A general solution for leakage through geomembrane defects overlain by saturated tailings and underlain by highly permeable subgrade

Experimental data is presented for leakage through slits, square, and rectangular geomembrane defects overlain by silty sand tailings and underlain by a well-graded gravel. The rectangular GMB defects have a range of widths, B, lengths, L, and aspect ratios (L/B), and ratios of defect length to thic...

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Published inGeotextiles and geomembranes Vol. 50; no. 4; pp. 694 - 707
Main Authors Rowe, R. Kerry, Fan, Jiying
Format Journal Article
LanguageEnglish
Published Essex Elsevier Ltd 01.08.2022
Elsevier BV
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Abstract Experimental data is presented for leakage through slits, square, and rectangular geomembrane defects overlain by silty sand tailings and underlain by a well-graded gravel. The rectangular GMB defects have a range of widths, B, lengths, L, and aspect ratios (L/B), and ratios of defect length to thickness of tailings above the geomembrane (L/T). A blade cut slit (or simulated stress crack) widens to an extent dependant on the subgrade and stress level. For L= 100 mm, increasing B (0.15 < B/L ≤ 1) from 1.6 (slit) to 100 mm (square), decreases the leakage from about twice to essentially the same as that for a circular hole of equal area. The ratio (h1/H) of head loss within the hole, h1, relative to the total head loss, H, is independent of loading conditions and constant for any particular hole shape (B/L), area (B∙L), and relative depth (L/T). A semi-empirical general solution is developed for a rectangle within the range of 0 ≤ B/L ≤ 1 with the solution converging to that for a strip for B/L→ 0 and to a circle for B/L→ 1. The solution gives calculated leakage in encouraging agreement with the experimental data. •Investigates the factors affecting leakage through a rectangular hole in a geomembrane overlain by tailings.•Studies how hole geometry affects leakage.•Provides a semi-empirical general solution for predicting leakage through quasi circular, rectangular, and strip (L » B) holes.•Investigates the physical and hydraulic response of a blade cut slit with flat and uneven ground conditions.
AbstractList Experimental data is presented for leakage through slits, square, and rectangular geomembrane defects overlain by silty sand tailings and underlain by a well-graded gravel. The rectangular GMB defects have a range of widths, B, lengths, L, and aspect ratios (L/B), and ratios of defect length to thickness of tailings above the geomembrane (L/T). A blade cut slit (or simulated stress crack) widens to an extent dependant on the subgrade and stress level. For L= 100 mm, increasing B (0.15 < B/L ≤ 1) from 1.6 (slit) to 100 mm (square), decreases the leakage from about twice to essentially the same as that for a circular hole of equal area. The ratio (h1/H) of head loss within the hole, h1, relative to the total head loss, H, is independent of loading conditions and constant for any particular hole shape (B/L), area (B∙L), and relative depth (L/T). A semi-empirical general solution is developed for a rectangle within the range of 0 ≤ B/L ≤ 1 with the solution converging to that for a strip for B/L→ 0 and to a circle for B/L→ 1. The solution gives calculated leakage in encouraging agreement with the experimental data.
Experimental data is presented for leakage through slits, square, and rectangular geomembrane defects overlain by silty sand tailings and underlain by a well-graded gravel. The rectangular GMB defects have a range of widths, B, lengths, L, and aspect ratios (L/B), and ratios of defect length to thickness of tailings above the geomembrane (L/T). A blade cut slit (or simulated stress crack) widens to an extent dependant on the subgrade and stress level. For L= 100 mm, increasing B (0.15 < B/L ≤ 1) from 1.6 (slit) to 100 mm (square), decreases the leakage from about twice to essentially the same as that for a circular hole of equal area. The ratio (h1/H) of head loss within the hole, h1, relative to the total head loss, H, is independent of loading conditions and constant for any particular hole shape (B/L), area (B∙L), and relative depth (L/T). A semi-empirical general solution is developed for a rectangle within the range of 0 ≤ B/L ≤ 1 with the solution converging to that for a strip for B/L→ 0 and to a circle for B/L→ 1. The solution gives calculated leakage in encouraging agreement with the experimental data. •Investigates the factors affecting leakage through a rectangular hole in a geomembrane overlain by tailings.•Studies how hole geometry affects leakage.•Provides a semi-empirical general solution for predicting leakage through quasi circular, rectangular, and strip (L » B) holes.•Investigates the physical and hydraulic response of a blade cut slit with flat and uneven ground conditions.
Author Fan, Jiying
Rowe, R. Kerry
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Issue 4
Keywords Leakage
Geosynthetics
Slit
Tailings
Geomembrane
Rectangular defect
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Snippet Experimental data is presented for leakage through slits, square, and rectangular geomembrane defects overlain by silty sand tailings and underlain by a...
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SubjectTerms Aspect ratio
Boundary conditions
Defects
Geochemistry
Geomembrane
Geosynthetics
Graphene
Heat transfer
Leakage
Rectangular defect
Slit
Slits
Stress
Tailings
Title A general solution for leakage through geomembrane defects overlain by saturated tailings and underlain by highly permeable subgrade
URI https://dx.doi.org/10.1016/j.geotexmem.2022.03.010
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Volume 50
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