Volume resulting from an ISSI Workshop, 11-15 March 2002, Bern, Switzerland

Klappentext

Volume resulting from an ISSI Workshop, 11-15 March 2002, Bern, Switzerland

Inhalt

Foreword. How to Climb the Gravity Wall; R. Rummel. I: Precise Orbit Determination and Gravity Field Modelling. Strategies for Precise Orbit Determination of Low Earth Orbiters Using the GPS; U. Hugentobler, G. Beutler. Aiming at a 1 cm Orbit for Low Earth Orbiters: Reduced-Dynamic and Kinematic Precise Orbit Determination; P.N.A.M. Visser, J.van den IJssel. Space-Wise, Time-Wise, Torus and Rosborough Representations in Gravity Field Modelling; N. Sneeuw. Gravity Field Recovery from GRACE: Unique Aspects of the High Precision Inter-Satellite Data and Analysis Methods; G. Balmino. Global Gravity Field Recovery Using Solely GPS Tracking and Accelerometer Data from CHAMP; C. Reigber, et al. The Processing of Band-Limited Measurements: Filtering Techniques in the Least Squares Context and in the Presence of Data Gaps; W.-D. Schuh. II: Solid Earth Physics. Long Wavelength Sea Level and Solis Surface Perturbations Driven by Polar Ice Mass Variations: Fingerprinting Greenland and Antarctic Ice Sheet Flux; M.E. Tamisiea, et al. Benefits from GOCE within Solid Earth Geophysics; A.M. Marotta. The Potential of GOCE in Constraining the Structure of the Crust and Lithosphere from Post-Glacial Rebound; L.L.A. Vermeersen. Deep and Shallow Solid-Earth Structures Reconstructed with Sequential Integrated Inversion (SII) of Seismic and Gravity Data; R. Tondi, et al. Present-Day Sea Level Change: Observations and Causes; A. Cazenave, et al. III: Ocean Circulation. Global Ocean Data Assimilation and Geoid Measurements; C. Wunsch, D. Stammer. Resolution Needed for an Adequate Determination of the Mean Ocean Circulation from Altimetry and an Improved Geoid; C. Le Provost, M. Bremond. Error Characteristics Esimated from CHAMP, GRACE and GOCE Derived Geoids and from Satellite Altimetry Derived Mean Dynamic Topography; E.J.O. Schrama. Estimating the High-Resolution Mean Sea-Surface Velocity Field by Combined Use of Altimeter and Drifter Data for Geoid Model Improvement; S. Imawaki, et al. Combined Use of Altimetry and In Situ Gravity Data for Coastal Dynamics Studies; K. Haines, et al. Feasibility and Contribution to Ocean Circulation Studies of Ocean Bottom Pressure Determination; C.W. Hughes, V. Stepanov. Impact of Geoid Improvement on Ocean Mass and Heat Transport Estimates; P. Le Grand. How Operational Oceanography can Benefit from Dynamic Topography Esimates as Derived from Altimetry and Improved Geoid; P.Y. Le Traon, et al. IV: Geodesy. Remarks on the Role of Height Datum in Altimetry-Gravity Boundary-Value Problems; F. Sacerdote, F. Sanso. Ocean Tides in GRACE Monthly Averaged Gravity Fields; P. Knudsen. Tidal Models in a New Era of Satellite Gravimetry; R.D. Ray, et al. The Elusive Stationary Geoid; M. Vermeer. Geodetic Methods for Calibration of GRACE and GOCE; J. Bouman, R. Koop. V: Sea Level. Benefits of GRACE and GOCE to Sea Level Studies; P. Woodworth, J.M. Gregory. What Might GRACE Contribute to Studies of Post Glacial Rebound? J. Wahr, I. Velicogna. Measuring the Distribution of Ocean Mass Using GRACE; R.S. Nerem, et al. Monitoring Changes in Continental Water Storage with GRACE; S. Swenson, J. Wahr. VI: Future Concepts. Attitude and Drag Control: An Application to the GOCE Satellite; E. Canuto, et al. On Superconductive Gravity Gradiometry in Space; S. Zarembinski. Satellite-Satellite Laser Links for Future Gravity Missions; P.L. Bender, et al. Possible Future Use of Laser Gravity Gradiometers; P.L. Bender, et al. MI