Vukusic P, Stavenga D G
School of Physics, University of Exeter, Exeter EX4 4QL, UK.
J R Soc Interface. 2009 Apr 6;6 Suppl 2(Suppl 2):S133-48. doi: 10.1098/rsif.2008.0386.focus. Epub 2009 Jan 21.
Many biological systems are known to use structural colour effects to generate aspects of their appearance and visibility. The study of these phenomena has informed an eclectic group of fields ranging, for example, from evolutionary processes in behavioural biology to micro-optical devices in technologically engineered systems. However, biological photonic systems are invariably structurally and often compositionally more elaborate than most synthetically fabricated photonic systems. For this reason, an appropriate gamut of physical methods and investigative techniques must be applied correctly so that the systems' photonic behaviour may be appropriately understood. Here, we survey a broad range of the most commonly implemented, successfully used and recently innovated physical methods. We discuss the costs and benefits of various spectrometric methods and instruments, namely scatterometers, microspectrophotometers, fibre-optic-connected photodiode array spectrometers and integrating spheres. We then discuss the role of the materials' refractive index and several of the more commonly used theoretical approaches. Finally, we describe the recent developments in the research field of photonic crystals and the implications for the further study of structural coloration in animals.
许多生物系统利用结构色效应来塑造其外观和可见性。对这些现象的研究为一系列不同领域提供了信息,例如从行为生物学的进化过程到技术工程系统中的微光学器件。然而,生物光子系统在结构上,而且在组成上往往比大多数合成制造的光子系统更为复杂。因此,必须正确应用一系列合适的物理方法和研究技术,以便能够恰当地理解这些系统的光子行为。在此,我们综述了一系列广泛的、最常用、已成功应用且最近有所创新的物理方法。我们讨论了各种光谱测量方法和仪器的成本与效益,即散射仪、显微分光光度计、光纤连接的光电二极管阵列光谱仪和积分球。然后我们讨论了材料折射率的作用以及几种更常用的理论方法。最后,我们描述了光子晶体研究领域的最新进展以及对动物结构色进一步研究的意义。