Microdisk array based Weyl semimetal nanofilm terahertz detector

High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demo...

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Published inNanophotonics (Berlin, Germany) Vol. 11; no. 16; pp. 3595 - 3602
Main Authors Song, Qi, Zhou, Zhiwen, Zhu, Gangyi, Liang, Huawei, Zhang, Min, Zhang, Bingyuan, Liu, Fang, Yan, Peiguang
Format Journal Article
LanguageEnglish
Published Germany De Gruyter 01.09.2022
Walter de Gruyter GmbH
Subjects
Arrays
Communication
Design
Electrodes
Engineering
Epitaxial growth
Etching
Graphene
Information technology
Laboratories
microdisk array
Physics
Polaritons
Power supply
Remote sensing
Room temperature
Science
Sensors
Silicon wafers
Spectral sensitivity
Spectrum analysis
Substrates
terahertz detector
Terahertz frequencies
Weyl semimetal
Weyl semimetal
microdisk array
terahertz detector
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Abstract High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe –air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity ( ) of 5.52 × 10  cm Hz pW at 0.1 THz is achieved at room temperature. In addition, the responsivity ( ) of 8.78 A W is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
AbstractList High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe2 nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe2 layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe2–air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity (D *) of 5.52 × 1012 cm Hz1/2 pW−1 at 0.1 THz is achieved at room temperature. In addition, the responsivity (R A) of 8.78 A W−1 is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe 2 nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe 2 layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe 2 –air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity ( D * ) of 5.52 × 10 12  cm Hz 1/2 pW −1 at 0.1 THz is achieved at room temperature. In addition, the responsivity ( R A ) of 8.78 A W −1 is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe –air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity ( ) of 5.52 × 10  cm Hz pW at 0.1 THz is achieved at room temperature. In addition, the responsivity ( ) of 8.78 A W is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe2 nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe2 layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe2-air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity (D *) of 5.52 × 1012 cm Hz1/2 pW-1 at 0.1 THz is achieved at room temperature. In addition, the responsivity (R A) of 8.78 A W-1 is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe2 nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe2 layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe2-air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity (D *) of 5.52 × 1012 cm Hz1/2 pW-1 at 0.1 THz is achieved at room temperature. In addition, the responsivity (R A) of 8.78 A W-1 is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies, however, are plagued by low sensitivity, narrow spectral bandwidth, complicated structure, and high noise equivalent power (NEP). Here, we have demonstrated a Weyl semimetal surface plasmon-enhanced high-performance terahertz wave detectors which are based on microdisk array deposited WTe2 nanofilm epitaxially grown on GaN substrate for room temperature operation. With the microdisk array combined the WTe2 layer, strong terahertz wave surface plasmon polaritons can be generated at the WTe2–air interfaces, which results in significant improvement in detecting performance. For the 40 μm diameter microdisk array, a detectivity (D*) of 5.52 × 1012 cm Hz1/2 pW−1 at 0.1 THz is achieved at room temperature. In addition, the responsivity (RA) of 8.78 A W−1 is also obtained. Such high-performance millimeter and terahertz wave photodetectors are useful for wide applications such as high capacity communications, walk-through security, biological diagnosis, spectroscopy, and remote sensing.
Author Liang, Huawei
Yan, Peiguang
Zhang, Bingyuan
Zhou, Zhiwen
Song, Qi
Liu, Fang
Zhu, Gangyi
Zhang, Min
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/39634441$$D View this record in MEDLINE/PubMed
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Issue 16
Keywords Weyl semimetal
microdisk array
terahertz detector
Language English
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Snippet High-performance terahertz wave detectors at room temperature are still urgently required for a wide range of applications. The available technologies,...
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StartPage 3595
SubjectTerms Arrays
Communication
Design
Electrodes
Engineering
Epitaxial growth
Etching
Graphene
Information technology
Laboratories
microdisk array
Physics
Polaritons
Power supply
Remote sensing
Room temperature
Science
Sensors
Silicon wafers
Spectral sensitivity
Spectrum analysis
Substrates
terahertz detector
Terahertz frequencies
Weyl semimetal
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Title Microdisk array based Weyl semimetal nanofilm terahertz detector
URI https://www.degruyter.com/doi/10.1515/nanoph-2022-0227
https://www.ncbi.nlm.nih.gov/pubmed/39634441
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Volume 11
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