Dynamically tunable resonant strength in an electromagnetically induced transparency metasurface based on vanadium dioxide

Linyu Yang, W. Wang, Yi Sun, Rong Yin
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Abstract

Electromagnetic induced transparency (EIT) refers to the phenomenon of a sharp transmission window in a broad absorption profile, which was first discovered in the interference between the electronic transition paths of three energy levels. In this work, a metasurface structure with EIT is designed by coupling a dark-like mode and a bright mode. In order to make its resonance intensity dynamically adjustable, the metasurface structure in this paper adds a structure composed of vanadium dioxide (VO2) to the original EIT structure. When vanadium dioxide is at different temperature, its conductivity is different, and the degree of participation in metasurface resonance is different. Thus, the dynamic tuning of the EIT resonance intensity is realized, and the modulation depth can reach 76.18%.
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基于二氧化钒的电磁感应透明超表面的动态可调谐共振强度
电磁感应透明(EIT)是指在宽吸收剖面中出现一个锐利的透射窗口的现象,它是在三个能级的电子跃迁路径之间的干扰中首次发现的。在这项工作中,通过耦合暗模式和亮模式设计了具有EIT的超表面结构。为了使其共振强度动态可调,本文的超表面结构在原EIT结构的基础上增加了二氧化钒(VO2)组成的结构。二氧化钒在不同温度下,其电导率不同,参与超表面共振的程度也不同。实现了EIT谐振强度的动态调谐,调制深度可达76.18%。
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