Actively programmable MEMS-based racetrack-shaped terahertz metamaterial

We present four designs of actively tunable micro-electro-mechanical system-based racetrack-shaped metamaterials (RSMs), which are denoted as RSM_1, RSM_2, RSM_3, and RSM_4, respectively. RSM_1 is composed of asymmetrically single RSM, while RSM_2, RSM_3, and RSM_4 are all composed of asymmetrically...

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Published inJournal of applied physics Vol. 131; no. 11
Main Authors Fu, Yuping, Xu, Xiaocan, Lin, Yu-Sheng
Format Journal Article
LanguageEnglish
Published Melville American Institute of Physics 21.03.2022
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Abstract We present four designs of actively tunable micro-electro-mechanical system-based racetrack-shaped metamaterials (RSMs), which are denoted as RSM_1, RSM_2, RSM_3, and RSM_4, respectively. RSM_1 is composed of asymmetrically single RSM, while RSM_2, RSM_3, and RSM_4 are all composed of asymmetrically double RSM layers with different rotation angles of 0°, 90°, and 180°, respectively. RSM_1 exhibits single-resonance in the transverse electric mode and dual-resonance in the transverse magnetic mode to perform the polarization-dependent characteristic. RSM_2, RSM_3, and RSM_4 exhibit tunable multi-resonance characteristics. By changing the height of the suspended layer, RSM_2, RSM_3, and RSM_4 exhibit optical switching characteristics. These switching resonances can be equivalent to binary bits, i.e., “0” and “1,” which can be programmed for opto-logic applications. These four designs of RSM devices possess the programmable multidigit switching characteristic by changing the incident polarization light. This study provides the possibility of a terahertz metamaterial to be used in the switch, programmable device, radar, and optical wireless communication applications.
AbstractList We present four designs of actively tunable micro-electro-mechanical system-based racetrack-shaped metamaterials (RSMs), which are denoted as RSM_1, RSM_2, RSM_3, and RSM_4, respectively. RSM_1 is composed of asymmetrically single RSM, while RSM_2, RSM_3, and RSM_4 are all composed of asymmetrically double RSM layers with different rotation angles of 0°, 90°, and 180°, respectively. RSM_1 exhibits single-resonance in the transverse electric mode and dual-resonance in the transverse magnetic mode to perform the polarization-dependent characteristic. RSM_2, RSM_3, and RSM_4 exhibit tunable multi-resonance characteristics. By changing the height of the suspended layer, RSM_2, RSM_3, and RSM_4 exhibit optical switching characteristics. These switching resonances can be equivalent to binary bits, i.e., “0” and “1,” which can be programmed for opto-logic applications. These four designs of RSM devices possess the programmable multidigit switching characteristic by changing the incident polarization light. This study provides the possibility of a terahertz metamaterial to be used in the switch, programmable device, radar, and optical wireless communication applications.
Author Xu, Xiaocan
Fu, Yuping
Lin, Yu-Sheng
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Snippet We present four designs of actively tunable micro-electro-mechanical system-based racetrack-shaped metamaterials (RSMs), which are denoted as RSM_1, RSM_2,...
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SubjectTerms Applied physics
Asymmetry
Magnetic resonance
Metamaterials
Microelectromechanical systems
Optical switching
Polarization
Programmable logic devices
Resonance
Transverse electric modes
Transverse magnetic modes
Wireless communications
Title Actively programmable MEMS-based racetrack-shaped terahertz metamaterial
URI http://dx.doi.org/10.1063/5.0069625
https://www.proquest.com/docview/2640144151
Volume 131
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