Development of new transmissive light materials by "control of randomness"

Akira Saito
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Abstract

Biometrics combines principles from engineering, physics, chemistry, biology and informatics and applies them to create materials, systems and machines that mimic biological processes. The idea is to mimic things that exist naturally in order to develop artificial things with novel properties. Dr Akira Saito, Department of Precision Engineering, Osaka University, Japan, is working to develop new transmissive light materials inspired by butterflies. The blue Morpho butterfly has brilliant blue wings and scientists have discovered that the colour is attributed to a specific nanostructure that has both order and disorder. Saito and the team have been working to artificially reproduce this coloration and have proven the optical principles of the Morpho butterfly's reflection, progressed various application technologies and, more recently, found a new direction - the transfer from reflection to transmission which has applications in window technologies. The researchers have developed a daylight window that satisfies at once all conditions of high transmittance, wide angular spread, low colour dispersion, and spread-shape controllability and have also realised the diffuser that will enable the light source to 'see the object correctly' in terms of the colour rendering. This has potential to be used in fields that rely on different forms of lighting, including fine arts, surgery and various types of photography. The important methods that Saito and the team have used in their research are nanofabrication (including lithography, etching and nanoimprinting), structural and optical evaluation (SEM and AFM, measurement of reflectivity and transmittance versus angle with spectroscopy), and numerical simulation.
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利用“随机性控制”开发新型透射光材料
生物识别技术结合了工程学、物理学、化学、生物学和信息学的原理,并应用它们来创造模仿生物过程的材料、系统和机器。这个想法是模仿自然存在的事物,以开发具有新颖特性的人造事物。日本大阪大学精密工程系的Akira Saito博士正致力于开发受蝴蝶启发的新型透射光材料。蓝色大闪蝶有着明亮的蓝色翅膀,科学家们发现,这种颜色是由一种既有序又无序的特定纳米结构造成的。Saito和他的团队一直致力于人工复制这种颜色,并已经证明了大Morpho蝴蝶反射的光学原理,发展了各种应用技术,最近,他们发现了一个新的方向——从反射到透射的转换,这在窗口技术中得到了应用。研究人员已经开发出一种采光窗,它能同时满足高透光率、宽角度扩散、低色散和扩散形状可控性的所有条件,并且还实现了漫射器,它将使光源在显色性方面“正确地看到物体”。这有可能用于依赖不同形式的照明的领域,包括美术、外科手术和各种类型的摄影。Saito和团队在他们的研究中使用的重要方法是纳米制造(包括光刻,蚀刻和纳米压印),结构和光学评估(SEM和AFM,反射率和透射率随光谱角度的测量),以及数值模拟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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