0
Article Tier 2 Nanoplastics Sign in to save

Research progress of nanoplastics in freshwater

The Science of The Total Environment 2020 99 citations

AI summary Read the abstract

This review summarized the environmental fate, extraction methods, characterization techniques, and biological effects of nanoplastics in freshwater systems, noting that NPs' small size, high surface area, and cell-penetrating ability make them potentially more harmful than microplastics despite being less studied.

Body Systems
Study Type Environmental

With the mass production and use of plastic products, which leads to their continuous entry into the water environment, the problem of environmental pollution has been paid more and more attention by scholars from different countries. In recent years, a large number of studies have focused on microplastics, but few on nanoplastics (NPs). However, NPs are smaller in size, have a higher affinity for cells, and surface and volume ratios are higher than those of microplastics. NPs may also enter biological tissues, blood and cells, which may cause greater potential harm to organisms. In this paper, firstly, the environmental fate of NPs accumulation and deposition is summarized, and further research is needed in the future; secondly, the current techniques for NPs extraction and characterization of NPs extraction and characterization are summarized. At present, the analytical methods of NPs are in the primary stage, and lack of standardized and accurate methods; finally, the toxic effects of NPs on biological morphology, behavior and reproduction are discussed. It has been found that the small size and high surface area of NPs make them more toxic to organisms than microplastics. However, most of the current toxicological studies of NPs on freshwater organisms could not be simulated in real environment.

More Papers Like This

Article Tier 2

Nanoplastics in aquatic environments: Origin, separation and characterization: Review

AI summary Read the abstract

This review covers the origins, separation methods, and characterization of nanoplastics in aquatic environments. Nanoplastics (1–100 nm) are particularly concerning because their tiny size gives them a large surface area for adsorbing pollutants and allows them to penetrate biological barriers more easily than larger microplastics.

Article Tier 2

Characterization, occurrence, environmental behaviors, and risks of nanoplastics in the aquatic environment: Current status and future perspectives

AI summary Read the abstract

This review characterized the occurrence, environmental behavior, and toxicity of nanoplastics in aquatic systems, noting that their small size gives them unique properties — including higher surface reactivity and greater bioavailability — that make them potentially more hazardous than larger microplastics, while also harder to detect.

Article Tier 2

Presence of MNPs in Water Environment-pathways of Degradation and Impact on Organisms

AI summary Read the abstract

This literature review describes the characteristics, sources, and degradation pathways of micro- and nanoplastics in water environments and their potential impacts on living organisms. Evidence indicates that these particles enter aquatic systems through multiple routes and can interact with biological systems, though the full extent of their effects on human health requires further investigation.

Review Tier 2

A Review on Interaction of Nanoplastics with Aquatic Environment and Organisms

AI summary Read the abstract

This review examines how nanoplastics interact with aquatic environments and organisms, covering sources, transport, and biological effects. Researchers found that nanoplastics pose significant threats to aquatic life due to their small size, high surface area, and ability to adsorb and carry other pollutants.

Article Tier 2

Nanoplastic toxicity towards freshwater organisms

AI summary Read the abstract

This systematic review covers nanoplastic toxicity toward freshwater organisms, examining both conventional and bioplastic nanoplastics, and finds that size, shape, and surface chemistry all influence toxicity across a range of invertebrate and vertebrate freshwater species.

Research digests by email

When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.

Email me about

Share this paper