Sáenz-Trevizo A, Hodge A M
Department of Aerospace and Mechanical Engineering, University of Southern California, 854 Downey Way, Los Angeles, CA 90089, United States of America.
Nanotechnology. 2020 May 1;31(29):292002. doi: 10.1088/1361-6528/ab803f. Epub 2020 Mar 16.
Nanoscale metallic multilayers have been shown to have a wide range of outstanding properties, which differ to a great extent from those observed in monolithic films. Their exceptional properties are mainly associated with the large number of interfaces and the nanoscale layer thicknesses. Many studies have investigated these materials focusing on magnetic, mechanical, optical, or radiation tolerance properties. Thus, this review provides a summary of the findings in each area, including a description of the general attributes, the adopted synthesis methods and most common characterization techniques used. This information is followed by a compendium of the material properties and a brief discussion of related experimental data, as well as existing and promising applications. Other phenomena of interest, including thermal stability studies, self-propagating reactions and the progression from nano multilayers to amorphous and/or crystalline alloys, are also covered. In general, this review highlights the use of nano multilayer architectures as viable routes to overcome the challenges of designing and implementing new engineering materials at the nanoscale.
纳米级金属多层膜已被证明具有广泛的优异性能,这些性能在很大程度上不同于在整体薄膜中观察到的性能。它们的特殊性能主要与大量的界面和纳米级的层厚度有关。许多研究都围绕这些材料的磁性能、机械性能、光学性能或耐辐射性能展开。因此,本综述总结了每个领域的研究结果,包括对一般特性、采用的合成方法和最常用的表征技术的描述。随后是材料性能的概要以及对相关实验数据的简要讨论,还有现有的和有前景的应用。还涵盖了其他感兴趣的现象,包括热稳定性研究、自蔓延反应以及从纳米多层膜到非晶态和/或晶态合金的转变。总体而言,本综述强调了纳米多层结构作为克服在纳米尺度设计和应用新型工程材料挑战的可行途径的应用。