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An integrated Metagenomic-Pangenomic strategy revealed native microbes and magnetic biochar cooperation in plasticizer degradation

增塑剂 生物降解 邻苯二甲酸盐 生物炭 降级(电信) 邻苯二甲酸二丁酯 环境化学 基因组 假单胞菌 微生物 化学 细菌 生物 有机化学 生物化学 基因 电信 遗传学 计算机科学 热解
作者
Mengyuan Ji,Ginevra Giangeri,Muhammad Usman,Chao Liu,Matteo Bosaro,Filippo Sessa,Paolo Canu,Laura Treu,Stefano Campanaro
出处
期刊:Chemical Engineering Journal [Elsevier]
卷期号:468: 143589-143589 被引量:6
标识
DOI:10.1016/j.cej.2023.143589
摘要

There has been growing concern over the release of plasticizers from plastic products, and the high levels of plasticizers in the environment have led to a threat to ecological security. Although some plasticizers may naturally degrade, their slow removal and prolonged life cycle remain challenges. To address this, this study explored a unique hybrid strategy using native field microorganisms and magnetic biochar (MBC) to support the upstream degradation of plasticizers. Diethyl phthalate (DP) was used as the test subject. The study found that MBC treatment led to high level of total organic carbon (TOC) and various organic products, demonstrating the degradation of DP. Analysis of the hybrid metagenomic model showed that several species of Pseudomonas can degrade downstream phenylmethanal and Pseudomonas nitroreducens has the ability to cooperate well with MBC due to its iron receptor and transporter. Additionally, a Pigmentiphaga species was found to have the ability to fully mineralize DP. Analysis of the Pigmentiphaga pangenome revealed that genes related to DP biodegradation were shared by members of this genus. Although some members of Pseudomonas is known to be pathogenic, the species identified in the study may not be harmful as they lack virulence factors. The study provides evidence regarding the cooperation between native biodegraders and MBC in mineralizing plasticizers, offering a new solution for removing phthalate plasticizers from soil and surface water.
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