Numerical simulation of tonal fan noise of computers and air conditioning systems

Current approaches to fan noise simulation are mainly based on the Lighthill equation and socalled aeroacoustic analogy, which are also based on the transformed Lighthill equation, such as the wellknown FW-H equation or the Kirchhoff theorem. A disadvantage of such methods leading to significant mod...

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Veröffentlicht in:Acoustical physics 2016-07, Vol.62 (4), p.447-455
Hauptverfasser: Aksenov, A. A., Gavrilyuk, V. N., Timushev, S. F.
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Gavrilyuk, V. N.
Timushev, S. F.
description Current approaches to fan noise simulation are mainly based on the Lighthill equation and socalled aeroacoustic analogy, which are also based on the transformed Lighthill equation, such as the wellknown FW-H equation or the Kirchhoff theorem. A disadvantage of such methods leading to significant modeling errors is associated with incorrect solution of the decomposition problem, i.e., separation of acoustic and vortex (pseudosound) modes in the area of the oscillation source. In this paper, we propose a method for tonal noise simulation based on the mesh solution of the Helmholtz equation for the Fourier transform of pressure perturbation with boundary conditions in the form of the complex impedance. A noise source is placed on the surface surrounding each fan rotor. The acoustic fan power is determined by the acoustic-vortex method, which ensures more accurate decomposition and determination of the pressure pulsation amplitudes in the near field of the fan.
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subjects Acoustic noise
Acoustics
Air conditioning
Atmospheric and Aeroacoustics
Computer simulation
Decomposition
Mathematical analysis
Mathematical models
Noise
Physics
Physics and Astronomy
Theorems
title Numerical simulation of tonal fan noise of computers and air conditioning systems
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