A method is proposed to improve the GPS broadcast ionospheric time-delay correction accuracy, using GPS observation data from the globally distributed international GNSS service (IGS) observation stations and the Crust Movement Observation Network of China (CMONOC). A new set of Klobuchar-Self coefficients can be estimated using the method. Primary results demonstrate that the refined Klobuchar-Self coefficients developed may provide better ionospheric delay corrections for single-frequency GPS receivers and improve standard single point positioning accuracies
In Global Navigation Satellite Systems (GNSS) using L band frequencies, the ionosphere causes signal...
A limiting factor for successful ambiguity resolution in precise GPS positioning is the existence of...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Global Navigation Satellite Systems (GNSS) require mitigation of ionospheric propagation errors beca...
Global Navigation Satellite Systems (GNSS) require mitigation of ionospheric propagation errors beca...
Uncorrected ionospheric delay is one of the factors limiting the accuracy in geodetic relative posit...
The ionosphere cun be the greatest variable source of error in precke time trander using GPS satel-l...
The ionosphere is one of the largest error sources in GNSS-based positioning, causing a delay in the...
The ionosphere is one of the largest error sources in GNSS-based positioning, causing a delay in the...
In GNSS, one of the main error sources of the Standard Positioning Service (SPS) is introduced by th...
Modelling of the ionospheric Total Electron Content (TEC) represents a challenging and demanding tas...
Modelling of the ionospheric Total Electron Content (TEC) represents a challenging and demanding tas...
In Global Navigation Satellite Systems (GNSS) using L band frequencies, the ionosphere causes signal...
A limiting factor for successful ambiguity resolution in precise GPS positioning is the existence of...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...
Global Navigation Satellite Systems (GNSS) require mitigation of ionospheric propagation errors beca...
Global Navigation Satellite Systems (GNSS) require mitigation of ionospheric propagation errors beca...
Uncorrected ionospheric delay is one of the factors limiting the accuracy in geodetic relative posit...
The ionosphere cun be the greatest variable source of error in precke time trander using GPS satel-l...
The ionosphere is one of the largest error sources in GNSS-based positioning, causing a delay in the...
The ionosphere is one of the largest error sources in GNSS-based positioning, causing a delay in the...
In GNSS, one of the main error sources of the Standard Positioning Service (SPS) is introduced by th...
Modelling of the ionospheric Total Electron Content (TEC) represents a challenging and demanding tas...
Modelling of the ionospheric Total Electron Content (TEC) represents a challenging and demanding tas...
In Global Navigation Satellite Systems (GNSS) using L band frequencies, the ionosphere causes signal...
A limiting factor for successful ambiguity resolution in precise GPS positioning is the existence of...
Users of the Global Positioning System (GPS) utilize the Ionospheric Correction Algorithm (ICA) also...