多功能复合材料:超材料视角

Q1 Materials Science
R. Lincoln, F. Scarpa, V. Ting, R. Trask
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引用次数: 46

摘要

多功能复合材料能够通过执行设计师认为相互排斥的功能来提高结构的效率、自主性和寿命。在本文中,考虑了一个子类多功能复合材料:超材料。从这个角度来看,多功能复合材料被定义为“由两种或两种以上材料制成,以对结构的整体目的有建设性的方式发挥两种或多种功能”,其中结构功能和非结构功能之间没有区别。同样,我们将超材料定义为一类人造结构,其特性与自然界中通常发现的特性相反。这些“工程化”的建筑材料继续重新审视和扩展传统材料科学的边界,为影响人类生活的方方面面开辟了丰富的新机会。在我们的工作中,描述了多功能超材料:电动、声学和机械。我们从带宽、制造技术和适用性方面回顾了这些类型的多功能超材料的当前进展;注意到晶格结构在所有三种功能上都提供了相当大的潜力。它最终讨论了三个关键挑战,作者认为这三个挑战对下一代晶格型多功能超材料的开发至关重要;即带宽、制造技术和适用性证明。科学界在这些领域的成功将导致3D多尺度和多媒体网格框架能够立即影响所有三种类型的波浪;这样的系统将是一项重大的技术突破,并将在未来10-20年内重新定义我们对多功能超材料的概念和理解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multifunctional composites: a metamaterial perspective
Multifunctional composites offer the ability to increase the efficiency, autonomy and lifespan of a structure by performing functions that would have been considered by designers as mutually exclusive. In the present perspective paper, a subclass of multifunctional composites is considered: metamaterials. In this perspective, a multifunctional composite is defined as ‘made of two or more materials that perform two or more functions in a manner that is constructive to the overall purpose of the structure’ where there is no differentiation between structural or non-structural functions. Equally, we define metamaterials are a class of man-made structures that display properties that are opposite to those typically found in nature. These ‘engineered’ architected materials continue to revisit and extend the boundaries of traditional materials science, opening up a wealth of new opportunities impacting on all aspects of human life. In our work, multifunctional metamaterials are delineated: electrodynamic, acoustic and mechanical. We review the current progress in these types of multifunctional metamaterials in terms of their bandwidth, fabrication techniques and applicability; noting that lattice structures offer considerable potential across all three functionalities. It culminates in the discussion of three key challenges which are seen by the authors as critical in the development of the next generation of lattice-type multifunctional metamaterials; namely, bandwidth, fabrication technique and proof of applicability. Success by the scientific community in these areas will lead to 3D multi-scale and multimedia lattice frameworks capable of influencing all three types of waves instantly; such a system would be a major technological breakthrough and will redefine our concept and understanding of multifunctional metamaterials in the next 10–20 years.
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来源期刊
Multifunctional Materials
Multifunctional Materials Materials Science-Materials Science (miscellaneous)
CiteScore
12.80
自引率
0.00%
发文量
9
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