Conjugate Priors for Exponential Families
By Persi Diaconis, D. Ylvisaker. 1979
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- Yoshua Bengio
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Citations in the corpus
- Automatic Differentiation Variational Inference (2016, neutral): “The mean-field Gaussian becomes q(ζ ; φ) = N ζ ; µ, diag(exp(ω)2) , where the vector φ = (µ1, · · · ,µK ,ω1, · · · ,ωK) concatenates the mean and logarithm of the standard deviation of each factor.”
- The estimation of phase-type related functionals using Markov chain Monte Carlo methods (2003, methodology): “For a general discussion of conjugate distributions, see e.g. Diaconis & Ylvisaker (1979) and Giutérrez-Peña & Smith (1995).”
- Bayesian Hierarchical Models With Conjugate Full-Conditional Distributions for Dependent Data From the Natural Exponential Family (2017, methodology): “It follows from Diaconis and Ylvisaker (1979) that the conjugate prior distribution for Y is given by, f (Y |α,κ) = K(α,κ)exp{αY −κψ(Y )} ; Y ∈ Y , α κ ∈ Z ,κ > 0, (2) where K(α,κ) is a normalizing constant.”
- Conjugate priors for generalized linear models (2003, methodology): “As shown in Diaconis and Ylvisaker (1979), y0 = E(ḃ(θ)), where ḃ(θ) is the gradient vector of b(θ) and the expectation is taken with respect to the prior distribution in (2.4).”
- Wishart distributions for decomposable covariance graph models (2011, methodology): “No general theory is available for Bayesian inference in curved exponential families for continuous random variables, akin to the Diaconis–Ylvisaker [10] or standard conjugate theory for natural exponential families.”
- EXCHANGEABILITY, PREDICTIVE DISTRIBUTIONS AND PARAMETRIC MODELS* (2000, background): “From the theory in Diaconis and Ylvisaker (1979), general exponential families together with their conjugate priors yield predictive p.d.’s of the above type.”
- Inducing Features of Random Fields (1995, background): “While there is a natural class of conjugate priors for the class of exponential models that we use [14], the problem of incorporating prior knowledge about the set of candiate features is more challenging.”
- Sequential Change-Point Detection When the Pre- and Post-Change Parameters are Unknown (2010, unknown): “7) to conclude that ≥ E 0 1 e T 1Cs , and then proceed as in the proof of Theorem 2 in Lai (1998, p. 2920) to derive (3.5). To prove Theorem 3.1, we can in fact apply Theorem 2 of Lai (1998), since the asymptotic lower bound in (a) is the same as (and that in (b) can be shown to be smaller than) the”
- The History of the Dirichlet and Liouville Distributions (2001, background): “Again in the context of Bayesian analysis, Diaconis & Ylvisaker (1979) characterized the Dirichlet distributions as the unique family allowing linear posterior expectation for multinomial observations (cf., DeGroot, 1970, p. 174).”
- A SIMPLE BAYESIAN APPROACH TO MULTIPLE CHANGE-POINTS (2011, methodology): “An alternative approach that is computationally more convenient, especially when k is not small, is the binary segmentation procedure of Vostrikova (1981) and its recent refinement by Olshen et al. (2004). The choice of k for this approach is carried out by a model selection criterion dating back to”
- The trouble with overconfidence. (2008, unknown): “, 1999; Koriat, Sheffer, & Ma’ayan, 2002; Krueger & Mueller, 2002; Kruger & Dunning, 1999; Lichtenstein & Fischhoff, 1977; Lichtenstein, Fischhoff, & Phillips, 1982; May, 1986; Sniezek, 1990; Stankov & Crawford, 1997). Erev, Wallsten, and Budescu (1994) pointed out that when people have imperfect kn”