A sustainable bioengineering approach for enhancing black cotton soil stability using waste foundry sand

Abstract The disposal of waste foundry sand (WFS) poses environmental challenges, necessitating sustainable bioengineering solutions. This study investigates WFS as a stabilizer for black cotton soil (BCS) to enhance its geotechnical properties for construction. BCS mixed with 10%–40% WFS was evaluated through Atterberg limits, compaction, unconfined compressive strength (UCS), and California bearing ratio (CBR) tests. The optimal 20% WFS reduced the liquid limit by 17.18%, decreased plasticity by 28%, and improved UCS by 157.45%. CBR values increased significantly, highlighting WFS’s potential in bioengineering applications for sustainable soil stabilization and environmental conservation.

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Publication Details

Journal
International Journal of Low-Carbon Technologies
Published
2025-01-01
DOI
https://doi.org/10.1093/ijlct/ctaf054
Citations
12
Primary Topic
Materials Engineering and Processing
Type
article
Field-Weighted Citation Impact
8.56
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article

A sustainable bioengineering approach for enhancing black cotton soil stability using waste foundry sand

T. Sathish, Thejasree Pasupuleti, Neeraj Sunheriya, N. Manikandan et al.
12 citations
International Journal of Low-Carbon Technologies
Materials Engineering and Processing
8.56
article

A sustainable bioengineering approach for enhancing black cotton soil stability using waste foundry sand

T. Sathish, Thejasree Pasupuleti, Neeraj Sunheriya, N. Manikandan, Muhammad Imam Ammarullah, Jayant Giri, Rajkumar Chadge, Ajay Kumar, Pramod Kumar, Padam Siva Kumar
article en
12 citations

Abstract

Abstract The disposal of waste foundry sand (WFS) poses environmental challenges, necessitating sustainable bioengineering solutions. This study investigates WFS as a stabilizer for black cotton soil (BCS) to enhance its geotechnical properties for construction. BCS mixed with 10%–40% WFS was evaluated through Atterberg limits, compaction, unconfined compressive strength (UCS), and California bearing ratio (CBR) tests. The optimal 20% WFS reduced the liquid limit by 17.18%, decreased plasticity by 28%, and improved UCS by 157.45%. CBR values increased significantly, highlighting WFS’s potential in bioengineering applications for sustainable soil stabilization and environmental conservation.

International Journal of Low-Carbon TechnologiesVol. 20
Fakir Mohan University (IN), Lovely Professional University (IN), Diponegoro University (ID), JECRC University (IN), Institute of Engineering (NP), Impact (CA), Chitkara University (IN), Saveetha University (IN)
Openalex Percentile: Top 2%
Materials Engineering and Processing
8.56
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A sustainable bioengineering approach for enhancing black cotton soil stability using waste foundry sand — T. Sathish, Thejasree Pasupuleti, et al. · International Journal of Low-Carbon Technologies (2025) | TGRS Research Map | TGRS