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Remote sensing for resources development and environmental management (Volume 2)

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CC BY: Attribution 4.0 International. You can find more information here.

Bibliographic data

fullscreen: Remote sensing for resources development and environmental management (Volume 2)

Multivolume work

Persistent identifier:
856342815
Title:
Remote sensing for resources development and environmental management
Sub title:
proceedings of the 7th international Symposium, Enschede, 25 - 29 August 1986
Year of publication:
1986
Place of publication:
Rotterdam
Boston
Publisher of the original:
A. A. Balkema
Identifier (digital):
856342815
Language:
English
Additional Notes:
Volume 1-3 erschienen von 1986-1988
Editor:
Damen, M. C. J.
Document type:
Multivolume work

Volume

Persistent identifier:
856641294
Title:
Remote sensing for resources development and environmental management
Sub title:
proceedings of the 7th international Symposium, Enschede, 25 - 29 August 1986
Scope:
IX Seiten, Seiten 551-956
Year of publication:
1986
Place of publication:
Rotterdam
Boston
Publisher of the original:
A,. A. Balkema
Identifier (digital):
856641294
Illustration:
Illustrationen, Diagramme
Signature of the source:
ZS 312(26,7,2)
Language:
English
Usage licence:
Attribution 4.0 International (CC BY 4.0)
Editor:
Damen, M. C. J.
Editor:
International Society for Photogrammetry and Remote Sensing, Commission of Photographic and Remote Sensing Data
Publisher of the digital copy:
Technische Informationsbibliothek Hannover
Place of publication of the digital copy:
Hannover
Year of publication of the original:
2016
Document type:
Volume
Collection:
Earth sciences

Chapter

Title:
6 Hydrology: Surface water, oceanography, coastal zone, ice and snow. Chairman: K. A. Ulbricht, Co-chairman: Mikio Takagi, Liaison: R. Spanhoff
Write comment:
Wegen zu enger Bindung kommt es teilweise im Original zu Textverlust.
Document type:
Multivolume work
Structure type:
Chapter

Chapter

Title:
A simple atmospheric correction algorithm for Landsat Thematic Mapper satellite images. P. I. G. M. Vanouplines
Document type:
Multivolume work
Structure type:
Chapter

Contents

Table of contents

  • Remote sensing for resources development and environmental management
  • Remote sensing for resources development and environmental management (Volume 2)
  • Cover
  • Title page
  • Title page
  • Title page
  • Table of contents
  • 5 Non-renewable resources: Geology, geomorphology and engineering projects. Chairman: J. V. Taranik, Liaison: B. N. Koopmans
  • Application of stereo-terrestrial photogrammetric technique to varied geoscientific investigations. N. K. Agarwal
  • Regional geologic mapping of digitally enhanced Landsat imagery in the southcentral Alborz mountains of northern Iran. Sima Bagheri, Ralph W. Kiefer
  • Operational satellite data assessment for drought/disaster early warning in Africa: Comments on GIS requirements. Hubertus L. Bloemer & Scott E. Needham, Louis T. Steyaert
  • Comparison between interpretations of images of different nature. G. Bollettinari, F. Montovani
  • Global distributive computer processing systems for environmental monitoring, analysis and trend modeling in early warning and natural disaster mitigation. J. O. Brumfield, H. H. L. Bloemer
  • Geological analysis of the satellite lineaments of the Vistula Delta Plain, Zulawy Wislane, Poland. Barbara Daniel Danielska & Stanislaw Kibitlewski, Andrzej Sadurski
  • Analysis of lineaments and major fractures in Xichang-Dukou area, Sichuan province as interpreted from Landsat images. Lu Defu, Zhang Wenhua & Liu Bingguang, Xu Ruisong & Jang Baolin
  • Application of remote sensing in the field of experimental tectonics. J. Dehandschutter
  • Thematic mapping from aerial photographs for Kandi Watershed and Area Development Project, Punjab (India). B. Didar Singh & Kanwarjit Singh
  • Assessment of desertification in the lower Nile Valley (Egypt) by an interpretation of Landsat MSS colour composites and aerial photographs. A. Gad & L. Daels
  • Spring mound and aioun mapping from Landsat TM imagery in south-central Tunisia. Arwyn Rhys Jones & Andrew Millington
  • Application of MEIS-II multispectral airborne data and CIR photography for the mapping of surficial geology and geomorphology in the Chatham area, Southwest Ontario, Canada. A. B. Kesik, H. George & M. M. Dusseault
  • Remote sensing methods in geological research of the Lublin coal basin, SE Poland. Stanislaw Kibitlewski & Barbara Daniel Danielska
  • Photo-interpretation of landforms and the hydrogeologic bearing in highly deformed areas, NW of the gulf of Suez, Egypt. E. A. Korany, L. L. Iskandar
  • Monitoring geomorphological processes in desert marginal environments using multitemporal satellite imagery. A. C. Millington & A. R. Jones, N. Quarmby & J. R. G. Townshend
  • Remote sensing assessment of environmental impacts caused by phosphat industry destructive influence. S. C. Mularz
  • Remote sensing for survey of material resources of highway engineering projects in developing countries. R. L. Nanda
  • Remote Sensing applications in the Eastern Bolivia Mineral Exploration Project (Proyecto Precambrico): Techniques and prospects. E. O'Connor & J. P. Berrange
  • Detecting and mapping of different volcanic stages and other geomorphic features by Landsat images in 'Katakekaumene', Western Turkey. F. Sancar Ozaner
  • A remote sensing methodological approach for applied geomorphology mapping in plain areas. Elíseo Popolizio, Carlos Canoba
  • Use of (stereo-) orthophotography prepared from aerial and terrestrial photographs for engineering geological maps and plans. Niek Rengers
  • Small scale erosion hazard mapping using landsat information in the northwest of Argentina. Jose Manuel Sayago
  • The study of mass movement from aerial photographs. Varoujan Kh. Sissakian
  • An evaluation of potential uranium deposit area by Landsat data analysis in Officer basin, South-Western part of Australia. H. Wada & K. Koide, Y. Maruyama & M. Nasu
  • Digital analysis of stereo pairs for the detection of anomalous signatures in geothermal fields. E. Zilioli, P. A. Brivio, M. A. Gomarasca & R. Tomasoni
  • 6 Hydrology: Surface water, oceanography, coastal zone, ice and snow. Chairman: K. A. Ulbricht, Co-chairman: Mikio Takagi, Liaison: R. Spanhoff
  • 7 Human settlements: Urban surveys, human settlement analysis and archaeology. Chairman: W. G. Collins, Co-chairman: B. C. Forster, Liaison: P. Hofstee
  • 8 Geo-information systems. Chairman: J. J. Nossin
  • Cover

Full text

790 
, , ozone. 
(X,y) = exp (-T ) 
„ozone,,. . , ozone, „ , 
T (A,y 0 ) = exp (-T /cos0o) 
(see equation 9). 
5 COMPUTER IMPLEMENTATION NOTE 
The values for the radiance received by TM have to be 
calculated from the digital number (DN) retrieved from 
CCT's. The absolute radiances can be calculated from 
equation (23) and tables 3 and 4. 
(RMAX -RMIN ) 
b b 
255 
= DN. + RMIN, 
b b 
(23) 
where is the radiance received by TM in band b, 
RMAXft the minimum radiance required to saturate 
detector response (i.e, for DN = 255), RMIN^ the 
spectral radiance corresponding to a DN^ = 0 and DN^ 
the digital number in TM spectral band b as obtained 
from CCT. 
Table 3. Dynamic ranges of Landsat TM data processed 
prior to August 1983 (Scrounge System) (Barker,1984). 
spectral bands 
TM1 
TM2 
TM3 
TM4 
RMIN 
(mW.cm 2 
sr 
-1 -1, 
.ym ) 
-0.15 
-0.28 
-0.12 
-0.15 
RMAX 
(mW.cm 2 
sr 
-1 -Is 
• ym ) 
15.84 
30.82 
23.46 
22.43 
Table 
after 
4. Dynamic 
January 15 
ranges of Landsat TM 
1984 (Tips) (Barker, 
data processed 
1984) 
spectral bands 
TM1 
TM2 
TM3 
TM4 
RMIN 
(mW.cm 2 
sr 
1 .ym X ) 
-0.15 
-0.28 
-0.12 
-0.15 
RMAX 
(mW.cm 2 
sr 
" 1 .ym~ 1 ) 
15.21 
29.68 
20.43 
20.62 
The computer implementation of the atmospheric cor 
rection algorithm is fast, since after calculation 
of the atmospheric variables, the correction consists 
of solving only equations (3) and (4) which have to 
be calculated pixel-per-pixel. 
The atmospheric correction algorithm was implemented 
on the IBM 3081 computer of the Ministry of National 
Education of the French Community (Brussels) at the 
cluster of the Royal Museum of Central Africa 
(Tervuren, Belgium) in Fortran IV. The operating 
system is OS/VS. On a 512*512 image, less than 25 
seconds CPU time was used. 
6 SENSITIVITY ANALYSIS 
6.1 Description of the variable ranges selected 
The influence of changes in the following variables 
was examined : 
1 visibility range; 
2 solar zenith angle; 
3 ozone optical thickness; 
4 solar extraterrestrial irradiance. 
While the influence of one variable was studied, the 
values of the other variables wad kept constant at a 
certain 'mean value'. 
6.2 Analysis of the behaviour of the algorithm in 
relation to variable changes 
Using equations (3) and (4) one obtains equation (24) 
, „2 
-Ç— (L^ + L^ - 
tot PR HG 
A 
X 
\ 0 \ 0 
a (A,A 0 ) (L - (Lp R + l^ g ))} 
(24) 
where C = n^ (1—p) = 1.7658. 
Consider now Fig. 2. Equation (25) is a linear 
function. 
y = ax + b 
(25) 
Coefficient a gives the slope of the line, b is the 
intersection with the y-axis, c is the intersection 
with the x-axis. Comparison of equation (24) with 
equation (25) gives 
y = L 
x = L 
1.7658 
tot 
tot 
(28) 
b = - 
tot 
{L 
PR 
+ L 
HG 
Cx(A,A 0 )(L - (LpJ + 
l a ))} 
HG 
(29) 
Coefficient a will only change if the total trans 
missivity T(A) changes, this means when the visibi 
lity range (V), ozone optical thickness (T oz °ne (X) 
or wavelength (A) change. In other words, if the 
total transmissivity does not change, one will obtain 
parallel lines if the results for different sets of 
input values are plotted on one graph, since the 
slope b doesn't change. 
6.3 Results of the sensitivity analysis 
The results of the sensitivity analysis are represen 
ted in table 5. Table 6 gives the digital numbers and 
their corresponding radiances for each spectral 
band, which were used to obtain table 5. 
The digital number DN=11 for band 4 corresponds to 
the 'darkest pixel' or 'clear water' reflectance on 
the Landsal 
From table 
the ozone c 
results toe 
logical vif 
solar extre 
carefully. 
easily and 
and meteorc 
Table 5. Re 
Variable 
or 
parameter 
V 
at 485 nm 
at 560 nm 
at 660 nm 
at 485 nm 
at 560 nm 
at 660 nm 
ozone 
485 
ozone 
r 560 
ozone 
r 660 
830 
at 485 nm 
at 560 nm 
at 660 nm 
E 0 (90,485) 
Eo(90,560) 
Eq(90,660) 
E 0 (90,830) 
at 485 nm 
at 560 nm 
at 660 nm 
Table 6. Di 
radiances t 
spectral 
band
	        

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