Design and Study the Performance of Micro-Strip Patch Antennae for 5G Mobile Communication

Kompella, Shivani Krishna; Rajak, A. R. Abdul

doi:10.1007/978-981-16-5987-4_2

Cited by 2 publications

(3 citation statements)

References 6 publications

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“…Moreover, it is quite simple to construct and use printed circuit boards with extremely high accuracy at a low cost. As the physical dimensions of the patch resonate within the mmWave band, they can be fabricated at smaller dimensions than other radio antennas making it perfect for 5G communication [6,7].…”

Section: -Patch Antenna Theorymentioning

confidence: 99%

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Microstrip Patch Antenna with C Slot for 5G Communication at 30 GHz

Kishore¹,

Rajak²

2022

Emerg Sci J

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A novel design of a 30 GHz microstrip line-fed antenna for 5G communication has been presented in this paper. 5G is the latest industry standard in mobile communication, which is designed to deliver higher data speeds, lower latency, greater network capacity, and higher reliability. It uses major parts of the mmWave spectrum (28 GHz to 40 GHz), allowing for a wide range of applications like mobiles, vehicles, medical devices, and other IoT networks. This mmWave network requires efficient antennas for its effective communication. Patch antennas use the function of oscillating their physical structure to the wavelength of the transmitting wave. Thus, higher efficiency can be achieved in the mmWave spectrum due to its proximity to the actual dimensions of the patch antenna, which also allows us to design antennas at small sizes and high reliability. The design in this report has a patch antenna with a centre frequency of 30 GHz. The antenna was optimized for this frequency based on the best reflection coefficient and gain while keeping the restraints of staying within the FR-2 band of 28 GHz to 33 GHz. The proposed antenna has been implemented using Rogers RT5880 substrate for high gain and performance across a wide range of frequencies. The feed is also accompanied by a quarter-wave feed cut for performance increase and impedance matching. The design has a gain of 8.45, with a reflection coefficient of -8 dB at a resonant frequency of 30 GHz. It shows great directivity of 5o and VSWR of 2.3 over a bandwidth of 3.5 GHz. It also employs a 0.4 mm C slot, which induces a dipole effect, thereby increasing the directivity and gain of the antenna. Hence, it is recommended for use in applications related to 5G mobile communication. Doi: 10.28991ESJ-2022-06-06-06 Full Text: PDF

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Section: -Patch Antenna Theorymentioning

confidence: 99%

“…1+√𝑆 11 1−√𝑆 11 (7) As can be seen from Equations 6 and 7, the minimal value for VSWR is reached when S11 is reduced to its lowest possible value. To prevent an excessive amount of reflection, the design process must guarantee that the VSWR is as low as possible.…”

Section: 𝑉𝑆𝑊𝑅 =mentioning

confidence: 99%

Microstrip Patch Antenna with C Slot for 5G Communication at 30 GHz

Kishore¹,

Rajak²

2022

Emerg Sci J

Self Cite

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“…The 5G technology employs high-frequency bands and wide signal bandwidth, which increase the transmission of data bit rates, thereby providing better coverage with low battery consumption at low cost. Moreover, the frequency bands of 5G application are in the range (20-90) GHz, and the antenna designed usually operate at frequencies 28, 38, and 72 GHz as they have high data rate, comparatively low latency and are highly directional in nature (Mohammed et al, 2019, Kompella andAbdul Rajak, 2022). Therefore, a good understanding among different groups of researchers how to try to work on a large amount of softness of 5G technologies to reach the speed of transmitting excellent information from 1Gb/s to users in motion, as well as 10 Gb/s for users in stable conditions and not less than 100 MB per second in residential areas (Ezzulddin et al, 2022b).…”

Section: Introductionmentioning

confidence: 99%

Radiation Performance of Different Triangular Microstrip Patch Antenna Configuration Shapes Operating at 28 GHz

2022

ZJPAS

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The radiation performance of different triangular microstrip patch antenna (TMPA) shapes such as right triangle (RTMPA), isosceles triangle (ITMPA), obtuse triangle (OTMPA), and equilateral triangle (ETMPA) operating at (28 GHz) are computed and compared using inset-fed techniques and Rogers-RT5880 substrate material of permittivity () and (h=0.15 mm) height. The directivity, gain, efficiency, bandwidth, VSWR, S11 and 2D-radiation pattern for each mentioned triangular patch shapes are computed utilizing CST and HFSS method. The computed results reveal generally that the ETMPA provide better radiation performance whereas the OTMPA displays lower antenna radiation parameter values compared to the other considered ones. In addition, the antenna parameters of ETMPA with the use of coaxial probe fed are also simulated and the results are compared to those previously achieved experimentally and theoretically by other researchers. Generally, a good agreement between mentioned antenna parameter results is displayed and reliability of those achieved by CST with inset fed techniques is clearly observed. Moreover, the overall antenna parameter obtained, respectively, with CST and HFSS techniques for inset fed ETMPA are S11 (-28.68, -20.64), VSWR (1.076,1.20), gain (5.82, 6.29) dB, directivity (6.85, 7.09) dB, bandwidth (0.452, 0.369) GHz, efficiency (78.9%, 83.2%) and with a small antenna size of about (3.88 mm 3 ) which is most reliable for 5G technology application systems.

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Design and Study the Performance of Micro-Strip Patch Antennae for 5G Mobile Communication

Cited by 2 publications

References 6 publications

Microstrip Patch Antenna with C Slot for 5G Communication at 30 GHz

Microstrip Patch Antenna with C Slot for 5G Communication at 30 GHz

Radiation Performance of Different Triangular Microstrip Patch Antenna Configuration Shapes Operating at 28 GHz

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