Article
Convergence analysis of the extended Kalman filter used as an observer for nonlinear deterministic discrete-time systems
CRAN, CNRS, Cosnes et Romain
IEEE Transactions on Automatic Control (impact factor:
2.11).
05/1997;
DOI:10.1109/9.566674
pp.581 - 586
Source: IEEE Xplore
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Citations (0)
- Cited In (14)
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Conference Proceeding: Experimental comparison of online parameter identification schemes for a nanopositioning stage with variable mass
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ABSTRACT: An experimental comparison of two common parameter identification schemes is presented. The recursive least-squares method and the extended Kalman filter are applied to identify three parameters of a second-order linear mass-spring-damper model, using data obtained from a nanopositioning stage with a highly resonant dynamic response.Advanced Intelligent Mechatronics (AIM), 2011 IEEE/ASME International Conference on; 08/2011 -
Conference Proceeding: Semiglobal state observers for nonlinear analytic discrete-time systems
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ABSTRACT: This paper presents an improved version of a semiglobal state observer for nonlinear analytic discrete-time systems, proposed by the authors in a recent work . The method is based on the Taylor approximation of the inverse of the system observability map. In this work the performances of the improved observer are compared with those of the old version, both from a theoretical point of view, by presenting the semiglobal convergence theorems for both observers, and from a practical point of view, through computer simulation.Decision and Control, 2009 held jointly with the 2009 28th Chinese Control Conference. CDC/CCC 2009. Proceedings of the 48th IEEE Conference on; 01/2010 -
Conference Proceeding: The Polynomial Extended Kalman Filter as an exponential observer for nonlinear discrete-time systems
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ABSTRACT: This paper presents some results on the local exponential convergence of the Polynomial Extended Kalman Filter (PEKF, see [14]) used as a state observer for deterministic nonlinear discrete-time systems (Polynomial Extended Kalman Observer, PEKO). A new compact formalism is introduced for the representation of the so called Carleman linearization of nonlinear discrete time systems, that allows for the derivation of the observation error dynamics in a concise form, similar to the one of the classical Extended Kalman Filter. The stability analysis performed in this paper is also important in the stochastic framework, in that the exponential stability of the error dynamics can be used to prove that the moments of the estimation error, up to a given order, remain bounded over time (stability of the PEKF).Decision and Control, 2008. CDC 2008. 47th IEEE Conference on; 01/2009
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Keywords
arbitrary matrix
convergence
convergence analysis
first-order linearization technique
local asymptotic convergence
modified EKF
new formulation
nonlinear discrete-time systems
nonlinear identification problem
sufficient conditions