Applying a methodology developed and tested in previous studies, the contribution from the ionospheric and plasmaspheric regions to the total electron content (measured by ground receivers) is analyzed. The method is based in the electron density profiles retrieved from radio occultations observed with low Earth orbit satellites, combined with an accurate empirical modeling of the topside-ionosphere electron density. The results of a climatological study of the fractional electron content from the ionospheric region are presented for a year of low solar activity. It is shown that a simple parametric model can be used to reproduce the electron content var...
A 3D-model approach has been developed to describe the electron density of the topside ionosphere an...
Plasmaspheric electron content is, beyond the ionosphere as major source, a significant contributor ...
GPS navigation measurements onboard Low Earth Orbiting (LEO) satellites may be used to reconstruct t...
Applying a methodology developed and tested in previous studies, the contribution from t...
We introduce a methodology to extract the separate contributions of the ionosphere and the plasmasph...
The performance of a new method allowing the determination of the separate contributions from the io...
The world-wide use of Global Navigation Satellite Systems (GNSS) such as GPS and GLONASS offer the u...
Since the availability of GPS signals in the early nineties, ionosphere sounding techniques using Gl...
GPS measurements carried out on board Low Earth Orbiting (LEO) satellites provide a unique opportuni...
The Ørsted Satellite has performed limb-sounding observations of the ionosphere. The observed Satell...
Specification and forecasting of the upper atmosphere plasma distribution is fundamental for mitigat...
GNSS based ionosphere sounding techniques are well established since the availability of GPS signals...
The plasmaspheric electron content is extracted from the residuals of GPS-derived TEC measurements f...
GPS radio occultation measurements establish the basis for a new remote sensing technique for vertic...
It is well recognized that the space weather induces severe ionosphere perturbations capable of caus...
A 3D-model approach has been developed to describe the electron density of the topside ionosphere an...
Plasmaspheric electron content is, beyond the ionosphere as major source, a significant contributor ...
GPS navigation measurements onboard Low Earth Orbiting (LEO) satellites may be used to reconstruct t...
Applying a methodology developed and tested in previous studies, the contribution from t...
We introduce a methodology to extract the separate contributions of the ionosphere and the plasmasph...
The performance of a new method allowing the determination of the separate contributions from the io...
The world-wide use of Global Navigation Satellite Systems (GNSS) such as GPS and GLONASS offer the u...
Since the availability of GPS signals in the early nineties, ionosphere sounding techniques using Gl...
GPS measurements carried out on board Low Earth Orbiting (LEO) satellites provide a unique opportuni...
The Ørsted Satellite has performed limb-sounding observations of the ionosphere. The observed Satell...
Specification and forecasting of the upper atmosphere plasma distribution is fundamental for mitigat...
GNSS based ionosphere sounding techniques are well established since the availability of GPS signals...
The plasmaspheric electron content is extracted from the residuals of GPS-derived TEC measurements f...
GPS radio occultation measurements establish the basis for a new remote sensing technique for vertic...
It is well recognized that the space weather induces severe ionosphere perturbations capable of caus...
A 3D-model approach has been developed to describe the electron density of the topside ionosphere an...
Plasmaspheric electron content is, beyond the ionosphere as major source, a significant contributor ...
GPS navigation measurements onboard Low Earth Orbiting (LEO) satellites may be used to reconstruct t...