System identification: theory for the user
System identification: theory for the user
Adaptive algorithms and stochastic approximations
Adaptive algorithms and stochastic approximations
Optimal filtering of discrete-time hybrid systems
Journal of Optimization Theory and Applications
Learning Automata and Stochastic Optimization
Learning Automata and Stochastic Optimization
Estimation of Markovian Jump Systems with Unknown Transition Probabilities through Bayesian Sampling
NMA '02 Revised Papers from the 5th International Conference on Numerical Methods and Applications
Adaptive estimation of HMM transition probabilities
IEEE Transactions on Signal Processing
IEEE Transactions on Signal Processing
An improvement to the interacting multiple model (IMM) algorithm
IEEE Transactions on Signal Processing
Online Bayesian estimation of transition probabilities for Markovian jump systems
IEEE Transactions on Signal Processing
On-line identification of hidden Markov models via recursiveprediction error techniques
IEEE Transactions on Signal Processing
Expectation maximization algorithms for MAP estimation of jumpMarkov linear systems
IEEE Transactions on Signal Processing
Particle filters for state estimation of jump Markov linear systems
IEEE Transactions on Signal Processing
IEEE Transactions on Information Theory
Hi-index | 22.14 |
This paper describes a new method to estimate the transition probabilities associated with a jump Markov linear system. The new algorithm uses stochastic approximation type recursions to minimize the Kullback-Leibler divergence between the likelihood function of the transition probabilities and the true likelihood function. Since the calculation of the likelihood function of the transition probabilities is impossible, an incomplete data paradigm, which has been previously applied to a similar problem for hidden Markov models, is used. The algorithm differs from the existing algorithms in that it assumes that the transition probabilities are deterministic quantities whereas the existing approaches consider them to be random variables with prior distributions.