Reference : Seasonal effect on vertical positioning by Satellite Laser Ranging and GPS on Absolut...
Scientific journals : Article
Physical, chemical, mathematical & earth Sciences : Earth sciences & physical geography
Physical, chemical, mathematical & earth Sciences : Physics
http://hdl.handle.net/10993/836
Seasonal effect on vertical positioning by Satellite Laser Ranging and GPS on Absolute Gravity at the OCA geodetic station, Grasse, France
English
Nicolas, Joëlle [Laboratoire de Géodésie et Géomatique, Le Mans, France]
Nocquet, J.-M. [CNRS – Géosciences Azur, Sophia Antipolis, Valbonne, France]
Van Camp, M. [Royal Observatory of Belgium, Brussels, Belgium]
van Dam, Tonie mailto [University of Luxembourg > Faculty of Science, Technology and Communication (FSTC) > Engineering Research Unit >]
Boy, J.-P. [EOST/IPGS (UMR 7516 CNRS/ULP), Strasbourg , France]
Hinderer, J. [EOST/IPGS (UMR 7516 CNRS/ULP)]
Gegout, P. [EOST/IPGS (UMR 7516 CNRS/ULP)]
Calais, E. [Department of Earth & Atmospheric Sciences, Purdue University]
Amalvict, Martine [OST/IPGS (UMR 7516 CNRS/ULP)]
2006
Geophysical Journal International
Journal compilation
167
3
1127-1137
Yes (verified by ORBilu)
International
0956-540X
[en] crustal deformation ; geodyanmics ; GPS ; gravity ; satellite geodesy ; SLR
[en] We present a comparison of the vertical displacement monitored by independent techniques at the geodetic observatory of Grasse (France). Both Satellite Laser Ranging and Global Positioning System (GPS) vertical position time-series over the period 1998–2003 show a prominent annual signal with a magnitude of 5–6 mm and reaching a maximum every year in July. Results from 14 absolute gravity measurements are also discussed. We investigate the possible origin of the observed signal by comparing it with predictions from various local and regional contributions. GPS results from a local network indicate that the periodic annual elastic deformation of the ∼1270 m high karstic plateau due to local water storage loading does not exceed 1–2 mm. In contrast, a combination of global model prediction for atmospheric and hydrological loading explains more than 70 per cent of the annual and semi-annual observed signals.
http://hdl.handle.net/10993/836
10.1111/j.1365-246X.2006.03205.x
2.112 (2007)

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