Numerical study of a high impedance surface built in microstrip technology by using periodically arranged elliptical patches, grounded through one to four vias is presented. The effect of the variation of the number of vias manifests in different manner on the electromagnetic band gap aperture and position, as results from the parametric study in function of the patch dimensions and diameters of the vias. We show that stop bands cover a frequency range with limits in a ratio of 2.48:1. The results are useful in the design of high impedance surfaces for various applications. ©2010 IEEE
A parallel-plate waveguide (PPW), composed of a metal plane above a high impedance surface, based on...
The purpose of this paper is two fold: first we propose a design technique for electromagnetic bandg...
In the open technical literature, accurate models for the electromagnetic properties of high impedan...
Numerical study of a high impedance surface built in microstrip technology by using periodically arr...
Design-charts for grounded, elliptically shaped microstrip periodic surface featuring electromagnet...
Numerical investigation of the effect on the dispersion diagram of a different number of off-axis po...
High-impedance Electromagnetic Band-Gap structures (EBG) surfaces have the capability to forbid flow...
This work numerically explores the relations between the positions and the widths of the frequency b...
Control of the dispersion characteristic, mainly in the position of the band-gap, of a novel type of...
Electromagnetic band gap structure or EBG structure appears as a periodic metallic patch grounded wi...
Because of the design limitations of conventional high-impedance surfaces (HIS), it is not possible ...
Among the variety of artificial periodic impedance surfaces proposed and studied in the last decade,...
Abstract—A simple analytical method for the analysis and design of electromagnetic band-gap (EBG) st...
In this paper a simple approach for defining the FSS printed element shape with wider band performan...
Simple analytical formulas are introduced for the grid impedance of electrically dense arrays of squ...
A parallel-plate waveguide (PPW), composed of a metal plane above a high impedance surface, based on...
The purpose of this paper is two fold: first we propose a design technique for electromagnetic bandg...
In the open technical literature, accurate models for the electromagnetic properties of high impedan...
Numerical study of a high impedance surface built in microstrip technology by using periodically arr...
Design-charts for grounded, elliptically shaped microstrip periodic surface featuring electromagnet...
Numerical investigation of the effect on the dispersion diagram of a different number of off-axis po...
High-impedance Electromagnetic Band-Gap structures (EBG) surfaces have the capability to forbid flow...
This work numerically explores the relations between the positions and the widths of the frequency b...
Control of the dispersion characteristic, mainly in the position of the band-gap, of a novel type of...
Electromagnetic band gap structure or EBG structure appears as a periodic metallic patch grounded wi...
Because of the design limitations of conventional high-impedance surfaces (HIS), it is not possible ...
Among the variety of artificial periodic impedance surfaces proposed and studied in the last decade,...
Abstract—A simple analytical method for the analysis and design of electromagnetic band-gap (EBG) st...
In this paper a simple approach for defining the FSS printed element shape with wider band performan...
Simple analytical formulas are introduced for the grid impedance of electrically dense arrays of squ...
A parallel-plate waveguide (PPW), composed of a metal plane above a high impedance surface, based on...
The purpose of this paper is two fold: first we propose a design technique for electromagnetic bandg...
In the open technical literature, accurate models for the electromagnetic properties of high impedan...