Jun-ling. 2007. Influence of ash storage yard on Cr6+ of source water in Jiangzuo water supply plant. Journal of Henan Polytechnic University (Natural Science), 26(6): 664-669.

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