Preflight and in-flight calibration plan for ASTER

被引:0
|
作者
Ono, A
Sakuma, F
Arai, K
Yamaguchi, Y
Fujisada, H
Slater, PN
Thome, KJ
Palluconi, FD
Kieffer, HH
机构
[1] NATL RES LAB METROL,THERMOPHYS METROL DEPT,TSUKUBA,IBARAKI 305,JAPAN
[2] SAGA UNIV,SAGA 840,JAPAN
[3] GEOL SURVEY JAPAN,TSUKUBA,IBARAKI 305,JAPAN
[4] ELECTROTECH LAB,TSUKUBA,IBARAKI 305,JAPAN
[5] CALTECH,JET PROP LAB,PASADENA,CA
[6] US GEOL SURVEY,FLAGSTAFF,AZ 86001
关键词
D O I
10.1175/1520-0426(1996)013<0321:PAIFCP>2.0.CO;2
中图分类号
P75 [海洋工程];
学科分类号
0814 ; 081505 ; 0824 ; 082401 ;
摘要
Preflight and in-flight radiometric calibration plans are described for the Advanced Spaceborne Thermal Emission and Reflection Radiometer (ASTER) that is a multispectral optical imager of high spatial resolution. It is designed for the remote sensing from orbit of land surfaces and clouds, and is expected to be launched in 1998 on NASA's EOS AM-1 spacecraft. ASTER acquires images in three separate spectral regions, the visible and near-infrared (VNIR), the shortwave infrared (SWIR), and the thermal infrared (TIR) with three imaging radiometer subsystems. The absolute radiometric accuracy is required to be better than 4% for VNIR and SWIR radiance measurements and 1 to 3 K, depending on the temperature regions from 200 to 370 K, for TIR temperature measurements. A reference beam is introduced at the entrance pupil of each imaging radiometer to provide the in-fight calibration. Thus, the ASTER instrument includes internal onboard calibration units that comprise incandescent lamps for the VNIR and SWIR and a blackbody radiator for the TIR as reference sources. The calibration reliability of the VNIR and SWIR is enhanced by a dual system of onboard calibration units as well as by high-stability halogen lamps. A ground calibration system of spectral radiances traceable to fixed-point blackbodies is used for the preflight VNIR and SWIR calibration. Because of the possibility of nonuniform contamination effects on the partial-aperture onboard calibration, it is desirable to check their results with respect to other methods. Reflectance- and radiance-based vicarious methods have been developed for this purpose. These, and methods involving in-flight cross-calibration with other sensors are also described.
引用
收藏
页码:321 / 335
页数:15
相关论文
共 50 条
  • [1] Preflight and In-Flight Calibration of the Spectral Profiler on Board SELENE (Kaguya)
    Yamamoto, Satoru
    Matsunaga, Tsuneo
    Ogawa, Yoshiko
    Nakamura, Ryosuke
    Yokota, Yasuhiro
    Ohtake, Makiko
    Haruyama, Junichi
    Morota, Tomokatsu
    Honda, Chikatoshi
    Hiroi, Takahiro
    Kodama, Shinsuke
    [J]. IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 2011, 49 (11): : 4660 - 4676
  • [2] Preflight test results of ASTER/TIR flight model
    Ohmae, H
    Maekawa, T
    Aoki, Y
    Kitamura, S
    [J]. SENSORS, SYSTEMS, AND NEXT-GENERATION SATELLITES, 1997, 3221 : 210 - 219
  • [3] Preflight test results of ASTER/SWIR flight model
    Iwata, Y
    Otsuka, M
    Akao, H
    [J]. SENSORS, SYSTEMS, AND NEXT-GENERATION SATELLITES, 1997, 3221 : 202 - 209
  • [4] In-flight performance of ASTER cryocooler
    Kawada, M
    Akao, H
    Kobayashi, M
    Maekawa, T
    Fujisada, H
    [J]. SENSORS, SYSTEMS, AND NEXT-GENERATION SATELLITES IV, 2000, 4169 : 88 - 97
  • [5] ASTER preflight and inflight calibration and the validation of level 2 products
    Thome, K
    Arai, K
    Hook, S
    Kieffer, H
    Lang, H
    Matsunaga, T
    Ono, A
    Palluconi, F
    Sakuma, H
    Slater, P
    Takashima, T
    Tonooka, H
    Tsuchida, S
    Welch, RM
    Zalewski, E
    [J]. IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 1998, 36 (04): : 1161 - 1172
  • [6] The Mars Science Laboratory Curiosity rover Mastcam instruments: Preflight and in-flight calibration, validation, and data archiving
    Bell, J. F., III
    Godber, A.
    McNair, S.
    Caplinger, M. A.
    Maki, J. N.
    Lemmon, M. T.
    Van Beek, J.
    Malin, M. C.
    Wellington, D.
    Kinch, K. M.
    Madsen, M. B.
    Hardgrove, C.
    Ravine, M. A.
    Jensen, E.
    Harker, D.
    Anderson, R. B.
    Herkenhoff, K. E.
    Morris, R. V.
    Cisneros, E.
    Deen, R. G.
    [J]. EARTH AND SPACE SCIENCE, 2017, 4 (07): : 396 - 452
  • [7] IN-FLIGHT TEST SITE CALIBRATION OF EOS-AM1/ASTER/TIR WITH MODIS
    ARAI, K
    ONO, A
    YAMAGUCHI, Y
    [J]. REMOTE SENSING OF EARTHS SURFACE AND ATMOSPHERE, 1993, 14 (03): : 227 - 230
  • [8] ANALYTICAL IN-FLIGHT CALIBRATION
    ANDERSON, JM
    LEE, C
    [J]. PHOTOGRAMMETRIC ENGINEERING AND REMOTE SENSING, 1975, 41 (11): : 1337 - 1348
  • [9] SWS in-flight calibration
    Shipman, RF
    Morris, PW
    Beintema, DA
    Boxhoorn, DR
    Feuchtgruber, H
    Heras, AM
    Huygen, R
    Kester, DJM
    Lahuis, F
    Leech, K
    Lorente, R
    Lutz, D
    Roelfsema, PR
    Salama, A
    Schaeidt, SG
    Valentijn, EA
    Vandenbussche, B
    Wieprecht, E
    [J]. PROCEEDINGS OF THE CONFERENCE ON THE CALIBRATION LEGACY OF THE ISO MISSION, 2003, 481 : 107 - 111
  • [10] Preflight, In-Flight, and Postflight Imaging of the Cervical and Lumbar Spine in Astronauts
    Harrison, Michael F.
    Garcia, Kathleen M.
    Sargsyan, Ashot E.
    Ebert, Douglas
    Riascos-Castaneda, Roy F.
    Dulchavsky, Scott A.
    [J]. AEROSPACE MEDICINE AND HUMAN PERFORMANCE, 2018, 89 (01) : 32 - 40