Title of article
Optimal Design of a Lightweight and Thin Radar Absorbing Nanocomposite
Author/Authors
Heidari, Behrouz Department of Electrical Engineering - College of Technical and Engineering - Saveh Branch - Islamic Azad University, Saveh, Iran , Fouladian, Majid Department of Electrical Engineering - College of Technical and Engineering - Saveh Branch - Islamic Azad University, Saveh, Iran , Rastegar Fatemi, Mohammad Jalal Department of Electrical Engineering - College of Technical and Engineering - Saveh Branch - Islamic Azad University, Saveh, Iran
Pages
8
From page
652
To page
659
Abstract
Recently, attention to polymeric nanocomposites has gained a great
extent as they present new opportunities to provide superior properties
in microwave absorbing materials. In this study polystyrene (PS)
nanocomposites containing various nano-fillers were successfully
synthesized and employed as microwave absorbing materials. The
mentioned materials are usually designed to solve protection against
electromagnetic interference in wireless communication systems and
high frequency circuit mechanisms. In this study the performance of three
various polystyrene (PS) nanocomposites containing: semi-conductor
zinc oxide, non-metallic conductive graphene oxide and magnetic Fe3O4
were compared. The fillers type was selected as variable parameter and
its influence on the electromagnetic wave absorption and reflection loss
(RL) amount was investigated. The scanning electron microscopy (SEM)
was used in morphological and particle size study of the nanocomposites.
The electromagnetic wave absorption properties of nanocomposites were
studied and compared using a vector network analyzer (frequency range
of 5-8 GHz). The results indicate that at the same preparation conditions
the polystyrene/graphene oxide nanocomposites have higher absorption
compared with others.
Farsi abstract
فاقد چكيده فارسي
Keywords
Electromagnetic interference , Nanocomposites , Reflection loss , Wireless communication
Journal title
Journal of NanoStructures
Serial Year
2020
Record number
2560054
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