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This research advances the theoretical foundation for AI reasoning by extending structural causal models to handle dynamic environments where object relations change. By deriving symbolic identification criteria, the authors enable systems to generalize to unseen combinations of objects while accounting for unobserved confounding factors. The proposed relational neural causal models demonstrate superior performance in complex simulated traffic scenarios compared to non-relational baselines.
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Relational Structural Causal Models

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arXiv:2606.14892v1 Announce Type: cross Abstract: An artificial intelligence must have a model of its environment that is causal, supporting reasoning about interventions and counterfactuals, and also combinatorial, supporting generalization to unseen combinations of objects. In this work, we formally study when and how such a model can be learned. We develop relational structural causal models, extending structural causal models (Pearl 2009) to settings where objects and their relations vary. First, we show how answers to not only causal but also observational queries about unseen combinations of objects can not be identified without further assumptions. To enable such identification--including in the presence of unobserved confounding--we define relational causal graphs and derive symbolic identification criteria. Finally, we propose relational neural causal models, a provably correct approach that outperforms non-relational baselines on simulated traffic scenes with varying cars, signals, and pedestrians.

Abstract:An artificial intelligence must have a model of its environment that is causal, supporting reasoning about interventions and counterfactuals, and also combinatorial, supporting generalization to unseen combinations of objects. In this work, we formally study when and how such a model can be learned. We develop relational structural causal models, extending structural causal models (Pearl 2009) to settings where objects and their relations vary. First, we show how answers to not only causal but also observational queries about unseen combinations of objects can not be identified without further assumptions. To enable such identification--including in the presence of unobserved confounding--we define relational causal graphs and derive symbolic identification criteria. Finally, we propose relational neural causal models, a provably correct approach that outperforms non-relational baselines on simulated traffic scenes with varying cars, signals, and pedestrians.

Artificial Intelligence (cs.AI); Machine Learning (cs.LG); Social and Information Networks (cs.SI); Machine Learning (stat.ML)

arXiv:2606.14892 [cs.AI]

(or arXiv:2606.14892v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2606.14892 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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