Distribution and translocation of micro- and nanoplastics in fish
Critical Reviews in Toxicology2021
106 citations
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Weiwenhui Liang,
Qiqing Chen,
Weiwenhui Liang,
Bowen Li,
Qiqing Chen,
Qiqing Chen,
Bowen Li,
Cuizhu Ma,
Bowen Li,
Bowen Li,
Cuizhu Ma,
Cuizhu Ma,
Lei Su,
Weiwenhui Liang,
Lei Su,
Weiwenhui Liang,
Qiqing Chen,
Huahong Shi
Cuizhu Ma,
Jiawei Li,
Huahong Shi
Lei Su,
Lei Su,
Lei Su,
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Cuizhu Ma,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Lei Su,
Qiqing Chen,
Lei Su,
Lei Su,
Jiawei Li,
Qiqing Chen,
Qiqing Chen,
Cuizhu Ma,
Lei Su,
Lei Su,
Jiawei Li,
Qiqing Chen,
Huahong Shi
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Lei Su,
Jiawei Li,
Cuizhu Ma,
Cuizhu Ma,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Lei Su,
Weiwenhui Liang,
Weiwenhui Liang,
Bowen Li,
Bowen Li,
Bowen Li,
Bowen Li,
Bowen Li,
Weiwenhui Liang,
Weiwenhui Liang,
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Huahong Shi
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Jiawei Li,
Jiawei Li,
Lei Su,
Lei Su,
Lei Su,
Cuizhu Ma,
Lei Su,
Cuizhu Ma,
Lei Su,
Jiawei Li,
Cuizhu Ma,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Weiwenhui Liang,
Weiwenhui Liang,
Bowen Li,
Bowen Li,
Bowen Li,
Weiwenhui Liang,
Weiwenhui Liang,
Jiawei Li,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Qiqing Chen,
Qiqing Chen,
Lei Su,
Lei Su,
Qiqing Chen,
Huahong Shi
Huahong Shi
Cuizhu Ma,
Qiqing Chen,
Cuizhu Ma,
Qiqing Chen,
Qiqing Chen,
Lei Su,
Bowen Li,
Bowen Li,
Lei Su,
Lei Su,
Lei Su,
Huahong Shi
Bowen Li,
Lei Su,
Qiqing Chen,
Lei Su,
Lei Su,
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Cuizhu Ma,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Bowen Li,
Bowen Li,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Bowen Li,
Huahong Shi
Lei Su,
Weiwenhui Liang,
Lei Su,
Cuizhu Ma,
Weiwenhui Liang,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Qiqing Chen,
Huahong Shi
Huahong Shi
Qiqing Chen,
Bowen Li,
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Huahong Shi
Lei Su,
Huahong Shi
Huahong Shi
Summary
This review summarizes research on how micro- and nanoplastics distribute and move through fish bodies, from the gut to organs like the liver, brain, and muscle tissue. Researchers found that nanoplastics are especially concerning because they can cross biological barriers, enter the bloodstream, and even pass to the next generation. The findings highlight the potential for plastic particles consumed by fish to move up the food chain to humans.
Microplastics (MPs) and nanoplastics (NPs) are regarded as emerging particulate contaminants. Here, we first summarize the distribution of plastic particles in fish. Field investigations verify the presence of various kinds of fibrous, spherical, and fragmentary MPs in fish gastrointestinal tract and gills, and specifically in muscle and liver. Laboratory works demonstrate that NPs even penetrate into blood vessels of fish and pass onto next generations. Second, we systematically discuss the translocation ability of MPs and NPs in fish. MPs can enter early-developing fish through adherence, and enter adult fish internal organs by intestine absorption or epidermis infiltration. NPs can not only penetrate into fish embryo blastopores, but also reach adult fish internal organs through blood circulation. Third, the cellular basis for translocation of plastic particles, NPs in particular, into cells are critically reviewed. Endocytosis and paracellular penetration are two main pathways for them to enter cells and intercellular space, respectively. Finally, we compare the chemical and physical properties among various particular pollutants (MPs, NPs, settleable particulate matters, and manufactured nanomaterials) and their translocation processes at different biological levels. In future studies, it is urgent to break through the bottleneck techniques for NPs quantification in field environmental matrix and organisms, re-confirm the existence of MPs and NPs in field organisms, and develop more detailed translocating mechanisms of MPs and NPs by applying cutting-edge tracking techniques.