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纳米含能材料:从材料到应用

Nanoenergetic Materials: From Materials to Applications.

作者信息

Thiruvengadathan Rajagopalan, Wang Anqi

机构信息

Department of Engineering and Technology, Southern Utah University, Cedar City, UT 84720, USA.

Department of Mechanical and Mechatronics Engineering, University of Waterloo, 200 University Avenue West, Waterloo, ON N2L 3G1, Canada.

出版信息

Nanomaterials (Basel). 2024 Sep 29;14(19):1574. doi: 10.3390/nano14191574.

Abstract

Both nanoscience and nanotechnology have undoubtedly contributed significantly to the development of thermite-based nanoenergetic materials (NEMs) with tunable and tailorable combustion performance and their subsequent integration into devices. Specifically, this review article reflects the immense paybacks in designing and fabricating ordered/disordered assembly of energetic materials over multiple length scales (from nano- to milli-scales) in terms of realization of desired reaction rates and sensitivity. Besides presenting a critical review of present advancements made in the synthesis of NEMs, this article touches upon aspects related to various applications concomitantly. The article concludes with the author's summary of the insurmountable challenges and the road ahead toward the deployment of nanoenergetic materials in practical applications. The real challenge lies in the ability to preserve the self-assembly of fuel and oxidizer nanoparticles achieved at the nanoscale while synthesizing macroscale energetic formulations using advanced fabrication techniques both in bulk and thin film forms. Most importantly, these self-assembled NEMs have to exhibit excellent combustion performance at reduced sensitivity to external stimuli such as electrostatic discharge (ESD), friction and impact.

摘要

纳米科学和纳米技术无疑都为基于铝热剂的纳米含能材料(NEMs)的发展做出了重大贡献,这种材料具有可调节和定制的燃烧性能,并随后被集成到器件中。具体而言,这篇综述文章反映了在设计和制造多长度尺度(从纳米到毫米尺度)的含能材料有序/无序组装方面,在实现所需反应速率和灵敏度方面的巨大回报。除了对NEMs合成方面的当前进展进行批判性综述外,本文还同时涉及了与各种应用相关的方面。文章最后作者总结了在实际应用中部署纳米含能材料面临的不可逾越的挑战以及未来的道路。真正的挑战在于,在使用先进制造技术以块状和薄膜形式合成宏观含能配方时,能够保持在纳米尺度上实现的燃料和氧化剂纳米颗粒的自组装。最重要的是,这些自组装的NEMs必须在对诸如静电放电(ESD)、摩擦和冲击等外部刺激的敏感性降低的情况下表现出优异的燃烧性能。

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