Precision orbit determination for the TOPEX/Poseidon mission
R. S. Nerem, J. R. Marshall, B. H. Putney, E. C. Pavlis, S. M. Klosko, Robert C. Williamson, N. P. Zelensky
Abstract
R. S. Nerem, J. R. Marshall, B. H. Putney, E. C. Pavlis, S. M. Klosko, Robert C. Williamson, N. P. Zelensky
Abstract
Computation of precise orbits for the TOPEX/Poseidon (T/P) spacecraft is analyzed focusing on gravity field modeling, nonconservative force modeling, satellite tracking technologies, and orbit determination software. It was found that the radial orbit error budget for T/P allows 10 cm rms error due to gravity field mismodeling, 3 cm due to solid earth and ocean tides, and 6 cm due to radiative forces, and 3 cm due to atmospheric drag. It is concluded that the current models are capable of achieving the radial orbit error requirements.
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Computation of precise orbits for the TOPEX/Poseidon (T/P) spacecraft is analyzed focusing on gravity field modeling, nonconservative force modeling, satellite tracking technologies, and orbit determination software. It was found that the radial orbit error budget for T/P allows 10 cm rms error due to gravity field mismodeling, 3 cm due to solid earth and ocean tides, and 6 cm due to radiative forces, and 3 cm due to atmospheric drag. It is concluded that the current models are capable of achieving the radial orbit error requirements.
Key concepts: Orbit (dynamics), Orbit determination, Geodesy, Remote sensing, Astronomy, Computer science, Geology, Physics