T-slotted microstrip patch antenna for 5G Wi-Fi network

Goyal, Ravi Kumar; Sharma, Kamalesh Kumar

doi:10.1109/icacci.2016.7732465

Cited by 21 publications

(3 citation statements)

References 8 publications

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“…In [19], the authors proved the efficiency of a 60GHz virtual loop antenna built on low resistivity silicon substrate. These antennas have been fabricated and designed in different shapes, such as rectangular, circular, helical [20], double F-slot [21], double U-slot [22], T-slot [23], E-and H-slots [24]. Moreover, the feasibility of 5G connectivity beyond 70GHz was demonstrated using an experimental prototype in [25].…”

Section: Introductionmentioning

confidence: 99%

On the Efficiency of the Advanced TWA Approach to the 60-GHz Microstrip Antenna Analysis for 5G Wireless Communication Systems

Ayari

2023

Eng. Technol. Appl. Sci. Res.

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The bandwidth demand in mobile wireless applications has grown at an astounding rate due to the fast evolution of technology, spurring the antenna design fields. The approaches associated with realizing antenna structure at mm-Wave frequency bands for future 5G cellular devices present advantages and disadvantages. This paper exhibits a fast and original approach based on the transverse wave formulation called-up Advanced Transverse Wave Approach (ATWA). A compact 5G patch antenna is designed, measured, simulated, and analyzed in the context of unlicensed mm-wave ISM-band applications. Compared to recently published works, the obtained result analysis proves the efficiency of the proposed method in terms of calculation accuracy, computational efficiency, and peak memory usage and the overall good performance of the proposed antenna.

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Section: Introductionmentioning

confidence: 99%

On the Efficiency of the Advanced TWA Approach to the 60-GHz Microstrip Antenna Analysis for 5G Wireless Communication Systems

Ayari

2023

Eng. Technol. Appl. Sci. Res.

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“…e slots lengthen surface currents, which reduces the patch size and causes the lower resonant frequency to shift to the left. A small T-slot microstrip antenna for mmWave communication is presented in [23]. e antenna meets the IEEE802.11ad standard by operating in the 60 GHz band with a maximum gain of 6.34 dB.…”

Section: Introductionmentioning

confidence: 99%

Design of a Novel 60 GHz Millimeter Wave Q-Slot Antenna for Body-Centric Communications

Khan

Islam

Shovon

et al. 2021

International Journal of Antennas and Propagation

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The 60 GHz band is a great prospect to meet the future demand for short-range indoor communication requiring wide bandwidth and high data rates. This paper presents the design of a 60 GHz printed Q-slot patch antenna for body-centric communication. The Q-slot has a slot gap of 0.2 mm and is etched on a 6.5 mm × 11 mm rectangular patch. The slotted patch is mounted on an FR-4 (Flame Retardant) substrate that is 1.6 mm thick and has a relative permittivity of 4.3. With a partial ground plane of length of 2.2 mm, the antenna’s overall dimension is 12.9 mm × 14 mm × 1.6 mm. Computer Simulation Technology (CST) microwave studio was used to design and simulate the antenna. In free space, the antenna is resonant at 60.06 GHz with an impedance bandwidth of 12.11 GHz. At 60 GHz, the antenna’s radiation efficiency is 82.15%, with a maximum gain of 8.62 dBi. For further analysis, parametric changes were made to observe the effect on return loss, radiation efficiency, and gain. The antenna was simulated on a three-layer human torso phantom for the on-body scenario. The antenna’s resonant frequency shifted slightly to the right at 2 mm distant from the phantom while maintaining a very wide impedance bandwidth. At this point, the antenna’s radiation efficiency dropped to 56.68% and gradually increased to 74.04% at 10 mm. The maximum gain remained largely unaffected, but some grated radiation patterns were observed.

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“…In the world, there have been many proposed antennas for applications to next-generation mobile communications systems, namely 5G, which focus on the design of micro-strip antennas or PIFA antennas with dimensions compact, meet the good insulation and radiation at the appropriate frequency. A number of research results on antennas for typical 5G systems may be included in the studies [2][3][4][5], most of which focus on single antennas, only a few are studying about MIMO systems, further studies about MIMO antenna with most mutual reduction by methods changing the direction and the position. These methods have a big disadvantage, that is increasing the distance between the antennas to increase the size of the MIMO antenna system, which will cause the change of the antenna position and is hard to apply to designing antennas for devices in the system 5G, where almost all devices must meet the criteria of compact.…”

Section: Introductionmentioning

confidence: 99%

Design of high isolation dual-band MIMO antenna using single neutral line

My¹

2019

jst

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A dual-band MIMO antenna with a high isolation is presented in this paper. The proposed MIMO antenna consists of two identical E-shaped micro-strip antennas which are designed on an FR4 substrate. The antenna is designed for radiating at 2.6 GHz and 5 GHz that can be used for the applications of 4G and 5G systems, respectively. Neutral line technique is used for mutual coupling reduction between the E-shaped antenna. Good isolation characteristics are obtained by using single micro-strip line connected between two elements of MIMO antenna. The antenna is fabricated and measured, and good agreement is achieved between the experimental and simulated results.

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T-slotted microstrip patch antenna for 5G Wi-Fi network

Cited by 21 publications

References 8 publications

On the Efficiency of the Advanced TWA Approach to the 60-GHz Microstrip Antenna Analysis for 5G Wireless Communication Systems

On the Efficiency of the Advanced TWA Approach to the 60-GHz Microstrip Antenna Analysis for 5G Wireless Communication Systems

Design of a Novel 60 GHz Millimeter Wave Q-Slot Antenna for Body-Centric Communications

Design of high isolation dual-band MIMO antenna using single neutral line

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