Spectral responsivity determination of a transfer-standard pyroelectric radiometer

被引:5
|
作者
Eppeldauer, G [1 ]
Racz, M [1 ]
Hanssen, L [1 ]
机构
[1] NIST, Opt Technol Div, Gaithersburg, MD 20899 USA
来源
INFRARED SPACEBORNE REMOTE SENSING X | 2002年 / 4818卷
关键词
absolute responsivity; gold-black coating; infrared; irradiance; pyroelectric detector; radiant power; radiometer; reflectance; relative response; transfer standard; ultraviolet;
D O I
10.1117/12.450561
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
A NIST-developed pyroelectric radiometer was characterized and calibrated to extend the NIST high accuracy spectral responsivity scale from the visible range to the ultraviolet (UV) and infrared (IR). The transmission of the gold-black coated ENW3 pyroelectric material is negligibly small, therefore the absorptance, equal to 1-reflectance, is proportional to the responsivity of the detector. The spectral total reflectance of the coating was measured with integrating spheres and spectrophotometers to determine the relative spectral responsivity from the UV to the JR. The relative spectral responsivity was converted into absolute spectral power and irradiance responsivities by measuring the total power in a 442 nm stabilized laser beam. The reference device for absolute calibration was a Si trap-detector calibrated against the primary standard cryogenic radiometer. The calibrations were repeated with 31 months separation. A 0.3 % long-term shift in the reflectance was measured between 800 run and 19 mum. The 28 % reflectance at 10.6 mum scaled up the 0.1% spatial responsivity non-uniformity in the visible (where the reflectance was 0.4 %) to 8 %. The spectral power and irradiance responsivity scales of the pyroelectric radiometer have been realized between 250 nm and 2.5 mum with a relative standard uncertainty of less than 0.34 % (coverage factor k=1).
引用
收藏
页码:118 / 126
页数:9
相关论文
共 50 条
  • [1] A stabilized transfer-standard system for spectral irradiance
    Sperling, A
    Bentlage, V
    METROLOGIA, 1998, 35 (04) : 437 - 440
  • [2] Increased responsivity pyroelectric radiometer with dome input and temperature control
    Eppeldauer, George P.
    Zeng, Jinan
    Hanssen, Leonard M.
    INFRARED IMAGING SYSTEMS: DESIGN, ANALYSIS, MODELING, AND TESTING XXII, 2011, 8014
  • [3] Realization of relative responsivity scale with the electrically calibrated pyroelectric radiometer
    Bazkir, Ozcan
    Celikel, Oguz
    Samedov, Farhad
    OPTICS AND LASER TECHNOLOGY, 2007, 39 (01): : 189 - 195
  • [4] An electrically substituted bolometer as a transfer-standard detector
    Rice, JP
    METROLOGIA, 2000, 37 (05) : 433 - 436
  • [5] Pyroelectric trap detector for spectral responsivity measurements
    Lehman, JH
    APPLIED OPTICS, 1997, 36 (34): : 9117 - 9118
  • [6] PROCEDURES FOR DETERMINING SPECTRAL RESPONSIVITY OF AN INFRARED RADIOMETER
    SCHNEIDE.WE
    GARVEY, JA
    APPLIED OPTICS, 1968, 7 (06): : 1141 - &
  • [7] SPECTRAL RESPONSIVITY CALIBRATION OF GE PHOTODIODES WITH RESPECT TO AN ELECTRICALLY-CALIBRATED PYROELECTRIC RADIOMETER AND TO A BLACK-BODY SOURCE
    CAMPOS, J
    CORREDERA, P
    PONS, A
    CORRONS, A
    METROLOGIA, 1991, 28 (03) : 141 - 144
  • [8] Overview of the Study for Transfer Radiometer with Spectral Standard Calibration and Transferring Technology
    Zhao Wei-ning
    Fang Wei
    Jiang Ming
    Luo Yang
    Wang Yu-peng
    SPECTROSCOPY AND SPECTRAL ANALYSIS, 2016, 36 (09) : 2984 - 2990
  • [9] Metrological characterisation of a new transfer-standard radiation thermometer
    Fischer, J
    Neuer, G
    Schreiber, E
    Thomas, R
    TEMPMEKO 2001: 8TH INTERNATIONAL SYMPOSIUM ON TEMPERATURE AND THERMAL MEASUREMENT IN INDUSTRY AND SCIENCE, VOL 1 & 2, PROCEEDINGS, 2002, : 801 - 806
  • [10] Calibration of absolute spectral responsivity at 1 064 nm of transfer detector against cryogenic radiometer
    Pang, Weiwei
    Zheng, Xiaobing
    Li, Jianjun
    Shi, Xueshun
    Wu, Haoyu
    Xia, Maopeng
    Gao, Dongyang
    Shi, Jianmin
    Qi, Tao
    Kang, Qing
    Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering, 2015, 44 (12): : 3812 - 3818