Abstract
The experimental study of a structure’s response to a turbulent boundary layer (TBL) excitation using wind-tunnel or in-vehicle testing generally requires considerable efforts, including the measurement of both turbulent wall-pressure fluctuations and the structure’s vibration response. As an alternative method to highly demanding testing procedures and numerical simulations, this paper proposes a computationally efficient method to predict vibroacoustic responses of a panel under a TBL excitation. Space-time realizations of a TBL wall pressure field obtained using a spectral synthesis approach are coupled to a deterministic model so as to predict mean quadratic velocity, and radiated sound pressure and power from a panel under a TBL excitation. Each realization of the wall pressure field and obtained vibroacoustic results can be considered as a virtual experiment. The radiated sound pressure as a function of time can be also obtained, and possibly later used for listening and psychoacoustics studies objectives. A summary of existing experimental and numerical methods for obtaining the vibroacoustic response of panels to a TBL excitation is first presented. The proposed method is then detailed. Results obtained using this method are finally compared to results obtained using controlled laboratory experiments and analytical calculations for a low subsonic flow speed.
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Acknowledgements
This work was performed within the framework of the Labex CeLyA of “Université de Lyon” (ANR-10-LABX-0060/ANR-11-IDEX-0007) and of the VIRTECH project (ANR-17-CE10-0012), operated by the French National Research Agency. The support of “International Research Project—Centre Acoustique Jacques Cartier” (supported by the French National Research Agency) is also acknowledged. Finally, the authors thank Pierre Chainais for his fruitful suggestions that rooted this work.
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Robin, O., Pachebat, M., Totaro, N., Berry, A. (2021). Vibroacoustic Testing of Panels Under a Turbulent Boundary Layer Excitation Using a Space-Time Spectral Synthesis Approach. In: Ciappi, E., et al. Flinovia—Flow Induced Noise and Vibration Issues and Aspects-III. FLINOVIA 2019. Springer, Cham. https://doi.org/10.1007/978-3-030-64807-7_5
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