Quantified Temperature Effect In A Cmos Image Sensor
- doi: 10.1109/TED.2009.2037389
-
title: Quantified Temperature Effect in a CMOS Image
Sensor
- publisher: IEEE
- isbn:
- issn: 1557-9646
- rank: 3343
- access_type: LOCKED
- content_type: Journals
-
abstract: In recent years, CMOS image sensors (CISs)
have increasingly become major players in the solid-state imaging
market, a market in which charge-coupled device image sensors were once
the dominant product. Exceptional circuit integration capability makes
CMOS imagers suitable for implementation in a single-chip imaging system
while inducing the temperature variation of an image sensor. In this
paper, global and local high-leakage nonuniformities induced by on-chip
temperature variations were controlled by both a Peltier junction device
and on-chip resistors. Two test chips were fabricated using TSMC 0.13-¿m
CIS processes and TSMC 1-poly 6-metal 0.18-¿m process technology,
respectively. As expected, fixed-pattern noise increased with
temperature. To quantify the influence of temperature, the maximum depth
of an affected region was defined as DAR. The experimental results
revealed that the DAR index increased with either an increase in power
consumption or a space reduction between the resistor and the pixel
array. The DAR index not only characterized affected regions in the
experiment but also provided a valuable reference regarding temperature
protection for future imager designs.
- article_number: 5373944
-
pdf_url:
https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=5373944
-
html_url:
https://ieeexplore.ieee.org/document/5373944/
-
abstract_url:
https://ieeexplore.ieee.org/document/5373944/
-
publication_title: IEEE Transactions on Electron
Devices
- conference_location:
- conference_dates:
- publication_number: 16
- is_number: 5393266
- publication_year: 2010
- publication_date: Feb. 2010
- start_page: 422
- end_page: 428
- citing_paper_count: 16
- citing_patent_count: 1
- download_count: 1088
- insert_date: 20100108
-
index_terms:
-
ieee_terms:
- Noise
- Pixel
- Temperature sensors
- Heating
- Arrays
- System-on-a-chip
- Resistors
-
author_terms:
- CMOS image sensor (CIS)
- depth of the affected region (DAR)
- resistive heater
- temperature variation
-
dynamic_index_terms:
- Image Sensor
- Camera Sensor
- Imaging System
- Temporal Variation
- Power Consumption
- Pixel Array
- Increased Power Consumption
- Peltier Effect
- Peltier Plate
- Peltier Coefficient
- Test Chip
- High Temperature
- Local Variations
- Random Noise
- Channel Noise
- Heat Source
- Heat Resistance
- Joule Heating
- Ohmic Heating
- Noise Sources
- Global Temperature
- Local Temperature
- Binary Image
- Thermal Noise
- Current Noise
- Circuit Design
- Influence Of Sources
- Dark Current
- Sensor Array
- Shot Noise
- Poisson Noise
- Security Cameras
- High Power Consumption
- Reset Voltage
- Entire Chip
- Peripheral Circuits
- Image Quality
- Temperature Distribution
-
authors:
-
Author Name: Dong-Long Lin
Affiliation: Department of Electrical Engineering,
National Cheng Kung University, Tainan, Taiwan
Author URL:
https://ieeexplore.ieee.org/author/37531499400
ID: 37531499400
Order: 1
Author Affiliations:
-
Department of Electrical Engineering, National Cheng Kung
University, Tainan, Taiwan
-
Author Name: Ching-Chun Wang
Affiliation: R&D Department, Taiwan Semiconductor
Manufacturing Company Limited, Hsinchu, Taiwan
Author URL:
https://ieeexplore.ieee.org/author/37440784200
ID: 37440784200
Order: 2
Author Affiliations:
-
R&D Department, Taiwan Semiconductor Manufacturing Company
Limited, Hsinchu, Taiwan
-
Author Name: Chia-Ling Wei
Affiliation: Department of Electrical Engineering,
National Cheng Kung University, Tainan, Taiwan
Author URL:
https://ieeexplore.ieee.org/author/37419349600
ID: 37419349600
Order: 3
Author Affiliations:
-
Department of Electrical Engineering, National Cheng Kung
University, Tainan, Taiwan
Image Sensor
- sensor_type: CMOS
- resolution: 640x480, 100x50
- dynamic_range: Not specified
- pixel_size: 3.3x3.3 μm, 3.8x3.9 μm
-
dark_current: Varies with temperature, specifically
quantified as q/kBT, doubling every 10°C increase in temperature.
Optical Data
- focal_length: Not specified
- aperture: Not specified
- field_of_view: Not specified
- distortion: Not specified
Performance Metrics
-
power_consumption: Varies (up to 180 mW for local
variation experiments)
-
noise: Includes shot noise and reset noise, but
specific values not extracted.
Applications & Benefits
-
cell_imaging: The study involved evaluating temperature
effects on CMOS image sensor performance and noise.
-
benefits: Lower power consumption and smaller
dimensions compared to CCD image sensors.
Supporting Organizations
-
supported_by: National Science Council, Taiwan, TSMC.
Manuscript Details
- publication_date: Feb. 2010
Relevancy Score
- score: 10
-
missing_fields:
- focal_length
- aperture
- field_of_view
- distortion
- frame_rate
- signal_to_noise_ratio
- sensitivity
- shutter_speed
Processed JSON Filename
request_7857b131-de26-47da-bedf-0a54c714d3a6-quantified_temperature_effect_in_a_cmos_image_sensor.json