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J. Arnoso, José Fernández, R. Vieira (2001)
Interpretation of tidal gravity anomalies in Lanzarote, Canary IslandsJournal of Geodynamics, 31
A. Doodson (1921)
The Harmonic Development of the Tide-Generating PotentialProceedings of The Royal Society A: Mathematical, Physical and Engineering Sciences, 100
Rongjiang Wang (1997)
Tidal response of the solid Earth, 66
T. Hartmann, H. Wenzel (1995)
The HW95 tidal potential catalogueGeophysical Research Letters, 22
A. Amoruso, L. Crescentini, G. Berrino (2008)
Simultaneous inversion of deformation and gravity changes in a horizontally layered half-space: Evidences for magma intrusion during the 1982–1984 unrest at Campi Flegrei caldera (Italy)Earth and Planetary Science Letters, 272
(2013)
Cálculo del nivel de ruido de la estación gravimétrica de Yebes a partir de los datos del Gravímetro Superconductor SG064
B. Creutzfeldt, A. Güntner, H. Thoss, B. Merz, H. Wziontek (2010)
Measuring the effect of local water storage changes on in situ gravity observations: Case study of the Geodetic Observatory Wettzell, GermanyWater Resources Research, 46
R. Ray, R. Ponte (2003)
Barometric Tides from ECMWF Operational AnalysesAnnales Geophysicae, 21
M. Longuet-Higgins (1950)
A theory of the origin of microseismsPhilosophical Transactions of the Royal Society of London. Series A, Mathematical and Physical Sciences, 243
M. Calvo, B. Córdoba, J. Serna, S. Rosat, J. López (2012)
Presentation of the new Spanish Gravimeter Station; Yebes
A. Venedikov, J. Arnoso, R. Vieira (2003)
VAV: a program for tidal data processingComputers & Geosciences, 29
H. Wenzel (1996)
The nanogal software : Earth tide data processing package ETERNA 3.30, 124
(1997)
Analysis of Earth tide observations, pp
V. Dehant, P. Defraigne, J. Wahr (1999)
Tides for a convective EarthJournal of Geophysical Research, 104
S. Rosat, M. Calvo, J. Hinderer, U. Riccardi, J. Arnoso, W. Zürn (2014)
Comparison of the performances of different spring and superconducting gravimeters and STS-2 seismometer at the Gravimetric Observatory of Strasbourg, FranceStudia Geophysica et Geodaetica, 59
J. Arnoso, M. Benavent, M. Bos, F. Montesinos, R. Vieira (2011)
Verifying the body tide at the Canary Islands using tidal gravimetry observationsJournal of Geodynamics, 51
(2009)
Tilt effects onGWR superconducting gravimeters
(2014)
A comparison of the performances of Gravimeters and Seismometer at the Gravimetric Observatory of Strasbourg. Metrologia
D. Crossley, J. Hinderer, J. Boy (2005)
Time variation of the European gravity field from superconducting gravimetersGeophysical Journal International, 161
(2008)
Caldera volcanism : analysis , modeling and response , developments in volcanology
D. Carbone, G. Budetta, F. Greco, L. Zuccarello (2007)
A data sequence acquired at Mt. Etna during the 2002–2003 eruption highlights the potential of continuous gravity observations as a tool to monitor and study active volcanoesJournal of Geodynamics, 43
S. Rosat, J. Hinderer, D. Crossley, J. Boy (2004)
Performance of superconducting gravimeters from long-period seismology to tidesJournal of Geodynamics, 38
G. Schubert (2007)
Treatise on geophysics
P. Melchior (1952)
Earth TidesNature, 169
F. Montesinos, A. Camacho, J. Nunes, C. Oliveira, R. Vieira (2003)
A 3-D gravity model for a volcanic crater in Terceira Island (Azores)Geophysical Journal International, 154
A Güntner B Creutzfeldt (2010)
Measuring the effect of local water storage changes on in situ gravity observations: case study of the Geodetic Observatory WettzellGerm Water Resour Res, 46
H. Wenzel (1997)
Analysis of earth tide observations
(2003)
Barometric tides fromECMWFoperational analyses
S. Rosat, J. Boy, G. Ferhat, J. Hinderer, M. Amalvict, P. Gegout, B. Luck (2009)
Analysis of a 10-year (1997–2007) record of time-varying gravity in Strasbourg using absolute and superconducting gravimeters: New results on the calibration and comparison with GPS height changes and hydrologyJournal of Geodynamics, 48
A. Dziewoński, D. Anderson (1981)
Preliminary reference earth modelPhysics of the Earth and Planetary Interiors, 25
Wenzel HG (1997)
Analysis of Earth tide observations, Lecture Notes in Earth Sciences, 66, Wilhelm, H
O. Dierks (2011)
Comparison of Earth Tides Analysis Programs
C. Kroner, O. Dierks, J. Neumeyer, H. Wilmes (2005)
Analysis of observations with dual sensor superconducting gravimetersPhysics of the Earth and Planetary Interiors, 153
J. Hinderer, D. Crossley, R. Warburton (2007)
Gravimetric Methods – Superconducting Gravity Meters, 3
(1992)
A calibration gravimetric line between Madrid and Valle de los Caídos stations Comp
M. El-Gelil, S. Pagiatakis, A. El-Rabbany (2008)
Frequency-dependent atmospheric pressure admittance of superconducting gravimeter records using least squares response methodPhysics of the Earth and Planetary Interiors, 170
J. Arnoso, R. Vieiral, Emilio Velezl, M. Ruymbeke, A. Venedikov (2001)
Studies of Tides and Instrumental Performance of Three Gravimeters at Cueva de los Verdes(Lanzarote, Spain).journal of the geodetic society of japan, 47
B. Meurers (2011)
Aspects of gravimeter calibration by time domain comparison of gravity records
(2006)
Estimation of the precisión by the tidal analysis programs ETERNA and VAV
M. Battaglia, D. Hill (2009)
Analytical modeling of gravity changes and crustal deformation at volcanoes: The Long Valley caldera, California, case studyTectonophysics, 471
D. Crossley, O. Jensen, J. Hinderer (1995)
Effective barometric admittance and gravity residualsPhysics of the Earth and Planetary Interiors, 90
Y Tamura (1987)
A harmonic development of the tide-generating potentialBull d’Inf Marées Terr, 99
J. Boy, P. Gegout, J. Hinderer (2002)
Reduction of surface gravity data from global atmospheric pressure loadingGeophysical Journal International, 149
D. Crossley, J. Hinderer, G. Casula, O. Frnacis, H. Hsu, Y. Imanishi, G. Jentzsch, J. Kääriänen, J. Merriam, B. Meurers, J. Neumeyer, B. Richter, K. Shibuya, T. Sato, T. Dam (1999)
Network of superconducting gravimeters benefits a number of disciplinesEos, Transactions American Geophysical Union, 80
(2001)
Studies of tides
M. Camp, P. Vauterin (2005)
Tsoft: graphical and interactive software for the analysis of time series and Earth tidesComput. Geosci., 31
W. Farrell (1972)
Deformation of the Earth by surface loadsReviews of Geophysics, 10
(2011)
Verifying the body tide
(2009)
seismology to tides
(2003)
gravity tide observed at the Sopronbanfalva Geodynamical Observatory
S. Rosat, J. Hinderer (2011)
Noise Levels of Superconducting Gravimeters: Updated Comparison and Time StabilityBulletin of the Seismological Society of America, 101
(2013)
The new Earth Tide Station in Spain; Yebes
J. Hinderer, M. Amalvict, D. Crossley, J. Lévêque, L. Rivera, B. Luck (2002)
Tides, earthquakes and ground noise as seen by the absolute gravimeter FG5 and its superspring; comparison with a superconducting gravimeter and a broadband seismometerMetrologia, 39
U. Riccardi, S. Rosat, J. Hinderer (2011)
Comparison of the Micro-g LaCoste gPhone-054 spring gravimeter and the GWR-C026 superconducting gravimeter in Strasbourg (France) using a 300-day time seriesMetrologia, 48
(2001)
Interpretation of tidal gravity anomalies
G. Berrino, G. Corrado, U. Riccardi (2006)
On the capability of recording gravity stations to detect signals coming from volcanic activity : The case of VesuviusJournal of Volcanology and Geothermal Research, 150
Y. Tamura, T. Sato, M. Ooe, M. Ishiguro (2007)
A procedure for tidal analysis with a Bayesian information criterionGeophysical Journal International, 104
(2008)
Simultaneous inversion of deformation
(2008)
Least squares response atmospheric admittance for superconducting gravimeter noise reduction
Y. Imanishi, T. Higashi, Y. Fukuda (2002)
Calibration of the superconducting gravimeter T011 by parallel observation with the absolute gravimeter FG5 #210—a Bayesian approachGeophysical Journal International, 151
V. Pálinkás̆ (2006)
Precise tidal measurements by spring gravimeters at the station PecnýJournal of Geodynamics, 41
(2002)
Graviton - EG user ’ s manual
U. Riccardi, J. Hinderer, J. Boy, Y. Rogister (2009)
Tilt Effects on GWR Superconducting GravimetersJournal of Geodynamics, 48
G. Papp, E. Szűcs, L. Battha (2012)
Preliminary analysis of the connection between ocean dynamics and the noise of gravity tide observed at the Sopronbánfalva Geodynamical Observatory, HungaryJournal of Geodynamics, 61
B. Meurers (2012)
Superconducting Gravimeter Calibration by CoLocated Gravity Observations: Results from GWR C025International Journal of Geophysics, 2012
T. Baker, M. Bos (2003)
Validating Earth and ocean tide models using tidal gravity measurementsGeophysical Journal International, 152
(2003)
A 3D gravity model for a volcanic
J. Gottsmann, M. Battaglia (2008)
Chapter 12 Deciphering Causes of Unrest at Explosive Collapse Calderas: Recent Advances and Future Challenges of Joint Time-Lapse Gravimetric and Ground Deformation StudiesDevelopments in Volcanology, 10
(2014)
A comparison of the performances of gravimeters and seismometer at the gravimetric observatory of Strasbourg
(2007)
Superconducting gravimetry
(1995)
Cahiers du Centre Europ
F. Montesinos, J. Arnoso, M. Benavent, R. Vieira (2006)
The crustal structure of El Hierro (Canary Islands) from 3-D gravity inversionJournal of Volcanology and Geothermal Research, 150
F. Flerit, R. Armijo, G. King, B. Meyer, A. Barka (2002)
Slip partitioning in the Sea of Marmara pull‐apart determined from GPS velocity vectorsGeophysical Journal International, 154
(2007)
Earth tides, pp
L Crescentini A Amoruso (2008)
Simultaneous inversion of deformation and gravity changes in a horizontally layered half space: evidences for magma intrusion during the 1982–1984 unrest at Campi Flegrei caldera (Italy), Earth PlanetSci Lett, 272
Abstract Two experiments of intercomparison between the LaCoste&Romberg Graviton-EG1194 spring gravimeter and the superconducting gravimeters SG-026 and OSG-064, operating respectively at J9-Strasbourg (France) and CDT-Yebes (Spain), were analyzed. The main objective was to check the instrumental response of the spring meter, both in amplitude and phase as well as its time stability. A general conclusion is that normalization factors have been obtained with a similar ratio for main diurnal constituent O1 at both observing sites. The accuracy of scale factors was determined at the level of 0.03 % (at J9-Strasbourg) and 0.1 % (at CDT-Yebes). For the semidiurnal constituent M2, slight differences were found at J9-Strasbourg, which would require further investigations. Site effects were also demonstrated by considering the different response of the spring gravimeter to tilts and atmospheric pressure variations at both sites.
"Acta Geodaetica et Geophysica" – Springer Journals
Published: Jun 1, 2014
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