Lattice-preserving $\mathcal{ALC}$ ontology embeddings with saturation
Fernando Zhapa-Camacho, Robert Hoehndorf

TL;DR
This paper introduces a novel lattice-preserving embedding method for $ ext{ALC}$ ontologies that leverages Category Theory, outperforming existing methods in knowledge base completion tasks and effectively handling ontologies without individuals.
Contribution
It presents a new semantic-preserving embedding approach for $ ext{ALC}$ ontologies using lattice structures and saturation, addressing limitations of prior methods that require individuals.
Findings
Outperforms state-of-the-art in knowledge base completion
Handles ontologies without individuals effectively
Increases information content with saturation procedures
Abstract
Generating vector representations (embeddings) of OWL ontologies is a growing task due to its applications in predicting missing facts and knowledge-enhanced learning in fields such as bioinformatics. The underlying semantics of OWL ontologies are expressed using Description Logics (DLs). Initial approaches to generate embeddings relied on constructing a graph out of ontologies, neglecting the semantics of the logic therein. Recent semantic-preserving embedding methods often target lightweight DL languages like , ignoring more expressive information in ontologies. Although some approaches aim to embed more descriptive DLs like , those methods require the existence of individuals, while many real-world ontologies are devoid of them. We propose an ontology embedding method for the DL language that considers the lattice structure of concept…
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Taxonomy
TopicsBiomedical Text Mining and Ontologies · Semantic Web and Ontologies · Bioinformatics and Genomic Networks
MethodsBalanced Selection · Ontology
