Metamaterial-inspired quintuple band printed patch antenna for dense communication networks

Al-Duhni, Ghaleb; Wongkasem, Nantakan

doi:10.1080/09205071.2022.2107438

Cited by 4 publications

(4 citation statements)

References 36 publications

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“… Components Communication Ref. 1 Antennas Narrow range [ 35 ] 2 Antenna Very low range [ 36 ] 3 Split-Ring Resonator (SRR) and Compact SRR Multi-band (MB) and Quad-band [ 37 , 38 ] 4 Traveling wave Antenna Multiple [ 39 ] 5 Patch Antenna MS Patch Antenna MB 5G, performance enhancement communication, superstrate technique in communication UWB Wearable communication [ 40 , 41 , 42 , 43 , 44 , 45 , 46 , 47 ] 6 Microstrip (MS) Antenna Sub‐6 GHz waveguide [ 48 ] 7 Tuneable and compact Antenna Multi-band [ 49 ] 8 Sensor networks Body textile within 10 cm [ 50 ] 9 MS patch Antenna 5G [ 41 ] 10 Time-based directional modulation schemes Layer security ...…”

Section: Metamaterials In Wireless Antennasmentioning

confidence: 99%

Functional metamaterials for wireless antenna applications – A review abetted with patent landscape analysis

Vetrichelvi,

Gowtham,

Balaji

et al. 2024

Heliyon

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Section: Metamaterials In Wireless Antennasmentioning

confidence: 99%

Functional metamaterials for wireless antenna applications – A review abetted with patent landscape analysis

Vetrichelvi,

Gowtham,

Balaji

et al. 2024

Heliyon

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“…A rectangular patch with an I-shaped unit cell superstrate resonates at multiband frequencies and enhances the maximum antenna gain at 6.18GHz, 9.65GHz and 11.45GHz are 4.19dBi, 2.4dBi, and 5.68dBi respectively [26]. Multiple resonance frequencies were achieved using a quintuple circular SRR loaded with a rectangular microstrip patch antenna [28]. This article advances our existing concept [29], Considering antenna with low gain enhancement in [17], [22], antenna gain increased as the number of superstrate layers increased, and the overall geometry also increased [14], [25].…”

Section: Introductionmentioning

confidence: 99%

Gain Enhancement in Microstrip Patch Antenna With High Negative Refractive Index 3D-Metamaterial Inspired Superstrate for Wireless Applications

Khouser,

Choukiker,

Bhowmick

2024

IEEE Access

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This article presents a 3D-metamaterial (3D-MTM) structure to enhance microstrip patch antenna gain. A 3D-MTM unit cell exhibits an MNG (µ-negative) property with a high negative refractive index over the 2.36-2.53 GHz frequency range resonating at 2.45 GHz. Therefore, a 4×4 array of the proposed 3D-MTM unit cell is analyzed and used as a superstrate over a patch antenna and a 2×2 array antenna to achieve high gain for wireless applications. The simulated and measured results of the designed antenna show that the gain is enhanced by about 5dBi and 3.2dBi. In addition, the half power beam width reduced in E-plane is 23 • and 12.85 • for a patch antenna and 2×2 array antenna, respectively.

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“…A quintuple circular SRR was designed to enhance the performance of a rectangular MPA by G.Al. Duhni [ 31 ]. The SRR-loaded MPA produced five resonance frequencies at 8.16 GHz, 9.08 GHz, 10.06 GHz, 10.73 GHz, and 11.34 GHz.…”

Section: Introductionmentioning

confidence: 99%

A Microstrip Antenna Using I-Shaped Metamaterial Superstrate with Enhanced Gain for Multiband Wireless Systems

2023

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This paper presents the design of a rectangular microstrip patch antenna (MPA) using the I-shaped metamaterial (MTM) superstrate. A seven × seven array of the I-shaped MTM unit cell is used as the superstrate to enhance the antenna performance. The antenna is fed by a microstrip feeding technique and a 50 Ω coaxial connector. An in-phase electric field area is created on the top layer of the superstrate to improve the performance of the antenna. The proposed I-shaped MTM-based rectangular MPA produces three operating frequencies at 6.18 GHz, 9.65 GHz, and 11.45 GHz. The gain values of the proposed antenna at 6.18 GHz, 9.65 GHz and 11.45 GHz are 4.19 dBi, 2.4 dBi, and 5.68 dBi, respectively. The obtained bandwidth at frequencies 6.18 GHz, 9.65 GHz and 11.45 GHz are 240 MHz (3.88%), 850 MHz (8.8%), and 1010 MHz (8.82%), respectively. The design and simulation of the antenna are done using the Computer Simulation Technology (CST) studio suite and MATLAB. The proposed I-shaped MTM-based rectangular MPA is fabricated on a low-cost FR-4 substrate and measured using the Agilent 8719ET network analyzer. The proposed antenna has an overall dimension of 70 × 70 × 1.6 mm3. A significant improvement in the gain of the antenna up to 74.28% is achieved. The obtained results confirm that the proposed multiband antenna has a high gain, and enhancement in bandwidth and radiation efficiency. These properties make the proposed antenna suitable for the multiband wireless communications systems such as Wi-Fi devices, radar systems, short- and long-range tracking systems, etc.

show abstract

Metamaterial-inspired quintuple band printed patch antenna for dense communication networks

Cited by 4 publications

References 36 publications

Functional metamaterials for wireless antenna applications – A review abetted with patent landscape analysis

Functional metamaterials for wireless antenna applications – A review abetted with patent landscape analysis

Gain Enhancement in Microstrip Patch Antenna With High Negative Refractive Index 3D-Metamaterial Inspired Superstrate for Wireless Applications

A Microstrip Antenna Using I-Shaped Metamaterial Superstrate with Enhanced Gain for Multiband Wireless Systems

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