Prediction of submarine scattered noise by the acoustic analogy

The prediction of the noise scattered by a submarine subject to the propeller tonal noise is here addressed through a non-standard frequency-domain formulation that extends the use of the acoustic analogy to scattering problems. A boundary element method yields the scattered pressure upon the hull s...

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Published inJournal of sound and vibration Vol. 426; pp. 186 - 218
Main Authors Testa, C., Greco, L.
Format Journal Article
LanguageEnglish
Published Amsterdam Elsevier Ltd 21.07.2018
Elsevier Science Ltd
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ISSN0022-460X
1095-8568
DOI10.1016/j.jsv.2018.04.011

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Abstract The prediction of the noise scattered by a submarine subject to the propeller tonal noise is here addressed through a non-standard frequency-domain formulation that extends the use of the acoustic analogy to scattering problems. A boundary element method yields the scattered pressure upon the hull surface by the solution of a boundary integral equation, whereas the noise radiated in the fluid domain is evaluated by the corresponding boundary integral representation. Propeller-induced incident pressure field on the scatterer is detected by combining an unsteady three-dimensional panel method with the Bernoulli equation. For each frequency of interest, numerical results concern with sound pressure levels upon the hull and in the flowfield. The validity of the results is established by a comparison with a time-marching hydrodynamic panel method that solves propeller and hull jointly. Within the framework of potential-flow hydrodynamics, it is found out that the scattering formulation herein proposed is appropriate to successfully capture noise magnitude and directivity both on the hull surface and in the flowfield, yielding a computationally efficient solution procedure that may be useful in preliminary design/multidisciplinary optimization applications. •A nonstandard frequency-domain scattering formulation is applied.•It is suitable for the analysis of propeller tonal noise scattered by moving bodies.•It allows a detailed view of submarine-propeller sound radiation mechanism.•It is validated against numerical hydrodynamic results of the whole configuration.•It is fast and accurate, thus useful for multidisciplinary/optimization purposes.
AbstractList The prediction of the noise scattered by a submarine subject to the propeller tonal noise is here addressed through a non-standard frequency-domain formulation that extends the use of the acoustic analogy to scattering problems. A boundary element method yields the scattered pressure upon the hull surface by the solution of a boundary integral equation, whereas the noise radiated in the fluid domain is evaluated by the corresponding boundary integral representation. Propeller-induced incident pressure field on the scatterer is detected by combining an unsteady three-dimensional panel method with the Bernoulli equation. For each frequency of interest, numerical results concern with sound pressure levels upon the hull and in the flowfield. The validity of the results is established by a comparison with a time-marching hydrodynamic panel method that solves propeller and hull jointly. Within the framework of potential-flow hydrodynamics, it is found out that the scattering formulation herein proposed is appropriate to successfully capture noise magnitude and directivity both on the hull surface and in the flowfield, yielding a computationally efficient solution procedure that may be useful in preliminary design/multidisciplinary optimization applications.
The prediction of the noise scattered by a submarine subject to the propeller tonal noise is here addressed through a non-standard frequency-domain formulation that extends the use of the acoustic analogy to scattering problems. A boundary element method yields the scattered pressure upon the hull surface by the solution of a boundary integral equation, whereas the noise radiated in the fluid domain is evaluated by the corresponding boundary integral representation. Propeller-induced incident pressure field on the scatterer is detected by combining an unsteady three-dimensional panel method with the Bernoulli equation. For each frequency of interest, numerical results concern with sound pressure levels upon the hull and in the flowfield. The validity of the results is established by a comparison with a time-marching hydrodynamic panel method that solves propeller and hull jointly. Within the framework of potential-flow hydrodynamics, it is found out that the scattering formulation herein proposed is appropriate to successfully capture noise magnitude and directivity both on the hull surface and in the flowfield, yielding a computationally efficient solution procedure that may be useful in preliminary design/multidisciplinary optimization applications. •A nonstandard frequency-domain scattering formulation is applied.•It is suitable for the analysis of propeller tonal noise scattered by moving bodies.•It allows a detailed view of submarine-propeller sound radiation mechanism.•It is validated against numerical hydrodynamic results of the whole configuration.•It is fast and accurate, thus useful for multidisciplinary/optimization purposes.
Author Greco, L.
Testa, C.
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Keywords Underwater noise
Acoustic analogy
Sound scattering
Language English
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Snippet The prediction of the noise scattered by a submarine subject to the propeller tonal noise is here addressed through a non-standard frequency-domain formulation...
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StartPage 186
SubjectTerms Acoustic analogy
Acoustic noise
Acoustics
Boundary element method
Computational fluid dynamics
Design optimization
Fluid flow
Hydrodynamics
Integral equations
Noise
Noise control
Noise prediction
Panel method (fluid dynamics)
Preliminary designs
Scattering
Sound pressure
Sound scattering
Submarines
Underwater noise
Vibration analysis
Title Prediction of submarine scattered noise by the acoustic analogy
URI https://dx.doi.org/10.1016/j.jsv.2018.04.011
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