首页> 外文期刊>ACS Omega >Rodlike Cadmium-Incorporated Zinc Tungstate Nanoarchitecture Fabricated by a Facile and Template-Free Strategy as a Photocatalyst for the Effective Degradation of Organic Pollutants in Sewage
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Rodlike Cadmium-Incorporated Zinc Tungstate Nanoarchitecture Fabricated by a Facile and Template-Free Strategy as a Photocatalyst for the Effective Degradation of Organic Pollutants in Sewage

机译:Rodlike Cadmium-Contorated Zinc钨酸盐纳米建筑,由易于和模板的策略制成,作为污水中有机污染物有效降解的光催化剂

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Fabricating nanostructures and doping engineering are beneficial to tailor the photocatalytic activity of semiconductor materials, and the semiconducting photocatalysis is deemed to be one of the potential protocols to handle the environmental pollution and energy crisis issues. Herein, rodlike Cd-doped ZnWO_(4) Zn_(1–x )Cd_(x )WO_(4) nanoarchitectures were triumphantly prepared by a template-free strategy. The crystal structure, chemical state, optical, and photocatalytic features of the Zn_(1–x )Cd_(x )WO_(4) nanoarchitectures were studied using a variety of characterizations. The Zn_(1–x )Cd_(x )WO_(4) nanoarchitectures exhibit glorious photocatalytic performance compared with pristine ZnWO_(4) for the degradation of methyl orange in sewage. Mechanistic studies were executed for getting insights into the photocatalytic degradation process, and the remarkable photocatalytic property of the doped ZnWO_(4) nanoarchitectures is attributed to the boosted optical absorptive efficiency and the valid segregation and transmission of photogenerated charge carriers deriving from doping effects. The doped nanoarchitectures of this work have promising applications in the territories such as environment and energy chemistry, and the insight proposed in this work will contribute to develop other functionalized nanoarchitectures.
机译:制造纳米结构和掺杂工程有利于定制半导体材料的光催化活性,并且半导体光催化被认为是处理环境污染和能源危机问题的潜在方案之一。在此,棒状CD-掺杂ZnwO_(4)Zn_(1- x)CD _( x)WO_(4)纳米建筑通过无模板策略胜利制备。使用各种特征研究了Zn_(1- x)CD _( x)的晶体结构,化学状态,光学和光催化特征,WO_(4)纳米建筑学。 Zn_(1- x)CD _( x)WO_(4)纳米建筑学表现出辉煌的光催化性能与原始ZnWO_(4)相比,用于降解污水中甲基橙。执行机械研究以了解光催化降解过程的洞察力,并且掺杂ZnWO_(4)纳米建筑的显着光催化性质归因于增强的光吸收效率和来自掺杂掺杂效应的光静电载体的有效偏析和透射。这项工作的掺杂纳米建筑具有在环境和能源化学等领土的有前途的应用,并且本工作中提出的知识将有助于开发其他功能化纳米建筑。

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