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Noble metal nanomaterials: Controllable synthesis and application in fuel cells and analytical sensors

机译:贵金属纳米材料:可控合成及其在燃料电池和分析传感器中的应用

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摘要

Nobel metal nanomaterials (NMNs) with interesting physical and chemical properties are ideal building blocks for engineering and tailoring nanoscale structures for specific technological applications. Particularly, effectively controlling the size, shape, architecture, composition, hybrid and microstructure of NMNs plays an important role on revealing their new or enhanced functions and application potentials such as fuel cell and analytical sensors. This review article focuses on recent advances on controllable synthesis and fuel cell and sensing applications of NMNs. First, recent contributions on developing a wet-chemical approach for the controllable synthesis of noble metal nanomaterials with a rich variety of shapes, e.g. single-component Pt, Pd, Ag and Au nanomaterials, multi-component core/shell, intermetallic or alloyed nanomaterials, metal fluorescent nanoclusters and metal nanoparticles-based hybrid nanomaterials, are summarized. Then diversified approaches to different types of NMNs-based nanoelectrocatalysts with the aim to enhance their activity and durability for fuel cell reactions are outlined. The review next introduces some exciting push in the use of NMNs as enhanced materials or reporters or labels for developing new analytical sensors including electrochemical, colorimetric and fluorescent sensors. Finally, we conclude with a look at the future challenges and prospects of the development of NMNs.
机译:具有有趣的物理和化学性质的诺贝尔金属纳米材料(NMN)是用于工程设计和量身定制特定技术应用的纳米级结构的理想构建基块。特别是,有效控制NMN的大小,形状,结构,组成,混合和微结构在揭示其新的或增强的功能以及诸如燃料电池和分析传感器等应用潜力方面起着重要作用。本文将重点介绍可控合成,燃料电池以及NMNs传感应用方面的最新进展。首先,最近在开发湿化学方法以可控制地合成具有多种形状(例如形状)的贵金属纳米材料的新贡献。总结了单组分Pt,Pd,Ag和Au纳米材料,多组分核/壳,金属间或合金化纳米材料,金属荧光纳米团簇和基于金属纳米颗粒的杂化纳米材料。然后概述了针对不同类型的基于NMNs的纳米电催化剂的多样化方法,旨在增强其在燃料电池反应中的活性和耐久性。接下来的回顾介绍了在将NMN用作增强材料或用于开发新的分析传感器(包括电化学,比色和荧光传感器)的报告分子或标记时的令人激动的推动。最后,我们总结一下NMNs的未来挑战和发展前景。

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