Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance

Abstract For invariant attitude dynamics evolving on matrix Lie groups, by proposing the stochastic feedback–based covariance calibration scheme, an adaptive invariant Kalman filter (AIKF) is elaborated to deal with the attitude estimation problems corrupted by unknown or inaccurate process noise st...

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Main Authors: Jiaolong Wang, Minzhe Li
Format: Article
Language:English
Published: Wiley 2021-09-01
Series:IET Control Theory & Applications
Online Access:https://doi.org/10.1049/cth2.12166
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spelling doaj-0d7764e67d7a4ef0ab3771f1dac36dca2021-08-16T07:22:23ZengWileyIET Control Theory & Applications1751-86441751-86522021-09-0115141906191410.1049/cth2.12166Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covarianceJiaolong Wang0Minzhe Li1Key Laboratory of Advanced Process Control for Light Industry (Ministry of Education) Institute of Automation School of Internet of Things Engineering Jiangnan University Wuxi ChinaSchool of Aeronautics and Astronautics Shanghai Jiao Tong University Shanghai ChinaAbstract For invariant attitude dynamics evolving on matrix Lie groups, by proposing the stochastic feedback–based covariance calibration scheme, an adaptive invariant Kalman filter (AIKF) is elaborated to deal with the attitude estimation problems corrupted by unknown or inaccurate process noise statistics. The invariant Kalman filter (IKF) takes into account the geometry property of attitude dynamics and can boost the estimation performance; however, IKF requires accurate knowledge of the noise statistics and an incorrect noise parameter is prone to deteriorating the precision of final estimates. To eliminate this impact, instead of using the original covariance propagation step of IKF, the prior error covariance of the proposed AIKF is online calibrated based on the posterior information of the feedback stochastic sequence. As the main advantage, the statistics parameter of system process noise is no longer required in the proposed AIKF and the negative influence by unknown/incorrect noise parameters can be reduced significantly. The mathematical foundation for the new adaption scheme of AIKF is also presented. The AIKF's advantage in filtering adaptability and simplicity is further demonstrated by numerical simulations.https://doi.org/10.1049/cth2.12166
collection DOAJ
language English
format Article
sources DOAJ
author Jiaolong Wang
Minzhe Li
spellingShingle Jiaolong Wang
Minzhe Li
Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
IET Control Theory & Applications
author_facet Jiaolong Wang
Minzhe Li
author_sort Jiaolong Wang
title Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
title_short Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
title_full Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
title_fullStr Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
title_full_unstemmed Adaptive invariant Kalman filtering for attitude estimation on SO(3) thorough feedback calibration of prior error covariance
title_sort adaptive invariant kalman filtering for attitude estimation on so(3) thorough feedback calibration of prior error covariance
publisher Wiley
series IET Control Theory & Applications
issn 1751-8644
1751-8652
publishDate 2021-09-01
description Abstract For invariant attitude dynamics evolving on matrix Lie groups, by proposing the stochastic feedback–based covariance calibration scheme, an adaptive invariant Kalman filter (AIKF) is elaborated to deal with the attitude estimation problems corrupted by unknown or inaccurate process noise statistics. The invariant Kalman filter (IKF) takes into account the geometry property of attitude dynamics and can boost the estimation performance; however, IKF requires accurate knowledge of the noise statistics and an incorrect noise parameter is prone to deteriorating the precision of final estimates. To eliminate this impact, instead of using the original covariance propagation step of IKF, the prior error covariance of the proposed AIKF is online calibrated based on the posterior information of the feedback stochastic sequence. As the main advantage, the statistics parameter of system process noise is no longer required in the proposed AIKF and the negative influence by unknown/incorrect noise parameters can be reduced significantly. The mathematical foundation for the new adaption scheme of AIKF is also presented. The AIKF's advantage in filtering adaptability and simplicity is further demonstrated by numerical simulations.
url https://doi.org/10.1049/cth2.12166
work_keys_str_mv AT jiaolongwang adaptiveinvariantkalmanfilteringforattitudeestimationonso3thoroughfeedbackcalibrationofpriorerrorcovariance
AT minzheli adaptiveinvariantkalmanfilteringforattitudeestimationonso3thoroughfeedbackcalibrationofpriorerrorcovariance
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