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Microbiotic particles in water and soil, water-soil microbiota coalescences, and antimicrobial resistance
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This paper explores how bacteria attach to tiny particles in water and soil, forming communities that may carry antimicrobial resistance genes. Microplastics, sediment grains, and other particles act as surfaces where antibiotic-resistant bacteria can accumulate and spread. Understanding these 'microbiotic particles' is important for tracking how antibiotic resistance moves through the environment.
Bacterial organisms like surfaces. Water and soil contain a multiplicity of particulated material where bacterial populations and communities might attach. Microbiotic particles refers to any type of small particles (less than 2 mm) where bacteria (and other microbes) might attach, resulting in medium- long-term colonization. In this work, the interactions of bacterial organisms with microbiotic particles of the soil and water are reviewed. These particles include bacteria-bacteria aggregates, and aggregates with particles of fungi (particularly in the rhizosphere), protozoa, phytoplankton, zooplankton, biodetritus resulting from animal and vegetal decomposition, humus, mineral particles (clay, carbonates, silicates), and anthropogenic particles (including wastewater particles or microplastics). At they turn, these particles might interact and coalesce (as in the marine snow). Natural phenomena (from river flows to tides, tsunamis, currents, or heavy winds) and anthropogenic activity (such as agriculture, waste-water management, mining, soil-mass movement) favors interaction and merging between all these soil and water particles, and consequently coalescence of their bacterial-associated populations and communities, resulting in an enhancement of mixed-recombinant communities capable of genetic exchange, including antimicrobial resistance genes, particularly in antimicrobial-polluted environments. Particles also favor compartmentalization of bacterial populations favoring diversification and acquisition of mutational resistance by random drift. In general, microbial evolution is accelerated by the aggregation of microbiotic particles. We propose that the world spread of antimicrobial resistance might relate with the environmental dynamics of microbiotic particles, and discuss possible methods to reduce this problem influencing One Health and Planetary Health.
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This review examines how microbiotic particles in water and soil serve as hotspots for bacterial interactions, facilitating the evolution and horizontal transfer of antimicrobial resistance genes between ecologically distant bacterial species through biofilm formation on particle surfaces.
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Tiny plastic bits (microplastics) that end up in water and soil aren't just pollution, they can act like rafts where bacteria cluster together and swap genes that help them resist antibiotics. This review pulls together existing research suggesting these plastic "biofilms" could be a hidden pathway for drug-resistant germs to spread through the environment and potentially reach humans. While more research is needed to confirm real-world health risks, it's a reminder that plastic pollution and the growing problem of antibiotic resistance may be more connected than we think.
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Tiny plastic particles floating in water and soil aren't just pollution, they can act like rafts where bacteria cluster together and swap genes that help them resist antibiotics. This review pulls together existing research suggesting that these plastic-bacteria communities could be a hidden pathway for drug-resistant "superbugs" to spread through the environment and potentially reach humans. While more research is needed to confirm the real-world health risk, it's a reminder that plastic pollution may have ripple effects beyond what we can see.
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