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Session 1: Gravity field modeling from satellite missions |
Oral Part 1 - Chair: P. Visser |
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Speaker |
Title |
8:30-9:00 |
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B. Tapley, J. Ries, S. Bettadpur, F. Condi, R. Eanes, B. Gunter, Z. Kang, P. Nagel and S. Poole
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The GGM 02 Earth Gravity Model |
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9:00-9:30 |
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Ch. Reigber |
A Great Step Forward in Modeling the Earth's Global Gravity Field |
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9:30-10:00 |
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C.M. Cox and B.F. Chao |
Time-Variable Gravity from Satellite Laser-Ranging: The Low-Degree Components and Their Connections with Geophysical/Climatic Changes |
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10:00-10:15 |
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O.B. Andersen, P. Berry, S. Dreyer, P. Knudsen and R. Trimmer |
Global gravity from retracked and reprocessed 2Hz ERS-1 Geodetic Mission altimetry |
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10:15-10:30 |
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S. Kenyon and N.K. Pavlis |
Status and plans for geopotential model EGM05 |
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Break |
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Oral Part 2 - Chair: R. Haagmans |
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Speaker |
Title |
11:00-11:15 |
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P.N.A.M. Visser and E.J.O. Schrama |
Space-borne gravimetry: how to decouple the different gravity field constituents? |
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11:15-11:45 |
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N. Sneeuw and H. Schaub |
Satellite clusters for next generation gravity field missions |
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11:45-12:00 |
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T. Mayer-Guerr, K.H. Ilk and A. Eicker |
A Global Gravity Field Model from Short Arcs of CHAMP with Regionally Adapted Refinements |
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12:00-12:15 |
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H. Denker |
Improved European Geoid Models Based on CHAMP and GRACE Results |
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12:15-12:30 |
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N.K. Pavlis, S.A. Holmes, S. Kenyon, D. Schmidt and R. Trimmer |
Gravitational Potential Expansion to Degree 2160 |
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12:30-12:45 |
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J.P. Van Loon and J. Kusche |
Stochastic model validation of satellite gravity data: a test with 1 year of CHAMP data |
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12:45-13:00 |
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C. Xu, R. Tsoi and N. Sneeuw |
Analysis of J2 Perturbed Relative Orbits for Satellite Formation Flying |
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Lunch |
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Oral Part 3 - Chair: P. Visser |
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Speaker |
Title |
14:30-15:00 |
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Th. Gruber, R. Rummel and R. Koop |
The GOCE High Level Processing Facility |
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15:00-15:15 |
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J. Bouman |
Quick-look outlier detection for GOCE gravity gradients |
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15:15-15:30 |
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R. Pail, W.-D. Shuh and M. Wermuth |
GOCE gravity field processing |
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15:30-15:45 |
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F. Migliaccio, M. Reguzzoni, F. Sansň and C.C. Tscherning |
The performance of the space-wise approach to GOCE data analysis, when statistical homogenization is applied |
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15:45-16:00 |
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M.A. Sharifi and W. Keller |
GRACE Gradiometer |
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16:00-16:15 |
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Y.Yang and T. Xu |
An Adaptively Regularization Method with Application in Gravity Field Recovery by Using Satellite Orbit and Accelerometry Data |
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16:15-16:30 |
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I. Panet, O. Jamet, M. Diament and A. Chambodut |
Modelling the Earth's gravity field using wavelets frames |
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Break |
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Authors in attendance of posters for sessions 1 and 3 |
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17:00 - 18:30 |
Posters for session 1 |
17:00 - 18:30 |
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Label |
Authors |
Title |
P1_1 |
M. Weigelt and N. Sneeuw |
Comparison of Energy Balance Approach and in-situ Acceleration Determination for CHAMP Gravity Recovery |
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P1_2 |
R. Pail |
GOCE Quick-Look Gravity Field Analysis |
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P1_3 |
G. Plank and T. Badura |
Combined SST and SGG GOCE Gravity Field Processing |
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P1_4 |
T. Badura, R. Klostius, Ch. Gruber and Ch. Sakulin |
CHAMP gravity field processing applying the energy integral approach |
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P1_5 |
D. Tsoulis, C. Gruber and N. Sneeuw |
An independent method for the estimation of bias and scale parameters for the CHAMP accelerometer |
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P1_6 |
K.I. Wolf and H. Denker |
Upward Continuation of Ground Data for GOCE Calibration/Validation Purposes |
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P1_7 |
A. Eicker, T. Mayer-Guerr and K.H. Ilk |
Global Gravity Field Solutions from GRACE SST Data and Regional Refinements by GOCE SGG Observations |
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P1_8 |
T. Mayer-Guerr, K.H. Ilk, M. Feuchtinger and A. Eicker |
A Global Gravity Field Model with Regional Zoom-in from GRACE Low-Low SST |
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P1_9 |
P. Nóvak and E.W. Grafarend |
Global gravity field modelling using GRACE observations |
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P1_10 |
Gy. Tóth and L. Földváry |
Effect of geopotential model errors on the projection of GOCE gradiometer observables |
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P1_11 |
H. Alkhatib and W.-D. Schuh |
A Monte Carlo method for the computing of large.scaled covariance matrices of iteratively and directly estimated gravity field parameters |
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P1_12 |
B. Kargoll and W.-D. Schuh |
Robust trend elimination for outlier analysis of GOCE mission data |
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P1_13 |
S.A. Holmes and N.K. Pavlis |
Efficient High-Degree Spherical Harmonic Analysis/Synthesis Without Underflows |
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P1_14 |
B. Metzler and R. Pail |
Spherical Cap Regularization Approach |
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P1_15 |
T. Preimesberger and R. Pail |
Detectability of systematic effects in GOCE-gradiometer measurements |
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P1_16 |
C. Siemens and W.-D. Schuh |
Joint Estimation of Gross Errors and Stochastic Signals of GOCE Mission Data |
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P1_17 |
B. Lackner |
Power Spectral Density estimation of GOCE satellite gravity gradiometry data |
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P1_18 |
J. Bouman, M. Kern, R. Koop, R. Pail and R. Haagmans |
Comparison of outlier detection algorithms for GOCE gravity gradients |
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P1_19 |
C. Gruber, R. Pail and L. Földváry |
The Impact of velocity derivation strategies on global geoid solutions based on the energy conservation principle |
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P1_20 |
W. Bosch |
Using GRACE Gravity Field Models to investigate Defectiveness of Altimetric Gravity Data |
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P1_21 |
J. Klokocnik, J. Kostelecky and P. Novak |
On Future of Gravity Field Models Accuracy Assessments |
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P1_22 |
Th. Gruber and J. Radanovic |
Gravity Field Model Validation with GPS-Levelling Geoid Heights |
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P1_23 |
M. Kern and R. Haagmans |
Determination of gravity gradients from terrestrial gravity data for calibration and validation of gradiometric GOCE data |
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P1_24 |
E. Howe and C.C. Tscherning |
Gravity field model UCPH2004 from one year of CHAMP data using energy conservation |
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P1_25 |
G. S. Vergos, I.N. Tziavos and M.G. Sideris |
A first validation of the new EGMs from CHAMP and GRACE and some notes on the combined adjustment of altimetric, gravimetric, QSST, TG and orthometric heights |
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P1_26 |
Gy. Tóth and Sz. Rózsa |
Comparison of CHAMP and GRACE geopotential models with terrestrail gravity field data in Hungary |
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P1_27 |
R. Kiamehr |
The Relative Accuracies of Recent Satellite Gravimetric Models in Iran |
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P1_28 |
P. Ditmar, R. Klees, V. Kuznetsov, A. A. van Eck van der Sluijs, E. Schrama, and X. Liu. |
Gravity Field Analysis with the Acceleration Approach on the Basis of Data from the CHAMP Satellite |
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P1_29 |
R. Biancale, G. Balmino, S. Bruinsma, J.-M. Lemoine, F. Perosanz, N. Vales, S. Loyer, P. Exertier, P. Berio and O. Laurain |
On the interest of combining SLR, CHAMP and GRACE data for gravity field modeling |
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17:00 - 18:30 |
Posters for session 3 |
17:00 - 18:30 |
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P3_1 |
H. Denker, J.-P. Barriot, R. Barzaghi, R. Forsberg, J. Ihde, A. Kenyeres, U. Marti and I.N. Tziavos |
Status of the European Gravity and Geoid Project EGGP |
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P3_2 |
M.C.B. Lobianco, C.A.C Castro Jr. And D. Blitzkow |
The last ten years of progress on the geoid in South America |
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P3_3 |
G. Fotopoulos, I.N. Tziavos and M.G. Sideris |
On the incorporation of sea surface topography in establishing vertical control |
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P3_4 |
R. Forsberg, G. Strykowski and D. Solheim |
NKG-2004 Geoid of the Nordic and Baltic Area |
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P3_5 |
G. Finn and E.W. Grafarend |
FINN2004: A New Model for the Finnisch Geoid |
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P3_6 |
M.J.E. Crombaghs |
NLGEO2004: a new geoid model for The Netherlands |
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P3_7 |
J. Krynski and A. Lyszkowicz |
New Results in Precise Geoid Modelling in Poland |
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P3_8 |
M. Mojzes, J. Janak and J. Papco |
New Gravimetric Model of Quasigeoid in Slovakia |
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P3_9 |
H. Jürgenson |
Estonian High Precision Geoid Model Est-Geoid2003 |
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P3_10 |
C. Hirt and B. Reese |
High-Precision Astrogeodetic Determination of a Local Geoid Profile Using the Digital Zenith Camera System TZK2-D |
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P3_11 |
M. Vasconcelos and H. Ribeiro |
Astrogeodetic Geoid Model of Portugal Mainland - Integration of New Observations |
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P3_12 |
U. Marti |
High Precision combined geoid determination in Switzerland |
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P3_13 |
O.C.D. Omang, D. Solheim and R. Forsberg |
New geoid models based on new airbonre gravity data and adjusted marine gravity data |
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P3_14 |
C.S. Chen and H.C. Liu |
A Study on the Determination of the Best Taiwan Geoid Model using Gravity Method |
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P3_15 |
R.V. Komarov, R.A. Kascheev and R.V. Zagretdinov |
Geoid determination by GPS/Levelling method in the Republic of Tatarstan |
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P3_16 |
F. Coren, P. Sterzai, A. Capra and G. Bitelli |
Local gravimetric geoid determination in Northern Victoria Land (Antarctica) |
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P3_17 |
M. Berrocoso, J.M. Enríquez-Salamanca, Y. Jiménez, A. Fernández-Ros, C. Torrecillas, M.E. Ramírez, M.J. González-Fuentes, A. Pérez-Pena, R. Páez, M. Tárraga, A. García-García, F. García-García, R. Soto |
Determination of an experimental geoid for Deception Island |
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P3_18 |
J. Mueller, R. Dietrich, M. Scheinert and M. Wiehl |
About the role of subglacial topography on geoid determination from Airborne Gravimetry in Antarctica |
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P3_20 |
G. Rodríguez-Caderot, C. Lacy, M.J. Borque and A.J. Gil |
Gravimetric Geoid in the Bajo Segura Basin (Eastern Betic Cordillera, Spain) and its Geophysical Interpretations) |
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P3_21 |
S.F. De Souza and N.C. De Sá |
A Gravimetric Geoid in Săo Paulo State (Brazil): Compuation and Evaluation Using GPS and Levelling Data |
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P3_22 |
D. Goldani, F.H.S. Magro, R.S. Genro and R. Salomoni |
Determination of a Local Geoid Model for the City of Porto Alegre, RS, Brazil |
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P3_23 |
M. C. L. Quintas, D. Goldani, R. S. Genro |
A High Precision Geoidal Model for Paraná State, South of Brazil |
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P3_24 |
J. Faure, F.D. Barbato, R.P. Rodino |
GPS levelling in Montevideo, Uruguay |
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P3_25 |
O. Al-Bayari |
Preliminary Study of the Local Geoid in Jordan |
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P3_26 |
B. Erol and R.N. Çelik |
Precise Geoid Modeling in Local Areas Using GPS/Levelling Data and Software Development for Practical Geodetic Applications |
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P3_27 |
S. Kahlouche, M. Haddad, A. Rami, S.A. Benahmed Daho |
Altimetric geoid determination from Topex data (cycles 365 and 366) on the Mediterranean basin |
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P3_28 |
H. Nahavandchi and A. Soltanpour |
Impact of the New GRACE Global Geopotential Model to the Geoidal Height Modeling over Norway |
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P3_29 |
H. Nahavandchi and A. Soltanpour |
A New Gravimetric Geoidal Height Model over Norway Computed by the Least-Squares Modification Parameters |
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P3_30 |
H. Nahavandchi and A. Soltanpour |
Adjustment of the Surface of the Gravimetric Geoidal Height Model betweeen Constrained GPS-Levelling Stations |
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P3_31 |
D.I. Lysaker, O. Omang and D. Solheim |
The influence of postglacial rebound on the geoid derived from GPS/levelling |
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P3_32 |
C. Hirt, B. Reese and H. Enslin |
On the Accuracy of Vertical Deflection Measurments Using the High-Precision Digital Zenith Camera System TZK2-D |
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P3_33 |
B. Bürki, A. Müller and H.-G. Kahle |
DIADEM: The New Digital Astronomical Deflection Measuering System for High-precision Measurements of Deflections of the Vertical at ETH Zürich |
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P3_34 |
L. Völgyesi, Gy. Popper and B. Paláncz |
Application of adjustment via Mathematica for deflection of the vertical determination |
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P3_35 |
M. Véronneau and J.L. Huang |
Modernization of the Height System in Canada: Progress and Challenges |
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P3_36 |
C. Tocho, G.S. Vergos and M.G. Sideris |
A new marine geoid model for Argentina combining altimetry, shipborne gravity data and CHAMP/GRACE-type EGM's |
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P3_38 |
M. Giménez, I. Colomina, J.J. Rosales, M. Wis and C.C. Tscherning |
TERRA: A feasibility study on local geoid determination in Bolivia through strapdown ineratial airborne gravimetry |
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P3_39 |
A.R. Tierra, S.R.C. De Freitas |
Artificial Neural Network: A Powerful Tool for Predicting Gravity Anomaly from Sparse Data |
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P3_40 |
T.K. Yeh, C.S. Chen, F.L. Tsai and C.W. Lee |
Study on the Relation between the Quality of GPS Data and the Precision of Positioning |
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P3_41 |
W.-C. Hung, C.-H. Liu and S. Ouyang |
GPS Monitoring for Ground Subsidence in Middle West Taiwan |
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