Ultrasensitive, light-induced reversible multidimensional biosensing using THz metasurfaces hybridized with patterned graphene and perovskite

Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurf...

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Published inNanophotonics (Berlin, Germany) Vol. 11; no. 6; pp. 1219 - 1230
Main Authors Yao, Haiyun, Sun, Zhaoqing, Yan, Xin, Yang, Maosheng, Liang, Lanju, Ma, Guohong, Gao, Ju, Li, Tenten, Song, Xiaoxian, Zhang, Haiting, Yang, Qili, Hu, Xiaofei, Wang, Ziqun, Li, Zhenhua, Yao, Jianquan
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LanguageEnglish
Published Germany De Gruyter 01.02.2022
Walter de Gruyter GmbH
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Abstract Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurfaces and a metal oxide semiconductor-like structure (MOSLS), which is based on patterned graphene–polyimide–perovskite. We varied the photoconductivity of the MOSLS via the electrostatic doping effect. The biosensor could detect whey protein down to a concentration limit of 6.25 ng/mL. Significant responses in frequency, phase, and transmission amplitude were all detected for different protein concentrations. The transmission value difference, frequency shift, and phase difference increased with the concentration of whey protein, clearly demonstrating multidimensional biosensing. Moreover, by applying lasers with different wavelengths, we have realized reversible biosensing in THz region for the first time. These results are very promising for applications of THz metasurfaces in the field of biosensing.
AbstractList Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurfaces and a metal oxide semiconductor-like structure (MOSLS), which is based on patterned graphene–polyimide–perovskite. We varied the photoconductivity of the MOSLS via the electrostatic doping effect. The biosensor could detect whey protein down to a concentration limit of 6.25 ng/mL. Significant responses in frequency, phase, and transmission amplitude were all detected for different protein concentrations. The transmission value difference, frequency shift, and phase difference increased with the concentration of whey protein, clearly demonstrating multidimensional biosensing. Moreover, by applying lasers with different wavelengths, we have realized reversible biosensing in THz region for the first time. These results are very promising for applications of THz metasurfaces in the field of biosensing.
Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurfaces and a metal oxide semiconductor-like structure (MOSLS), which is based on patterned graphene-polyimide-perovskite. We varied the photoconductivity of the MOSLS via the electrostatic doping effect. The biosensor could detect whey protein down to a concentration limit of 6.25 ng/mL. Significant responses in frequency, phase, and transmission amplitude were all detected for different protein concentrations. The transmission value difference, frequency shift, and phase difference increased with the concentration of whey protein, clearly demonstrating multidimensional biosensing. Moreover, by applying lasers with different wavelengths, we have realized reversible biosensing in THz region for the first time. These results are very promising for applications of THz metasurfaces in the field of biosensing.Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurfaces and a metal oxide semiconductor-like structure (MOSLS), which is based on patterned graphene-polyimide-perovskite. We varied the photoconductivity of the MOSLS via the electrostatic doping effect. The biosensor could detect whey protein down to a concentration limit of 6.25 ng/mL. Significant responses in frequency, phase, and transmission amplitude were all detected for different protein concentrations. The transmission value difference, frequency shift, and phase difference increased with the concentration of whey protein, clearly demonstrating multidimensional biosensing. Moreover, by applying lasers with different wavelengths, we have realized reversible biosensing in THz region for the first time. These results are very promising for applications of THz metasurfaces in the field of biosensing.
Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge to achieve ultrasensitive multidimensional detection in the THz spectrum. Here, we propose a novel THz biosensor that consists of a metasurfaces and a metal oxide semiconductor-like structure (MOSLS), which is based on patterned graphene–polyimide–perovskite. We varied the photoconductivity of the MOSLS via the electrostatic doping effect. The biosensor could detect whey protein down to a concentration limit of 6.25 ng/mL. Significant responses in frequency, phase, and transmission amplitude were all detected for different protein concentrations. The transmission value difference, frequency shift, and phase difference increased with the concentration of whey protein, clearly demonstrating multidimensional biosensing. Moreover, by applying lasers with different wavelengths, we have realized reversible biosensing in THz region for the first time. These results are very promising for applications of THz metasurfaces in the field of biosensing.
Author Wang, Ziqun
Gao, Ju
Li, Tenten
Song, Xiaoxian
Sun, Zhaoqing
Ma, Guohong
Hu, Xiaofei
Yang, Maosheng
Yang, Qili
Li, Zhenhua
Yan, Xin
Liang, Lanju
Yao, Jianquan
Yao, Haiyun
Zhang, Haiting
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  organization: Faculty of Materials and Manufacturing, Beijing University of Technology, Beijing, 100124, China
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  givenname: Xin
  orcidid: 0000-0001-8985-0244
  surname: Yan
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  organization: School of Opto-electronic Engineering, Zaozhuang University, Zaozhuang, 277160, China
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  organization: College of Precision Instruments and Opto-electronics Engineering , Tianjin University , Tianjin, 300072, China
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  surname: Song
  fullname: Song, Xiaoxian
  organization: Institute of Micro-nano Optoelectronics and Terahertz Technology, Jiangsu University, Zhenjiang, 212013, China
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  fullname: Zhang, Haiting
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  surname: Yang
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  surname: Yao
  fullname: Yao, Jianquan
  organization: College of Precision Instruments and Opto-electronics Engineering , Tianjin University , Tianjin, 300072, China
BackLink https://www.ncbi.nlm.nih.gov/pubmed/39635070$$D View this record in MEDLINE/PubMed
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Keywords EIT
whey protein
THz metasurfaces
biosensor
reversible
Language English
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Snippet Biosensors based on terahertz (THz) metasurfaces have recently attracted widespread attention. However, few have been reported so far because it is a challenge...
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walterdegruyter
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StartPage 1219
SubjectTerms biosensor
Biosensors
EIT
Frequency shift
Graphene
Metal oxide semiconductors
Metasurfaces
Perovskites
Photoconductivity
Proteins
reversible
THz metasurfaces
Whey
whey protein
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Title Ultrasensitive, light-induced reversible multidimensional biosensing using THz metasurfaces hybridized with patterned graphene and perovskite
URI https://www.degruyter.com/doi/10.1515/nanoph-2021-0816
https://www.ncbi.nlm.nih.gov/pubmed/39635070
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Volume 11
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