Mutual Coupling Reduction of Super Wide Band MIMO Antenna Using Metamaterial Periodic Defected Ground Structures for THz Applications

In this article, a double negative (DNG) material inspired periodic defected ground structure is presented to reduce mutual coupling and gain enhancement of super wide band multiple input and multiple output antenna (SWBMA) for terahertz (THz) applications. For THz applications, a dual port super wide band MIMO antenna with size of 0.35 λ0 ×0.17 λ0×0.02 λ0 ( 57 ×27.6 ×3.36 μm3) has been designed on quartz substrate. The simulated results of proposed antenna exhibit fractional bandwidth (FWB) of 164% at 9.9THz resonant frequency (1.75 to 18THz) with peak gain 9.2dBi, and average radiation efficiency 89% throughout the super wide band spectrum. By inserting DNG meta-material based periodic defected ground structures in between inverse L stubs on ground plane, an isolation S12/S21 between radiating elements of Si,j ≤ -25dB has been attained. MIMO parameters of designed antenna are also investigated and it is observed that ECC<0.0025, DG>9.98 dB, TARC<-15dB, MEG<-3dB, and CCL<0.225bps/Hz throughout spectrum of antenna.By evaluating the characteristics of proposed antenna, it can be concluded that the proposed MIMO antenna can be a good candidate for high-speed THz applications like future 6G, high-speed Radar, and radiometric applications.

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Publication Details

Journal
International Journal of Integrated Engineering
Published
2024-08-12
DOI
https://doi.org/10.30880/ijie.2024.16.05.024
Primary Topic
Antenna Design and Analysis
Type
article
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article

Mutual Coupling Reduction of Super Wide Band MIMO Antenna Using Metamaterial Periodic Defected Ground Structures for THz Applications

Ranjana Kumari, V. K. Tomar
International Journal of Integrated Engineering
Antenna Design and Analysis
article

Mutual Coupling Reduction of Super Wide Band MIMO Antenna Using Metamaterial Periodic Defected Ground Structures for THz Applications

Ranjana Kumari, V. K. Tomar
article en

Abstract

In this article, a double negative (DNG) material inspired periodic defected ground structure is presented to reduce mutual coupling and gain enhancement of super wide band multiple input and multiple output antenna (SWBMA) for terahertz (THz) applications. For THz applications, a dual port super wide band MIMO antenna with size of 0.35 λ0 ×0.17 λ0×0.02 λ0 ( 57 ×27.6 ×3.36 μm3) has been designed on quartz substrate. The simulated results of proposed antenna exhibit fractional bandwidth (FWB) of 164% at 9.9THz resonant frequency (1.75 to 18THz) with peak gain 9.2dBi, and average radiation efficiency 89% throughout the super wide band spectrum. By inserting DNG meta-material based periodic defected ground structures in between inverse L stubs on ground plane, an isolation S12/S21 between radiating elements of Si,j ≤ -25dB has been attained. MIMO parameters of designed antenna are also investigated and it is observed that ECC<0.0025, DG>9.98 dB, TARC<-15dB, MEG<-3dB, and CCL<0.225bps/Hz throughout spectrum of antenna.By evaluating the characteristics of proposed antenna, it can be concluded that the proposed MIMO antenna can be a good candidate for high-speed THz applications like future 6G, high-speed Radar, and radiometric applications.

International Journal of Integrated EngineeringVol. 16(5)
Galgotias University (IN), GLA University (IN)
Affordable and clean energy
Openalex Percentile: Top 80%
Antenna Design and Analysis
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