Time integrated phosphor behavior in gated image intensifier tubes

被引:0
|
作者
Höss, P [1 ]
Fleder, K [1 ]
机构
[1] Stanford Comp Opt Inc, Berkeley, CA 94708 USA
来源
关键词
image intensifier; phosphor decay; flow analysis; P20; phosphor; P43;
D O I
暂无
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
New flow analysis applications of MCP image intensifier tubes require faster image repetition rates. When coupled to CCD readout chips their time-integrated behavior determines the overall system's response concerning the intensity of unwanted "ghost" images. Previously published experimental data as well as manufacturer's literature provide only time resolved response information. New data for the widely used high-efficiency, slow-decay P20 and P43 phosphors are determined as functions of both exposure (excitation) time and interframe time. Previously reported dependency of decay time being determined solely by the preceding exposure time is not supported by new data. Data herein show an increase of decay time by more than a factor of 100, especially for short excitation times. This is caused by intensity integration on the CCD chip. The P20 shows a very long non-exponential decay. Though being faster during the initial 200 to 500 mus, the P20's decay extends over a substantially longer time as compared to the P43 phosphor. This is in clear contradiction to earlier results, which could lead to the expectation of the P20 being more than an order of magnitude faster than P43 for very short exposure times.
引用
收藏
页码:23 / 28
页数:6
相关论文
共 50 条
  • [31] ION SIGNAL CALIBRATION IN THE IMAGING ATOM-PROBE WITH AN EXTERNAL, TIME-GATED IMAGE INTENSIFIER
    KELLOGG, GL
    REVIEW OF SCIENTIFIC INSTRUMENTS, 1987, 58 (01): : 38 - 42
  • [32] Digital Range-Gated Surveillance Device without an Image Intensifier
    Golitsyn, Alexandr A.
    Seyfi, Natalia A.
    2020 21ST INTERNATIONAL CONFERENCE ON YOUNG SPECIALISTS ON MICRO/NANOTECHNOLOGIES AND ELECTRON DEVICES (EDM), 2020, : 285 - 288
  • [33] RESOLUTION OF FIBEROPTIC FACEPLATE IMAGE-INTENSIFIER TUBES AS A FUNCTION OF MAGNIFICATION
    DOLON, PJ
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 1974, ED21 (06) : 376 - 377
  • [34] LOW-LIGHT-LEVEL TV WITH IMAGE INTENSIFIER TUBES AND CCDS
    RICHARD, JC
    RIOU, D
    VITTOT, M
    ADVANCES IN ELECTRONICS AND ELECTRON PHYSICS, 1988, 74 : 9 - 15
  • [35] Measurement of the effective size of the input phosphor of an x-ray image intensifier
    Feldman, A
    Cox, R
    Rosser, J
    MEDICAL PHYSICS, 1997, 24 (10) : 1641 - 1642
  • [36] ADVANCES IN PROXIMITY TYPE X-RAY IMAGE INTENSIFIER TUBES
    WANG, SP
    ENCK, RS
    BARDAS, D
    HUNT, RP
    PROCEEDINGS OF THE SOCIETY OF PHOTO-OPTICAL INSTRUMENTATION ENGINEERS, 1984, 454 : 397 - 402
  • [37] RESISTANCE TO GLARE OF DOUBLE PROXIMITY FOCUSING MICROCHANNEL IMAGE INTENSIFIER TUBES
    FOUASSIER, M
    ROSIER, JC
    DIETZ, J
    ACTA ELECTRONICA, 1977, 20 (04): : 369 - 378
  • [38] COMPUTERIZED STATION FOR SEMI-AUTOMATED TESTING IMAGE INTENSIFIER TUBES
    Chrzanowski, Krzysztof
    METROLOGY AND MEASUREMENT SYSTEMS, 2015, 22 (03) : 371 - 382
  • [39] DETERMINATION OF SHUTTERING EFFICIENCY OF GATED IMAGE TUBES
    HUSTON, AE
    BOWLEY, DJ
    SMPTE JOURNAL, 1976, 85 (01): : 17 - 17
  • [40] Quantitative small animal fluorescence tomography using an uftrafast gated image intensifier
    Patwardhan, Sachin V.
    Bloch, Sharon
    Achilefu, Samuel
    Culver, Joseph P.
    2006 28TH ANNUAL INTERNATIONAL CONFERENCE OF THE IEEE ENGINEERING IN MEDICINE AND BIOLOGY SOCIETY, VOLS 1-15, 2006, : 3214 - +