Control of reflection through epsilon near zero graphene based anisotropic metamaterial

Ayed Al Sayem, Arif Shahriar, M. Mahdy, Md. Saifur Rahman
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引用次数: 15

Abstract

In graphene dielectric multilayer structure, a very interesting phenomena such as epsilon near zero property rises naturally. However, this epsilon near zero property (along with the proper control of chemical potential and gate voltage) of graphene multi-layer stack has not been used so far to make novel photonic switches. In this article, we have shown theoretically that in graphene-dielectric stack, which acts as an anisotropic metamaterial, full control of reflection and so transmission of light at a specific wavelength or frequency can be controlled very simply by external gate voltage. This external voltage tunes the chemical potential and so the parallel permittivity of the anisotropic structure. Our theoretical prediction may pave the way to novel voltage control photonic logic switches, which may play as an intermediate solution before entering into all optical commercial switches (as current silicon and electron based CMOS technology is facing a dead end).
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通过epsilon近零石墨烯基各向异性超材料控制反射
在石墨烯介电多层结构中,一个非常有趣的现象,如epsilon接近零的性质自然产生。然而,石墨烯多层堆叠的这种epsilon接近零的特性(以及对化学势和栅极电压的适当控制)迄今尚未用于制造新型光子开关。在这篇文章中,我们从理论上证明了石墨烯-介电层作为一种各向异性的超材料,完全控制反射,因此光在特定波长或频率的传输可以非常简单地由外部栅极电压控制。这个外部电压调节化学势,从而调节各向异性结构的平行介电常数。我们的理论预测可能为新型电压控制光子逻辑开关铺平道路,它可能在进入所有光学商用开关之前作为中间解决方案(因为当前基于硅和电子的CMOS技术正面临死胡同)。
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