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Magnetic titanium dioxide based nanomaterials: synthesis, characteristics, and photocatalytic application in pollutant degradation

机译:磁性二氧化钛基纳米材料:合成,特征和光催化在污染物降解中的应用

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摘要

Magnetic titanium dioxide based nanocomposites have been gaining increasingly high attention in sustainable environmental protection fields; these materials can integrate the advantages of magnetic recovery and the superior photocatalysis performance of titanium dioxide. However, direct contact between crystalline photoactive titanium dioxide and magnetic iron oxide gives rise to lower photoreactivity than pure titanium dioxide for the pollutant degradation. To overcome the challenge, a number of researches have been done and significant process has been made in this area in recent years. This review primarily focuses on the properties of magnetic particles, structural models, preparation methods and techniques to improve photocatalytic performance of magnetic titanium dioxide based photocatalysts, and aims to provide a systematic overview of the current knowledge of these subjects. Notably, the recently discovered technique coupling graphene into magnetic iron oxide-titanium dioxide system is discussed, which opens a promising future for preparation of magnetic semiconductors with excellent properties. Current challenges and prospects are also proposed at the end of this article. In particular, the examination of corresponding deactivation or regeneration mechanisms should be investigated further, from the point of view of practical applications.
机译:磁性二氧化钛基纳米复合材料在可持续的环境保护领域越来越受到关注。这些材料可以整合磁回收的优势和二氧化钛的出色光催化性能。但是,在光降解性方面,结晶光活性二氧化钛和磁性氧化铁之间的直接接触导致光反应性低于纯二氧化钛。为了克服该挑战,近年来已经进行了许多研究并且已经在该领域中进行了重要的过程。这篇综述主要侧重于磁性颗粒的性质,结构模型,制备方法和技术,以改善基于磁性二氧化钛的光催化剂的光催化性能,并旨在提供对这些主题当前知识的系统概述。特别地,讨论了最近发现的将石墨烯偶联到磁性氧化铁-二氧化钛体系中的技术,这为制备具有优异性能的磁性半导体打开了有希望的未来。本文末尾还提出了当前的挑战和前景。特别地,应从实际应用的角度进一步研究相应的失活或再生机理的检查。

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