Column-Parallel Correlated Multiple Sampling Circuits for CMOS Image Sensors and Their Noise Reduction Effects

被引:54
|
作者
Suh, Sungho [1 ]
Itoh, Shinya [1 ]
Aoyama, Satoshi [2 ]
Kawahito, Shoji [1 ]
机构
[1] Shizuoka Univ, Res Inst, Shizuoka, Japan
[2] Brookman Technol Inc, Shizuoka, Japan
关键词
CMOS image sensor; low noise; wide dynamic range; column-parallel correlated multiple sampling; folding integration technique; GAIN;
D O I
10.3390/s101009139
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
For low-noise complementary metal-oxide-semiconductor (CMOS) image sensors, the reduction of pixel source follower noises is becoming very important. Column-parallel high-gain readout circuits are useful for low-noise CMOS image sensors. This paper presents column-parallel high-gain signal readout circuits, correlated multiple sampling (CMS) circuits and their noise reduction effects. In the CMS, the gain of the noise cancelling is controlled by the number of samplings. It has a similar effect to that of an amplified CDS for the thermal noise but is a little more effective for 1/f and RTS noises. Two types of the CMS with simple integration and folding integration are proposed. In the folding integration, the output signal swing is suppressed by a negative feedback using a comparator and one-bit D-to-A converter. The CMS circuit using the folding integration technique allows to realize a very low-noise level while maintaining a wide dynamic range. The noise reduction effects of their circuits have been investigated with a noise analysis and an implementation of a 1Mpixel pinned photodiode CMOS image sensor. Using 16 samplings, dynamic range of 59.4 dB and noise level of 1.9 e(-) for the simple integration CMS and 75 dB and 2.2 e(-) for the folding integration CMS, respectively, are obtained.
引用
收藏
页码:9139 / 9154
页数:16
相关论文
共 50 条
  • [31] A High-Speed Column-Parallel Time-Digital Single-Slope ADC for CMOS Image Sensors
    Lyu, Nan
    Yu, Ning Mei
    Zhang, He Jiu
    IEICE TRANSACTIONS ON FUNDAMENTALS OF ELECTRONICS COMMUNICATIONS AND COMPUTER SCIENCES, 2016, E99A (02): : 555 - 559
  • [32] A Low-Power Column-Parallel Gain-Adaptive Single-Slope ADC for CMOS Image Sensors
    Wei, Jingwei
    Li, Xuan
    Sun, Lei
    Li, Dongmei
    ELECTRONICS, 2020, 9 (05)
  • [33] Black-sun noise immune correlated double sampling scheme for CMOS image sensors
    Lee, Je-Hoon
    Kim, Hyeon-June
    IEICE ELECTRONICS EXPRESS, 2021, 18 (10):
  • [34] Noise analysis of high-gain, low-noise column readout circuits for CMOS image sensors
    Kawai, N
    Kawahito, S
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 2004, 51 (02) : 185 - 194
  • [35] Temporal Noise Analysis of Charge-Domain Sampling Readout Circuits for CMOS Image Sensors
    Ge, Xiaoliang
    Theuwissen, Albert J. P.
    SENSORS, 2018, 18 (03):
  • [36] A 10-bit high speed column-parallel ADC for CMOS image sensor
    Yao, Suying
    Xu, Wenjing
    Gao, Jing
    Nie, Kaiming
    Xu, Jiangtao
    Tianjin Daxue Xuebao (Ziran Kexue yu Gongcheng Jishu Ban)/Journal of Tianjin University Science and Technology, 2014, 47 (03): : 243 - 248
  • [37] A new two-step ΣΔ architecture column-parallel ADC for CMOS image sensor
    Bisiaux, Pierre
    Lelandais-Perrault, Caroline
    Kolar, Anthony
    Benabes, Philippe
    Dos Santos, Filipe Vinci
    2016 29TH SYMPOSIUM ON INTEGRATED CIRCUITS AND SYSTEMS DESIGN (SBCCI), 2016,
  • [38] A Low-Power Column-Parallel ADC for High-Speed CMOS Image
    Han Ye
    Li Quanliang
    Shi Cong
    Liu Liyuan
    Wu Nanjian
    INTERNATIONAL SYMPOSIUM ON PHOTOELECTRONIC DETECTION AND IMAGING 2013: IMAGING SENSORS AND APPLICATIONS, 2013, 8908
  • [39] A Low Noise Wide Dynamic Range CMOS Image Sensor with Low-Noise Transistors and 17b Column-Parallel ADC
    Seo, Min-Woong
    Takasawa, Taishi
    Kawahito, Shoji
    Sawamoto, Takehide
    Akahori, Tomoyuki
    Liu, Zheng
    2012 IEEE SENSORS PROCEEDINGS, 2012, : 2204 - 2207
  • [40] Correlated multiple sampling technique - a discrete Fourier Transform analysis aimed for CMOS image sensors
    Luis Miguel C. Freitas
    F. Morgado-Dias
    Analog Integrated Circuits and Signal Processing, 2022, 110 : 547 - 555