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perspectiva aiqbenchMachine learning

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This is a theory paper proposing a declarative query language whose database facts carry vector embeddings, so relational queries and trainable neural layers live in one formalism. Its main value for ML readers is formal: it shows that simple fragments recover GNN-style message passing and Deep Homomorphism Networks, and it characterizes expressive power against logic and circuit complexity classes. Practical impact depends on whether the framework can be implemented efficiently on real databases, which the abstract does not address.
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Neuro-Relational Programs: Unifying Queries and Neural Computation over Structured Data

arXiv3 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2606.11946v2 Announce Type: replace-cross Abstract: The conventional approach to deep learning over relational databases applies neural models, such as Graph Neural Networks (GNNs), to a graph representation of the database. Recent approaches instead operate on databases directly, associating tuples with embeddings and extending query mechanisms to jointly process embeddings and relational content. Inspired by these developments, we introduce Neuro-Relational Programs (NRPs), a declarative query language for relational databases whose facts carry numeric vector embeddings. NRPs extend Datalog-style rules with operations that combine, aggregate, and transform embeddings, thereby interleaving relational reasoning and learnable neural components within a single formalism. This yields a general approach to neural computation over relational data: an NRP can be read both as a query plan with trainable components and as a neural architecture with relational structure built in. Natural syntactic fragments of NRPs recover existing architectures and query formalisms. Zero-ary NRPs correspond to non-adaptive query algorithms; monadic NRPs generalize GNN-style message passing and precisely capture Deep Homomorphism Networks, a connection that we extend to frontier-guarded NRPs over databases with row-ids. We characterize the expressive power of unrestricted NRPs with ReLU-FFN transformations by FOCQ, an extension of first-order logic with counting interpreted over real-weighted structures, yielding a precise connection with uniform TC$^0$ over ordered databases. Together, these results establish NRPs as a broad declarative framework for querying and neural computation over relational data.

Abstract:The conventional approach to deep learning over relational databases applies neural models, such as Graph Neural Networks (GNNs), to a graph representation of the database. Recent approaches instead operate on databases directly, associating tuples with embeddings and extending query mechanisms to jointly process embeddings and relational content. Inspired by these developments, we introduce Neuro-Relational Programs (NRPs), a declarative query language for relational databases whose facts carry numeric vector embeddings. NRPs extend Datalog-style rules with operations that combine, aggregate, and transform embeddings, thereby interleaving relational reasoning and learnable neural components within a single formalism. This yields a general approach to neural computation over relational data: an NRP can be read both as a query plan with trainable components and as a neural architecture with relational structure built in. Natural syntactic fragments of NRPs recover existing architectures and query formalisms. Zero-ary NRPs correspond to non-adaptive query algorithms; monadic NRPs generalize GNN-style message passing and precisely capture Deep Homomorphism Networks, a connection that we extend to frontier-guarded NRPs over databases with row-ids. We characterize the expressive power of unrestricted NRPs with ReLU-FFN transformations by FOCQ, an extension of first-order logic with counting interpreted over real-weighted structures, yielding a precise connection with uniform TC$^0$ over ordered databases. Together, these results establish NRPs as a broad declarative framework for querying and neural computation over relational data.

Databases (cs.DB); Computational Complexity (cs.CC); Machine Learning (cs.LG); Logic in Computer Science (cs.LO)

H.2.3; F.4.1; I.2.4

arXiv:2606.11946 [cs.DB]

(or arXiv:2606.11946v2 [cs.DB] for this version)

https://doi.org/10.48550/arXiv.2606.11946 Focus to learn more arXiv-issued DOI via DataCite

Proc. ACM Manag. Data 4(5) (PODS), Article 300, November 2026

https://doi.org/10.1145/3850135 Focus to learn more DOI(s) linking to related resources

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