Applications of Electromagnetic Bandgap Structure in Microwave Photonics

A. Deyasi, P. Debnath, S. Bhattacharyya
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引用次数: 2

Abstract

Microwave photonics is the arena of research in the 21st century due to ever-increasing ultra-large bandwidth and the meticulous availability of data with very low cost. In this context, conventional optoelectronic devices are replaced by novel photonic counterparts, both in transreceiver design as well as devices and systems. The major objective of this replacement is to reduce noise by means of lower scattering, where photons are only responsible for propagation of electromagnetic wave. With introduction of novel materials, low-loss communication system can now be designed at beyond THz range, mainly due to the physical realization of electromagnetic bandgap structure. This chapter is extended towards plasmonics with the intension of making sensors for beyond THz applications.
电磁带隙结构在微波光子学中的应用
微波光子学是21世纪的研究领域,因为它具有不断增加的超大带宽和极低成本的数据可用性。在这种情况下,传统的光电器件被新型光子器件所取代,无论是在收发器设计还是设备和系统中。这种替代的主要目的是通过降低散射来减少噪声,因为光子只负责电磁波的传播。随着新材料的引入,低损耗通信系统现在可以设计在太赫兹范围以外,主要是由于电磁带隙结构的物理实现。本章扩展到等离子体,并着重于制造超太赫兹应用的传感器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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