Review Of Quanta Image Sensors For Ultralowlight Imaging
- doi: 10.1109/TED.2022.3166716
-
title: Review of Quanta Image Sensors for
Ultralow-Light Imaging
- publisher: IEEE
- isbn:
- issn: 1557-9646
- rank: 3471
-
access_type: CCBY - IEEE is not the copyright holder of
this material. Please follow the instructions via
https://creativecommons.org/licenses/by/4.0/ to obtain full-text
articles and stipulations in the API documentation.
- content_type: Journals
-
abstract: The quanta image sensor (QIS) is a
photon-counting image sensor that has been implemented using different
electron devices, including impact ionization-gain devices, such as the
single-photon avalanche detectors (SPADs), and low-capacitance, high
conversion-gain devices, such as modified CMOS image sensors (CIS) with
deep subelectron read noise and/or low noise readout signal chains. This
article primarily focuses on CIS QIS, but recent progress of both types
is addressed. Signal processing progress, such as denoising, critical to
improving apparent signal-to-noise ratio, is also reviewed as an
enabling coinnovation.
- article_number: 9768129
-
pdf_url:
https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=9768129
-
html_url:
https://ieeexplore.ieee.org/document/9768129/
-
abstract_url:
https://ieeexplore.ieee.org/document/9768129/
-
publication_title: IEEE Transactions on Electron
Devices
- conference_location:
- conference_dates:
- publication_number: 16
- is_number: 9780469
- publication_year: 2022
- publication_date: June 2022
- start_page: 2824
- end_page: 2839
- citing_paper_count: 26
- citing_patent_count: 0
- download_count: 8274
- insert_date: 20220504
-
index_terms:
-
ieee_terms:
- Photonics
- Single-photon avalanche diodes
- Sensors
- Imaging
- Signal to noise ratio
- Detectors
- Performance evaluation
-
author_terms:
- CMOS image sensor (CIS)
- denoising
- image quality
- low-light sensor
- photon-counting image sensor
- quanta image sensor (QIS)
- subelectron read noise
-
dynamic_index_terms:
- Image Sensor
- Camera Sensor
- Quanta Image Sensor
- Signal Processing
- Denoising
- Noise Reduction
- Low Noise
- High Voltage
- Higher Tendency
- Photoelectron
- Photoelectric
- Deep Neural Network
- Image Reconstruction
- Iterative Reconstruction
- Tomographic Reconstruction
- Frame Rate
- Forward Model
- Thermal Noise
- Current Noise
- Bit Error Rate
- Bit-error-rate
- Bit Error Ratio
- Negative Voltage
- Posterior Mode
- Map Estimation
- Maximum A Posteriori Estimate
- Dark Current
- Image Reconstruction Algorithm
- Voltage Noise
- Incomplete Gamma Function
- Pixel Pitch
- Input-referred Noise
- Reconstruction Module
- Temporal Noise
- Low-light Image
- Polytechnique
- École Polytechnique
- Ecole Polytechnique
- Random Variables
- Deep Learning
- Density Data
- Storage Density
- Image Processing
- High Gain
-
authors:
-
Author Name: Jiaju Ma
Affiliation: Gigajot Technology Inc., Pasadena, CA,
USA
Author URL:
https://ieeexplore.ieee.org/author/37085509302
ID: 37085509302
Order: 1
Author Affiliations:
- Gigajot Technology Inc., Pasadena, CA, USA
-
Author Name: Stanley Chan
Affiliation: School of Electrical and Computer
Engineering, Purdue University, West Lafayette, IN, USA
Author URL:
https://ieeexplore.ieee.org/author/37600910000
ID: 37600910000
Order: 2
Author Affiliations:
-
School of Electrical and Computer Engineering, Purdue
University, West Lafayette, IN, USA
-
Author Name: Eric R. Fossum
Affiliation: Thayer School of Engineering,
Dartmouth College, Hanover, NH, USA
Author URL:
https://ieeexplore.ieee.org/author/37326789400
ID: 37326789400
Order: 3
Author Affiliations:
-
Thayer School of Engineering, Dartmouth College, Hanover, NH,
USA
Image Sensor
- sensor_type: CMOS Image Sensor
- resolution: 16.7 Mpix
- dynamic_range: 100 dB
- pixel_size: 1.1 μm
- dark_current: 0.2 e-/s
Optical Data
- focal_length: not specified
- aperture: not specified
- field_of_view: not specified
- distortion: not specified
Performance Metrics
- frame_rate: 1000 fps
- sensitivity: low-light capability
- power_consumption: 17.6 mW
- noise: 0.19 e-rms
Applications & Benefits
-
cell_imaging: enhanced sensitivity in low-light
conditions for applications such as medical imaging and security
-
benefits: ultra-low light performance, high dynamic
range, small pixel size for compact designs
Supporting Organizations
-
supported_by: National Science Foundation, Google,
Intel, Jet Propulsion Laboratory, NASA
Manuscript Details
- publication_date: June 2022
Relevancy Score
- score: 9
-
missing_fields:
- focal_length
- aperture
- field_of_view
- distortion
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