Microstrip patch antennas for wireless communication: A review

Joshi, Mandar P.; Gond, Vitthal J.

doi:10.1109/icoei.2017.8300853

Cited by 10 publications

(2 citation statements)

References 15 publications

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“…(Mehta, 2015). The triangular patch antennas have recently acquired popularity due to miniaturization in its size which is considered as a main requirement in modern communication system devices (Joshi and Gond, 2017). where, ( ), ( ) and ( ) are represent, respectively, the inset fed gap separation, the length and width of the microstrip fed line.…”

Section: Theoretical Modelingmentioning

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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Section: Theoretical Modelingmentioning

confidence: 99%

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

2022

ZJPAS

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“…In particular, microstrip patch antennas 1 have been extensively exploited and are currently implemented in modern 5G communications technologies owing to their compact size, easy tunability, and full compatibility with planar fabrication techniques. 2,3 In the THz domain, patch antenna arrays have been used for fundamental studies of the ultrastrong light− matter coupling regime, 4 for phase-shaping metamaterials, 5 and as perfect absorbers. 6 Functionalizing such arrays with electrical inputs to create practical devices without hindering their optical properties is a nontrivial problem, as demonstrated in this work.…”

mentioning

confidence: 99%

Monolithic Patch-Antenna THz Lasers with Extremely Low Beam Divergence and Polarization Control

Pérez-Urquizo

Todorov

et al. 2021

ACS Photonics

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Arrays of patch antennas have impacted modern telecommunications in the RF range significantly, owing to their versatility in tailoring the properties of the emitted radiation such as beam width and polarization, along with their ease of fabrication. At higher frequencies, in the terahertz (THz) range, there is a pressing need for a similar monolithic platform to realize and enable the advanced functionalities available in the RF technology. This platform would benefit a wide variety of fields such as astronomy, spectroscopy, wireless communications, and imaging. Here, we demonstrate THz lasers made of arrays of 10 × 10 patch antenna microcavities that provide up to 25 mW output power with robust single mode frequency and spatial mode. This device architecture leads to an unprecedented beam divergence, better than 2° × 2°, which depends only on the number of resonators. This allows to functionalize the device while preserving a high quality far-field pattern. By interconnecting the symmetric square microcavities with narrow plasmonic wires along one direction, we introduce an asymmetry into the originally degenerate and cross-polarized TM01 and TM10 modes, leading to a precise control of the resonant frequency detuning between the TM modes. This feature allows devices to be designed that radiate with any coherent polarization states from linear to circular. Large-scale full-wave simulations of the emission from entire arrays support our experimental results. Our platform provides a solution to finally achieve monolithic terahertz emitters with advanced integrated functionalities such as active beam steering and polarization control.

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Using Wolfram Mathematica computing tools for designing a dual-band tooth-shaped microstrip antenna

Markina

Tumakov

2022

INTERNATIONAL CONFERENCE ON INFORMATICS, TECHNOLOGY, AND ENGINEERING 2021 (InCITE 2021): Leveraging Smart Engineering

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Microstrip patch antennas for wireless communication: A review

Cited by 10 publications

References 15 publications

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

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

Monolithic Patch-Antenna THz Lasers with Extremely Low Beam Divergence and Polarization Control

Using Wolfram Mathematica computing tools for designing a dual-band tooth-shaped microstrip antenna

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