Bandwidth tunability of graphene absorption enhancement by hybridization of delocalized surface plasmon polaritons and localized magnetic plasmons.

0 MATERIALS SCIENCE, MULTIDISCIPLINARY Discover nano Pub Date : 2024-01-25 DOI:10.1186/s11671-024-03961-6
Yifan Wu, Qingmiao Nie, Chaojun Tang, Bo Yan, Fanxin Liu, Mingwei Zhu
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Abstract

The bandwidth-tunable absorption enhancement of monolayer graphene is theoretically studied in the near-infrared wavelengths. The monolayer graphene is placed on the silver substrate surface with a periodic array of one-dimensional slits. Two absorption peaks are found to result from the hybridization of delocalized surface plasmon polaritons and localized magnetic plasmons. The positions of absorption peaks are accurately predicted by a coupling model of double oscillators. The full width at half maximum of absorption peaks is largely tuned from about 1-200 nm by changing the array period of slits. The effect of the slit size on absorption peaks is also investigated in detail. Our work is promising in applications for photoelectric devices.

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通过非局部表面等离子体极化子和局部磁性等离子体的杂化实现石墨烯吸收增强的带宽可调性。
本文从理论上研究了单层石墨烯在近红外波段的带宽可调吸收增强。单层石墨烯被放置在银基底表面,基底上有周期性的一维狭缝阵列。研究发现,两个吸收峰是由非局域化表面等离子体极化子和局域化磁等离子体杂化产生的。双振子耦合模型准确地预测了吸收峰的位置。通过改变狭缝的阵列周期,吸收峰的半最大全宽可在大约 1-200 nm 的范围内进行调整。我们还详细研究了狭缝尺寸对吸收峰的影响。我们的研究成果有望应用于光电设备。
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