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首页> 外文期刊>Materials Science and Engineering >Interactions of low-power photons with natural opals-PBG materials, photonic control, natural metamaterials, spontaneous laser emissions, and band-gap boundary responses
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Interactions of low-power photons with natural opals-PBG materials, photonic control, natural metamaterials, spontaneous laser emissions, and band-gap boundary responses

机译:低功率光子与天然蛋白石的相互作用-PBG材料,光子控制,天然超材料,自发激光发射和带隙边界响应

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摘要

One overall goal of this research was to examine types of naturally-occurring opals that exhibit photonic control to learn about previously-unknown properties of naturally occurring photonic control that may be developed for broader applications. Three different photon sources were applied consecutively to three different types of natural, flawless, gem-quality precious opals. Two photon sources were lasers (green and red) and one was simulated daylight tungsten white. As each type of precious opal was exposed to each of the photon sources, the respective refractions, reflections, and transmissions were studied. This research is the first to show that applying various pleochroic and laser photon sources to these types of opals revealed significant information regarding naturally occurring photonic control, metamaterials, spontaneous laser emissions, and microspheroid cluster (inter-PBG zone) boundary effects. Plus, minimizing ambient light and the use of low power photon sources were critical to observing the properties regarding this photonic materials research. This research yielded information applicable to the development of materials to advance applications and devices of photonics, phononics, optoelectronics, nanomaterials, and metamaterials.
机译:这项研究的总体目标是检查表现出光子控制的自然发生的蛋白石的类型,以了解可能为更广泛的应用而开发的自然发生的光子控制的先前未知的特性。将三种不同的光子源连续应用于三种不同类型的天然,无瑕,宝石级珍贵蛋白石。两种光子源是激光(绿色和红色),一种是模拟日光钨白。由于每种类型的珍贵蛋白石都暴露于每个光子源,因此分别研究了它们的折射,反射和透射。这项研究首次表明,将各种多色和激光光子源应用于这些类型的蛋白石,揭示了有关自然发生的光子控制,超材料,自发激光发射和微球体簇(PBG间区域)边界效应的重要信息。另外,最小化环境光和使用低功率光子源对于观察有关此光子材料研究的特性至关重要。这项研究得出了适用于材料开发的信息,以促进光子学,声子学,光电子学,纳米材料和超材料的应用和设备。

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