Impact of dynamic coupling between relative orbit and attitude on the estimation of relative dynamics of spacecraft

Journal Article (2018)
Author(s)

A Chaves-Jiménez (TU Delft - Space Systems Egineering)

J. Guo (TU Delft - Space Systems Egineering)

Eberhard Gill (TU Delft - Space Engineering)

Department
Space Engineering
Copyright
© 2018 A. Chaves Jimenez, J. Guo, E.K.A. Gill
DOI related publication
https://doi.org/10.1016/j.actaastro.2018.08.038
More Info
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Publication Year
2018
Language
English
Copyright
© 2018 A. Chaves Jimenez, J. Guo, E.K.A. Gill
Department
Space Engineering
Volume number
152
Pages (from-to)
850-858
Reuse Rights

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Abstract

In this work the extent to which orbit and attitude sensors may cross-support each other in a joint processing to reduce estimation errors of the relative orbital and attitude dynamics is investigated. In order to do this, an engineering dynamic model taking into account the coupling effects between orbit and attitude dynamics is exploited for estimation purposes. A simple yet common configuration of two spacecraft in an along-track formation flying in low Earth Orbit (LEO) is used as case study, where the atmospheric drag perturbation constitutes the source of coupling. An extended Kalman Filter considering the dynamic coupling between orbital and attitude dynamics is used to estimate the absolute and relative dynamics of the system. It is shown that the coupling leads to higher accuracy estimation results.

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