Ultra-thin Polarization-insensitive Plasmon-induced Transparency Metamaterials

F. Xue, Shaobin Liu, Hai-Ming Li, X. Kong, Lingling Wang, Xuewei Zhang
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Abstract

An ultra-thin polarization insensitive plasmon-induced transparency (PIT) is proposed in this article. The height (t) of this PIT meta-materials can be the thinnest so far (reach to 1/90λ), due to the strong magnetic coupling between the top and below layers. This method makes it easy to fabricate the meta-materials with low profile and satisfying performances. We can also obtain variety of group indices and transmissive peaks by adjusting the height of the PIT structure. Furthermore, the PIT transmissive spectrum under the orthogonal polarized incident electromagnetic (EM) wave are identical, which is attributed to the PIT meta-material’s center symmetrical. Finally, we conduct simulations and analysis based on the Lorentz oscillator model. These results obtained by the different techniques were in good agreement. All of above properties make this ultra-thin PIT have potential application in compact slow light devices.
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超薄极化不敏感等离子体诱导透明超材料
提出了一种超薄极化不敏感等离子体诱导透明材料。由于上层和下层之间的强磁耦合,这种PIT超材料的高度(t)可以是迄今为止最薄的(达到1/90λ)。该方法制备的超材料外形小巧,性能令人满意。我们还可以通过调整PIT结构的高度来获得不同的群指数和透射峰。此外,在正交极化入射电磁波(EM)下,PIT的透射谱是相同的,这是由于PIT超材料的中心对称所致。最后,我们基于洛伦兹振子模型进行了仿真和分析。不同方法测定的结果吻合较好。所有这些特性使这种超薄PIT在紧凑型慢光器件中具有潜在的应用前景。
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