2015
DOI: 10.3390/e17106576
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Bayesian Inference on the Memory Parameter for Gamma-Modulated Regression Models

Abstract: In this work, we propose a Bayesian methodology to make inferences for the memory parameter and other characteristics under non-standard assumptions for a class of stochastic processes. This class generalizes the Gamma-modulated process, with trajectories that exhibit long memory behavior, as well as decreasing variability as time increases. Different values of the memory parameter influence the speed of this decrease, making this heteroscedastic model very flexible. Its properties are used to implement an app… Show more

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Cited by 3 publications
(2 citation statements)
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References 17 publications
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“…• Testing covariance structures in multivariate normal models, treating in a unified way several alternative hypotheses (often treated as special cases in the literature): [123,232]; • Testing unit root and cointegration hypotheses in time series, using plain and simple forms of prior information like flat or Jeffreys priors (no need for artificial priors): [42,51,52,234]; • Solving Bayesian classification problems and testing nested and non-nested or separate hypotheses: [8,9,[124][125][126]160]; • Analyzing systems' reliability from failure datasets: [104,143,177] • Testing dependence structures using statistical copulas: [83]; • Testing (non)-informative sampling conditions in statistical surveys: [199]; • Model selection for generalized Poisson distributions: [97,205]; • Model selection for generalized jump diffusion and Brownian motions, extremal distributions, and persistent memory processes: [6,18,122,171,172]; • Testing independence structures in contingency tables and multinomial models: [7,19,148,158]; • Software certification according to compliance conditions: [153]; • Testing market equilibrium conditions for fundamental and financial derivative asset prices: [39]; • Testing hypotheses in empirical economic studies: [41]; • Event identification in acoustic signal processing: [98][99][100]; • Testing Hardy-Weinberg equilibrium in genetics: [29,106,…”
Section: Applicationsmentioning
confidence: 99%
“…• Testing covariance structures in multivariate normal models, treating in a unified way several alternative hypotheses (often treated as special cases in the literature): [123,232]; • Testing unit root and cointegration hypotheses in time series, using plain and simple forms of prior information like flat or Jeffreys priors (no need for artificial priors): [42,51,52,234]; • Solving Bayesian classification problems and testing nested and non-nested or separate hypotheses: [8,9,[124][125][126]160]; • Analyzing systems' reliability from failure datasets: [104,143,177] • Testing dependence structures using statistical copulas: [83]; • Testing (non)-informative sampling conditions in statistical surveys: [199]; • Model selection for generalized Poisson distributions: [97,205]; • Model selection for generalized jump diffusion and Brownian motions, extremal distributions, and persistent memory processes: [6,18,122,171,172]; • Testing independence structures in contingency tables and multinomial models: [7,19,148,158]; • Software certification according to compliance conditions: [153]; • Testing market equilibrium conditions for fundamental and financial derivative asset prices: [39]; • Testing hypotheses in empirical economic studies: [41]; • Event identification in acoustic signal processing: [98][99][100]; • Testing Hardy-Weinberg equilibrium in genetics: [29,106,…”
Section: Applicationsmentioning
confidence: 99%
“…• References [10,3,29,75,100,101] use the FBST to test parametric hypotheses related to generalized Brownian motions, continuous or jump diffusions, extremal distributions, persistent memory and other stochastic processes. • References [4,14,39,93] develop theory or applications of the FBST for statistical hypotheses related to independence in contingency tables and other multinomial models.…”
Section: Statistical Modelingmentioning
confidence: 99%