Study on the effect of the substrate material type and thickness on the performance of the filtering antenna design

Abstract

This article presents a new design of a four-pole microstrip filtering antenna. The filtering antenna consists of a bandpass filter, which has four resonators integrated to a monopole patch antenna. The filtering antenna is designed with a relatively high bandwidth of about 1.22 GHz to satisfy a high-speed data transmission. Three types of dielectric substrate materials were used for the design of the filtering antenna, which is RT/Duroid 5880, RO3003, and FR-4. The simulation results of the filtering antenna design, which are established on the three different dielectric substrate materials, are done by using Computer Simulation Technology (CST) software. Comparison results of the filtering antenna that is established on the three different dielectric substrate materials are done at a fixed substrate height and different substrate heights. The filtering antenna is designed at a center frequency f0 = 2.412 GHz, which is suitable for WLAN applications.

Design of circular-shaped microstrip patch antenna for 5G applications

“…This chapter presents the characteristics of proposed microstrip antenna, which includes reflection coefficient S11, VSWR, 2D 3D polar plot gain, 3D polar plot directivity, bandwidth and radiation efficiency [28]. The parameters are clarified in accordance to the results obtained.…”

An Ultralow-Loss and Lightweight Cellulose-Coated Silica Foam for Planar Fresnel Zone Plate Lens Applications in Future 6G Devices

“…2(d)]. The increased signal intensity can be partly ensured by applying dielectric substrates having low ε r since these materials allows the EM waves to propagate through with less attenuation and back reflection compared to dielectrics with higher ε r [10]. In the second measurement setup [Fig.…”

“…Dielectric materials having low relative permittivity (ε r ) and loss factor (tan δ) are particularly important constituents of structural parts of radio frequency devices including antennas, resonators and filters to avoid signal attenuation, unnecessary device heating and propagation delay [4], [5], [6], [7], [8], [9], [10]. Among these components, antennas operating at THz frequencies need to have very high gain due to the increased propagation loss in this range.…”

Porous Low‐Loss Silica–PMMA Dielectric Nanocomposite for High‐Frequency Bullet Lens Applications

“…The production of such gradient structures is not trivial, thus making heterogeneous lenses less attractive than their homogeneous counterparts based on low-permittivity materials. [11] Among dielectrics, silica has good electromagnetic properties (ε r = 3.8 and tan δ = 0.005 at 300 GHz) and thus it is a popular choice of structural materials in high-frequency applications. Lowering ε r and tan δ of SiO 2 can be achieved by 1) partially replacing easy-to-polarize Si─O bonds with Si─F bonds (e.g., by F doping); [12,13] 2) introducing voids (e.g., pores filled DOI: 10.1002/adpr.202200208 Several devices of the future generation wireless telecommunication technologies that use bands in THz frequencies for data transmission need low-loss and lowpermittivity materials to enable ideal conditions for the propagation of electromagnetic waves.…”