Terahertz Antenna based on Graphene for Wearable Applications

Abdoalbaset Abohmra, Fizzah Jilani, H. Abbas, M. Imran, Q. Abbasi
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引用次数: 5

Abstract

This paper presents the potential of a graphene antenna in the terahertz band for flexible and wearable telecommunication applications. Graphene with its extraordinary electronic properties can be used to fabricate low-profile antennas that provide wearability. Here we investigate the possible resonant frequencies of graphene antenna in the terahertz band by varying the graphene chemical potential from 0.1 eV to 0.4 eV and the relaxation time from 0.1 ps to 0.8 ps. We show that the antenna can resonate at three different frequencies of 4.546 THz, 4.636THz and 5.347 THz. An improved bandwidth at higher chemical potential 0.4 eV observed at 5.5 THz but it is accompanied by a lower directivity compared with the other two resonant frequencies. Moreover, we evaluated the effect of the substrate thickness on surface plasmon polarities (SPPs). Such flexible antennas with a large bandwidth and tunability point to a bright future of terahertz frequency wearable applications.
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基于石墨烯的可穿戴太赫兹天线
本文介绍了石墨烯天线在太赫兹波段用于灵活和可穿戴电信应用的潜力。石墨烯具有非凡的电子特性,可用于制造具有可穿戴性的低轮廓天线。本文通过改变石墨烯化学势从0.1 eV到0.4 eV,弛豫时间从0.1 ps到0.8 ps,研究了石墨烯天线在太赫兹波段的可能谐振频率。结果表明,该天线可以在4.546 THz、4.636THz和5.347 THz三个不同的频率下谐振。在5.5太赫兹下观察到更高化学势0.4 eV下的带宽提高,但与其他两个谐振频率相比,其指向性较低。此外,我们还评估了衬底厚度对表面等离子体极性(SPPs)的影响。这种具有大带宽和可调性的柔性天线预示着太赫兹频率可穿戴应用的光明前景。
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