Compact beam‐switchable antenna for mm‐wave 5G handheld devices

Abstract An electronically beam‐steerable antenna (BSA) is envisioned. The presented BSA is a possible solution to overthrow the limitations inherent to phased antenna arrays. The design consists of a gap coupling inset feed rectangular patch (driven element) and 3 × 1 passive parasitic patches depl...

Full description

Bibliographic Details
Main Authors: Farzana Arshad, Zia Ullah Khan, Ahsan Ali, Yasar Amin, Hannu Tenhunen
Format: Article
Language:English
Published: Wiley 2021-06-01
Series:IET Microwaves, Antennas & Propagation
Online Access:https://doi.org/10.1049/mia2.12084
_version_ 1828320101221269504
author Farzana Arshad
Zia Ullah Khan
Ahsan Ali
Yasar Amin
Hannu Tenhunen
author_facet Farzana Arshad
Zia Ullah Khan
Ahsan Ali
Yasar Amin
Hannu Tenhunen
author_sort Farzana Arshad
collection DOAJ
description Abstract An electronically beam‐steerable antenna (BSA) is envisioned. The presented BSA is a possible solution to overthrow the limitations inherent to phased antenna arrays. The design consists of a gap coupling inset feed rectangular patch (driven element) and 3 × 1 passive parasitic patches deployed on both sides of the driven patch. Prototype having 20  × 20 mm dimensions is printed on Rogers® RT/duroid®5870. Four switches are used to load the reactive impedance on parasitic patches, which in turn, change the phases of surface current on parasitic elements and the driven element. Based on the different ON and OFF configuration of switches in parasitic array elements, the main beam is steered along with different directions. The simulated results show that the design can operate between 26.8 and 30.3 GHz a wide impedance bandwidth |S11|< −10 dB (12.5%) with a peak gain of 8.9 dBi and wide 3‐dB scanning angle that is, −37° to 156° in the azimuth plane. The exhibited performance of BSA with favourable characteristics, such as wideband, adequate gain, wide‐angle beam switching, and low profile renders the BSA a good candidate for 5G millimetre wave handheld devices. Moreover, to corroborate the performance, the design is fabricated, and experimental measurements were performed. Congruence is observed between the experimentally measured and computationally simulated results. The simulated results of spherical coverage analysis of BSA with the integration of smartphone form factor are also presented.
first_indexed 2024-04-13T18:05:56Z
format Article
id doaj.art-e57c5659da684fbcbbe0b3a2a2c5b1bd
institution Directory Open Access Journal
issn 1751-8725
1751-8733
language English
last_indexed 2024-04-13T18:05:56Z
publishDate 2021-06-01
publisher Wiley
record_format Article
series IET Microwaves, Antennas & Propagation
spelling doaj.art-e57c5659da684fbcbbe0b3a2a2c5b1bd2022-12-22T02:36:04ZengWileyIET Microwaves, Antennas & Propagation1751-87251751-87332021-06-0115777878710.1049/mia2.12084Compact beam‐switchable antenna for mm‐wave 5G handheld devicesFarzana Arshad0Zia Ullah Khan1Ahsan Ali2Yasar Amin3Hannu Tenhunen4Telecommunication Engineering Department University of Engineering & Technology Taxila PakistanSchool of Electronic Engineering and Computer Science Queen Mary University of London London UKDepartment of Electrical Engineering University of Engineering & Technology Taxila PakistanTelecommunication Engineering Department University of Engineering & Technology Taxila PakistanDepartment of Electronic Systems Royal Institute of Technology (KTH) Stockholm SwedenAbstract An electronically beam‐steerable antenna (BSA) is envisioned. The presented BSA is a possible solution to overthrow the limitations inherent to phased antenna arrays. The design consists of a gap coupling inset feed rectangular patch (driven element) and 3 × 1 passive parasitic patches deployed on both sides of the driven patch. Prototype having 20  × 20 mm dimensions is printed on Rogers® RT/duroid®5870. Four switches are used to load the reactive impedance on parasitic patches, which in turn, change the phases of surface current on parasitic elements and the driven element. Based on the different ON and OFF configuration of switches in parasitic array elements, the main beam is steered along with different directions. The simulated results show that the design can operate between 26.8 and 30.3 GHz a wide impedance bandwidth |S11|< −10 dB (12.5%) with a peak gain of 8.9 dBi and wide 3‐dB scanning angle that is, −37° to 156° in the azimuth plane. The exhibited performance of BSA with favourable characteristics, such as wideband, adequate gain, wide‐angle beam switching, and low profile renders the BSA a good candidate for 5G millimetre wave handheld devices. Moreover, to corroborate the performance, the design is fabricated, and experimental measurements were performed. Congruence is observed between the experimentally measured and computationally simulated results. The simulated results of spherical coverage analysis of BSA with the integration of smartphone form factor are also presented.https://doi.org/10.1049/mia2.12084
spellingShingle Farzana Arshad
Zia Ullah Khan
Ahsan Ali
Yasar Amin
Hannu Tenhunen
Compact beam‐switchable antenna for mm‐wave 5G handheld devices
IET Microwaves, Antennas & Propagation
title Compact beam‐switchable antenna for mm‐wave 5G handheld devices
title_full Compact beam‐switchable antenna for mm‐wave 5G handheld devices
title_fullStr Compact beam‐switchable antenna for mm‐wave 5G handheld devices
title_full_unstemmed Compact beam‐switchable antenna for mm‐wave 5G handheld devices
title_short Compact beam‐switchable antenna for mm‐wave 5G handheld devices
title_sort compact beam switchable antenna for mm wave 5g handheld devices
url https://doi.org/10.1049/mia2.12084
work_keys_str_mv AT farzanaarshad compactbeamswitchableantennaformmwave5ghandhelddevices
AT ziaullahkhan compactbeamswitchableantennaformmwave5ghandhelddevices
AT ahsanali compactbeamswitchableantennaformmwave5ghandhelddevices
AT yasaramin compactbeamswitchableantennaformmwave5ghandhelddevices
AT hannutenhunen compactbeamswitchableantennaformmwave5ghandhelddevices