High‐Quality‐Factor, Compact Nanoplasmonic Filter Utilizing Graphene Metasurface at Near‐Infrared Range

A plasmonic reflective filter (PRF) based on monolayer graphene and four nanoscale cylindrical silica grooves inside a silver film is suggested and theoretically analyzed. The designed filter has a dual‐band reflection and absorption spectra with a near‐unity absorption value at resonance wavelengths located in near‐infrared region. Furthermore, the two reflection dips can be tuned via harnessing graphene chemical potential. Application of subwavelength metallic structure as well as graphene layer contributes to the increased light–matter interactions and reinforces the light confinement in the nanoscale regions in the cylindrical grooves. As a result, near‐zone electric field is highly enhanced and leads to the strong optical absorption of the filter. Also, the optical response of the proposed PRF is independent from the polarization of the incident light due to the symmetrical geometry of the structure. The suggested filter can be utilized in photonic integrated circuits.

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Publication Details

Journal
Advanced Photonics Research
Published
2025-06-17
DOI
https://doi.org/10.1002/adpr.202400186
Citations
4
Primary Topic
Plasmonic and Surface Plasmon Research
Type
article
Field-Weighted Citation Impact
2.70
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article

High‐Quality‐Factor, Compact Nanoplasmonic Filter Utilizing Graphene Metasurface at Near‐Infrared Range

Asma Attariabad, Ali Farmani, Mohammad Sadegh Zare, Sevda Seyedmasoumian
4 citations
Advanced Photonics Research
Plasmonic and Surface Plasmon Research
2.70
article

High‐Quality‐Factor, Compact Nanoplasmonic Filter Utilizing Graphene Metasurface at Near‐Infrared Range

Asma Attariabad, Ali Farmani, Mohammad Sadegh Zare, Sevda Seyedmasoumian
article en
4 citations

Abstract

A plasmonic reflective filter (PRF) based on monolayer graphene and four nanoscale cylindrical silica grooves inside a silver film is suggested and theoretically analyzed. The designed filter has a dual‐band reflection and absorption spectra with a near‐unity absorption value at resonance wavelengths located in near‐infrared region. Furthermore, the two reflection dips can be tuned via harnessing graphene chemical potential. Application of subwavelength metallic structure as well as graphene layer contributes to the increased light–matter interactions and reinforces the light confinement in the nanoscale regions in the cylindrical grooves. As a result, near‐zone electric field is highly enhanced and leads to the strong optical absorption of the filter. Also, the optical response of the proposed PRF is independent from the polarization of the incident light due to the symmetrical geometry of the structure. The suggested filter can be utilized in photonic integrated circuits.

Advanced Photonics ResearchVol. 6(8)
Shiraz University of Technology (IR), Lorestan University (IR), University of Tabriz (IR)
Openalex Percentile: Top 10%
Plasmonic and Surface Plasmon Research
2.70
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