| Titre de série : |
Springer Handbook of Global Navigation Satellite Systems, ch. 36 |
| Titre : |
Geodesy |
| Type de document : |
Chapitre/Contribution |
| Auteurs : |
Zuheir Altamimi  , Auteur ; Richard S. Gross, Auteur |
| Editeur : |
Berlin, Heidelberg, Vienne, New York, ... : Springer |
| Année de publication : |
2017 |
| Importance : |
pp 1039 - 1061 |
| Note générale : |
bibliographie |
| Langues : |
Anglais (eng) |
| Descripteur : |
[Vedettes matières IGN] Systèmes de référence et réseaux
[Termes IGN] coordonnées GNSS
[Termes IGN] Global Geodetic Observing System
[Termes IGN] International Terrestrial Reference Frame
[Termes IGN] International Terrestrial Reference System
|
| Résumé : |
(auteur) Continuous geodetic observations are fundamental to characterize changes in space and time that affect the Earth system. The advent of global navigation satellite systems (GNSS s), starting with the Global Positioning System (GPS ) in the early 1980s, has significantly increased the range of geodetic applications and their precision. Significant improvements have progressively been made in the GNSS software packages developed by research institutes, leading to the determination of high-precision geodetic parameters and their temporal variations. The proliferation of dense GNSS networks (local, national, continental and global), composed of continuously observing stations, allows for a variety of geodetic and Earth science applications. Most areas of science, Earth observation, georeferencing applications, and society at large, today depend on being able to determine positions to millimeter-level precision. Point positions, to be meaningful and fully exploitable, have to be determined and expressed in a well-defined reference frame. All current global and regional reference frames rely on the availability of the international terrestrial reference frame (ITRF ), which is the most accurate realization of the international terrestrial reference system (ITRS ). One of the major modern achievements in geodesy today is the ability to determine highly precise global and regional terrestrial reference frames based on GNSS observations, fully connected to the ITRF. This chapter describes the use and applications of GNSS in geodesy, focusing on its role in the International Association of Geodesy’s (IAG’s) global geodetic observing system (GGOS) for monitoring our planet in space and time, GNSS-based reference frame implementation, Earth rotation and sea level monitoring. |
| Numéro de notice : |
H2017-028 |
| Affiliation des auteurs : |
LASTIG LAREG+Ext (2012-mi2018) |
| Thématique : |
POSITIONNEMENT |
| Nature : |
Chapître / contribution |
| nature-HAL : |
ChOuvrScient |
| DOI : |
10.1007/978-3-319-42928-1_36 |
| En ligne : |
https://doi.org/10.1007/978-3-319-42928-1_36 |
| Format de la ressource électronique : |
URL article |
| Permalink : |
https://documentation.ensg.eu/index.php?lvl=notice_display&id=91918 |
Springer Handbook of Global Navigation Satellite Systems, ch. 36. Geodesy [Chapitre/Contribution] / Zuheir Altamimi , Auteur ; Richard S. Gross, Auteur . - Berlin, Heidelberg, Vienne, New York, ... : Springer, 2017 . - pp 1039 - 1061. bibliographie Langues : Anglais ( eng) | Descripteur : |
[Vedettes matières IGN] Systèmes de référence et réseaux
[Termes IGN] coordonnées GNSS
[Termes IGN] Global Geodetic Observing System
[Termes IGN] International Terrestrial Reference Frame
[Termes IGN] International Terrestrial Reference System
|
| Résumé : |
(auteur) Continuous geodetic observations are fundamental to characterize changes in space and time that affect the Earth system. The advent of global navigation satellite systems (GNSS s), starting with the Global Positioning System (GPS ) in the early 1980s, has significantly increased the range of geodetic applications and their precision. Significant improvements have progressively been made in the GNSS software packages developed by research institutes, leading to the determination of high-precision geodetic parameters and their temporal variations. The proliferation of dense GNSS networks (local, national, continental and global), composed of continuously observing stations, allows for a variety of geodetic and Earth science applications. Most areas of science, Earth observation, georeferencing applications, and society at large, today depend on being able to determine positions to millimeter-level precision. Point positions, to be meaningful and fully exploitable, have to be determined and expressed in a well-defined reference frame. All current global and regional reference frames rely on the availability of the international terrestrial reference frame (ITRF ), which is the most accurate realization of the international terrestrial reference system (ITRS ). One of the major modern achievements in geodesy today is the ability to determine highly precise global and regional terrestrial reference frames based on GNSS observations, fully connected to the ITRF. This chapter describes the use and applications of GNSS in geodesy, focusing on its role in the International Association of Geodesy’s (IAG’s) global geodetic observing system (GGOS) for monitoring our planet in space and time, GNSS-based reference frame implementation, Earth rotation and sea level monitoring. |
| Numéro de notice : |
H2017-028 |
| Affiliation des auteurs : |
LASTIG LAREG+Ext (2012-mi2018) |
| Thématique : |
POSITIONNEMENT |
| Nature : |
Chapître / contribution |
| nature-HAL : |
ChOuvrScient |
| DOI : |
10.1007/978-3-319-42928-1_36 |
| En ligne : |
https://doi.org/10.1007/978-3-319-42928-1_36 |
| Format de la ressource électronique : |
URL article |
| Permalink : |
https://documentation.ensg.eu/index.php?lvl=notice_display&id=91918 |
|  |
Springer handbook of Global Navigation Satellite Systems (2017)
Springer Handbook of Global Navigation Satellite Systems, ch. 36. Geodesy (2017)
