IAG Opening Address | p. 1 |
An Ocean Bottom Absolute Gravity Meter | p. 7 |
Problems of Gravimeter Calibration in High Precision Gravimetry | p. 19 |
Intercomparison of IMGC Absolute and GWR Superconducting Gravimeters | p. 27 |
British Precise Gravity Network 1993 | p. 39 |
Large Scale Absolute Gravity Control in South America - JILAG-3 Campaigns 1988-1991 | p. 46 |
Gravity Variations in Microgravity Networks in Central Italy | p. 56 |
British and French Gravity Datums Connected via the Channel Tunnel | p. 64 |
Unified Gravity Network of the Czech Republic, Slovakia and Hungary | p. 72 |
The Adjustment of the Unified European Gravity Network 1994 (UEGN 94) | p. 82 |
Worldwide Synthetic Gravity Tide Parameters | p. 92 |
Gravity Anomalies for the Southern Part of Baltic Sea and their Statistics | p. 102 |
Global Gravity Field Recovery by Use of STEP Observations | p. 111 |
Solving the STEP-Observation Equation Using Banach's Fixed-Point Principle | p. 117 |
Some Unsolved Problems in Airborne Gravimetry | p. 131 |
State-of-the-Art and Future Sensor Technology for Airborne Gravimetry | p. 151 |
Fundamentals and Applications of Digital Filtering in Airborne Gravimetry | p. 161 |
GPS Software Development for Airborne Gravimetry and First Results | p. 171 |
Accelerometer/GPS Integration for Strapdown Airborne Gravimetry: First Test Results | p. 177 |
State-of-the-Art Airborne Gravimetry | p. 187 |
A Survey of Worldwide Research Activities on Airborne Gravimetry - Open and Solved Problems | p. 198 |
Two Branches of the Newton Potential and Geoid | p. 205 |
Geodetic and Geophysical Inverse Gravimetric Problem, the Most Adequate Solution and the Information Content | p. 215 |
A New Approach to Approximate the Earth's Gravity Field | p. 225 |
The Maximum Entropy Geoid - A Solution for an Internal Level Surface | p. 238 |
Upward Continuation to the Brillouin Level of the Romanian Gravity Map | p. 247 |
Geoid Undulation Caused by the Heterogeneity of the Litosphere and Mantle in Qinghai-Xizang Plateau, China | p. 252 |
Theoretical Background of the Vening Meinesz Isostatic Model | p. 268 |
Computation of the Moho Depths from Gravity Data in the Ross Sea (Antarctica) | p. 278 |
Using the Geophysical Inversion of the Gravity Data to Explain the Crustal Structure of South-East China | p. 286 |
Covariance Functions Set Derived from Radial Multipoles Potentials: Theory and Some Results for Regional Gravity Field in Central Europe | p. 296 |
A Uniform Approach to the Estimation Problems of Satellite Altimetry | p. 307 |
Gravity Disturbances from GEOSAT Data and Forward Geopotential Models in the Labrador Sea | p. 317 |
A New Approach to Sea Surface Topography Estimation | p. 329 |
D-PAF Mean Sea Surfaces and High Resolution Gravity Field Models Based on ERS-1 Altimeter Data | p. 347 |
A Datum Defect and Spectral Analysis in Regional Cross-over Adjustments of Satellite Altimeter Data | p. 357 |
Long-Term Vertical Control in Satellite Altimetry, Deficiencies and Concepts | p. 366 |
Gravity and Geoid in the Mediterranean from a Common Adjustment of ERS-1 and TOPEX Altimeter Data | p. 376 |
First Analysis of ERS-1 Altimeter Data in the Red Sea Area | p. 386 |
The Use of Transponders in Altimetry | p. 394 |
Comparison of Geopotential Recovery Capabilities of Some Future Satellite Missions | p. 403 |
A Joint GSFC/DMA Project for Improving the Model of the Earth's Gravitational Field | p. 413 |
European Gravimetric Geoid: Status Report 1994 | p. 423 |
Problems with Geoid Evaluations in South East Asia | p. 433 |
Height Comparisons on the Australian National GPS Network (ANN): First Results | p. 439 |
Geoid Computations in Taiwan | p. 446 |
The Local Geoid Determination in China - The Combination of Nationwide Network of GPS Levelling with that of Astro-Gravimetric Levelling | p. 459 |
Parallel Line Data Gridding Using Radon Domain Information | p. 461 |
A Comparison of Stokes' Numerical Integration and Collocation, and a New Combination Technique | p. 471 |
Does the Spherical Approximation Affect the Datum Transformation? | p. 472 |
Non Tidal Gravity Variations and Geodynamic Processes | p. 484 |
A Comparison of Geoid and Quasigeoid Modeling Methods in Rough Topography | p. 491 |
Dynamics of the Adriatic Microplate and the Eastern Alps | p. 502 |
Using High Precision GPS to Aid Absolute Geoid Datum Definition | p. 511 |
Geoid Determination by GPS and Levelling | p. 519 |
How Close are we to a Centimetric Geoid? | p. 529 |
Basic Relations for Evaluating the Global and Regional Quasigeoid Heights on the Base of Gravity Data and a Global Model of the Geopotential | p. 539 |
Determination of a Gravimetric Geoid Solution for South Korea | p. 550 |
Geoid Determination and Levelling by GPS: Some Experiments on a Test Network | p. 559 |
Data Preprocessing toward a South American Geoid | p. 569 |
The Hungarian Contribution to the Determination of a Precise European Reference Geoid | p. 579 |
Test of Collocation Models for the Swiss Geoid Computation | p. 588 |
Towards a High Precision Geoid for Egypt | p. 597 |
Estonian Geodetic and Gravimetric Networks and Geoid Undulation | p. 607 |
The Total Terrain Effect in the Modified Stokes' Formula | p. 616 |
Geoid in the West Ukraine Area Derived by Means of Non-Central Multipole Analysis Technique | p. 624 |
Tidal Models of the Mediterranean Sea. Main Diurnal and Semidiurnal Constituents | p. 630 |
Global Geopotential Models and Gravity Data for the Territory of Romania | p. 640 |
Gravity Field Determination in Croatia - Status Report | p. 647 |
Author Index | p. 655 |
Table of Contents provided by Blackwell. All Rights Reserved. |