Archives of Acoustics, 44, 1, pp. 71–78, 2019

Low-Frequency Noise Attenuation in a Closed Space Using Adaptive Directivity Control Sources of a Quadrupole Type

Aristotle University of Thessaloniki

Aristotle University of Thessaloniki

Aristotle University of Thessaloniki

A novel method of active noise control using adaptive radiation sound sources is investigated. A finite element model of a modal enclosed sound field is excited harmonically, representing a noise field in the low-frequency range. The control sources are comprised of elementary dipole sources for which the driving signals are adjusted by an optimization method. Two set-up cases of the proposed compound sources are investigated. The coupling of the control sources with the modal sound field is discussed. The simulated performance of the proposed method is compared with that of a system with distributed simple sources and the results show the effectiveness of the sources with adaptive radiation for active noise control in small enclosures.
Keywords: modal field; noise control; adaptive radiation sources
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Adby P.R., Dempster M.A.H. (1982), Introduction to optimization methods, Chapman and Hall, London.

Beranek L.L. (1996), Acoustics, Acoustical Society of America, New York, pp. 91–101.

Bolton J.S., Gardner B.K., Beauvilain T.A. (1995), Sound cancellation by the use of secondary multipoles, Journal of Acoustical Society of America, 98, 2343–2362.

Boodoo S., Paurobally R., Bissessur Y. (2015), A review of the effect of reflective surfaces on power output of sound sources and on actively created quiet zones, Acta Acustica united with Acustica, 101, 877–891.

Borwick J. (2001), Loudspeakers and headphone handbook, 3rd Edition, pp. 342–359, Butterworth & Co., Oxford.

Bullmore A.J., Nelson P.A., Curtis A.R.D., Elliott S.J. (1987), The active minimization of harmonic closed sound fields. Part II: A computer simulation, Journal of Sound and Vibration, 117, 1, 15–33.

Concha-Barrientos M., Campbell-Lendrum D., Steenland K. (2004), Occupational noise: Assessing the burden of disease from work-related hearing impairment at national and local levels, WHO Environmental Burden of Disease Series, 9, Geneva.

Czyżewski A., Kotus J., Kostek B. (2007), Determining the noise impact on hearing using psychoacoustical noise dosimeter, Archives of Acoustics, 32, 2, 215–229.

Ferekidis C., Kempe U. (1996), Room mode excitation of dipolar and monopolar low frequency sources, AES 100th Convention, Copenhagen.

Giouvanakis M., Sevastiadis C., Papanikolaou G. (2016), Simulation of active low–frequency noise control in small enclosed spaces using adaptive directivity compound sound sources, Proceedings of 8th Acoustic Conference, pp. 365–371, Athens.

Hill A.J., Hawksford M.O.J. (2010), Chameleon subwoofer arrays – Generalized theory of vectored sources in a closed acoustic space, AES 128th Convention, London.

Istvan L.V., Beranek L.L. (2006), Noise and vibration control engineering Principles and applications, 2nd edition, pp. 145–150, John Wiley & Sons, New Jersey.

Kido K. (1991), The technologies for active noise control, Journal of the Acoustical Society of Japan (E), 12, 6.

Kotus J., Kostek B. (2008), The noise-induced harmful effect assessment based on the properties of the human hearing system, Archives of Acoustics, 33, 4, 435–440.

Kozień M.S., Wiciak J. (2008), Reduction of structural noise inside crane cage by piezoelectric actuators – FEM Simulation, Archives of Acoustics, 33, 4, 643–652.

Lueg P. (1936), Process of silencing sound oscillations, US Patent 2043416.

Mingsian R.B., Sernshen C. (1996), Active noise control of closed harmonic fields by using BEM-based optimization techniques, Applied Acoustics, 48, 1, 15–32.

Młyński R., Kozłowski E., Adamczyk J. (2014), Assessment of impulse noise hazard and the use of hearing protection devices in workplaces where forging hammers are used, Archives of Acoustics, 39, 1, 73–79.

Nelson P.A., Curtis A.R.D., Elliott S.J., Bullmore A.J. (1987), The active minimization of harmonic closed sound fields. Part I: Theory, Journal of Sound and Vibration, 117, 1, 1–13.

Norton M.P., Karczub D.G. (2003), Fundamentals of noise and vibration analysis for engineers, 2nd edition, pp.162–164, Cambridge University Press, Cambridge.

Olson H.F. (1973), Gradient loudspeakers, Journal of Audio Engineering Society, 21, 2, 86–93.

Pawlaczyk-Łuszczyńska M., Dudarewicz A., Waszkowska M., Szymczak W., Kameduła M., Śliwińska-Kowalska M. (2004), Does low frequency noise affect human mental performance?, Archives of Acoustics, 2, 205–218.

Persson Waye K. (2011), Noise and health – Effects of low frequency noise and vibrations: Environmental and occupational perspectives, Encyclopedia of environmental health, 4, 240–253.

Prezelj J., Čudina M. (2007), Dipole in orthogonal direction as a secondary source for active noise control in ducts, Acta Acustica united with Acustica, 93, 63–72.

Qiu X., Hansen C.H. (2000), Secondary acoustic source types for active noise control in free field: monopoles or multipoles?, Journal of Sound and Vibration, 232, 5, 1005–1009.

Russell D.A., Titlow J.P., Bemmen Y.J. (1999), Acoustic monopoles, dipoles, and quadrupoles: An experiment revisited, American Journal of Physics, 67, 8, 660–664.

Sevastiadis C., Giouvanakis M., Papanikolaou G. (2014), Low-frequency sound field simulations in open and closed space, created by adaptive directivity compound sound sources, using the FEM, Proceedings of 7th National Conferecne Acoustics, pp. 379–386, Thessaloniki.

Shehap A.M., Shawky H.A., El-Basheer T.M. (2016), Study and assessment of low frequency noise in occupational settings, Archives of Acoustics, 41, 1, 151–160.

Stanef D.A., Hansen C.H., Morgans R.C. (2004), Active control analysis of mining vehicle cabin noise using finite element modelling, Journal of Sound and Vibration, 277, 1–2, 277–297.

Weisong C., Hongjie P., Xiaojun Q. (2010), A compound secondary source for active noise radiation control, Applied Acoustics, 71, 101–106.

Wrona S., Pawelczyk M. (2016), Feedforward control of a light-weight device casing for active noise reduction, Archives of Acoustics, 41, 3, 499–505.

Žiaran S., Chlebo O. (2016), Noise control transmission methods of the combustion engine by means of reduction of the vibration, Archives of Acoustics, 41, 2, 277–284.

DOI: 10.24425/aoa.2019.126353