Review on Bacteria Associated with Metal Rusting

Study’s Excerpt/Novelty This review provides an overview of microbiologically influenced corrosion (MIC), emphasizing the significant role of bacteria in accelerating metal deterioration across various industries. It highlights the complex survival mechanisms bacteria employ in metal-polluted environments, contributing to the corrosion process. The study advocates for an interdisciplinary approach to understanding and mitigating MIC while suggesting future studies to prevent and control rusting. Full Abstract Metal rusting, also known as corrosion, is the deterioration of a material's characteristics, particularly metals, caused by chemical or electrochemical reactions in the surrounding environment. It consists of the interaction of iron or steel with atmospheric oxygen and moisture, resulting in the creation of iron oxide (rust). Bacteria have an important impact on the development and advancement of metal corrosion. microbiologically influenced corrosion (MIC), is becoming increasingly problematic as it affects multiple materials and industries in society. MIC demonstrates the possible negative effect that microorganisms may cause to a substance. Different categories of bacteria, such as sulfate reducing, sulfate oxidizing, slime forming, and iron oxidizing, are active bacteria involved in bio-corrosion. The bacteria have evolved different ways to survive in the metal-polluted surroundings, including an efflux system pump, complexation/stabilization, enzymatic transformation/detoxification, and plasmid mediation. Effective management of microbial corrosion in different industrial and environmental settings requires the integration of microbiology, materials science, and corrosion engineering. This paper highlights the crucial role of microbiologically driven corrosion, which leads to the deterioration of different materials and consequential economic losses. Furthermore, it highlights future studies that aim to gain a thorough understanding of the mechanisms behind bacterial-induced corrosion and develop strategies to prevent and control rusting.

Authors

Publication Details

Journal
UMYU Scientifica
Published
2024-09-04
DOI
https://doi.org/10.56919/usci.2433.024
Citations
1
Primary Topic
Building materials and conservation
Type
article
Field-Weighted Citation Impact
0.52
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article

Review on Bacteria Associated with Metal Rusting

Aminu Aliyu, Ahmad Ibrahi̇m Bagudo, S. Sani, M. Usman et al.
1 citations
UMYU Scientifica
Building materials and conservation
0.52
article

Review on Bacteria Associated with Metal Rusting

Aminu Aliyu, Ahmad Ibrahi̇m Bagudo, S. Sani, M. Usman, Adamu Almustapha Aliero, A A Umar, Mujtaba Haruna
article en
1 citations

Abstract

Study’s Excerpt/Novelty This review provides an overview of microbiologically influenced corrosion (MIC), emphasizing the significant role of bacteria in accelerating metal deterioration across various industries. It highlights the complex survival mechanisms bacteria employ in metal-polluted environments, contributing to the corrosion process. The study advocates for an interdisciplinary approach to understanding and mitigating MIC while suggesting future studies to prevent and control rusting. Full Abstract Metal rusting, also known as corrosion, is the deterioration of a material's characteristics, particularly metals, caused by chemical or electrochemical reactions in the surrounding environment. It consists of the interaction of iron or steel with atmospheric oxygen and moisture, resulting in the creation of iron oxide (rust). Bacteria have an important impact on the development and advancement of metal corrosion. microbiologically influenced corrosion (MIC), is becoming increasingly problematic as it affects multiple materials and industries in society. MIC demonstrates the possible negative effect that microorganisms may cause to a substance. Different categories of bacteria, such as sulfate reducing, sulfate oxidizing, slime forming, and iron oxidizing, are active bacteria involved in bio-corrosion. The bacteria have evolved different ways to survive in the metal-polluted surroundings, including an efflux system pump, complexation/stabilization, enzymatic transformation/detoxification, and plasmid mediation. Effective management of microbial corrosion in different industrial and environmental settings requires the integration of microbiology, materials science, and corrosion engineering. This paper highlights the crucial role of microbiologically driven corrosion, which leads to the deterioration of different materials and consequential economic losses. Furthermore, it highlights future studies that aim to gain a thorough understanding of the mechanisms behind bacterial-induced corrosion and develop strategies to prevent and control rusting.

UMYU ScientificaVol. 3(3)
Openalex Percentile: Top 35%
Building materials and conservation
0.52
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