Enabling Hybrid Modeling in Commercial MBS Software: A Force‐Level Approach

ABSTRACT Hybrid modeling aims to combine physical and data‐driven models to increase simulation accuracy without losing physical interpretability. In the context of dynamic mechanical systems, this enables the compensation of modeling inaccuracies that arise from simplifications, missing effects, or uncertain parameters. In this work, a hybrid model is used as a starting point, in which the discrepancy between simulation and measurement is learned and compensated by a data‐driven correction element. To integrate such models into commercial multibody simulation software like Adams or Simpack, the formulation is adapted to operate directly on the force level. This allows implementation via standard co‐simulation interfaces without modifying the system's differential equations or solvers. The method is demonstrated using a three‐mass oscillator with synthetic measurement data. Results show that the coupled simulation works reliably and that the hybrid model significantly improves accuracy while remaining compatible with established industrial simulation workflows.

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Publication Details

Journal
PAMM
Published
2026-09-30
DOI
https://doi.org/10.1002/pamm.70215
Primary Topic
Dynamics and Control of Mechanical Systems
Type
article
Field-Weighted Citation Impact
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article

Enabling Hybrid Modeling in Commercial MBS Software: A Force‐Level Approach

Meike Wohlleben, Jill Mercedes Linneweber, Jan Schütte, Walter Sextro
PAMM
Dynamics and Control of Mechanical Systems
article

Enabling Hybrid Modeling in Commercial MBS Software: A Force‐Level Approach

Meike Wohlleben, Jill Mercedes Linneweber, Jan Schütte, Walter Sextro
article en

Abstract

ABSTRACT Hybrid modeling aims to combine physical and data‐driven models to increase simulation accuracy without losing physical interpretability. In the context of dynamic mechanical systems, this enables the compensation of modeling inaccuracies that arise from simplifications, missing effects, or uncertain parameters. In this work, a hybrid model is used as a starting point, in which the discrepancy between simulation and measurement is learned and compensated by a data‐driven correction element. To integrate such models into commercial multibody simulation software like Adams or Simpack, the formulation is adapted to operate directly on the force level. This allows implementation via standard co‐simulation interfaces without modifying the system's differential equations or solvers. The method is demonstrated using a three‐mass oscillator with synthetic measurement data. Results show that the coupled simulation works reliably and that the hybrid model significantly improves accuracy while remaining compatible with established industrial simulation workflows.

PAMMVol. 26(4)
Paderborn University (DE)
Openalex Percentile: Top 16%
Dynamics and Control of Mechanical Systems
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