Experimental and explainable AI-based investigation of bamboo fiber reinforced concrete

Bamboo Fibre Reinforced Concrete (BFRC), a more sustainable alternative to traditional concrete, is limited in terms of structural applications because of things such as poor fibre-matrix bonding, high water-absorbing capabilities and varying durability. By combining research with artificial intelligence that could demonstrate how to achieve optimal performance in mechanical and durability testing of BFRC, this study evaluated the effects of modifying certain variables on workability, water absorption, compressive strength and residual strength using experimental testing and finite element analysis to simulate stress distribution and crack resistance. In addition to response surface methodology and an integrated KNN-LRP-SSO model to make predictions, interpret and optimise BFRC performance using feature relevance analysis, it also demonstrated that treated fibre improves mechanical and durability properties at a 1.5% inclusion rate, with fibre length and concentration being the most impactful; this successfully created high predictive values on the tested variables with R2 values over 0.97. Thus, this research provides an effective, data-driven process for creating sustainable BFRC for future structural engineering applications.

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Publication Details

Journal
European Journal of Environmental and Civil engineering
Published
2026-07-23
DOI
https://doi.org/10.1080/19648189.2026.2704977
Primary Topic
Bamboo properties and applications
Type
article
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article

Experimental and explainable AI-based investigation of bamboo fiber reinforced concrete

Amitava Sil, Bapi Mondal
European Journal of Environmental and Civil engineering
Bamboo properties and applications
article

Experimental and explainable AI-based investigation of bamboo fiber reinforced concrete

Amitava Sil, Bapi Mondal
article en

Abstract

Bamboo Fibre Reinforced Concrete (BFRC), a more sustainable alternative to traditional concrete, is limited in terms of structural applications because of things such as poor fibre-matrix bonding, high water-absorbing capabilities and varying durability. By combining research with artificial intelligence that could demonstrate how to achieve optimal performance in mechanical and durability testing of BFRC, this study evaluated the effects of modifying certain variables on workability, water absorption, compressive strength and residual strength using experimental testing and finite element analysis to simulate stress distribution and crack resistance. In addition to response surface methodology and an integrated KNN-LRP-SSO model to make predictions, interpret and optimise BFRC performance using feature relevance analysis, it also demonstrated that treated fibre improves mechanical and durability properties at a 1.5% inclusion rate, with fibre length and concentration being the most impactful; this successfully created high predictive values on the tested variables with R2 values over 0.97. Thus, this research provides an effective, data-driven process for creating sustainable BFRC for future structural engineering applications.

European Journal of Environmental and Civil engineeringVol. 30(1)
Institute of Wood Science and Technology (IN)
Sustainable cities and communities
Openalex Percentile: Top 10%
Bamboo properties and applications
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Experimental and explainable AI-based investigation of bamboo fiber reinforced concrete — Amitava Sil, Bapi Mondal · European Journal of Environmental and Civil engineering (2026) | TGRS Research Map | TGRS