Lux transfer: Complementary metal oxide semiconductors versus charge-coupled devices

被引:26
|
作者
Janesick, J [1 ]
机构
[1] Conexant Syst Inc, Newport Beach, CA 92660 USA
关键词
charge-coupled device imagers; complementary metal oxide semiconductor advanced photosystem imagers; pinned photodiode; photon transfer; lux transfer; signal-to-noise ratio; correlated double sampling; International Organization for Standards; modulation transfer function;
D O I
10.1117/1.1476692
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
We compare the performance of competing CCD and CMOS imaging sensors including backside-illuminated devices. Comparisons are made through a new performance transfer curve that shows at a glance performance deficiencies for any given pixel architecture analyzed or characterized. Called lux transfer, the curve plots SNR as a function of absolute light intensity for a family of exposure times over the sensor's dynamic range (i.e., read noise to full well). Critical performance parameters on which the curve is based are reviewed and analytically described [e.g., quantum efficiency (QE), pixel nonuniformity, full well, dark current, read noise, modulation transfer function (MTF), etc.]. Besides SNR, many by-products come from lux transfer including dynamic range, responsivity (e(-)/lux-s), charge capacity, linearity, and International Organization for Standards (ISO) rating. Experimental data generated by 4 mum, three transistor (3T) pixel digital video graphics array (DVGA) and a 5.6-mum, 3T pixel digital extended graphics array (DXGA) CMOS sensors are presented that demonstrate lux transfer use. (C) 2002 Society of Photo-Optical Instrumentation Engineers.
引用
收藏
页码:1203 / 1215
页数:13
相关论文
共 50 条
  • [21] Proton effects in charge-coupled devices
    Hopkinson, GR
    Dale, CJ
    Marshall, PW
    IEEE TRANSACTIONS ON NUCLEAR SCIENCE, 1996, 43 (02) : 614 - 627
  • [22] Radiation damage in charge-coupled devices
    Niels Bassler
    Radiation and Environmental Biophysics, 2010, 49 : 373 - 378
  • [23] SIMPLE MODEL FOR CHARGE-COUPLED DEVICES
    JAYADEVAIAH, TS
    LAUR, J
    ELECTRONICS LETTERS, 1971, 7 (25) : 751 - +
  • [24] Event pileup in charge-coupled devices
    Davis, JE
    ASTROPHYSICAL JOURNAL, 2001, 562 (01): : 575 - 582
  • [25] A Summary of Charge-Coupled Devices for Astronomy
    Lesser, Michael
    PUBLICATIONS OF THE ASTRONOMICAL SOCIETY OF THE PACIFIC, 2015, 127 (957) : 1097 - 1104
  • [26] NOISE SOURCES IN CHARGE-COUPLED DEVICES
    CARNES, JE
    KOSONOCKY, WF
    RCA REVIEW, 1972, 33 (02): : 327 - +
  • [27] Infrared response of charge-coupled devices
    Loch, M
    Widenhorn, R
    Bodegom, E
    Sensors and Camera Systems for Scientific and Industrial Applications VI, 2005, 5677 : 201 - 208
  • [28] Development of Germanium Charge-Coupled Devices
    Leitz, C. W.
    Zhu, M.
    Rabe, S.
    Burke, B.
    Prigozhin, I.
    O'Mara, D.
    Ryu, K.
    Cooper, M.
    Reich, R.
    Johnson, K.
    Hu, W.
    Felton, B.
    Cook, M.
    Stull, C.
    Suntharalingam, V.
    HIGH ENERGY, OPTICAL, AND INFRARED DETECTORS FOR ASTRONOMY VIII, 2018, 10709
  • [29] CHARGE PARTITION NOISE IN CHARGE-COUPLED DEVICES.
    Colquitt Jr., Leroy
    Bluzer, Nathan
    McKee, Richard
    1600, (26):
  • [30] TRANSFER INEFFICIENCY EFFECTS IN PARALLEL-TRANSFER CHARGE-COUPLED LINEAR IMAGING DEVICES
    HOSACK, HH
    DYCK, RH
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 1975, ED22 (03) : 152 - 154