To maintain national coordinate systems and monitor tectonic plate movement.
For them, the answer is not a chip or a mobile app. It is a sophisticated, often underappreciated piece of software called the . Developed since the 1980s at the University of Bern in Switzerland, Bernese is not a tool for navigation. It is a tool for revelation . It turns a constellation of navigation satellites into a planet-sized scientific instrument, capable of measuring the silent, relentless movements of our world.
: Standard GPS might get you within meters. But scientists need to measure the slow crawl of tectonic plates or the subtle shifting of a bridge, which requires millimeter-level The Solution bernese gnss
Generating regional ionospheric models (RIM) and estimating atmospheric parameters for meteorological applications.
What sets Bernese GNSS apart from standard commercial software is its rigorous mathematical modeling of the physical environment. To extract sub-centimeter positions, the software accounts for and corrects: To maintain national coordinate systems and monitor tectonic
The software is double-sided: it can use fixed orbits to find ground positions, or it can use fixed ground positions to calculate ultra-precise orbits for low-Earth orbit (LEO) satellites and GNSS constellations themselves. Atmospheric Sounding
The keyword "Bernese GNSS" is synonymous with high-end geodetic applications. Here are the primary reasons researchers and agencies invest in this software. Developed since the 1980s at the University of
By measuring the water vapor in the atmosphere via GNSS signal delays, researchers use Bernese to contribute to climate change models.
Geophysicists use Bernese to process decades of GNSS data to create time-series plots of the Earth’s crust. They can "see" the slow creep of the Pacific Plate sliding under the North American Plate. In the aftermath of a major earthquake, Bernese is often used to calculate the co-seismic displacement—measuring exactly how many meters a landmass shifted in seconds.