The IAI/MBT Precise Orbit Determination system for Low Earth Orbit satellites is presented. The system is based on GPS pesudorange and carrier phase measurements and implements the Reduced Dynamics method. The GPS measurements model, the dynamic model, and the least squares orbit determination are discussed. Results are shown for data from the CHAMP satellite and for simulated data from the ROKAR GPS receiver. In both cases the one sigma 3D position and velocity accuracy is about 0.2 m and 0.5 mm/sec respectively
This report was prepared by Tae-Suk Bae under the supervision of Professor Dorota A. Grejner-Brzezin...
The precise orbit determination (POD) of low earth orbiter (LEO) has complied with its required posi...
The accuracy of user position by GPS is heavily dependent upon the accuracy of satellite position wh...
Recent advances in spaceborne GPS technology have shown significant advantages in many aspects over ...
The three-dimensional nature of Global Positioning System (GPS) measurements provides a unique oppor...
Precise, a posteriori orbit determination is required for a wide variety of spaceborne scientific ap...
This paper represents orbit propagation and determination of low Earth orbit (LEO) satellites. Satel...
The computation of high-accuracy orbits is a prerequisite for the success of Low Earth Orbiter (LEO)...
Technology currently is available to support real-time onboard knowledge of the position of a low Ea...
The precise orbit determination problem is to accurately determine the position and velocity vectors...
A new approach for the integrated kinematical-dynamical orbit determination of low flying satellites...
Various methods for kinematic and reduced-dynamic precise orbit determination (POD) of Low Earth Orb...
An ever increasing number of low Earth orbiting (LEO) satellites is, or will be, equipped with retro...
Abstract: The Global Positioning System (GPS) is likely to become a powerful means in precise orbit...
An application of a precision orbit determination technique for NASA's Earth Observing System (EOS) ...
This report was prepared by Tae-Suk Bae under the supervision of Professor Dorota A. Grejner-Brzezin...
The precise orbit determination (POD) of low earth orbiter (LEO) has complied with its required posi...
The accuracy of user position by GPS is heavily dependent upon the accuracy of satellite position wh...
Recent advances in spaceborne GPS technology have shown significant advantages in many aspects over ...
The three-dimensional nature of Global Positioning System (GPS) measurements provides a unique oppor...
Precise, a posteriori orbit determination is required for a wide variety of spaceborne scientific ap...
This paper represents orbit propagation and determination of low Earth orbit (LEO) satellites. Satel...
The computation of high-accuracy orbits is a prerequisite for the success of Low Earth Orbiter (LEO)...
Technology currently is available to support real-time onboard knowledge of the position of a low Ea...
The precise orbit determination problem is to accurately determine the position and velocity vectors...
A new approach for the integrated kinematical-dynamical orbit determination of low flying satellites...
Various methods for kinematic and reduced-dynamic precise orbit determination (POD) of Low Earth Orb...
An ever increasing number of low Earth orbiting (LEO) satellites is, or will be, equipped with retro...
Abstract: The Global Positioning System (GPS) is likely to become a powerful means in precise orbit...
An application of a precision orbit determination technique for NASA's Earth Observing System (EOS) ...
This report was prepared by Tae-Suk Bae under the supervision of Professor Dorota A. Grejner-Brzezin...
The precise orbit determination (POD) of low earth orbiter (LEO) has complied with its required posi...
The accuracy of user position by GPS is heavily dependent upon the accuracy of satellite position wh...