2014
DOI: 10.1109/tac.2013.2272136
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Accurate Numerical Implementation of the Continuous-Discrete Extended Kalman Filter

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Cited by 122 publications
(68 citation statements)
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“…Thus, the continuousdiscrete stochastic state-space model (1), (2) is best suited for state estimation in chemical systems and widely used in chemistry research and industrial applications (see, for instance, Wilson et al (1998); Soroush (1998); Dochain (2003); Rawlings (2002, 2005); Jørgensen (2007); Rawlings and Bakshi (2006); Romanenko and Castro (2004); ). Concerning state estimation algorithms, we have to remark that, at present, there exist a great variety of different methods starting from a rigorous probabilistic approach solving Kolmogorov's (Fokker-Planck's) forward equation (as discussed, for instance, in Jazwinski (1970); Maybeck (1982)) till approximate approaches including various nonlinear modifications and implementations of the well-known Kalman filter (see Lewis (1986); Singer (2002Singer ( , 2006; Julier et al (2000); Julier and Uhlmann (2004); Ito and Xiong (2000); Nørgaard et al (2000); Haykin (2008, 2009); Arasaratnam et al (2010); Frogerais et al (2012); Jørgensen et al (2007); Kulikov and Kulikova (2014); Rawlings and Bakshi (2006); Romanenko and Castro (2004); ; Schneider and Georgakis (2013)) as well as optimization based approaches usually referred to as the moving horizon estimation (studied by Jang et al (1986); Rao et al (2001); Rawlings (2002, 2005); Rawlings and Bakshi (2006) and so on). Undoubtedly, the extended Kalman filter (EKF) still remains among the most popular and widely used numerical techniques for practical state estimation in nonlinear stochastic systems because of its implementation simplicity and good performance.…”
Section: Dx(t) = F X(t) U(t) Dt + G X(t) U(t) Dw(t)mentioning
confidence: 99%
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“…Thus, the continuousdiscrete stochastic state-space model (1), (2) is best suited for state estimation in chemical systems and widely used in chemistry research and industrial applications (see, for instance, Wilson et al (1998); Soroush (1998); Dochain (2003); Rawlings (2002, 2005); Jørgensen (2007); Rawlings and Bakshi (2006); Romanenko and Castro (2004); ). Concerning state estimation algorithms, we have to remark that, at present, there exist a great variety of different methods starting from a rigorous probabilistic approach solving Kolmogorov's (Fokker-Planck's) forward equation (as discussed, for instance, in Jazwinski (1970); Maybeck (1982)) till approximate approaches including various nonlinear modifications and implementations of the well-known Kalman filter (see Lewis (1986); Singer (2002Singer ( , 2006; Julier et al (2000); Julier and Uhlmann (2004); Ito and Xiong (2000); Nørgaard et al (2000); Haykin (2008, 2009); Arasaratnam et al (2010); Frogerais et al (2012); Jørgensen et al (2007); Kulikov and Kulikova (2014); Rawlings and Bakshi (2006); Romanenko and Castro (2004); ; Schneider and Georgakis (2013)) as well as optimization based approaches usually referred to as the moving horizon estimation (studied by Jang et al (1986); Rao et al (2001); Rawlings (2002, 2005); Rawlings and Bakshi (2006) and so on). Undoubtedly, the extended Kalman filter (EKF) still remains among the most popular and widely used numerical techniques for practical state estimation in nonlinear stochastic systems because of its implementation simplicity and good performance.…”
Section: Dx(t) = F X(t) U(t) Dt + G X(t) U(t) Dw(t)mentioning
confidence: 99%
“…If the control interval is increased to match the availability of measurements then control performance deteriorates significantly." Recently, Kulikov and Kulikova (2014) presented a way to resolve some cases of the "EKF failure" by means of adaptive ODE solvers with automatic error control. Therefore, the task of searching for the most appropriate ODE solver in the frame of EKF technology has arisen.…”
Section: Dx(t) = F X(t) U(t) Dt + G X(t) U(t) Dw(t)mentioning
confidence: 99%
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“…The study shows satisfactory performance in the estimated speed over the entire speed-control range. A recently published paper by Kulikov and Kulikova [200] [202] used frequency tracking algorithm based on EKF on non-stationary systems with success.…”
Section: Extended Kalman Filteringmentioning
confidence: 99%