Assessment of bacteria-based self-healing concrete through experimental investigations — a sustainable approach

Abstract This study aims to evaluate the destructive and non-destructive strength parameters of bacterial concrete with different grades (M20, M25, M30) and cell counts (10^5 and 10^6 cells/ml) using Bacillus subtilis . Additionally, cost analysis and cost–benefit comparisons were conducted for each mix. The effectiveness of B. subtilis in resisting high temperatures was also examined. Findings indicate a 25–40% increase in strength parameters in bacterial concrete compared to conventional concrete. Bacterial mixes consistently showed velocities above 4.45 km/s, indicating excellent quality, surpassing conventional concrete. Notably, bacteria with a cell count of 10^5 cells/ml exhibited greater strength than 10^6 cells/ml across all grades. Cantabro loss tests revealed a 15–25% reduction in wear and tear for bacterial concrete. The bacterial specimens also showed significantly lower strength loss at higher temperatures. This study underscores the potential of bacterial-based self-healing concrete for specific construction applications, offering high temperature resistance, increased strength, and reduced wear and tear.

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Publication Details

Journal
Journal of Materials Science Materials in Engineering
Published
2025-02-08
DOI
https://doi.org/10.1186/s40712-025-00215-w
Citations
16
Primary Topic
Microbial Applications in Construction Materials
Type
article
Field-Weighted Citation Impact
12.79

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article

Assessment of bacteria-based self-healing concrete through experimental investigations — a sustainable approach

N. Chandana, Akula Vishal, Akhilesh Chepuri
16 citations
Journal of Materials Science Materials in Engineering
Microbial Applications in Construction Materials
12.79
article

Assessment of bacteria-based self-healing concrete through experimental investigations — a sustainable approach

N. Chandana, Akula Vishal, Akhilesh Chepuri
article en
16 citations

Abstract

Abstract This study aims to evaluate the destructive and non-destructive strength parameters of bacterial concrete with different grades (M20, M25, M30) and cell counts (10^5 and 10^6 cells/ml) using Bacillus subtilis . Additionally, cost analysis and cost–benefit comparisons were conducted for each mix. The effectiveness of B. subtilis in resisting high temperatures was also examined. Findings indicate a 25–40% increase in strength parameters in bacterial concrete compared to conventional concrete. Bacterial mixes consistently showed velocities above 4.45 km/s, indicating excellent quality, surpassing conventional concrete. Notably, bacteria with a cell count of 10^5 cells/ml exhibited greater strength than 10^6 cells/ml across all grades. Cantabro loss tests revealed a 15–25% reduction in wear and tear for bacterial concrete. The bacterial specimens also showed significantly lower strength loss at higher temperatures. This study underscores the potential of bacterial-based self-healing concrete for specific construction applications, offering high temperature resistance, increased strength, and reduced wear and tear.

Journal of Materials Science Materials in EngineeringVol. 20(1)
Chaitanya Bharathi Institute of Technology (IN), Indian Institute of Technology Jodhpur (IN)
Gandhi Institute of Technology and Management
Openalex Percentile: Top 1%
Microbial Applications in Construction Materials
12.79
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Assessment of bacteria-based self-healing concrete through experimental investigations — a sustainable approach — N. Chandana, Akula Vishal, et al. · Journal of Materials Science Materials in Engineering (2025) | TGRS Research Map | TGRS