Refereed journal article or data article (A1)
A Compact Quad-band CPW-fed Planar Resonator for Multiple Wireless Communication Applications
List of Authors: Khan A, Naqvi SI, Arshad F, Amin Y, Tenhunen H
Publisher: APPLIED COMPUTATIONAL ELECTROMAGNETICS SOC
Publication year: 2017
Journal: Applied Computational Electromagnetics Society Journal
Journal name in source: APPLIED COMPUTATIONAL ELECTROMAGNETICS SOCIETY JOURNAL
Journal acronym: APPL COMPUT ELECTROM
Volume number: 32
Issue number: 11
Start page: 1001
End page: 1007
Number of pages: 7
ISSN: 1054-4887
eISSN: 1943-5711
Abstract
This article presents a low-cost, compact antenna with coplanar waveguide (CPW) feed line for multiband wireless applications. The presented multiband radiator is envisioned for integration into microwave circuits and portable RF devices. The prototype is realized on 1.6 mm thick readily available FR4 substrate with a compact geometrical size of 24x32 mm(2). The acquired quad-bands are centered at: 2.45, 3.5, 5.2 and 5.8 GHz justifying the appropriateness of the proposed radiator for the WLAN and WiMAX applications, as well as Bluetooth and ISM wireless standards. From the aspect of integration into transportable handheld devices and system designing, the presented compact antenna illustrates more expandability and flexibility. The radiation characteristics measured in the E and H-planes for desired operating frequencies are monopole-like and omni-directional, respectively. A sufficient gain is also achieved. Simulated as well as experimental results exhibit agreeable behavior.
This article presents a low-cost, compact antenna with coplanar waveguide (CPW) feed line for multiband wireless applications. The presented multiband radiator is envisioned for integration into microwave circuits and portable RF devices. The prototype is realized on 1.6 mm thick readily available FR4 substrate with a compact geometrical size of 24x32 mm(2). The acquired quad-bands are centered at: 2.45, 3.5, 5.2 and 5.8 GHz justifying the appropriateness of the proposed radiator for the WLAN and WiMAX applications, as well as Bluetooth and ISM wireless standards. From the aspect of integration into transportable handheld devices and system designing, the presented compact antenna illustrates more expandability and flexibility. The radiation characteristics measured in the E and H-planes for desired operating frequencies are monopole-like and omni-directional, respectively. A sufficient gain is also achieved. Simulated as well as experimental results exhibit agreeable behavior.
UTU Research Portal