Skip to content

Author

Dominik Göddeke

2 papers indexed here

We haven’t gathered this author’s papers yet. Follow them and we’ll fetch their work.

Not the right person? Other researchers publish under this name.

Jul 2026

Making Mathematical Knowledge Explainable, Accessible and Interoperable Through Large Language Model Integration

Mathematical models are central to formalizing research problems, yet their documentation often falls short of FAIR principles. Knowledge bases such as the Mathematical Model Database (MathModDB) address this gap by providing curated, semantically rich representations of mathematical models. Built on Wikibase, the same open-source infrastructure underlying Wikidata, MathModDB utilizes Semantic Web technologies to support Linked Open Data, collaborative editing, and the storage of semantically enriched metadata, making it a domain-specific knowledge graph within the broader Wikidata ecosystem. However, access to MathModDB currently requires either navigating a complex web interface or proficiency in SPARQL and Wikibase APIs, posing significant barriers for potential users. In addition, the combination of such curated knowledge bases with actual research data stored, e.g., in Dataverse repository instances, remains a challenge. To overcome these limitations, we propose integrating Large Language Models (LLMs) with MathModDB via a Model Context Protocol (MCP) server that exposes a vector-indexed schema retrieval and Steiner-tree-based join planner, combining dialogue-based natural language interaction with curated, epistemically grounded knowledge. Although instantiated on MathModDB, the architecture can be applied to other Wikibase-based systems. We demonstrate that this approach enables epistemically grounded LLM usage, improves model explainability and accessibility beyond what the standard Wikibase interface offers, and simplifies interoperability with external databases and tools, such as Dataverse data repositories. We illustrate the benefits of combining the accessibility of an LLM with the epistemic safety of a curated knowledge base through the adaptability of the MCP protocol by two use cases involving mathematical models in the fields of continuum mechanics and enzyme kinetics.

Jan Range, B. Schembera, Dominik Göddeke · 0 citations
#software testing Open access Sep 2026

A Partitioned Coupling Approach for Electromechanics Simulations of Skeletal Muscles Using FEBio

This work presents a partitioned coupling approach for electromechanical simulations of skeletal muscles. For the first time, we couple our highly specialized electrophysiology solver, which computes both force generation in muscle cells and action potential propagation in muscle fibers, with an external finite element continuum mechanics solver. In particular, we couple an OpenDiHu electrophysiology solver with an FEBio mechanics solver using the coupling library preCICE. Thereby, we present the FEBio adapter and a customized FEBio material, enabling multi‐scale, multi‐physics simulations using a coupled OpenDiHu‐FEBio approach, and incorporating more complex excitation–contraction dynamics and spatial inhomogeneity than in a standard FEBio simulation. We test the OpenDiHu‐FEBio approach on two muscle geometries and compare it to the existing coupled OpenDiHu–OpenDiHu approach, showing that the OpenDiHu–FEBio approach is faster. Besides, we show that preCICE's coupling overhead is small compared to the simulation's total runtime, even when complex, expensive data mapping methods between OpenDiHu and FEBio are used. Using FEBio instead of the OpenDiHu mechanics solver has additional advantages, including support for unstructured grids, multiple well‐established, verified, and tested material models, and an extensive user community. All in all, the implemented OpenDiHu‐FEBio approach shows how we can combine highly application‐specific muscle software with more general tools in a flexible, efficient way, and is a step forward for future development of application‐specific muscle simulations.

Carme Homs-Pons, Yesid Villota-Narvaez, Lalith Kumar Doreti et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.