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Nanoplastics: Detection and impacts in aquatic environments – A review
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This review examined nanoplastic detection methods and their impacts in aquatic environments, concluding that current analytical capabilities severely underestimate nanoplastic exposure levels due to the difficulty of detecting sub-micron particles. The authors called for standardized nanoplastic detection protocols to enable meaningful risk assessment.
The rise in the global production of plastics has led to severe concerns about the impacts of plastics in aquatic environments. Although plastic materials degrade over extreme long periods, they can be broken down through physical, chemical, and/or biological processes to form microplastics (MPs), defined here as particles between 1 μm and 5 mm in size, and later to form nanoplastics (NPls), defined as particles <1 μm in size. We know little about the abundance and effects of NPls, even though a lot of research has been conducted on the ecotoxicological impacts of MPs on both aquatic biota. Nevertheless, there is evidence that NPls can both bypass the cell membranes of microorganisms and bioaccumulate in the tissues and organs of higher organisms. This review analyzes 150 publications collected by searching through the databases Web of Science, SCOPUS, and Google Scholar using keywords such as nanoplastics*, aquatic*, detection*, toxic*, biofilm*, formation*, and extracellular polymeric substance* as singular or plural combinations. We highlight and critically synthesize current studies on the formation and degradation of NPls, NPls' interactions with aquatic biota and biofilm communities, and methods of detection. One reason for the missing data and studies in this area of research is the lack of a protocol for the detection of, and suitable methods for the characterization of, NPls in the field. Our primary aim is to identify gaps in knowledge throughout the review and define future directions of research to address the impacts of NPls in aquatic environments. The development of consistent and standardized sets of procedures would address the gaps in knowledge regarding the formation and degradation of NPls as well as sampling and characterizing natural NPls needed to observe the full extent of NPls on aquatic biota and biofilm communities.
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This review provides a comprehensive assessment of micro- and nanoplastic pollution in aquatic ecosystems, covering detection methods, toxic effects across the food chain, and emerging cleanup strategies. Researchers highlight the limitations of current analytical techniques and the challenges of accurately measuring these tiny particles in water and living organisms. The study identifies key research priorities needed to better understand and mitigate the growing threat of plastic particle pollution in waterways.
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This review argues that current microplastic monitoring methods likely underestimate the true extent of contamination in aquatic environments, especially for small particles and fibers. The authors call for standardized, more sensitive detection methods to better inform regulation and risk assessment.
Nanoplastics in Aquatic Environments: Detection, Distribution and Ecological Risks
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Tiny plastic particles called nanoplastics—too small to see and even smaller than microplastics—are showing up everywhere from oceans to Arctic ice, and they're being eaten by marine life, raising concerns they could build up in the food chain and eventually reach our plates. This review pulls together existing research to show that scientists still struggle to accurately detect and measure these particles, meaning current pollution estimates are likely too low. The takeaway: better detection tools and more research are urgently needed to understand how much of this plastic is out there and what it might mean for ecosystems and, ultimately, human health.
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