Study on symmetry breaking in vertical double split ring resonators (Conference Presentation)

Hao-Yuan Tsai, Che-Chin Chen, T. Yen
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Abstract

Metamaterials are artificial structures, having extraordinary abilities to manipulate electromagnetic waves far beyond the limits of natural materials. Due to the technology of fabrication, planer metamaterials are greatly restricted by pure magnetic resonant modes induced by in-plane EM waves. In this work, we numerically demonstrate vertical double-split ring resonators by finite-element method software (CST). Our samples were fabricated by metal stress-driven self-folding method, which is so called 4D printing. In the beginning, we define our patterns in two-dimensional with by electron beam lithography and deposit Ni/Au bilayer metal on silicon substrate. After etching out underlying substrate by ICP-RIE, released stress in metal will deform our 2D metal patterns into 3D metamaterials. Comparing with single-split ring resonators, DSRRs are considered with more freedom to tailor resonance frequency by changing the length of arms and the distance between them. Here we investigated the effects of symmetry breaking and resonance mode hybridization at mid-infrared wavelength using coupled DSRRs. The proposed 3D metamaterials indicate some potential applications like modulators and filters in compact optical metadevices.
垂直双裂环谐振腔对称性破缺的研究(会议报告)
超材料是一种人造结构,具有远远超出天然材料极限的操纵电磁波的非凡能力。由于制作工艺的原因,平面超材料受到平面内电磁波诱发的纯磁谐振模式的极大限制。在这项工作中,我们用有限元方法软件(CST)对垂直双裂环谐振器进行了数值模拟。我们的样品是通过金属应力驱动的自折叠方法制造的,即所谓的4D打印。首先,我们用电子束光刻技术在二维平面上定义我们的图案,并在硅衬底上沉积Ni/Au双层金属。在ICP-RIE蚀刻出底层衬底后,金属中释放的应力将使我们的2D金属图案变形为3D超材料。与单裂环谐振器相比,dsrr通过改变臂的长度和臂间的距离来调整谐振频率具有更大的自由度。本文利用耦合DSRRs研究了中红外波段对称破缺和共振模式杂化的影响。所提出的三维超材料表明了在紧凑型光学元器件中的调制器和滤波器等潜在应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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