Novel multilayer antenna array with metamaterial structures for 5G applications
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Iman Jadidi
Abstract
In this paper, a 2×2 multi-layer array antenna based on the metamaterial concept is proposed at 28 GHz for 5-Generation (5G) applications. The feed network is designed in the first layer. This network feeds the rectangular patch located in the first layer using four shorted-pins (SPs). To realize the metamaterial environment, a novel unit-cell was designed. In the first layer between the two dielectrics, 2 unit-cell rows are used. In the second layer and adjacent to the patches, 4 rows of metamaterial unit-cells are loaded. Each of the metamaterial rows contains 6 unit-cells. As such, the antenna gain has increased more than 10 dB from the prototype without any metamaterial structures. The final dimensions of the proposed array antenna are 30×35.2×0.508 mm3. To prove the design, the proposed antenna was fabricated. The simulated and measured maximum gain at 28 GHz are 18.28 and 17.91 dB, respectively.
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Author contributions: All the authors have accepted responsibility for the entire content of this submitted manuscript and approved submission.
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Research funding: None declared.
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Conflict of interest statement: The authors declare no conflicts of interest regarding this article.
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© 2022 Walter de Gruyter GmbH, Berlin/Boston
Articles in the same Issue
- Frontmatter
- Research Articles
- Compact low-pass filter (LPF) with wide harmonic suppression using interdigital capacitor
- Design and analysis of a multiple notched UWB-BPF based on microstrip-to-CPW transition
- A compact S-band band-pass filter with ultra-wide stopband
- Design and fabrication of an ultra compact Gysel power divider with harmonic suppression by using U shaped resonators
- A high angle stable and polarization symmetric dual band reconfigurable frequency selective surface
- Characterization of dual-band circularly polarized mushroom-shaped monopole antenna with modified ground plane
- Novel multilayer antenna array with metamaterial structures for 5G applications
- Compact quadband two-port antenna with metamaterial cell-inspired decoupling parasitic element for mobile wireless applications
- Gain enhancement of a SIW H-plane horn antenna using of metamaterial array
- Optimized SIW antipodal Vivaldi antenna array using Fourier series equations for C-band applications
- Design and performance analysis of a compact, wideband dual polarized antenna for WLAN & WiMAX applications
- Miniaturised ultra-wideband rectangular shaped slot antenna for ground penetrating radar applications
- Performance analysis and rain attenuation modelling of RoFSO link for hilly region of India
Articles in the same Issue
- Frontmatter
- Research Articles
- Compact low-pass filter (LPF) with wide harmonic suppression using interdigital capacitor
- Design and analysis of a multiple notched UWB-BPF based on microstrip-to-CPW transition
- A compact S-band band-pass filter with ultra-wide stopband
- Design and fabrication of an ultra compact Gysel power divider with harmonic suppression by using U shaped resonators
- A high angle stable and polarization symmetric dual band reconfigurable frequency selective surface
- Characterization of dual-band circularly polarized mushroom-shaped monopole antenna with modified ground plane
- Novel multilayer antenna array with metamaterial structures for 5G applications
- Compact quadband two-port antenna with metamaterial cell-inspired decoupling parasitic element for mobile wireless applications
- Gain enhancement of a SIW H-plane horn antenna using of metamaterial array
- Optimized SIW antipodal Vivaldi antenna array using Fourier series equations for C-band applications
- Design and performance analysis of a compact, wideband dual polarized antenna for WLAN & WiMAX applications
- Miniaturised ultra-wideband rectangular shaped slot antenna for ground penetrating radar applications
- Performance analysis and rain attenuation modelling of RoFSO link for hilly region of India
