The bifunctional impact of polylactic acid microplastics on composting processes and soil-plant systems: Dynamics of microbial communities and ecological niche competition

微塑料 堆肥 生态学 环境科学 生态系统 优势(遗传学) 微生物 微生物种群生物学 生物 细菌 基因 生物化学 遗传学
作者
Yufan Wang,Yiqiong Zhang,Zhouchang Zhang,Qing Liu,Tengqi Xu,Jiaxi Liu,Siqi Han,Tianjiao Song,Li Li,Xiaomin Wei,Yanbing Lin
出处
期刊:Journal of Hazardous Materials [Elsevier BV]
卷期号:479: 135774-135774 被引量:16
标识
DOI:10.1016/j.jhazmat.2024.135774
摘要

Although extensive research has been conducted on the environmental impact of microplastics (MPs), their effects on microorganisms during the composting process and on the compost-soil system remain unclear. Our research investigates the microbial response to polylactic acid microplastics (PLAMPs) during aerobic composting and examines how compost enriched with PLAMPs affects plants. Our findings reveal that PLAMPs play a dual role in the composting process, influencing microorganisms differently depending on the composting phase. PLAMPs reduce the relative abundance of sensitive bacterial ASVs, specifically those belonging to Limnochordaceae and Enterobacteriaceae, during composting, while increasing the relative abundance of ASVs belonging to Steroidobacteriaceae and Bacillaceae. The impact of PLAMPs on microbial community assembly and niche width was found to be phase-dependent. In the stabilization phase (S5), the presence of PLAMPs caused a shift in the core microbial network from bacterial dominance to fungal dominance, accompanied by heightened microbial antagonism. Additionally, these intricate microbial interactions can be transferred to the soil ecosystem. Our study indicates that composting, as a method of managing PLAMPs, is also influenced by PLAMPs. This influence is transferred to the soil through the use of compost, resulting in severe oxidative stress in plants. Our research is pivotal for devising future strategies for PLAMPs management and predicting the subsequent changes in compost quality and environmental equilibrium.
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