Sun Xuemei, Booth Andy M, Sui Qi, Zhu Lin, Yu Yongxiang, Xia Bin, Meng Shunlong, Xing Baoshan
State Key Laboratory of Mariculture Biobreeding and Sustainable Goods, Yellow Sea Fisheries Research Institute, Chinese Academy of Fishery Sciences, Qingdao 266071, China; Laboratory for Marine Ecology and Environmental Science, Qingdao Marine Science and Technology Center, Qingdao 266237, China.
SINTEF Ocean, Department of Climate and Environment, Trondheim 7465, Norway.
J Hazard Mater. 2025 Jun 14;495:138927. doi: 10.1016/j.jhazmat.2025.138927.
Marine microbial communities colonize microplastics (MPs) to form a plastisphere, altering their physicochemical properties and ecological impacts. The prevalence of many different bacterial species on environmental MPs surfaces underscores the need for a comprehensive assessment of their interactions and consequences with marine ecosystems. Vibrio spp., a major pathogen frequently detected in plastispheres, poses significant risks to aquaculture and marine ecosystem health. Despite recent advances, critical knowledge gaps persist regarding the adsorption mechanisms of Vibrio spp. onto MPs, the associated ecological consequences, and their role in biogeochemical cycling. This review synthesizes existing literature, focusing on field and laboratory studies that investigate plastisphere formation, Vibrio enrichment, and associated ecological risks. Our analysis reveals that Vibrio spp. are selectively enriched on MPs, particularly in coastal regions with high organic matter content, and their attachment is mediated by dissolved organic matter (DOM) and environmental factors such as temperature and salinity. Pathogenic Vibrio strains on MPs exacerbate disease risks in aquaculture and may disrupt marine elemental cycles by altering carbon and nitrogen dynamics. Furthermore, MPs serve as vectors for Vibrio dispersal, potentially expanding their ecological footprint. This review highlights the urgent need for standardized methodologies in plastisphere research and underscores the dual role of Vibrio-laden MPs as both ecological disruptors and pathogen carriers. By synthesizing current knowledge, this review advances our understanding of marine-derived plastisphere as potential vectors for Vibrio spp., elucidates their ecological impact on marine ecosystems, and proposes strategies for preventing and mitigating disease risk in mariculture.
海洋微生物群落定殖在微塑料(MPs)上形成一个塑料球,改变其物理化学性质和生态影响。环境中微塑料表面存在许多不同细菌物种,这凸显了全面评估它们与海洋生态系统相互作用及后果的必要性。弧菌属是在塑料球中经常检测到的主要病原体,对水产养殖和海洋生态系统健康构成重大风险。尽管最近有进展,但在弧菌属吸附到微塑料上的机制、相关生态后果及其在生物地球化学循环中的作用方面,仍存在关键的知识空白。本综述综合了现有文献,重点关注调查塑料球形成、弧菌富集及相关生态风险的野外和实验室研究。我们的分析表明,弧菌属在微塑料上被选择性富集,特别是在有机物含量高的沿海地区,其附着由溶解有机物(DOM)以及温度和盐度等环境因素介导。微塑料上的致病性弧菌菌株加剧了水产养殖中的疾病风险,并可能通过改变碳和氮动态来扰乱海洋元素循环。此外,微塑料充当弧菌传播的载体,可能扩大其生态足迹。本综述强调了塑料球研究中标准化方法的迫切需求,并强调了载有弧菌的微塑料作为生态破坏者和病原体携带者的双重作用。通过综合当前知识,本综述推进了我们对源自海洋的塑料球作为弧菌属潜在载体的理解,阐明了它们对海洋生态系统的生态影响,并提出了预防和减轻海水养殖中疾病风险的策略。