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Microplastic-associated bacterial assemblages in the intertidal zone of the Yangtze Estuary
The Science of The Total Environment2017
356 citations
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Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count.
Score: 45
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0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Lixin Zhu,
Shiye Zhao,
Shiye Zhao,
Daoji Li,
Peilin Jiang,
Shiye Zhao,
Peilin Jiang,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Daoji Li
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Lixin Zhu,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Shiye Zhao,
Lixin Zhu,
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Shiye Zhao,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Peilin Jiang,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Peilin Jiang,
Shiye Zhao,
Shiye Zhao,
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li
Daoji Li
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li,
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Lixin Zhu,
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Lixin Zhu,
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Lixin Zhu,
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li,
Lixin Zhu,
Daoji Li,
Daoji Li
Daoji Li
Daoji Li
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li
Lixin Zhu,
Daoji Li
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li,
Shiye Zhao,
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li,
Daoji Li
Daoji Li,
Daoji Li
Daoji Li
Lixin Zhu,
Lixin Zhu,
Daoji Li
Daoji Li,
Peilin Jiang,
Peilin Jiang,
Shiye Zhao,
Peilin Jiang,
Lixin Zhu,
Peilin Jiang,
Daoji Li
Daoji Li,
Lixin Zhu,
Daoji Li
Peilin Jiang,
Daoji Li
Daoji Li
Daoji Li,
Daoji Li,
Daoji Li
Summary
Researchers used high-throughput DNA sequencing to profile bacterial communities colonizing microplastics in the intertidal zone of China's Yangtze Estuary, finding that plastisphere community composition reflected the particles' sedimentary versus aquatic origins and included keystone taxa adapted to surface-colonization as well as potential pathogens hitchhiking on plastic surfaces.
Plastic trash is common in oceans. Terrestrial and marine ecosystem interactions occur in the intertidal zone where accumulation of plastic frequently occurs. However, knowledge of the plastic-associated microbial community (the plastisphere) in the intertidal zone is scanty. We used high-throughput sequencing to profile the bacterial communities attached to microplastic samples from intertidal locations around the Yangtze estuary in China. The structure and composition of plastisphere communities varied significantly among the locations. We found the taxonomic composition on microplastic samples was related to their sedimentary and aquatic origins. Correlation network analysis was used to identify keystone bacterial genera (e.g. Rhodobacterales, Sphingomonadales and Rhizobiales), which represented important microbial associations within the plastisphere community. Other species (i.e. potential pathogens) were considered as hitchhikers in the plastic attached microbial communities. Metabolic pathway analysis suggested adaptations of these bacterial assemblages to the plastic surface-colonization lifestyle. These adaptations included reduced "cell motility" and greater "xenobiotics biodegradation and metabolism." The findings illustrate the diverse microbial assemblages that occur on microplastic and increase our understanding of plastisphere ecology.