Statistical analyses of the effect of a drainage tunnel on landslide hydrogeological characteristics

A high groundwater level is highly relevant to the slope instability. Drainage tunnel is an effective method for groundwater level control, but its effect on landslide hydrogeological characteristics is rarely discussed. This study analysed the changes of the landslide hydrogeological characteristic...

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Veröffentlicht in:Hydrological processes 2020-05, Vol.34 (11), p.2418-2432, Article hyp.13738
Hauptverfasser: Wang, Dong‐fei, Xu, Hao‐di, Wang, Lei, Wu, Xian, Sun, Hong‐yue
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creator Wang, Dong‐fei
Xu, Hao‐di
Wang, Lei
Wu, Xian
Sun, Hong‐yue
description A high groundwater level is highly relevant to the slope instability. Drainage tunnel is an effective method for groundwater level control, but its effect on landslide hydrogeological characteristics is rarely discussed. This study analysed the changes of the landslide hydrogeological characteristics under the effect of a drainage tunnel by real‐time monitoring of rainfall, groundwater level, and surface displacement. The trend and mutation of groundwater level are analysed by the Mann–Kendall test and the Mann–Kendall mutation test. The memory effect of groundwater in the landslide area was analysed using autocorrelation analysis. The response characteristics of groundwater level to rainfall were evaluated using cross‐correlation analysis and mutual information theory. Variations of groundwater levels were further investigated based on hydrograph analysis. Results showed that the groundwater level had a downward trend from 2016 to 2017. The significant downward trend of groundwater levels began in August 2016. The memory effect of groundwater levels was longer under the effect of the drainage tunnel. Before the construction of the drainage tunnel, the response time of groundwater to rainfall was less than 3 hr and rainfall can generate dramatic groundwater level variations. After the drainage tunnel was completed, time lags can be observed in the groundwater response, and the variation of groundwater levels was smaller than before. A strong correlation was found between groundwater levels and the landslide movement. This study demonstrated that the drainage tunnel had effectively controlled the groundwater level in the landslide and ensured the stability of the landslide. Under the effect of a drainage tunnel, the groundwater level in the landslide area had dropped clearly and had a downward trend. The memory effect of the groundwater level was longer. And the response of groundwater to rainfall was weaker.
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Drainage tunnel is an effective method for groundwater level control, but its effect on landslide hydrogeological characteristics is rarely discussed. This study analysed the changes of the landslide hydrogeological characteristics under the effect of a drainage tunnel by real‐time monitoring of rainfall, groundwater level, and surface displacement. The trend and mutation of groundwater level are analysed by the Mann–Kendall test and the Mann–Kendall mutation test. The memory effect of groundwater in the landslide area was analysed using autocorrelation analysis. The response characteristics of groundwater level to rainfall were evaluated using cross‐correlation analysis and mutual information theory. Variations of groundwater levels were further investigated based on hydrograph analysis. Results showed that the groundwater level had a downward trend from 2016 to 2017. The significant downward trend of groundwater levels began in August 2016. The memory effect of groundwater levels was longer under the effect of the drainage tunnel. Before the construction of the drainage tunnel, the response time of groundwater to rainfall was less than 3 hr and rainfall can generate dramatic groundwater level variations. After the drainage tunnel was completed, time lags can be observed in the groundwater response, and the variation of groundwater levels was smaller than before. A strong correlation was found between groundwater levels and the landslide movement. This study demonstrated that the drainage tunnel had effectively controlled the groundwater level in the landslide and ensured the stability of the landslide. Under the effect of a drainage tunnel, the groundwater level in the landslide area had dropped clearly and had a downward trend. The memory effect of the groundwater level was longer. 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source Wiley Online Library Journals Frontfile Complete
subjects Autocorrelation
Control stability
Correlation analysis
Drainage
Drainage control
drainage tunnel
field monitoring
Geology
Groundwater
Groundwater levels
hydrogeological characteristics
Hydrogeology
Hydrograph analysis
Information theory
landslide
Landslide effects
Landslides
Mutation
Precipitation monitoring
Rain
Rainfall
Response time
Slope stability
Statistical analysis
Statistical methods
time‐series analysis
Tunnel construction
Tunnels
Variation
title Statistical analyses of the effect of a drainage tunnel on landslide hydrogeological characteristics
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