Bending waveguides with 90° corners based on a two-dimensional photonic crystal with metallic cylinders arranged in a square lattice are studied for THz wave guiding. Considering single- and double-line defects, five different designs are investigated and assessed in terms of their transmission performance. A better structure is proposed by increasing the number of rods in the bending arc, thus achieving superior performance of the transmission characteristics in comparison to that of the former five designs. A comparison of the improved bend waveguide with a linear waveguide shows a significant reduction of the bending losses. Transmission levels of up to 98% within a 2.5 THz bandwidth (from 1.2 to 3.7 THz) have been accomplished
In this study, 2D square lattice photonic crystal bend structure based on high index rods placed in ...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...
Bending waveguides with 90 corners based on a two-dimensional photonic crystal with metallic cylinde...
Bending waveguides with 90 corners based on a two-dimensional photonic crystal with metallic cylinde...
Metallic band-gap structures for THz waveguide and bends have been simulated using the finite elemen...
Metallic band-gap structures for THz waveguide and bends have been simulated using the finite elemen...
Abstract: Metallic band-gap structures for THz waveguide and bends have been simulated using the fin...
We compare quantitatively the transmission properties of various 60degrees bends carved into a photo...
The 90° waveguide bend is an important component of optical circuit applications. We propose several...
This work focuses on numerical calculations of metallic photonic band-gap structures. Photonic cryst...
We have investigated and optimized a 60°-waveguide bend that is implemented in a planar photonic cry...
This work focuses on numerical calculations of metallic photonic band-gap structures. Photonic cryst...
The bending and guiding of the electromagnetic (EM) waves in highly confined waveguides was demonstr...
We present a high transmission, small bending radius, 180° waveguide bend based on triangular lattic...
In this study, 2D square lattice photonic crystal bend structure based on high index rods placed in ...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...
Bending waveguides with 90 corners based on a two-dimensional photonic crystal with metallic cylinde...
Bending waveguides with 90 corners based on a two-dimensional photonic crystal with metallic cylinde...
Metallic band-gap structures for THz waveguide and bends have been simulated using the finite elemen...
Metallic band-gap structures for THz waveguide and bends have been simulated using the finite elemen...
Abstract: Metallic band-gap structures for THz waveguide and bends have been simulated using the fin...
We compare quantitatively the transmission properties of various 60degrees bends carved into a photo...
The 90° waveguide bend is an important component of optical circuit applications. We propose several...
This work focuses on numerical calculations of metallic photonic band-gap structures. Photonic cryst...
We have investigated and optimized a 60°-waveguide bend that is implemented in a planar photonic cry...
This work focuses on numerical calculations of metallic photonic band-gap structures. Photonic cryst...
The bending and guiding of the electromagnetic (EM) waves in highly confined waveguides was demonstr...
We present a high transmission, small bending radius, 180° waveguide bend based on triangular lattic...
In this study, 2D square lattice photonic crystal bend structure based on high index rods placed in ...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...
The Finite Element Method (FEM) is used to design a metallic band-gap crystal waveguide operating at...