Proceedings of the 1998 IEEE International Conference on Acoustics, Speech and Signal Processing, ICASSP '98 (Cat. No.98CH36181
DOI: 10.1109/icassp.1998.681647
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Two-stage Kalman estimator using advanced circular prediction for maneuvering target tracking

Abstract: Maneuvering targets are difficult to track for tihe Kalman filter since the target model of tracking filter might not fit the real barget trajectory and the stat,istical characteristics of t,he target maneuver are unknown in advance. In order to track such a heavy maiieuvering target, the est,iination of the target turndirection is necessary. T h e t,wo-stage estimator using advanced circular prediction which considers the ta.rget t,urn-direction is proposed for maneuvering target, tracking. Sirnulat,ion resul… Show more

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Cited by 13 publications
(5 citation statements)
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“…Note that if the sojourn time is nonrandom or has an exponential distribution, the input sequence (U(tk)) is in fact a Markov chain -the semi-Markov formulation is not needed. Moreover, they proposed the following model of the acceleration a(t) as a combination of the above jump-mean model and the Singer model: a(t) = -fiv(t) + u(t) + (42) where à(t) is the Singer acceleration of (25), v is the velocity, and /3 is a drag coefficient. The corresponding continuous-time state-space representation is, for x = [position,velocity,acceleration}',…”
Section: Semi-markov Jump Process Modelsmentioning
confidence: 99%
“…Note that if the sojourn time is nonrandom or has an exponential distribution, the input sequence (U(tk)) is in fact a Markov chain -the semi-Markov formulation is not needed. Moreover, they proposed the following model of the acceleration a(t) as a combination of the above jump-mean model and the Singer model: a(t) = -fiv(t) + u(t) + (42) where à(t) is the Singer acceleration of (25), v is the velocity, and /3 is a drag coefficient. The corresponding continuous-time state-space representation is, for x = [position,velocity,acceleration}',…”
Section: Semi-markov Jump Process Modelsmentioning
confidence: 99%
“…Assume that each target position measurements are points on the circle; replace the chord between any two consecutive measurement points with the straight line segment connecting them; the center can then be determined from the (average) intersection of the perpendicular bisectors of two or more such straight line segments. An essentially the same procedure was used in [81] for estimating the center. Note that using the center estimates injects additional nonlinearities into the system, which are not accounted for in the above linear model.…”
Section: Circular Motion Modelsmentioning
confidence: 99%
“…Approaches based on the kinematic or dynamic properties of moving objects are often based on the Kalman Filter and Extended Kalman Filter's prediction step [9,21,24]. There are, however other approaches that also use dynamics for prediction: Chien and Koivo [11] proposed the use of a recursive autoregressive time series model whose parameters are estimated using the least mean squared error method.…”
Section: Kinematic and Dynamic Approachesmentioning
confidence: 99%