Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise

Numerical models of underwater sound propagation predict the energy of impulsive signals and its decay with range with a better accuracy than the peak pressure. A semi-empirical formula is suggested to predict the peak pressure of man-made impulsive signals based on numerical predictions of their en...

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Main Authors: Lippert, T., Galindo-Romero, M., Gavrilov, Alexander, Von Estorff, O.
Format: Journal Article
Published: 2015
Online Access:http://hdl.handle.net/20.500.11937/13982
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author Lippert, T.
Galindo-Romero, M.
Gavrilov, Alexander
Von Estorff, O.
author_facet Lippert, T.
Galindo-Romero, M.
Gavrilov, Alexander
Von Estorff, O.
author_sort Lippert, T.
building Curtin Institutional Repository
collection Online Access
description Numerical models of underwater sound propagation predict the energy of impulsive signals and its decay with range with a better accuracy than the peak pressure. A semi-empirical formula is suggested to predict the peak pressure of man-made impulsive signals based on numerical predictions of their energy. The approach discussed by Galindo-Romero, Lippert, and Gavrilov [J. Acoust. Soc. Am. 138, in press (2015)] for airgun signals is modified to predict the peak pressure from offshore pile driving, which accounts for impact and pile parameters. It is shown that using the modified empirical formula provides more accurate predictions of the peak pressure than direct numerical simulations of the signal waveform.
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institution Curtin University Malaysia
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last_indexed 2025-11-14T07:05:58Z
publishDate 2015
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spelling curtin-20.500.11937-139822017-10-02T02:28:10Z Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise Lippert, T. Galindo-Romero, M. Gavrilov, Alexander Von Estorff, O. Numerical models of underwater sound propagation predict the energy of impulsive signals and its decay with range with a better accuracy than the peak pressure. A semi-empirical formula is suggested to predict the peak pressure of man-made impulsive signals based on numerical predictions of their energy. The approach discussed by Galindo-Romero, Lippert, and Gavrilov [J. Acoust. Soc. Am. 138, in press (2015)] for airgun signals is modified to predict the peak pressure from offshore pile driving, which accounts for impact and pile parameters. It is shown that using the modified empirical formula provides more accurate predictions of the peak pressure than direct numerical simulations of the signal waveform. 2015 Journal Article http://hdl.handle.net/20.500.11937/13982 10.1121/1.4929742 fulltext
spellingShingle Lippert, T.
Galindo-Romero, M.
Gavrilov, Alexander
Von Estorff, O.
Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title_full Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title_fullStr Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title_full_unstemmed Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title_short Empirical estimation of peak pressure level from sound exposure level. Part II: Offshore impact pile driving noise
title_sort empirical estimation of peak pressure level from sound exposure level. part ii: offshore impact pile driving noise
url http://hdl.handle.net/20.500.11937/13982