环境化学
根际
湿地
染色体易位
环境科学
共生
化学
丛枝菌根真菌
初级生产者
基质(水族馆)
生态学
污染
生物
寄主(生物学)
微生物种群生物学
球囊菌门
植物修复
生态系统
丛枝菌根
有机体
农学
转化(遗传学)
丛枝菌根
生物转化
微生物
作者
Yuchen Wang,Shanshan Hu,Fengxiang Zhu,Xue Li,Le-Xing You,Zhongbing Chen,Bo Hu,Feng Zhao
标识
DOI:10.1021/acs.est.5c06131
摘要
), which stabilized and enhanced the activity of the rhizosphere microbial network, facilitating PFAS biotransformation and degradation. Through the reinforcement of microbial degradation, substrate adsorption, and plant uptake pathways, AMF symbiosis significantly enhanced PFAS removal, increasing efficiency by 10.5-13.3% compared to treatments without AMF. Notably, long-chain (C > 7) PFASs pose higher ecological risks compared to short-chain (C ≤ 7) PFASs. AMF effectively reduced the ecological risks associated with residual PFASs and their metabolites in the effluent. The results highlight AMF's potential to improve PFAS removal in CWs and offer valuable insights for developing sustainable, high-efficiency pollution control strategies.
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