生态学
栖息地
微生物
生态系统
微生物生态学
水生生态系统
微生物种群生物学
海洋生态系统
微生物环
环境科学
生物
食物网
细菌
遗传学
作者
Changchao Li,Michael R. Gillings,Chao Zhang,Qing‐Lin Chen,Dong Zhu,Li Wang,Kankan Zhao,Qicheng Xu,Polly H. M. Leung,Xiangdong Li,Jian Liu,Ling Jin
出处
期刊:The Innovation
[Elsevier]
日期:2024-01-01
卷期号:5 (1): 100543-100543
被引量:17
标识
DOI:10.1016/j.xinn.2023.100543
摘要
Plastic offers a new niche for microorganisms, the plastisphere. The ever-increasing emission of plastic waste makes it critical to understand the microbial ecology of the plastisphere and associated effects. Here, we present a global fingerprint of the plastisphere, analyzing samples collected from freshwater, seawater, and terrestrial ecosystems. The plastisphere assembles a distinct microbial community that has a clearly higher heterogeneity and a more deterministically dominated assembly compared to natural habitats. New coexistence patterns-loose and fragile networks with mostly specialist linkages among microorganisms that are rarely found in natural habitats-are seen in the plastisphere. Plastisphere microbiomes generally have a great potential to metabolize organic compounds, which could accelerate carbon turnover. Microorganisms involved in the nitrogen cycle are also altered in the plastisphere, especially in freshwater plastispheres, where a high abundance of denitrifiers may increase the release of nitrite (aquatic toxicant) and nitrous oxide (greenhouse gas). Enrichment of animal, plant, and human pathogens means that the plastisphere could become an increasingly mobile reservoir of harmful microorganisms. Our findings highlight that if the trajectory of plastic emissions is not reversed, the expanding plastisphere could pose critical planetary health challenges.
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