Modelling discrete valued cross sectional time series with observation driven models
W. T. M. Dunsmuir, C. McKendry, R. T. Dean

TL;DR
This paper introduces computationally feasible methods for estimating mixed effects models for multiple discrete-valued time series with serial dependence, extending existing count data models to incorporate serial dependence using an observation driven approach.
Contribution
It develops an observation driven generalized linear autoregressive moving average model with maximum likelihood estimation for mixed effects in discrete-valued time series.
Findings
Method effectively models serial dependence in count data.
Approach uses existing single time series methods with adaptive Gaussian quadrature.
Illustrated on binary response data from musical feature perception.
Abstract
This paper develops computationally feasible methods for estimating random effects models in the context of regression modelling of multiple independent time series of discrete valued counts in which there is serial dependence. Given covariates, random effects and process history, the observed responses at each time in each series are independent and have an exponential family distribution. We develop maximum likelihood estimation of the mixed effects model using an observation driven generalized linear autoregressive moving average specification for the serial dependence in each series. The paper presents an easily implementable approach which uses existing single time series methods to handle the serial dependence structure in combination with adaptive Gaussian quadrature to approximate the integrals over the regression random effects required for the likelihood and its derivatives.…
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Taxonomy
TopicsNeural Networks and Applications · Statistical Methods and Inference · Control Systems and Identification
