journal article·2013-11-21

Structural color of a lycaenid butterfly: analysis of an aperiodic multilayer structure

S Yoshioka, Y Shimizu, S Kinoshita, B Matsuhana

Bioinspiration & Biomimetics· Volume 8· Issue 4
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Abstract

We investigated the structural color of the green wing of the lycaenid butterfly Chrysozephyrus brillantinus. Electron microscopy revealed that the bottom plate of the cover scale on the wing consists of an alternating air-cuticle multilayer structure. However, the thicknesses of the layers were not constant but greatly differed depending on the layer, unlike the periodic multilayer designs often adopted for artificial laser-reflecting mirrors. The agreement between the experimentally determined and theoretically calculated reflectance spectra led us to conclude that the multilayer interference in the aperiodic system is the primary origin of the structural color. We analyzed optical interference in this aperiodic system using a simple analytical model and found that two spectral peaks arise from constructive interference among different parts of the multilayer structure. We discuss the advantages and disadvantages of the aperiodic system over a periodic one.
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Research context

OpenAlex topics: Photonic Crystals and Applications · Plant and animal studies · Fern and Epiphyte Biology

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