Abstract

Recently, the best antenna structures have considered microstrip patch antenna due to their simple construction, low cost, minimum weight, and the fact that they can be effortlessly integrated with circuits. To achieve multi-band operation an antenna is designed with an etching rectangle and circle slot on the surface of the patch to achieve multi-band frequency capabilities in mid-band 5G applications. Inset-fed structure type of fed of all antenna printed and fabricated on the brow of the Rogers RT5880 substrate. Then, prototype structures of the microstrip patch antenna were acquired during the design process until achieving the desired antennas. The antenna_1 achieved tri-band characteristics covering the WiMAX band including 2.51 – 2.55 GHz, WLAN, and S-band including 3.80 – 3.87 GHz and C-and X-band including 6.19 – 6.60 GHz. The antenna_2 gives dual-band characteristics covering C-band and X-band including (6.72 – 7.92 GHz) with a peak under -45 dB suitable for mid-band 5G applications. High impedance bandwidth increases between (70 MHz-1.25 GHz) for wireless applications. The proposed microstrip patch antennas were simulated using CST MWS-2015 and were experimentally tested to verify the fundamental characteristics of the proposed design, it offers multiple-band operation with high stable gain and good directional radiation characteristics results.

Highlights

  • The microstrip patch antenna is an important component of communication systems that require characteristics such as compact size, lightweight, easy process of fabrication, and wide bandwidth

  • The procedure for microstrip patch antenna structures in the previous section is suggested for the proposed antennas for operating in the wireless communication WLAN, WiMAX, C- band, and -X band frequency ranges for midband 5G wireless applications [27]

  • Of the proposed microstrip patch antenna, the higher modes make nulls and some side effects lobes this is due to the effect of the vertical and horizontal distributions current on the surface slotted microstrip antenna, as the operating band frequency increases

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Summary

Introduction

The microstrip patch antenna is an important component of communication systems that require characteristics such as compact size, lightweight, easy process of fabrication, and wide bandwidth. Propose the patch antenna in the form of a Sierpinski fractal antenna, which can work in multi-band frequency, this design is limited in bandwidth and gain, required to strive to improve them [5]. The microstrip antenna was printed on two substrate heights (0.75- 1.57 mm) operate at 10 GHz and, (0.127 - 0.254 mm) for frequency band 60 GHz. Designing approach satisfied wideband and high gain antenna The antenna work at dual-band, but required to improve in bandwidth and achieve best reflection coefficient (S11) [19]. Design patch antenna printed on Rogers RT5870 with Ɛr = 2.2, and operate at 2.4 GHz. The thickness of 0.787 mm for applications such as IEEE 802.15.1 Bluetooth, ZigBee, WiFi, wireless USB. The design is limited in operating at single band, bandwidth, and gain, required to strive to improve them [21]

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