Title :
Remote sensing erosion estimation
Author :
Gloaguen, R. ; Leidig, Mathias ; Andermann, C.
Author_Institution :
Remote Sensing Group, Tech. Univ. Bergakad. Freiberg, Freiberg, Germany
Abstract :
High topography and hardly accessible terrains make field studies on a large-scale cumbersome. An integrative approach, employing several remote sensing techniques combined with field studies, as well as experimental and numeric simulations, provides tools for the understanding of coupled processes. New remote sensing technologies have the capability of measuring physical parameters, such as precipitation, land use, vegetation coverage, soil moisture, and uplift with an area-wide coverage and high spatial resolution. These techniques allow us to quantify the surface deformation (intensity, timing, localization) and the influence of environmental processes such as surface and underground water flow, seismic and landslide hazard, and, to some extent, land use. The final aim consists to generate a suite of tools allowing the quantification of surface processes at the interface between tecto-, hydro- and atmosphere, mainly using remote sensing data.
Keywords :
atmospheric precipitation; erosion; geomorphology; hydrological techniques; vegetation mapping; land use; landslide hazard; numeric simulations; precipitation; remote sensing erosion estimation; seismic hazard; soil moisture; spatial resolution; surface deformation; underground water flow; vegetation coverage; Area measurement; Land surface; Large-scale systems; Moisture measurement; Numerical simulation; Remote sensing; Seismic measurements; Soil measurements; Surface topography; Vegetation mapping;
Conference_Titel :
Geoscience and Remote Sensing Symposium,2009 IEEE International,IGARSS 2009
Conference_Location :
Cape Town
Print_ISBN :
978-1-4244-3394-0
Electronic_ISBN :
978-1-4244-3395-7
DOI :
10.1109/IGARSS.2009.5418092