Data-Driven Reduced-Complexity Modeling of Fluid Flows: A Community Challenge

We introduce a community challenge designed to facilitate direct comparisons between data-driven methods for compression, forecasting, and sensing of complex aerospace flows. The challenge is organized into three tracks that target these complementary capabilities: compression (compact representations for large datasets), forecasting (predicting future flow states from a finite history), and sensing (inferring unmeasured flow states from limited measurements). Across these tracks, multiple challenges span diverse flow datasets and use cases, each emphasizing different model requirements. The challenge is open to anyone, and we invite broad participation to build a comprehensive and balanced picture of what works and where current methods fall short. To support fair comparisons, we provide standardized success metrics, evaluation tools, and baseline implementations, with one classical and one machine-learning baseline per challenge. Final assessments use blind tests on withheld data. We explicitly encourage negative results and careful analyses of limitations. Outcomes will be disseminated through an AIAA Journal Virtual Collection and invited presentations at AIAA conferences.

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Publication Details

Journal
AIAA Journal
Published
2026-10-14
DOI
https://doi.org/10.2514/1.j066928
Primary Topic
Model Reduction and Neural Networks
Type
article
Field-Weighted Citation Impact
0.00

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article

Data-Driven Reduced-Complexity Modeling of Fluid Flows: A Community Challenge

Aaron Towne, Ricardo Vinuesa, Oliver T. Schmidt, Adrián Lozano-Duran et al.
AIAA Journal
Model Reduction and Neural Networks
article

Data-Driven Reduced-Complexity Modeling of Fluid Flows: A Community Challenge

Aaron Towne, Ricardo Vinuesa, Oliver T. Schmidt, Adrián Lozano-Duran, Scott T. M. Dawson
article en

Abstract

We introduce a community challenge designed to facilitate direct comparisons between data-driven methods for compression, forecasting, and sensing of complex aerospace flows. The challenge is organized into three tracks that target these complementary capabilities: compression (compact representations for large datasets), forecasting (predicting future flow states from a finite history), and sensing (inferring unmeasured flow states from limited measurements). Across these tracks, multiple challenges span diverse flow datasets and use cases, each emphasizing different model requirements. The challenge is open to anyone, and we invite broad participation to build a comprehensive and balanced picture of what works and where current methods fall short. To support fair comparisons, we provide standardized success metrics, evaluation tools, and baseline implementations, with one classical and one machine-learning baseline per challenge. Final assessments use blind tests on withheld data. We explicitly encourage negative results and careful analyses of limitations. Outcomes will be disseminated through an AIAA Journal Virtual Collection and invited presentations at AIAA conferences.

AIAA Journal
California Institute of Technology (US), Illinois Institute of Technology (US), University of Michigan (US), University of California San Diego (US)
Aeronautics Research Mission Directorate, Office of Naval Research, Division of Chemical, Bioengineering, Environmental, and Transport Systems, Basic Energy Sciences, Air Force Office of Scientific Research
Openalex Percentile: Top 95%
Model Reduction and Neural Networks
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