MoS 2 /HfO 2 /Silicon‐On‐Insulator Dual‐Photogating Transistor with Ambipolar Photoresponsivity for High‐Resolution Light Wavelength Detection

Photogating detectors based on 2D materials attract significant research interests. However, most of these photodetectors are only sensitive to the incident intensities and lack the ability to distinguish different wavelengths. Color imaging based on these detectors usually requires additional optic...

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Veröffentlicht in:Advanced functional materials 2019-11, Vol.29 (46)
Hauptverfasser: Deng, Jianan, Zong, Lingyi, Zhu, Mingsai, Liao, Fuyou, Xie, Yuying, Guo, Zhongxun, Liu, Jian, Lu, Bingrui, Wang, Jianlu, Hu, Weida, Zhou, Peng, Bao, Wenzhong, Wan, Jing
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container_issue 46
container_start_page
container_title Advanced functional materials
container_volume 29
creator Deng, Jianan
Zong, Lingyi
Zhu, Mingsai
Liao, Fuyou
Xie, Yuying
Guo, Zhongxun
Liu, Jian
Lu, Bingrui
Wang, Jianlu
Hu, Weida
Zhou, Peng
Bao, Wenzhong
Wan, Jing
description Photogating detectors based on 2D materials attract significant research interests. However, most of these photodetectors are only sensitive to the incident intensities and lack the ability to distinguish different wavelengths. Color imaging based on these detectors usually requires additional optical filter arrays to collect red, green, and blue (RGB) colors in different photodetectors to restore the true color of one pixel. In this study, an MoS 2 /HfO 2 /silicon‐on‐insulator field effect phototransistor with wavelength distinguishing ability is presented, where the photogating effect can be simultaneously formed in the top MoS 2 gate and bottom Si substrate gate. These two individual photogating effects can reduce and increase the read current in the middle 12 nm Si channel, respectively. Thus, by tuning the applied voltages on these two gates, the device can be used to obtain tunable ambipolar photoresponsivity from +7000 A W −1 (Si bottom gate dominated) to 0 A W −1 (balanced), and finally to −8000 A W −1 (MoS 2 gate dominated). In addition, the experimental results show that the corresponding top gate voltage to the zero responsivity (0 A W −1 ) point can be positively shifted by the increasing of incident wavelength with high resolution up to 2 nm and is insensitive to the incident intensity.
doi_str_mv 10.1002/adfm.201906242
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title MoS 2 /HfO 2 /Silicon‐On‐Insulator Dual‐Photogating Transistor with Ambipolar Photoresponsivity for High‐Resolution Light Wavelength Detection
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