光子带隙

P. Russell
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引用次数: 18

摘要

本世纪物理学的许多重大发现都源于对周期结构中的波的研究。例子包括x射线和电子晶体衍射,电子能带结构和全息摄影。学科之间的类比也带来了富有成果的新研究途径。一个令人兴奋的例子是最近发现的三维周期性介电结构,它表现出所谓的“光子带隙”(PBG),类似于半导体晶体中的电子带隙。在PBG频率范围内的光子被完全排除在外,因此这种材料中的原子无法自发地吸收和重新发射该区域的光;这对生产高效激光器具有明显的有益意义。鉴于电子和光子几乎遵循相同的微分波动方程,PBG的想法显然远非疯狂。然而,它确实需要对光在周期性结构中的行为进行彻底的重新思考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Photonic band gaps
Many major discoveries in physics this century originate from the study of waves in periodic structures. Examples include X-ray and electron diffraction by crystals, electronic band structure and holography. Analogies between disciplines have also led to fruitful new avenues of research. An exciting example is the recent discovery of three-dimensionally periodic dielectric structures that exhibit what is called a "photonic band gap" (PBG), by analogy with electronic band gaps in semiconductor crystals. Photons in the frequency range of the PBG are completely excluded so that atoms within such materials are unable to spontaneously absorb and re-emit light in this region; this has obvious beneficial implications for producing highly efficient lasers. Given that electrons and photons obey almost the same differential wave equation, the idea of a PBG is clearly far from crazy. It does, however, demand a radical rethink of how light behaves in periodic structures.
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