Analysis of Performance-Improvement of Microstrip Antenna at 2.45 GHz Through Inset Feed Method

Baki, A. K. M.; Rahman, Md. Nurur; Mondal, Sandip

doi:10.1109/icasert.2019.8934719

Cited by 11 publications

(5 citation statements)

References 7 publications

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“…Effort in improving one parameter can result in other issues such as bandwidth limitations or shifting the frequency band. Patch antenna development of different methods is described in [9][10][11][12][13][14][15].…”

Section: Applications Of Patch Antennas At Different Frequency Bandsmentioning

confidence: 99%

Development of Novel and High Gain Microstrip Patch Antennas at Different Frequency Bands for 6g Applications

Sayem,

Baki,

Faysal

et al. 2023

PIER C

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Wireless communications need antennas of different sizes, shapes, frequency-bands, bandwidths, and radiation patterns due to technical requirements, physical constraints, and FCC (Federal Communication Commission) regulations. For example, S-band antennas (2 GHz-4 GHz) are used in navigation, C-band antennas (4 GHz-8 GHz) used in Air-borne RADAR, X (8-12) band antennas used in Satellite communications, and millimeter wave (40 GHz and above) antennas used in autonomous vehicles. ultra-wideband (UWB) antennas of different frequency bands have also applications in different fields such as medical imaging, radar imaging, software defined radios, surveillance, and health monitoring of different equipment. Microstrip patch antennas of different gains, bandwidths, shapes, and radiation patterns will play a vital role in different wireless applications of future 6G systems. In this paper, we have discussed different novel designs of patch antennas at different frequency bands:

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Section: Applications Of Patch Antennas At Different Frequency Bandsmentioning

confidence: 99%

Development of Novel and High Gain Microstrip Patch Antennas at Different Frequency Bands for 6g Applications

Sayem,

Baki,

Faysal

et al. 2023

PIER C

View full text Add to dashboard Cite

show abstract

“…Different published papers claim that to achieve good results, a good matching condition of patch can be obtained by cuts in patch with inset feed of patch [15]. By properly control inset position & width, good matching may be achieved.…”

Section: Antenna Geometry and Designmentioning

confidence: 99%

High gain Antenna Design for 6G wireless Applications

Vyas

Salim

2022

Preprint

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Last few years, mobile communications have been undergoing a drastic evaluation/change for every ten years or so. The technique difference between the communication processes named as “G’s”. The fifth-generation (5G) systems is becoming a commercial & there is significant interest for future in systems beyond 5G & known as the sixth generation (6G) of wireless systems. This paper describes the design of a novel tooth-shaped patch antenna development for communication in radar system with better performance. The antenna designed in Tera Hz at 300GHz frequency. To achieve higher gain, the designed patch antenna exhibits lower mutual coupling effect. Current distribution & gain of designed novel tooth shaped patch antenna having 1.32*102A/m & 9.45db. The proposed antenna simulated to test the power transferred at the antenna port from the transmission line means impedance bandwidth (S11˂-10dB) at frequencies of 326.67GHz that is, -50.524dB, allocated to the 6G applications by the Federal Communications Commission. By simulation of proposed patch antenna, visualize the intended output or result, the design of antennas is crucial to achieving the required results for future work. The simulation provides us effects to evaluate various parameters, like as bandwidth, and antenna isolation, for the manufactured device's superior performance standards. . RT/ Duroid 5880 is a low-loss / cost substrate and we used in designs. For 6G frequencies, the required band-width should be more than 20GHz, which is desirable for future reference/work.

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“…(Ayn et al 2018). Nowadays, the need of microstrip patch antennas is increasing rapidly due to less weight and ease of fabrication (Meena and Meena 2015) makes the patch antenna to be used in mobile communication and satellite applications (Baki, Rahman, and Mondal 2019). Fig- 1 represents the design setup of microstrip patch antenna using Ansoft HFSS software.…”

Section: Introductionmentioning

confidence: 99%

Gain Enhancement of Microstrip Patch Antenna by Using Novel Air Substrate With U-slotted Patch

Rafi¹,

Swaminathan²

2021

revistageintec

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In this work a Rectangular Microstrip Patch Antenna is designed by replacing conventional substrate with Air substrate and by adding a U shaped slot in Patch for Gain Enhancement. Materials and Methods: The Microstrip Patch Antenna with Air Substrate is used with 20 samples in comparison with FR-4 substrate of 2mm thickness. Results: Simulation is done by using Ansoft HFSS (High Frequency Structure Simulator) software. The performance of the Antenna is analyzed in terms of Gain, Directivity, Return loss, VSWR and enhancement in Gain is by 1.724 dB in comparison with FR-4 substrate. Attained Significance accuracy ratio (< 0.05). Conclusion: Microstrip Patch Antenna with Air substrate and U Slotted Patch performs better in terms of Gain.

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Analysis of Performance-Improvement of Microstrip Antenna at 2.45 GHz Through Inset Feed Method

Cited by 11 publications

References 7 publications

Development of Novel and High Gain Microstrip Patch Antennas at Different Frequency Bands for 6g Applications

Development of Novel and High Gain Microstrip Patch Antennas at Different Frequency Bands for 6g Applications

High gain Antenna Design for 6G wireless Applications

Gain Enhancement of Microstrip Patch Antenna by Using Novel Air Substrate With U-slotted Patch

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