Flowcean - Model Learning for Cyber-Physical Systems

📅 2026-03-12
📈 Citations: 0
Influential: 0
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🤖 AI Summary
This work proposes Flowcean, a modular and extensible data-driven modeling framework tailored for cyber-physical systems (CPS) to address the challenges of modeling complexity and low automation. Flowcean integrates diverse learning strategies, flexible data processing modules, and a standardized evaluation pipeline, enabling seamless collaboration across multiple libraries and supporting user-defined configurations. By unifying model generation, evaluation, and optimization within a single architectural framework, Flowcean significantly enhances modeling efficiency and generalizability while reducing development barriers and costs. The framework is broadly applicable to a wide range of CPS modeling tasks, offering a practical and scalable solution for complex system design and analysis.

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📝 Abstract
Effective models of Cyber-Physical Systems (CPS) are crucial for their design and operation. Constructing such models is difficult and time-consuming due to the inherent complexity of CPS. As a result, data-driven model generation using machine learning methods is gaining popularity. In this paper, we present Flowcean, a novel framework designed to automate the generation of models through data-driven learning that focuses on modularity and usability. By offering various learning strategies, data processing methods, and evaluation metrics, our framework provides a comprehensive solution, tailored to CPS scenarios. Flowcean facilitates the integration of diverse learning libraries and tools within a modular and flexible architecture, ensuring adaptability to a wide range of modeling tasks. This streamlines the process of model generation and evaluation, making it more efficient and accessible.
Problem

Research questions and friction points this paper is trying to address.

Cyber-Physical Systems
data-driven modeling
model learning
automated modeling
machine learning
Innovation

Methods, ideas, or system contributions that make the work stand out.

Flowcean
Cyber-Physical Systems
data-driven modeling
modular architecture
automated model learning
M
Maximilian Schmidt
Hamburg University of Technology, Hamburg, Germany
S
Swantje Plambeck
Hamburg University of Technology, Hamburg, Germany
M
Markus Knitt
Hamburg University of Technology, Hamburg, Germany
H
Hendrik Rose
Hamburg University of Technology, Hamburg, Germany
Goerschwin Fey
Goerschwin Fey
Hamburg University of Technology
J
Jan Christian Wieck
Fraunhofer — Center for Maritime Logistics and Services CML, Hamburg, Germany
S
Stephan Balduin
OFFIS — Institute for Information Technology, Oldenburg, Germany