Distributed H ∞-Constraint Robust Estimator for Multi-Sensor Networked Hybrid Uncertain Systems

Due to the complex communication channel environment, uncertainties, including random measurement delays, missing measurements and uncertain measurement noise variances, often exist in multi-sensor networked hybrid uncertain systems. These uncertainties will lead to poor accuracy and robustness for...

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Published inIEEE transactions on network science and engineering Vol. 8; no. 4; p. 3335
Main Authors Xia, Juan, Gao, Shesheng, Guo, Li, Qi, Xiaomin, Gao, Bingbing, Zhang, Jiahao
Format Journal Article
LanguageEnglish
Published Piscataway The Institute of Electrical and Electronics Engineers, Inc. (IEEE) 2021
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Abstract Due to the complex communication channel environment, uncertainties, including random measurement delays, missing measurements and uncertain measurement noise variances, often exist in multi-sensor networked hybrid uncertain systems. These uncertainties will lead to poor accuracy and robustness for traditional information fusion methods. Hence, this paper presents a distributed robust estimator based on the H ∞ constraint to solve the mentioned issues in sensor networked systems. The nonlinear pseudomeasurement model is first constructed with Bernoulli distributed random variables to describe the mentioned uncertainties in the communication channels. Then, a sufficient condition with a local optimal upper bound on estimation error covariance is derived rigorously with respect to the robustness definition, which is based on the H[Formula Omitted] constraint inequality to improve the robustness of state estimation. Furthermore, the proposed estimator is proven to be stable through boundedness analysis for the upper bound matrix. The numerical simulation and the target tracking experiment are finally applied to evaluate the effectiveness of the novel fusion estimator.
AbstractList Due to the complex communication channel environment, uncertainties, including random measurement delays, missing measurements and uncertain measurement noise variances, often exist in multi-sensor networked hybrid uncertain systems. These uncertainties will lead to poor accuracy and robustness for traditional information fusion methods. Hence, this paper presents a distributed robust estimator based on the H ∞ constraint to solve the mentioned issues in sensor networked systems. The nonlinear pseudomeasurement model is first constructed with Bernoulli distributed random variables to describe the mentioned uncertainties in the communication channels. Then, a sufficient condition with a local optimal upper bound on estimation error covariance is derived rigorously with respect to the robustness definition, which is based on the H[Formula Omitted] constraint inequality to improve the robustness of state estimation. Furthermore, the proposed estimator is proven to be stable through boundedness analysis for the upper bound matrix. The numerical simulation and the target tracking experiment are finally applied to evaluate the effectiveness of the novel fusion estimator.
Author Guo, Li
Xia, Juan
Zhang, Jiahao
Gao, Bingbing
Gao, Shesheng
Qi, Xiaomin
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SubjectTerms Data integration
H infinity
Hybrid systems
Mathematical models
Multisensor fusion
Noise measurement
Nonlinear systems
Random variables
Robustness (mathematics)
State estimation
Tracking
Uncertainty
Upper bounds
Title Distributed H ∞-Constraint Robust Estimator for Multi-Sensor Networked Hybrid Uncertain Systems
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