Seasonal variation of infiltration rates through pond bed in a managed aquifer recharge system in St‐André, Belgium

In Belgium, IWVA uses managed aquifer recharge (MAR) to recharge the aquifer with treated wastewater generated from the communities to sustain the potable water supply on the Belgian coast. This MAR facility is faced with a challenge of reduced infiltration rates during the winter season when pond w...

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Veröffentlicht in:Hydrological processes 2020-08, Vol.34 (18), p.3807-3823
Hauptverfasser: Samanta, Sayantan, Sheng, Zhuping, Munster, Clyde L., Van Houtte, Emmanuel
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container_issue 18
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Sheng, Zhuping
Munster, Clyde L.
Van Houtte, Emmanuel
description In Belgium, IWVA uses managed aquifer recharge (MAR) to recharge the aquifer with treated wastewater generated from the communities to sustain the potable water supply on the Belgian coast. This MAR facility is faced with a challenge of reduced infiltration rates during the winter season when pond water temperatures near 4°C. This study involves the identification of the predominant factor influencing the rate of infiltration through the pond bed. Several factors, including pumping rates, natural recharge, tidal influences of the North Sea and pond‐water temperature, were identified as potential causes for variation of the recharge rate. Correlation statistics and linear regression analysis were used to determine the sensitivity of the infiltration rate to the aforementioned factors. Two groundwater flow models were developed in visual MODFLOW to simulate the water movement under the pond bed and to obtain the differences in flux to track the effects of variation of hydraulic conductivity during the two seasons. A 32% reduction in vertical hydraulic gradient in the top portion of the aquifer was observed in winter, causing the recharge rates to fluctuate. Results showed that water temperature caused a 30% increase in hydraulic conductivity in summer as compared with winter and has the maximum impact on infiltration rate. Cyclic variations in water viscosity, occurring because of seasonal temperature changes, influence the saturated hydraulic conductivity of the pond bed. Results from the models confirm the impact on infiltration rate by temperature‐influenced hydraulic conductivity. Temperature and infiltration rates have been found to be very well correlated when it comes to MAR. This study in St‐André, Belgium revealed that temperature variations could cause a massive 30% increase in hydraulic conductivity in summer than that in the winter. Also, 32% reduction in vertical hydraulic gradient was observed in the top portion of the aquifer, which directly influenced the recharge rates in the MAR facility.
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source Wiley Online Library Journals Frontfile Complete
subjects Aquifer management
Aquifer recharge
Aquifer systems
Aquifers
ASR
Computer simulation
Correlation analysis
Drinking water
genetic programming
Groundwater
Groundwater flow
groundwater flow modelling
Groundwater flow models
groundwater hydrology
Groundwater recharge
Hydraulic conductivity
Hydraulic gradient
Hydraulics
Infiltration
infiltration pond model
Infiltration rate
IWVA
Natural recharge
Ponds
Pumping rates
Regression analysis
seasonal recharge
Seasonal variation
Seasonal variations
Seasons
Statistical analysis
Statistical methods
Temperature changes
temperature–infiltration rate relationship
Viscosity
Wastewater
Wastewater treatment
Water supply
Water temperature
Winter
title Seasonal variation of infiltration rates through pond bed in a managed aquifer recharge system in St‐André, Belgium
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