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This paper advances neuro-symbolic AI by integrating probabilistic reasoning into Belnap's typed intensional first-order logic, aiming to enhance the interpretability and logical robustness of autonomous agents. By combining neural learning with formal symbolic machinery for self-reference, it addresses key limitations in purely data-driven systems while introducing symmetry transformations for real-time decision-making under uncertainty.
Probabilistic Extension of Neuro-Symbolic AGI Robots based on Belnap's Typed Intensional FOL
arXiv:2607.13073v2 Announce Type: replace Abstract: Neuro-symbolic AI based on $IFOL_B$ is a way to combine neural learning and symbolic reasoning to overcome limitations of purely neural systems (like lack of interpretability and logical structure) with formal logical machinery for self-reference. In this paper we expand the cognitive power of $IFOL_B$ by using the probability computation for the currently unknown sentences, based on Nilsson's probability structure for the $IFOL_B$. We introduce the global symmetry transformation that preserves the current knowledge database and logical deduction, and the local one used for real-time decisions about concrete (sub)problems that involve only a very strict subset of $IFOL_B$ predicates. The computation of probability density function $KI$ in both cases, based on the Shannon's maximum information entropy, is provided by neural networks of this probabilistic neuro-symbolic AGI.
Abstract:Neuro-symbolic AI based on $IFOL_B$ is a way to combine neural learning and symbolic reasoning to overcome limitations of purely neural systems (like lack of interpretability and logical structure) with formal logical machinery for self-reference. In this paper we expand the cognitive power of $IFOL_B$ by using the probability computation for the currently unknown sentences, based on Nilsson's probability structure for the $IFOL_B$. We introduce the global symmetry transformation that preserves the current knowledge database and logical deduction, and the local one used for real-time decisions about concrete (sub)problems that involve only a very strict subset of $IFOL_B$ predicates. The computation of probability density function $KI$ in both cases, based on the Shannon's maximum information entropy, is provided by neural networks of this probabilistic neuro-symbolic AGI.
Artificial Intelligence (cs.AI)
arXiv:2607.13073 [cs.AI]
(or arXiv:2607.13073v2 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2607.13073 Focus to learn more arXiv-issued DOI via DataCite
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