Innovations in Information and Communication Technology


Advances in Computing, Communication, Automation and Biomedical Technology


Miniaturized Angularly Stable Dual Band Frequency Selective Surface for K and Ka Band

Singaram M, Chandraprasad V and Finney Daniel Shadrach, Electronics and Communication Engineering, KPR Institute of Engineering and Technology, India.

Krishna Kumar E, Electronics and Communication Engineering, Hindusthan Institute of Technology, India.

Online First : 30 December 2020

Publisher Name : IJAICT India Publications, India.

Print ISBN : 978-81-950008-0-7

Online ISBN : 978-81-950008-1-4

Page :100-103

Abstract


A single layer novel compact frequency selective surface which is used in reflector antenna is designed and simulated. The proposed unit cell reflects electromagnetic waves in K and Ka band with maximum reflection occurring at 22.62 GHz and 35.44 GHz respectively. The designed FSS find its application in satellite communication. A crossed dipole structure in center and two-legged structure in corners with square loop in each quadrant makes the FSS unit cell structure. The FSS is designed with oblique incidence for transverse electric and transverse magnetic polarization with return loss 0.3 dB in 22.62 GHz and less than 0.5 dB in 35.44 GHz. The proposed work shows frequency independence against oblique angle of incidence. The simulated result from CST microwave studio is compared with other similar works.

Keywords


Crossed dipole, Reflector antenna, Square loop.

Cite this article


Singaram M, Chandraprasad V and Finney Daniel Shadrach, Krishna Kumar E, “Miniaturized Angularly Stable Dual Band Frequency Selective Surface for K and Ka Band”, Innovations in Information and Communication Technology, pp. 095-099, December 2020.

Copyright


© 2020 Singaram M, Chandraprasad V and Finney Daniel Shadrach, Krishna Kumar E. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.