DocumentCode
143109
Title
Reconstruction of satellite images by multi-temporal gradient based sequential prediction
Author
Mamun, M.A. ; Jia, X. ; Hossain, M.A.
Author_Institution
Rajshahi Univ. of Eng. & Technol., Rajshahi, Bangladesh
fYear
2014
fDate
13-18 July 2014
Firstpage
1616
Lastpage
1618
Abstract
The presence of atmosphere can cause obstructions to satellite remote sensing by absorbing and scattering the electromagnetic energy. Therefore, transmittance of the atmosphere is an important factor to consider in a sensing system design1. Also the weather conditions such as the levels of the haze, dust or mist present in the environment, introduce distortion. Relative distributions of the brightness values of images can be different depending on the seasonal effect, termed radiometric inconsistency, which is solely dependent upon the solar radiation, illumination and reflectivity effects of the object and the conditions of the atmosphere during that time. Since they change frequently, multi-temporal data have low consistency over time. The inconsistency present in the remote sensed satellite images taken for sequential analysis can cause misguiding informaiton widely used in a range of oceanographic, terrestrial and atmospheric applications, such as land-cover mapping, environmental monitoring and disaster management. Degraded multi-temporal images needs to be checked and reconstructed before it can be used. In this paper a gradient adjusted temporal prediction approach has been used to predict or approximate the recent corrupted image using previous reference image.
Keywords
atmospheric electromagnetic wave propagation; atmospheric optics; geophysical image processing; image reconstruction; remote sensing; atmosphere transmittance; atmospheric applications; degraded multitemporal images; disaster management; dust; electromagnetic energy absorbing; electromagnetic energy scattering; environmental monitoring; haze; illumination effects; image brightness value; land cover mapping; mist; multitemporal gradient based sequential prediction; oceanographic applications; radiometric inconsistency; reflectivity effects; satellite image reconstruction; satellite remote sensing obstructions; sensing system design; solar radiation effects; terrestrial applications; Correlation; Hyperspectral imaging; Image coding; Image edge detection; Satellite broadcasting; Satellites; Multi-temporal; gradient; sequential prediction;
fLanguage
English
Publisher
ieee
Conference_Titel
Geoscience and Remote Sensing Symposium (IGARSS), 2014 IEEE International
Conference_Location
Quebec City, QC
Type
conf
DOI
10.1109/IGARSS.2014.6946756
Filename
6946756
Link To Document