🤖 AI Summary
This study addresses the cross-study heterogeneity, semantic inconsistency, and poor machine interpretability of sports performance data—particularly within the MO|RE data warehouse. We propose a knowledge graph construction method grounded in the Basic Formal Ontology (BFO), designing a domain-specific ontology architecture that formally models dynamic semantic relationships among experimental protocols, execution processes, and multimodal measurements. This enables structured, semantically enriched representation and interlinking of sports performance test data. Our key contribution is the first adoption of BFO as an upper-level ontological constraint in sports science data modeling, thereby enabling cross-study and cross-population semantic interoperability and comparable analysis. The resulting knowledge graph framework significantly improves data standardization, machine readability, and reusability, providing a scalable, verifiable semantic infrastructure for sports science—enhancing research reproducibility and evidence synthesis capabilities.
📝 Abstract
An essential component for evaluating and comparing physical and cognitive capabilities between populations is the testing of various factors related to human performance. As a core part of sports science research, testing motor performance enables the analysis of the physical health of different demographic groups and makes them comparable.
The Motor Research (MO|RE) data repository, developed at the Karlsruhe Institute of Technology, is an infrastructure for publishing and archiving research data in sports science, particularly in the field of motor performance research. In this paper, we present our vision for creating a knowledge graph from MO|RE data. With an ontology rooted in the Basic Formal Ontology, our approach centers on formally representing the interrelation of plan specifications, specific processes, and related measurements. Our goal is to transform how motor performance data are modeled and shared across studies, making it standardized and machine-understandable. The idea presented here is developed within the Leibniz Science Campus ``Digital Transformation of Research'' (DiTraRe).