Lv Xinyan, Lin Aijun, Cui Xuedan, Li Yanqi, Guo Zi, Tan Xiao, Duan Guilan
College of Chemical Engineering, Beijing University of Chemical Technology, Beijing, People's Republic of China.
State Key Laboratory of Regional and Urban Ecology, Research Center for Eco-Environmental Sciences, Chinese Academy of Sciences, Beijing, People's Republic of China.
Glob Chang Biol. 2025 Jul;31(7):e70348. doi: 10.1111/gcb.70348.
An increasing number of studies have revealed the interconnections and interactions between global warming and microplastics. However, research in this field is still in its early stages, with fragmented content and inconsistent conclusions. Therefore, this paper adopts a meta-analysis method to summarize and analyze the relevant literature in this area. After screening, a total of 39 research papers and 730 data points related to the interactions between global warming and microplastic pollution were obtained. The research results indicate that, on one hand, soil microplastic pollution significantly increases greenhouse gas CO emissions by 140.20%, NO emissions by 195.27%, and Global Warming Potential by 172.10%, thereby exacerbating global warming. By introducing explanatory variables for analysis, it was found that microplastic type, soil type, and soil dissolved organic carbon are important influencing factors. On the other hand, the study also explains that the rise in water temperature due to global warming amplifies the biological toxicity effects of microplastics, leading to oxidative damage and poisoning in aquatic animals. The bidirectional interaction mechanism between microplastic pollution and global warming may form a vicious cycle, further increasing the vulnerability of ecosystems. This study provides a theoretical basis and research direction for addressing the dual threats of microplastic pollution and global warming.
越来越多的研究揭示了全球变暖和微塑料之间的相互联系与相互作用。然而,该领域的研究仍处于早期阶段,内容零散且结论不一致。因此,本文采用元分析方法对该领域的相关文献进行总结和分析。经过筛选,共获得39篇与全球变暖和微塑料污染相互作用相关的研究论文及730个数据点。研究结果表明,一方面,土壤微塑料污染显著增加温室气体CO排放量140.20%、NO排放量195.27%以及全球变暖潜势172.10%,从而加剧全球变暖。通过引入解释变量进行分析发现,微塑料类型、土壤类型和土壤溶解有机碳是重要影响因素。另一方面,该研究还表明,全球变暖导致的水温上升放大了微塑料的生物毒性效应,致使水生动物遭受氧化损伤和中毒。微塑料污染与全球变暖之间的双向相互作用机制可能形成恶性循环,进一步增加生态系统的脆弱性。本研究为应对微塑料污染和全球变暖的双重威胁提供了理论依据和研究方向。