Laser geodetic satellites: a high-accuracy scientific tool

@article{Pearlman2019LaserGS,
  title={Laser geodetic satellites: a high-accuracy scientific tool},
  author={M. Pearlman and David A. Arnold and M. E. Davis and François Barlier and Richard Biancale and Vladimir P. Vasiliev and Ignazio Ciufolini and Antonio Paolozzi and Erricos C. Pavlis and Krzysztof Sośnica and Mathis Blo{\ss}feld},
  journal={Journal of Geodesy},
  year={2019},
  pages={1-14}
}
Satellite Laser Ranging (SLR) began in the mid-1960s on satellites of opportunity with retro-reflectors intended as a part of intercomparison tests of satellite tracking techniques. Shortly thereafter, data from these satellites began to work their way into geodetic solutions and dedicated geodesy experiments. By early 1970s when future requirements for centimeter accuracy were envisioned, planning began for dedicated, spherical retro-reflector geodetic satellites. Built with high mass-to-area… 

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References

SHOWING 1-10 OF 108 REFERENCES
Assessment of the accuracy of global geodetic satellite laser ranging observations and estimated impact on ITRF scale: estimation of systematic errors in LAGEOS observations 1993–2014
Satellite laser ranging (SLR) to the geodetic satellites LAGEOS and LAGEOS-2 uniquely determines the origin of the terrestrial reference frame and, jointly with very long baseline interferometry, its
The Role of Laser Ranging for Calibrating Jason-1: The Corsica Tracking Campaign
The French Transportable Laser Ranging System (FTLRS), a highly transportable Satellite Laser Ranging (SLR) instrument, was set up in Corsica (from January to September 2002) for participating to the
Consistent estimation of geodetic parameters from SLR satellite constellation measurements
In this paper, we consistently estimate geodetic parameters such as weekly 3-D station coordinates, Earth orientation parameters (EOP) including daily x/y-pole coordinates and the excess length of
Dynamical Determination of Origin and Scale in the Earth System from Satellite Laser Ranging
Satellite laser ranging (SLR) has monitored for a long time the continuous redistribution of mass within the Earth system through concomitant changes in the Stokes’ coefficients of the terrestrial
Spin parameters of Low Earth Orbiting satellites Larets and Stella determined from Satellite Laser Ranging data
Abstract Satellite Laser Ranging (SLR) measurements contain information about the spin parameters of the fully passive, geodetic satellites. In this paper we spectrally analyze the SLR data of 5
Station coordinates, baselines, and Earth rotation from LAGEOS laser ranging: 1976–1984
Satellite laser range (SLR) measurements to LAGEOS from May 1976 to January 1984 have been used to compute earth rotation parameters and the geocentric positions of 57 laser tracking station sites
Time variable Earth’s gravity field from SLR satellites
The time variable Earth’s gravity field contains information about the mass transport within the system Earth, i.e., the relationship between mass variations in the atmosphere, oceans, land
A new global Earth's gravity field model from satellite orbit perturbations: GRIM5-S1
A new model of the Earth's gravity field, called GRIM5-S1, was prepared in a joint German-French effort. The solution is based on satellite orbit perturbation analysis and exploits tracking data from
GRIM gravity model improvement using LAGEOS (GRIM3‐L1)
Improved modeling of the earth's geopotential is one of the major tasks of satellite geodesy. The availability of a new set of precise LAGEOS satellite laser ranging (SLR) data as well as
A gravity model for crustal dynamics (GEM-L2)
Goddard earth model, GEM-L2, has been derived using predominantly the precise laser ranging taken on many satellites, including LAGEOS, in support of NASA's crustal dynamics activities. Only
...
1
2
3
4
5
...