Turbulence-Induced Acoustic Emission of SCUBA Breathing Apparatus

Turbulence-Induced Acoustic Emission of SCUBA Breathing Apparatus

Our initial study, [1], demonstrated that the primary originating source of vibration and subsequent acoustic emission from an underwater breathing apparatus is turbulent air flow pressure fluctuations occurring during the inhale phase of breathing. The process of energy release associated with the...

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Hauptverfasser: Donskoy, D, Imas, L, Yen, T, Sedunov, N, Tsionskiy, M, Sedunov, A
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Imas, L
Yen, T
Sedunov, N
Tsionskiy, M
Sedunov, A
description Our initial study, [1], demonstrated that the primary originating source of vibration and subsequent acoustic emission from an underwater breathing apparatus is turbulent air flow pressure fluctuations occurring during the inhale phase of breathing. The process of energy release associated with the expansion of compressed air in the high pressure scuba tank, through the first stage regulator, results in a highly turbulent, unsteady, compressible air flow. The paper presents results of experimental investigation and fluid dynamic simulation of turbulence-induced acoustic emission. The simulation reveals complex supersonic flow within the regulator's valve and channel topology. The associated regulator's air turbulent pressure pulsations and underwater acoustic emission are observed in a broadband frequency range.
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title Turbulence-Induced Acoustic Emission of SCUBA Breathing Apparatus
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