氧化剂
环境化学
生化工程
化学
流出物
氧化还原
水处理
催化作用
激进的
水生生态系统
环境科学
水介质
组合化学
水溶液
环境修复
生态系统
零价铁
污水处理
环境工程
配体(生物化学)
选择性
纳米技术
作者
Shuchang Wang,Hongyu Dong,Binbin Shao,Qiufeng Lin,Zunyao Wang,Ruijuan Qu,Xiaohong Guan
标识
DOI:10.1021/acs.est.5c10317
摘要
), including selective oxidation of electron-rich organic contaminants, prolonged persistence in aqueous environments, and greater resistance to scavenging by water matrices. These unique characteristics make Fe(IV)/Fe(V)-based oxidation processes particularly effective for trace-level ECs removal, achieving a superior treatment efficiency while significantly reducing undesirable byproduct formation. However, their moderate oxidative power compared to radicals demands strategic optimization to balance selectivity and reactivity. This critical review systematically evaluates Fe(IV)/Fe(V)-based oxidation processes, focusing on mechanistic insights into their selective chemistry, advanced generation and characterization approaches, and performance in complex water matrices. Key strategies to enhance their oxidative contributions, including reaction condition optimization, ligand facilitation, and hybrid catalytic activation, are critically examined. Particular emphasis is placed on small-scale practical applications, with a focus on overcoming challenges like competitive inhibition, pH sensitivity, and effluent toxicity. Finally, knowledge gaps are identified, and future research directions are proposed to advance Fe(IV)/Fe(V)-based technologies toward more efficient water treatment applications.
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