An AI-powered Bayesian Generative Modeling Approach for Arbitrary Conditional Inference
Qiao Liu, Wing Hung Wong

TL;DR
This paper introduces Bayesian generative modeling (BGM), a flexible framework for arbitrary conditional inference that learns a universal model capable of predicting any conditional distribution without retraining, with strong theoretical guarantees.
Contribution
The paper proposes BGM, a unified Bayesian generative framework that enables arbitrary conditional inference with convergence guarantees and superior predictive performance.
Findings
BGM achieves superior predictive accuracy.
BGM provides principled uncertainty quantification.
Theoretical guarantees for convergence and consistency.
Abstract
Modern data analysis increasingly requires flexible conditional inference P(X_B | X_A) where (X_A, X_B) is an arbitrary partition of observed variable X. Existing approaches are either restricted to a fixed conditioning structure or depend strongly on the distribution of conditioning masks during training. To address these limitations, we introduce Bayesian generative modeling (BGM), a unified framework for arbitrary conditional inference. BGM learns a generative model of X via a stochastic iterative Bayesian updating algorithm in which model parameters and latent variables are updated until convergence. Once trained, any conditional distribution can be obtained without retraining. Empirically, BGM achieves superior predictive performance with posterior predictive intervals, demonstrating that a single learned model can serve as a universal engine for conditional prediction with…
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Taxonomy
TopicsGenerative Adversarial Networks and Image Synthesis · Gaussian Processes and Bayesian Inference · Bayesian Modeling and Causal Inference
