Subthreshold Operation of Photodiode-Gated Transistors Enabling High-Gain Optical Sensing and Imaging Applications

In optical sensors and imagers, high gain that leads to high sensitivity and high signal to noise ratio (SNR) is often desirable. One popular approach is avalanche photomultiplication initiated by impact ionization in an avalanche photodiode or similar devices and the other approach is active pixel...

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Veröffentlicht in:IEEE journal of the Electron Devices Society 2020, Vol.8, p.1236-1241
Hauptverfasser: Wang, Kai, Qi, Yihong, Hu, Yunfeng, Xu, Yangbing, Xu, Yitong, Liu, Jinming, Zhou, Xianda
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container_title IEEE journal of the Electron Devices Society
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creator Wang, Kai
Qi, Yihong
Hu, Yunfeng
Xu, Yangbing
Xu, Yitong
Liu, Jinming
Zhou, Xianda
description In optical sensors and imagers, high gain that leads to high sensitivity and high signal to noise ratio (SNR) is often desirable. One popular approach is avalanche photomultiplication initiated by impact ionization in an avalanche photodiode or similar devices and the other approach is active pixel sensor (APS) with in-pixel amplifier. However, the former requires high electric field which induces high shot noise and the latter needs a multiple-transistor pixel circuit which compromises the fill factor and consequently, reduces the SNR. This work proposes and summarizes our recent efforts taken to achieve high gain optical sensors through subthreshold operation of photodiode-gated transistors.
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subjects active pixel sensor
Active pixel sensors
Avalanche diodes
Circuits
Electric fields
High gain
Logic gates
MOSFET
Optical measuring instruments
Optical sensors
Photoconductivity
photodiode-gated transistors
Photodiodes
Pixels
Semiconductor devices
Sensors
Shot noise
Signal to noise ratio
subthreshold operation
Thin film transistors
Threshold voltage
Transistors
title Subthreshold Operation of Photodiode-Gated Transistors Enabling High-Gain Optical Sensing and Imaging Applications
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