Sandrine Fauqueux
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Sandrine Fauqueux has a total of 6 co-authors. Here are the top co-authors by number of shared publications:
Cyril Polacsek
Institut Polytechnique de Paris
1 shared publicationJacky Mardjono
Safran Aircraft Engines
1 shared publicationMaxime Descamps
Safran Aircraft Engines
1 shared publication- Vincent Daydé-Thomas
Safran Aircraft Engines
1 shared publication - Vincent Mons
DAAA, ONERA, Institut Polytechnique de Paris, Meudon, France
1 shared publication - Xavier Gloerfelt
Arts et Métiers ParisTech
1 shared publication
Latest Publications
- 12 February 2026
- Published by American Institute of Aeronautics and Astronautics (AIAA) in AIAA Journal
- p. 1-14
Open-Fan Noise Characterization Using Source-Mode-Formulation-Based Microphone Array Processing
This study presents the development of a tone noise model dedicated to an open-fan engine. The model is intended for implementation in microphone array techniques to better characterize the dominant sources in wind tunnel experiments and to segregate rotor and stator contributions. It is based on Goldstein’s formulation written in the frequency domain. A decomposition into angular modes through equivalent fixed phase-shifted sources is proposed. The predicted sound field takes into account different contributions investigated in this study: thickness noise, steady and unsteady loading noise (from rotor and stator) in advancing flight configurations, and near-field effects. The unsteady loading harmonics were obtained from unsteady aerodynamic computations. Initial predictions were compared with reference solutions from a time-domain solver at multiple operating points. A drastic reduction in the number of sources through compactness was investigated, with compactness forms adjusted to ensure acceptable discrepancies with previous reliable solutions. The selected compact source-mode propagation model was then used as a steering function in standard array processing tools. Finally, a preliminary validation of the array processing using a deconvolution algorithm and a numerically based cross-spectral matrix with correlated sources is presented.
- 12 February 2026
- Published by American Institute of Aeronautics and Astronautics (AIAA) in AIAA Journal
- p. 1-14
Open-Fan Noise Characterization Using Source-Mode-Formulation-Based Microphone Array Processing
This study presents the development of a tone noise model dedicated to an open-fan engine. The model is intended for implementation in microphone array techniques to better characterize the dominant sources in wind tunnel experiments and to segregate rotor and stator contributions. It is based on Goldstein’s formulation written in the frequency domain. A decomposition into angular modes through equivalent fixed phase-shifted sources is proposed. The predicted sound field takes into account different contributions investigated in this study: thickness noise, steady and unsteady loading noise (from rotor and stator) in advancing flight configurations, and near-field effects. The unsteady loading harmonics were obtained from unsteady aerodynamic computations. Initial predictions were compared with reference solutions from a time-domain solver at multiple operating points. A drastic reduction in the number of sources through compactness was investigated, with compactness forms adjusted to ensure acceptable discrepancies with previous reliable solutions. The selected compact source-mode propagation model was then used as a steering function in standard array processing tools. Finally, a preliminary validation of the array processing using a deconvolution algorithm and a numerically based cross-spectral matrix with correlated sources is presented.
- Open Access
- 5 August 2025
- Published by Elsevier in Journal of Sound and Vibration
- Vol. 618
Microphone array design for the modal analysis of in-duct broadband noise
- 5 August 2025
- Published by Elsevier in Journal of Sound and Vibration
- Vol. 618
Open AccessMicrophone array design for the modal analysis of in-duct broadband noise