A review: shining a light on cheater microbes with positive molecular detection techniques

This review of ‘Cheating Microbes’ elaborates on microbial cheating, and how it relates to social interactions within microbial populations. Cooperative microbial communities assemble different individuals of microbial species within a biofilm that work together to generate metabolic products for survival. However, some individuals freeload and avoid contributing to the common pool of metabolic products, which puts them in advantageous positions to survive competition against individuals who actively contribute. The article explores various mechanisms microbial cheaters use to exploit cooperative systems, including quorum sensing, resource partitioning, and allelopathy. Although some cheating microbes outcompete others, the long-term sustainability and success of cooperative microbial communities depend on the preservation of the alliance through mechanisms, such as spatial structure and partner selection. Ultimately, an understanding of strategies and mechanisms of cheating microbes provides insights for developing novel approaches to control or manipulate microbial communities for industrial and medical applications. Adulteration is an authentic and tried strategy for existence or survival. Cheating in microbes is common in the living world, and it does not halt with high organisms but prolongs to prokaryotic-like microorganisms and even viruses. The organisms have cooperative behaviors exploited by cheaters, which perform noncooperative behavior. The competent evidence of dynamics between cheaters and cooperators in nature is limited until now. The broad prevalence of cheating in organisms creates unique evolutionary issues, which also have direct and detrimental effects on the capacity to manage and control illnesses or diseases, even though some cheaters scam others in the same colony and they fight dirty. Nevertheless, it supports prospective elements of utilizing dishonesty as a therapy to manipulate group dynamics. As a ubiquitous phenomenon, microbial cheating refers to the behavior of microbial populations in which some individuals get more benefits than they deserve, without contributing to the collective good. Cheating microbes are evident in diverse microbial systems ranging from bacterial biofilms to yeast infections. Additionally, it is even for the microbial flora living inside bodies. The consequences of microbial cheating are severe such as increased risk of infection, reduced effectiveness of antibiotics, and treatment resistance. Overall, this article provides a valuable contribution to understanding microbial ecology and its relevance to public health.

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Publication Details

Journal
Reviews in Medical Microbiology
Published
2025-11-25
DOI
https://doi.org/10.1097/mrm.0000000000000434
Primary Topic
Bacterial biofilms and quorum sensing
Type
article
Field-Weighted Citation Impact
0.00
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article

A review: shining a light on cheater microbes with positive molecular detection techniques

Israa M.S. Al-Kadmy, Suhad Abbas Abid, Sarah Naji Aziz, Khulood Hamid Dakheel
Reviews in Medical Microbiology
Bacterial biofilms and quorum sensing
article

A review: shining a light on cheater microbes with positive molecular detection techniques

Israa M.S. Al-Kadmy, Suhad Abbas Abid, Sarah Naji Aziz, Khulood Hamid Dakheel
article en

Abstract

This review of ‘Cheating Microbes’ elaborates on microbial cheating, and how it relates to social interactions within microbial populations. Cooperative microbial communities assemble different individuals of microbial species within a biofilm that work together to generate metabolic products for survival. However, some individuals freeload and avoid contributing to the common pool of metabolic products, which puts them in advantageous positions to survive competition against individuals who actively contribute. The article explores various mechanisms microbial cheaters use to exploit cooperative systems, including quorum sensing, resource partitioning, and allelopathy. Although some cheating microbes outcompete others, the long-term sustainability and success of cooperative microbial communities depend on the preservation of the alliance through mechanisms, such as spatial structure and partner selection. Ultimately, an understanding of strategies and mechanisms of cheating microbes provides insights for developing novel approaches to control or manipulate microbial communities for industrial and medical applications. Adulteration is an authentic and tried strategy for existence or survival. Cheating in microbes is common in the living world, and it does not halt with high organisms but prolongs to prokaryotic-like microorganisms and even viruses. The organisms have cooperative behaviors exploited by cheaters, which perform noncooperative behavior. The competent evidence of dynamics between cheaters and cooperators in nature is limited until now. The broad prevalence of cheating in organisms creates unique evolutionary issues, which also have direct and detrimental effects on the capacity to manage and control illnesses or diseases, even though some cheaters scam others in the same colony and they fight dirty. Nevertheless, it supports prospective elements of utilizing dishonesty as a therapy to manipulate group dynamics. As a ubiquitous phenomenon, microbial cheating refers to the behavior of microbial populations in which some individuals get more benefits than they deserve, without contributing to the collective good. Cheating microbes are evident in diverse microbial systems ranging from bacterial biofilms to yeast infections. Additionally, it is even for the microbial flora living inside bodies. The consequences of microbial cheating are severe such as increased risk of infection, reduced effectiveness of antibiotics, and treatment resistance. Overall, this article provides a valuable contribution to understanding microbial ecology and its relevance to public health.

Reviews in Medical Microbiology
Mustansiriyah University (IQ)
Openalex Percentile: Top 64%
Bacterial biofilms and quorum sensing
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