Interaction of Aquifer and River-Canal Network near Well Field

The article presents semi‐analytical mathematical models to asses (1) enhancements of seepage from a canal and (2) induced flow from a partially penetrating river in an unconfined aquifer consequent to groundwater withdrawal in a well field in the vicinity of the river and canal. The nonlinear expon...

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Veröffentlicht in:Ground water 2015-09, Vol.53 (5), p.794-805
Hauptverfasser: Ghosh, Narayan C., Mishra, Govinda C., Sandhu, Cornelius S. S., Grischek, Thomas, Singh, Vikrant V.
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container_end_page 805
container_issue 5
container_start_page 794
container_title Ground water
container_volume 53
creator Ghosh, Narayan C.
Mishra, Govinda C.
Sandhu, Cornelius S. S.
Grischek, Thomas
Singh, Vikrant V.
description The article presents semi‐analytical mathematical models to asses (1) enhancements of seepage from a canal and (2) induced flow from a partially penetrating river in an unconfined aquifer consequent to groundwater withdrawal in a well field in the vicinity of the river and canal. The nonlinear exponential relation between seepage from a canal reach and hydraulic head in the aquifer beneath the canal reach is used for quantifying seepage from the canal reach. Hantush's (1967) basic solution for water table rise due to recharge from a rectangular spreading basin in absence of pumping well is used for generating unit pulse response function coefficients for water table rise in the aquifer. Duhamel's convolution theory and method of superposition are applied to obtain water table position due to pumping and recharge from different canal reaches. Hunt's (1999) basic solution for river depletion due to constant pumping from a well in the vicinity of a partially penetrating river is used to generate unit pulse response function coefficients. Applying convolution technique and superposition, treating the recharge from canal reaches as recharge through conceptual injection wells, river depletion consequent to variable pumping and recharge is quantified. The integrated model is applied to a case study in Haridwar (India). The well field consists of 22 pumping wells located in the vicinity of a perennial river and a canal network. The river bank filtrate portion consequent to pumping is quantified.
doi_str_mv 10.1111/gwat.12274
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Duhamel's convolution theory and method of superposition are applied to obtain water table position due to pumping and recharge from different canal reaches. Hunt's (1999) basic solution for river depletion due to constant pumping from a well in the vicinity of a partially penetrating river is used to generate unit pulse response function coefficients. Applying convolution technique and superposition, treating the recharge from canal reaches as recharge through conceptual injection wells, river depletion consequent to variable pumping and recharge is quantified. The integrated model is applied to a case study in Haridwar (India). The well field consists of 22 pumping wells located in the vicinity of a perennial river and a canal network. 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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Aquifers
Groundwater
Hydraulics
Hydrology
India
Mathematical models
Models, Theoretical
Rivers
Water Movements
Water Wells
Wells
title Interaction of Aquifer and River-Canal Network near Well Field
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