Simulation Study of Perfect Dual Band Microwave Metasurface Absorber

This study presents analytical results using the CST software for a very simple design of an electromagnetic wave absorber with a negative refractive index, a copper circular-shape printed on an insulating layer separating it from a flat ground layer of copper. This design provides two absorption ba...

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Veröffentlicht in:NeuroQuantology 2022-03, Vol.20 (3), p.160-165
Hauptverfasser: Albadri, Raed Ashraf Kamil, Al-Badri, Khalid Saeed Lateef
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Al-Badri, Khalid Saeed Lateef
description This study presents analytical results using the CST software for a very simple design of an electromagnetic wave absorber with a negative refractive index, a copper circular-shape printed on an insulating layer separating it from a flat ground layer of copper. This design provides two absorption bands with an absorption capacity of 97.55%. This absorption is due to the dipole oscillation. Also, controlling the shape dimensions and thickness of the insulating layer leads to good results in the synthesis of the resonant frequency that contributes to the applications of energy collection and protection from the effects of electromagnetic waves. The results gave the highest value of absorption with dielectric thickness h = 0.5 mm) and by selecting a proper the gap value for g = 0.3 mm. It is also worth noting that the design can be developed to operate in a wide range of frequencies such as microwaves, terahertz, up to optical frequencies, which may contribute to potential applications in many engineering and optical technologies.
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subjects Absorbers
Absorption spectra
Conflicts of interest
Copper
Design
Dipoles
Electromagnetic radiation
Insulation
Radiation
Refractivity
Resonant frequencies
Simulation
Software
Thickness
title Simulation Study of Perfect Dual Band Microwave Metasurface Absorber
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