Design of a graphene-based ridge gap waveguide coupler for THz applications

被引:0
作者
Narges Kiani
Farzad Tavakkol Hamedani
Pejman Rezaei
机构
[1] Semnan University,Electrical and Computer Engineering Faculty
来源
Optical and Quantum Electronics | 2024年 / 56卷
关键词
Ridge gap waveguide (RGW); Graphene; Coupler; THz;
D O I
暂无
中图分类号
学科分类号
摘要
Ridge gap waveguide is one of the new technologies in the field of waveguides. Their advantages include being planar, low cost of construction, shielding by metal without the need for problems related to packaging, the formation of a narrow gap enclosed between two metal plates, realization of the texture on one of the metal plates, and lower losses. These structures have no mechanical connection. While electric currents must flow in them. In this article, two graphene-based ridge gap waveguide coupler structures are presented. The designed structures are used in the THz band. By using graphene in the THz frequency band, frequency reconfigurable can be achieved. The chemical potential of both the designed ridge gap waveguide coupler is considered to be 0.6 eV. S-parameters curves, phase difference diagrams, and e-field distributions are reported for two graphene-based ridge gap waveguide couplers.
引用
收藏
相关论文
共 185 条
[1]  
Al Sharkawy M(2014)Long slots array antenna based on ridge gap waveguide technology IEEE Trans. Antennas Propag. 62 5399-5403
[2]  
Kishk AA(2014)A robust horn ridge gap waveguide launcher for metal strip grating leaky wave antenna IEEE Trans. Antennas Propag. 62 6019-6026
[3]  
Al Sharkawy M(2017)Wideband and high-gain millimeter-wave antenna based on FSS Fabry-Perot cavity IEEE Trans. Antennas Propag. 65 5589-5594
[4]  
Foroozesh A(2018)Printed ridge gap waveguide 3-dB coupler: analysis and design procedure IEEE Access 6 8501-8509
[5]  
Kishk AA(2020)SIW corporate-feed network for circular polarization slot array antenna Wirel. Pers. Commun. 111 2129-2136
[6]  
Paknys R(2021)Computational modeling of ZnO-NRs and graphene nanostructure as a glucose biosensor Sens. Imaging 22 30-6855
[7]  
Attia H(2022)Graphene-based terahertz reconfgurable printed ridge gap waveguide structure Sci. Rep. 12 21111-9
[8]  
Abdelghani ML(2023)A review of quartz crystal microbalance for chemical and biological sensing applications Sens. Imaging 24 10-227
[9]  
Denidni TA(2017)Millimeter-wave substrate integrated dual level gap waveguide horn antenna IEEE Trans. Antennas Propag. 65 6847-5101
[10]  
Ali MMM(2020)Design and simulation of a high sensitive surface plasmon resonance biosensor for detection of biomolecules Sens. Imaging 21 1-4267