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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Environmental Sources Nanoplastics Policy & Risk Remediation Sign in to save

Bacterial Interactions with Nanoplastics and the Environmental Effects They Cause

Fermentation 2023 19 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 45 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Rongyu Wang, Rongyu Wang, Rongyu Wang, Rongyu Wang, Xiaodong Li, Yaning Luan, Jing Li Yaning Luan, Jing Li Jing Li Jing Li Yaning Luan, Rongyu Wang, Rongyu Wang, Rongyu Wang, Jing Li Rongyu Wang, Rongyu Wang, Jing Li Yaning Luan, Wei Dai, Wei Dai, Wei Dai, Yaning Luan, Yaning Luan, Yaning Luan, Yaning Luan, Jing Li Wei Dai, Jing Li Jing Li Yaning Luan, Jing Li Jing Li Jing Li Jing Li Jing Li Yaning Luan, Yaning Luan, Jing Li Jing Li Wei Dai, Jing Li Jing Li Jing Li

Summary

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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