Nanosensor Based on the Circular Ring with External Rectangular Ring Structure

This paper presents a novel nanoscale refractive index sensor, which is produced by using a metal–insulator–metal (MIM) waveguide structure coupled with the circular ring with an external rectangular ring (CRERR) structure with the Fano resonance phenomenon. In this study, COMSOL software was used t...

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Published inPhotonics Vol. 11; no. 6; p. 568
Main Authors Chang, Shuwen, Yan, Shubin, Su, Yiru, Wang, Jin, Cao, Yuhao, Zhang, Yi, Wu, Taiquan, Ren, Yifeng
Format Journal Article
LanguageEnglish
Published Basel MDPI AG 01.06.2024
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ISSN2304-6732
2304-6732
DOI10.3390/photonics11060568

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Abstract This paper presents a novel nanoscale refractive index sensor, which is produced by using a metal–insulator–metal (MIM) waveguide structure coupled with the circular ring with an external rectangular ring (CRERR) structure with the Fano resonance phenomenon. In this study, COMSOL software was used to model and simulate the structure, paired with an analysis of the output spectra to detail the effect of constructional factors on the output Fano curve as measured from a finite element method. After a series of studies, it was shown that an external rectangular ring is the linchpin of the unsymmetrical Fano resonance, while the circular ring’s radius strongly influences the transducer’s capability to achieve a maximum for 3180 nm/RIU sensitivity and a FOM of 54.8. The sensor is capable of achieving sensitivities of 0.495 nm/mgdL−1 and 0.6375 nm/mgdL−1 when detecting the concentration of the electrolyte sodium and potassium ions in human blood and is expected to play an important role in human health monitoring.
AbstractList This paper presents a novel nanoscale refractive index sensor, which is produced by using a metal–insulator–metal (MIM) waveguide structure coupled with the circular ring with an external rectangular ring (CRERR) structure with the Fano resonance phenomenon. In this study, COMSOL software was used to model and simulate the structure, paired with an analysis of the output spectra to detail the effect of constructional factors on the output Fano curve as measured from a finite element method. After a series of studies, it was shown that an external rectangular ring is the linchpin of the unsymmetrical Fano resonance, while the circular ring’s radius strongly influences the transducer’s capability to achieve a maximum for 3180 nm/RIU sensitivity and a FOM of 54.8. The sensor is capable of achieving sensitivities of 0.495 nm/mgdL−1 and 0.6375 nm/mgdL−1 when detecting the concentration of the electrolyte sodium and potassium ions in human blood and is expected to play an important role in human health monitoring.
Author Ren, Yifeng
Su, Yiru
Cao, Yuhao
Wang, Jin
Yan, Shubin
Zhang, Yi
Chang, Shuwen
Wu, Taiquan
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CitedBy_id crossref_primary_10_1016_j_micrna_2024_208019
crossref_primary_10_1016_j_optcom_2025_131798
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Snippet This paper presents a novel nanoscale refractive index sensor, which is produced by using a metal–insulator–metal (MIM) waveguide structure coupled with the...
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SubjectTerms Blood levels
Design
Fano resonance
figure of merit (FOM)
Finite element method
Graphene
nanorefractive index sensor
Nanosensors
Refractivity
Resonance
Ring structures
Sensitivity
Sensors
Silver
Waveguides
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Title Nanosensor Based on the Circular Ring with External Rectangular Ring Structure
URI https://www.proquest.com/docview/3072633072
https://doaj.org/article/450d9aa5eb4a45388bfe1c825c59e4b8
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