HOLOGRAPH: Active Causal Discovery via Sheaf-Theoretic Alignment of Large Language Model Priors
Hyunjun Kim

TL;DR
HOLOGRAPH introduces a sheaf-theoretic framework for causal discovery guided by Large Language Models, providing a rigorous mathematical foundation and competitive results on synthetic and real-world data.
Contribution
It formalizes LLM-guided causal discovery using sheaf theory, incorporating algebraic latent projection and natural gradient descent for improved causal inference.
Findings
Sheaf cohomology indicates non-local coupling in large graphs.
The framework satisfies key axioms with high numerical precision.
Achieves competitive performance on benchmarks with 50-100 variables.
Abstract
Causal discovery from observational data remains fundamentally limited by identifiability constraints. Recent work has explored leveraging Large Language Models (LLMs) as sources of prior causal knowledge, but existing approaches rely on heuristic integration that lacks theoretical grounding. We introduce HOLOGRAPH, a framework that formalizes LLM-guided causal discovery through sheaf theory--representing local causal beliefs as sections of a presheaf over variable subsets. Our key insight is that coherent global causal structure corresponds to the existence of a global section, while topological obstructions manifest as non-vanishing sheaf cohomology. We propose the Algebraic Latent Projection to handle hidden confounders and Natural Gradient Descent on the belief manifold for principled optimization. Experiments on synthetic and real-world benchmarks demonstrate that HOLOGRAPH…
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Taxonomy
TopicsBayesian Modeling and Causal Inference · Advanced Graph Neural Networks · Explainable Artificial Intelligence (XAI)
