三维光子晶体的光学实验

F. Koenderink, W. Vos
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引用次数: 1

摘要

光子晶体是一种具有复杂结构的光学材料,其长度尺度与光的波长相当。光子的流动以一种类似于电子如何通过半导体晶体传播的方式进行控制,即通过布拉格衍射和能带结构的形成。如果光与物质之间的相互作用很强,则多重衍射和多重散射效应占主导地位。一个主要的研究目标是实现“光子带隙”,即在一个频率范围内,光不能在晶体中向任何方向传播,这将导致辐射态密度的根本改变。光子带隙的重要结果是完全控制光的自发和受激发射,以及光的传播,特别是光子的定位。这开启了实现“光的笼子”的可能性:捕获光子并对它们进行任何选择。在这次演讲中,我们还将回顾制作这种结构的方法,以及光学实验的最新实验进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optical experiments on 3D photonic crystals
Photonic crystals are optical materials that have an intricate structure with length scales of the order of the wavelength of light. The flow of photons is controlled in a manner analogous to how electrons propagate through semiconductor crystals, i.e., by Bragg diffraction and the formation of band structures. If the interaction between light and matter is made strong, multiple diffraction and multiple scattering effects dominate. A main research goal is the realization of a "photonic band gap", that is, a frequency range for which no light can propagate in a crystal in any direction, which causes radical modifications of the density of radiative states. Important consequences of photonic band gaps are the complete control over spontaneous and stimulated emission of light, as well as over the propagation of light, in particular photon localization. This opens up the possibility to achieve a "cage for light": trap photons and do with them whatever one chooses. In this talk we will also review means for making such structures, and recent experimental advances in optical experiments.
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