The effect of glass powder and husk ash on the permeability of clay soil

Abstract In geotechnical engineering, hydraulic conductivity is a crucial characteristic that affects applications like stability analysis and irrigation management. However, clay soils usually have low hydraulic conductivity, which makes them unsuitable for use in several types of constructions. This current study investigates the combined use of glass powder and rice husk ash as additives and evaluates their impact on clay soil’s hydraulic conductivity. The research involved preparing soil specimens by mixing 10% glass powder with varying percentages of rice husk (2.5%, 5%, 7.5%, and 10%). Permeability testing was performed using the falling head method, following the Indonesian standard SNI 03-6870:2002. According to a grain size examination, more than 85% of soil’s small particles could be passed through a number 200 sieve. The result showed that adding glass powder and rice husk ash significantly increased the soil’s void ratio and hydraulic conductivity. With 10% glass powder and 5% rice husk ash added, the void ratio peaked at 0.633, and with 10% glass powder and 10% rice husk ash, the greatest hydraulic conductivity was 1.4973×10 −3 m/day (1.7329×10 − 5 cm/sec). However, only the specimen with 10% glass powder and 5% rice husk maintained hydraulic conductivity within the acceptable limit for liners and covers (≤ 1×10 −7 cm/sec). The findings highlight the importance of optimizing stabilizer proportions to achieve desirable soil characteristics.

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Publication Details

Journal
IOP Conference Series Earth and Environmental Science
Published
2024-12-01
DOI
https://doi.org/10.1088/1755-1315/1416/1/012013
Primary Topic
Landfill Environmental Impact Studies
Type
article
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article

The effect of glass powder and husk ash on the permeability of clay soil

John Paulus Pantouw, Dyah Kusumastuti, Sajiharjo
IOP Conference Series Earth and Environmental Science
Landfill Environmental Impact Studies
article

The effect of glass powder and husk ash on the permeability of clay soil

John Paulus Pantouw, Dyah Kusumastuti, Sajiharjo
article en

Abstract

Abstract In geotechnical engineering, hydraulic conductivity is a crucial characteristic that affects applications like stability analysis and irrigation management. However, clay soils usually have low hydraulic conductivity, which makes them unsuitable for use in several types of constructions. This current study investigates the combined use of glass powder and rice husk ash as additives and evaluates their impact on clay soil’s hydraulic conductivity. The research involved preparing soil specimens by mixing 10% glass powder with varying percentages of rice husk (2.5%, 5%, 7.5%, and 10%). Permeability testing was performed using the falling head method, following the Indonesian standard SNI 03-6870:2002. According to a grain size examination, more than 85% of soil’s small particles could be passed through a number 200 sieve. The result showed that adding glass powder and rice husk ash significantly increased the soil’s void ratio and hydraulic conductivity. With 10% glass powder and 5% rice husk ash added, the void ratio peaked at 0.633, and with 10% glass powder and 10% rice husk ash, the greatest hydraulic conductivity was 1.4973×10 −3 m/day (1.7329×10 − 5 cm/sec). However, only the specimen with 10% glass powder and 5% rice husk maintained hydraulic conductivity within the acceptable limit for liners and covers (≤ 1×10 −7 cm/sec). The findings highlight the importance of optimizing stabilizer proportions to achieve desirable soil characteristics.

IOP Conference Series Earth and Environmental ScienceVol. 1416(1)
Institut Teknologi Indonesia (ID)
Life in Land
Openalex Percentile: Top 59%
Landfill Environmental Impact Studies
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