Project Details
Description
The goal of this project is to develop simple models of complex systems using data-driven modelling techniques.
In practice, everything in thermodynamics and fluid mechanics is to some extent unsteady, turbulent, and/or nonlinear. FLOW has developed a strong expertise in using high-fidelity numerical and experimental techniques to study these complex phenomena. However, high-fidelity techniques are often too computationally expensive for crucial engineering applications such as control or optimisation. Presently, low-fidelity alternatives exist, but these are often too strongly simplified to include the relevant unsteadiness, nonlinearity or turbulent nature of thermal-fluid systems.
Therefore, we need simplified models that include the complexity (nonlinearity, turbulence, unsteadiness) that is required for the application, but that are still computationally fast enough.
The main strategic objective of the applicants is to develop a methodology that allows the construction of such simplified models. This methodology will first be developed specifically for the thermal-fluid applications that are currently in the area of expertise of the applicants. This will strengthen the collaborations and interactions within the FLOW team and create new interdisciplinary research opportunities in the strategically-important area of sustainable energy production.
In practice, everything in thermodynamics and fluid mechanics is to some extent unsteady, turbulent, and/or nonlinear. FLOW has developed a strong expertise in using high-fidelity numerical and experimental techniques to study these complex phenomena. However, high-fidelity techniques are often too computationally expensive for crucial engineering applications such as control or optimisation. Presently, low-fidelity alternatives exist, but these are often too strongly simplified to include the relevant unsteadiness, nonlinearity or turbulent nature of thermal-fluid systems.
Therefore, we need simplified models that include the complexity (nonlinearity, turbulence, unsteadiness) that is required for the application, but that are still computationally fast enough.
The main strategic objective of the applicants is to develop a methodology that allows the construction of such simplified models. This methodology will first be developed specifically for the thermal-fluid applications that are currently in the area of expertise of the applicants. This will strengthen the collaborations and interactions within the FLOW team and create new interdisciplinary research opportunities in the strategically-important area of sustainable energy production.
| Acronym | SRP60 |
|---|---|
| Status | Finished |
| Effective start/end date | 1/03/19 → 29/02/24 |
Keywords
- modelling
- ...
Flemish discipline codes in use since 2023
- Other engineering and technology not elsewhere classified
Fingerprint
Explore the research topics touched on by this project. These labels are generated based on the underlying awards/grants. Together they form a unique fingerprint.
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Dynamic stall mitigation of a pitching aerofoil using a data-driven model
Damiola, L., Decuyper, J., Runacres, M. & De Troyer, T., 30 Mar 2026, In: Computers & Fluids. 308, 11 p., 106986.Research output: Contribution to journal › Article › peer-review
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Unsteady aerofoil aerodynamics: Flow physics and data-driven modelling
Damiola, L., 2025, 236 p.Research output: Thesis › PhD Thesis
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A Nonparametric Regularization for Spectrum Estimation of Time-Varying Output-Only Measurements
Csurcsia, P. Z., Ajmal, M. & De Troyer, T., Feb 2024, In: Vibration. 7, 1, p. 161-176 16 p.Research output: Contribution to journal › Article › peer-review
Open AccessFile1 Citation (Scopus)20 Downloads (Pure)
Datasets
Activities
- 2 Talk or presentation at a conference
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On the identification of a wake-oscillator model from forced-motion wind tunnel experiments
De Troyer, T. (Speaker), Andrianne, T. (Contributor), Runacres, M. (Contributor) & Denoël, V. (Contributor)
28 Aug 2023Activity: Talk or presentation › Talk or presentation at a conference
File -
A novel machine-learning based lumping approach for the reduction of large kinetics mechanism for plasma-assisted combustion applications
Bellemans, A. (Contributor)
26 Apr 2023 → 28 Apr 2023Activity: Talk or presentation › Talk or presentation at a conference