This work introduces Bayesian quantile regression modeling framework for the analysis of longitudinal count data. In this model, the response variable is not continuous and hence an artificial smoothing of counts is incorporated. The Bayesian implementation utilizes the normal-exponential mixture representation of the asymmetric Laplace distribution for the response variable. An efficient Gibbs sampling algorithm is derived for fitting the model to the data. The model is illustrated through simulation studies and implemented in an application drawn from neurology. Model comparison demonstrates the practical utility of the proposed model
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
This article develops a two-part finite mixture quantile regression model for semi-continuous longit...
<p>Since the pioneering work by Koenker and Bassett [27], quantile regression models and its applica...
Despite the increasing popularity of quantile regression models for continuous responses, models for...
Quantile regression is a powerful statistical methodology that complements the classical linear reg...
The classical theory of linear models focuses on the conditional mean function, i.e. the function th...
The classical theory of linear models focuses on the conditional mean function, i.e. the function th...
Quantile regression, as a supplement to the mean regression, is often used when a comprehensive rel...
We introduce a set of new Gibbs sampler for Bayesian analysis of quantile re-gression model. The new...
Quantile regression has recently received a great deal of attention in both theoretical and empirica...
We provide an overview of linear quantile regression models for continuous responses repeatedly mea...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Biomedical count data such as the number of seizures for epilepsy patients, number of new tumors at ...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
This article develops a two-part finite mixture quantile regression model for semi-continuous longit...
<p>Since the pioneering work by Koenker and Bassett [27], quantile regression models and its applica...
Despite the increasing popularity of quantile regression models for continuous responses, models for...
Quantile regression is a powerful statistical methodology that complements the classical linear reg...
The classical theory of linear models focuses on the conditional mean function, i.e. the function th...
The classical theory of linear models focuses on the conditional mean function, i.e. the function th...
Quantile regression, as a supplement to the mean regression, is often used when a comprehensive rel...
We introduce a set of new Gibbs sampler for Bayesian analysis of quantile re-gression model. The new...
Quantile regression has recently received a great deal of attention in both theoretical and empirica...
We provide an overview of linear quantile regression models for continuous responses repeatedly mea...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Biomedical count data such as the number of seizures for epilepsy patients, number of new tumors at ...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
Traditional frequentist quantile regression makes few assumptions on the form of the error distribut...
This article develops a two-part finite mixture quantile regression model for semi-continuous longit...