Novel Quadruple-Band Microwave Metamaterial Absorber

In this paper, we report the design, analysis, and simulation of a novel quadrupleband metamaterial absorber at microwave frequencies. The absorber is composed of delicate periodic patterned structures and a metallic background plane, which are separated by a dielectric substrate. By manipulating th...

Full description

Bibliographic Details
Main Authors: Nan Wang, Junmin Tong, Weicheng Zhou, Wei Jiang, Jinlong Li, Xiaochun Dong, Song Hu
Format: Article
Language:English
Published: IEEE 2015-01-01
Series:IEEE Photonics Journal
Subjects:
Online Access:https://ieeexplore.ieee.org/document/7029014/
id doaj-bebb8b217a2c4514a5c1b633fff7d92f
record_format Article
spelling doaj-bebb8b217a2c4514a5c1b633fff7d92f2021-03-29T17:22:24ZengIEEEIEEE Photonics Journal1943-06552015-01-01711610.1109/JPHOT.2015.23993567029014Novel Quadruple-Band Microwave Metamaterial AbsorberNan Wang0Junmin Tong1Weicheng Zhou2Wei Jiang3Jinlong Li4Xiaochun Dong5Song Hu6Inst. of Opt. & Electron., Chengdu, ChinaXuchang Vocational & Tech. Coll., Xuchang, ChinaInst. of Opt. & Electron., Chengdu, ChinaInst. of Opt. & Electron., Chengdu, ChinaInst. of Opt. & Electron., Chengdu, ChinaInst. of Opt. & Electron., Chengdu, ChinaInst. of Opt. & Electron., Chengdu, ChinaIn this paper, we report the design, analysis, and simulation of a novel quadrupleband metamaterial absorber at microwave frequencies. The absorber is composed of delicate periodic patterned structures and a metallic background plane, which are separated by a dielectric substrate. By manipulating the periodic patterned structures, nearly perfect absorption can be obtained at four specific resonance frequencies. Moreover, the significantly high absorptions of quadruple peaks are insensitive to polarization independence, and the influence of the incident angle on the absorption for both TE and TM modes was also analyzed. To explain the absorption mechanism of the suggested structures, the electric and magnetic field distributions and the resistance matching principle were given. Importantly, the design idea has the ability to be extended to other frequencies, such as terahertz, infrared, and optical frequencies.https://ieeexplore.ieee.org/document/7029014/MetamaterialsAbsorberSubwavelength structures
collection DOAJ
language English
format Article
sources DOAJ
author Nan Wang
Junmin Tong
Weicheng Zhou
Wei Jiang
Jinlong Li
Xiaochun Dong
Song Hu
spellingShingle Nan Wang
Junmin Tong
Weicheng Zhou
Wei Jiang
Jinlong Li
Xiaochun Dong
Song Hu
Novel Quadruple-Band Microwave Metamaterial Absorber
IEEE Photonics Journal
Metamaterials
Absorber
Subwavelength structures
author_facet Nan Wang
Junmin Tong
Weicheng Zhou
Wei Jiang
Jinlong Li
Xiaochun Dong
Song Hu
author_sort Nan Wang
title Novel Quadruple-Band Microwave Metamaterial Absorber
title_short Novel Quadruple-Band Microwave Metamaterial Absorber
title_full Novel Quadruple-Band Microwave Metamaterial Absorber
title_fullStr Novel Quadruple-Band Microwave Metamaterial Absorber
title_full_unstemmed Novel Quadruple-Band Microwave Metamaterial Absorber
title_sort novel quadruple-band microwave metamaterial absorber
publisher IEEE
series IEEE Photonics Journal
issn 1943-0655
publishDate 2015-01-01
description In this paper, we report the design, analysis, and simulation of a novel quadrupleband metamaterial absorber at microwave frequencies. The absorber is composed of delicate periodic patterned structures and a metallic background plane, which are separated by a dielectric substrate. By manipulating the periodic patterned structures, nearly perfect absorption can be obtained at four specific resonance frequencies. Moreover, the significantly high absorptions of quadruple peaks are insensitive to polarization independence, and the influence of the incident angle on the absorption for both TE and TM modes was also analyzed. To explain the absorption mechanism of the suggested structures, the electric and magnetic field distributions and the resistance matching principle were given. Importantly, the design idea has the ability to be extended to other frequencies, such as terahertz, infrared, and optical frequencies.
topic Metamaterials
Absorber
Subwavelength structures
url https://ieeexplore.ieee.org/document/7029014/
work_keys_str_mv AT nanwang novelquadruplebandmicrowavemetamaterialabsorber
AT junmintong novelquadruplebandmicrowavemetamaterialabsorber
AT weichengzhou novelquadruplebandmicrowavemetamaterialabsorber
AT weijiang novelquadruplebandmicrowavemetamaterialabsorber
AT jinlongli novelquadruplebandmicrowavemetamaterialabsorber
AT xiaochundong novelquadruplebandmicrowavemetamaterialabsorber
AT songhu novelquadruplebandmicrowavemetamaterialabsorber
_version_ 1724197885446193152