Jun 2026· arXiv.org· Vol abs/2606.19264· 0 citations· 50 references
Computer Science
TL;DR
This work proposes Large Language Gibbs, a scheme for structured probabilistic inference that uses conditional distributions of an LLM as transition operators, and iteratively resample individual variables conditioned on others using an LLM's next-token conditionals to produce a stationary distribution.
Abstract
The knowledge encoded in large language models (LLMs) can serve as a substrate for structured reasoning over variables describing a complex world, but accessing this knowledge in a probabilistically coherent manner poses a difficult inference problem. We propose Large Language Gibbs, a scheme for structured probabilistic inference that uses conditional distributions of an LLM as transition operators. Rather than sampling structured objects through single-pass autoregressive generation, we iteratively resample individual variables conditioned on others using an LLM's next-token conditionals. This approach avoids order-dependent biases and produces a stationary distribution that reflects a compromise between all local conditionals. We apply this approach to sampling from synthetic distributions, consistent reasoning tasks, and Bayesian structure learning. The results suggest that the use of LLM conditionals in MCMC is a practical alternative to one-pass generation for structured probabilistic inference under a world prior accessible through noisy LLM conditionals.
A hybrid LLM-guided Bayesian network structure-learning framework that uses LLMs as bounded semantic guides, and shows that language-derived semantic knowledge can substantially improve scalable probabilistic structure learning when used as bounded guidance within a statistically grounded reasoning pipeline.
Jackson Hassell, Chen Shen, Estevam Hruschka· 0 citations
This paper presents a probabilistic perspective on large language models (LLMs), developed with the aim of bringing together, in a single self-contained account, tools that are usually treated separately across the literature. LLMs are described through probability measures on the set of sequences of tokens, specified...
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Keshav Ramji, Tahira Naseem, R. Astudillo· 0 citations
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We study Bayesian inference for probabilistic word embedding models, including skip-gram with negative sampling (SGNS) and continuous bag-of-words (CBoW). These models are widely used for inference, but their posteriors are non-identifiable under general linear transformations, which prevents meaningful Bayesian uncert...
Väinö Yrjänäinen, Isac Boström, Johan Jonasson et al.· Statistics and computing· 0 citations
The results suggest that one way humans continually grow their knowledge is by mentally representing many hypotheses spanning language-like and program-like representations, then revising those hypotheses to approximate Bayesian updates, while a bottom-up neural mechanism (an LLM) makes inference both tractable and lea...
Wasu Top Piriyakulkij, Samuel Acquaviva, Cassidy Langenfeld et al.· 0 citations
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