A global navigation satellite system (GNSS) is a space-based radio navigation and positioning system that can provide information that can be used to derive three-dimensional coordinates, velocity, and time in all-weather conditions for users anywhere on the surface of the Earth or near-Earth space.
Like the internet, a global navigation satellite system (GNSS) acts to catalyse economic activities.
In the present paper, by using the global navigation satellite system total electron content (GNSS TEC), we conducted a statistical study on the spatial distribution of the seismo-ionospheric precursors (SIPs) before the occurrence of 133 shallow earthquakes of magnitude M ⩾ 7.0 in the global area during 2003 2014.
In this study, short-term slow slip events (SSEs) along the Ryukyu Trench, southwestern Japan were systematically examined using continuous global navigation satellite system (GNSS) data.
In this article, the results of the research in a field of which uses active global navigation satellite system (GNSS) geodetic networks for the inventory of geodetic geometric tram tracks are presented.
In the frame of NASA's Small Spacecraft Technology Program, D'Amico will help develop a swarm of CubeSats with a decentralized navigation system that will use modern global navigation satellite signals to continuously share and adjust their positions to centimeter-level accuracy.
To determine the velocity and acceleration of the receivers under the requirements of high accuracy applications using global navigation satellite system (GNSS), models and algorithms based on multiple reference stations were presented in this paper.
Our research focuses on SS-BSAR using global navigation satellite systems (GNSS) as transmitters of opportunity [9 13].
The number of applications using global navigation satellite system positioning is increasing steadily and currently the European Space Agency explores the possibility of satellite navigation signals operating in an already allocated frequency band for satellite radio navigation around 5 GHz [8].
For an examination of the ionospheric response to solar wind pressure pulses, Jayachandran et al. (2011) suggested using the GPS global navigation satellite system.
