Full text: Technical Commission VII (B7)

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International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences, Volume XXXIX-B7, 2012 
XXII ISPRS Congress, 25 August — 01 September 2012, Melbourne, Australia 
area. Model FLAASH reduces the effect effectively which the 
atmosphere has on the remote sensing image to enhance the 
image information with better accuracy than Model QUAC, but 
it depends on the input parameters and the calibration accuracy 
of instrument, so it applies to the cases that the calibration 
accuracy of instrument has reached the requirements and 
various atmospheric parameters have been known. Although 
the accuracy of Model QUAC is less than Model FLAASH, it 
depends less on the input parameters and the accuracy of 
instrument calibration with its specific applicability. For 
example, under the case that change detection is needed for 
multi-view images, fast atmospheric correction can be made 
first on the two images. Such simple and efficient input set can 
help finish the atmospheric correction task of "from figure to 
figure". It is certain that the two models also need further 
improvement, and enhancing the inversion accuracy in the area 
with complex terrain and under the complex atmospheric 
conditions is a valuable research direction. 
REFERENCES 
Chen Shupeng etc, Study of Information Mechanism of Remote 
Sensing . Science Press. 1998. 
Zhao Yingshi etc, Applications of Remote Sensing Principles 
and Methods. Science Press. 2000. 
Cheng Wei, Wang Liming, Tian Jiuging. A Method of 
Atmospheric Correction Based on Shadow-pixel for Optical 
Satellite Data, Journal of Surveying and Mapping, 37(4). 2008. 
M.W. Matthew, S. M. Adler-Golden, A. Berk, G. Felde, G. P. 
Anderson, D. Gorodetzky, S. Paswaters, and M. Shippert, 
“Atmospheric correction of spectral imagery: Evaluation of the 
FLAASH algorithm with AVIRIS data,” in Proc. SPIE Conf. 
Algorithms and Technologies for Multispectral, Hyperspectral, 
and Ultraspectral Imagery IX, 2003. 
Song Xiaoyu, Wang Jihua, Liu Liangyun, Huang Wenjiang, 
Zhao Chunjiang. Atmospheric Correction of Hyper-spectral 
Image: Evaluation of the FLAASH Algorithm with AVRIS 
Data. Remote Sensing Technology and Application.2005: 20 (4) 
B.-C.Gao, M. J. Montes, C. O. Davis, and FH. Goetz, 
“Atmospheric correction algorithms for hyperspectral remote 
sensing data of land and ocean”, Remote Sensing of 
Environment, 113, pp.17—24, 2009. 
Yang Jiaojun, Chen Yushi, Zhang Ye. Effect on Atmospheric 
Correction by Inputting Parameters of Model . Remote Sensing 
Application. 2008, June. 
Berk, A., GP. Anderson, P.K. Acharya, L.S. Bernstein, L. 
Muratov, J. Lee, M. Fox, S.M. Adler-Golden, J.H. Chetwynd, 
Jr, M.L. Hoke, R.B. Lockwood, J.A. Gardner, T.W. Cooley, 
C.C. Borel, PE. Lewis and E.P. Shettle. *MODTRANS:2006 
Update,” In Algorithms and Technologies for Multispectral, 
Hyperspectral, and Ultraspectral Imagery XII, Sylvia S. Chen, 
Paul E. Lewis, Editors, Proceedings of SPIE Vol. 6233, 2006. 
Yang Hang, Zhang Xia, Shuai Tong, Tong Qingxi. 2010. 
Comparison between FLAASH Method and Empirical Linear 
Method of OMIS- II Image Atmospheric Correction. Bulletin of 
Surveying and Mapping. 2010, August. 
ITT Visual Information Solutions (ITT VIS), *ENVI User's 
Guide, Version 4.8", ITT Visual Information Solutions (ITT 
VIS), Boulder (CO), USA.2010. 
Wu Bin, Miao Fang, Ye Chengming, Huang Shuhanmao, Bi 
Xiaojia.Atmospheric Correction of Hyperspectral Remote 
Sensing Image Based on FLAASH. Computing Techniques for 
Geophysical and Geochemical Exploration. 2010,July 
S.M. Adler-Golden, A. Berk, L.S. Bernstein, S. Richtsmeier, 
PK. Acharya, M.W. Matthew, GP. Anderson, C. Allred, L. 
Jeong, and J. Chetwynd, “FLAASH, A MODTRAN4 
Atmospheric Correction Package for Hyperspectral Data 
Retrievals and Simulations,” Proc. 7th Ann. JPL Airborne Earth 
Science Workshop, Pasadena, Calif., JPL Publication 97-21, pp. 
9-14, 1998. 
LIANG Shun-lin, FANG Hong-liang, CHEN Ming-zhen. 
Atmospheric Correction of Landsat ETM+ Land Surface 
Imagery-Part I: Methods. JEEE Transactions on Geo-science & 
Remote Sensing, 39(11):2490-2498, 2001. 
Perkins, T. S. Adler-Golden, M. Matthew, A. Berk, G 
Anderson, J. Gardner and G. Felde, “Retrieval of Atmospheric 
Properties from Hyper and Multispectral Imagery with the 
FLAASH Atmospheric Correction Algorithm," In Remote 
Sensing of Clouds and the Atmosphere X, Klaus Scháfer; 
Adolfo T. Comerón; James R. Slusser; Richard H. Picard; 
Michel R. Carleer; Nicolaos Sifakis, Editors, Proceedings of 
SPIE Vol. 5979, 2005. 
Hao Jianting, Yang Wunian, Li Yuxia, Hao Jianyuan. 
Atmospheric Correction of Hyperspectral Remote Sensing 
Image Based on FLAASH. Remote Sensing Application, 2008, 
January. 
Wang Jihua etc. An Algorithm Based on 6S Model Removing 
Atmospheric Effects from Satellite Imaginery Pixel pixel by 
pixel. Optical Technique. 33(1): 11-15, 2007. 
Guo Yunkai, Zhang Qisen. Research on Methods of Computer 
Classification of Generalized Angle-based Remote Sensing 
Image. China Journal of Highway and Transport. 15 (2), 2005. 
Liu Yan, Wang Hong, Zhang Pu, Li Yang. Atmospheric 
Correction of Landsat TM Imagery by Using Meteorological 
Records. Remote Sensing for Land & Resources. 3 88 (1), 2011. 
Luo Cailian, Chen Jie, Le Tongchao. Atmospheric Correction 
on Landsat ETM+ Satellite Image Based on FLAASH Model. 
Protection Forest Science and Technology. 86 (5), 2008. 
 
	        
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