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Bacterial Interactions with Nanoplastics and the Environmental Effects They Cause
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This review examined how bacteria interact with nanoplastics in natural environments, covering colonization, biofilm formation, gene transfer, and ecological effects, emphasizing that bacterial-nanoplastic interactions are critical for assessing environmental risk.
Recently, there has been an increase in interest in the relationship between microorganisms and micro/nanoplastics. Particularly in natural environments, bacteria play an important role. For the ecological risk assessment of plastic particles, a proper understanding of how bacteria and plastic particles interact is crucial. According to a review of the research, the interaction between bacteria and nanoplastics is primarily caused by the interaction of nanoplastics with bacterial cell membranes and the induction of oxidative stress, which can have an impact on bacterial growth, lead to alterations in biofilm production, and induce bacterial gene mutations. On a more general scale, the high concentration of nanoplastics in the environment can increase the likelihood of organic pollution reaching microbial communities, altering the gene abundance of bacteria involved in material cycling, and decreasing the activity of bacterial functional enzymes, all of which can obstruct the cycling of environmental elements. The majority of current research relies on laboratory tests, and the modeled NPs employed may be considerably dissimilar from those found in the environment. In order to provide a guide for environmental management in the future, it will be necessary to analyze the effects of nanoplastics and bacteria on the environment under actual environmental conditions to help us comprehend the relationship between nanoplastics and bacteria and their ecological impacts.
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Bacteria–nanoplastic interactions: mechanisms, ecological consequences, and advances in biodegradation technologies
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Tiny plastic particles called nanoplastics (way smaller than microplastics) can mess with the helpful bacteria living in our environment and bodies, damaging their cells, disrupting normal function, and even helping harmful bacteria swap antibiotic-resistance genes. This review pulls together existing research to show how these plastic particles interact with bacterial communities, raising concerns about immune system effects and microbiome health, while also highlighting how scientists are working on bacteria that can break down plastic waste.
Effect of Micro plastic and Nano plastics on Micro-organism
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This review examines the effects of microplastics and nanoplastics on microorganisms, covering how plastic particles interact with bacteria and other microbes across different environments. Researchers find that both physical and chemical properties of plastics can alter microbial communities and functions.
Recent advances in the relationships between biofilms and microplastics in natural environments
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This review summarizes how microorganisms form biofilms on the surface of microplastics in water, changing the particles' physical properties and helping to spread bacteria and genes across ecosystems. These biofilm-coated microplastics can carry harmful microbes into new environments, raising concerns about waterborne disease transmission and the effectiveness of current water treatment methods.
Microplastic–Bacteria Interactions: Toxicity, Colonisation, Degradation and Prospects
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Tiny plastic particles (microplastics) that end up in water, soil, and even our gut don't just sit there, they interact with bacteria in ways that can be harmful or surprisingly helpful. This review pulls together existing research showing that microplastics can stress out healthy bacteria and help harmful germs (including drug-resistant ones) cluster and spread on their surfaces, but certain bacteria can also break the plastic down. Understanding this two-sided relationship matters because it could help scientists better predict health risks from microplastic pollution and develop bacteria-based methods to clean it up.
A critical review of microbiological colonisation of nano- and microplastics (NMP) and their significance to the food chain
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This review examined how nano- and microplastics become colonized by diverse microbial communities in aquatic and terrestrial environments, highlighting how these 'plastisphere' biofilms may harbor pathogens and facilitate the spread of antibiotic resistance genes through the food chain.
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When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.