In situ transfer function technique for the assessment of the acoustic absorption of materials in buildings

Applied Acoustics

Volumn 62, Issue 5, 2001, Pages 555-572

  Dutilleux, Guillaume ^a,c   Vigran, Tor Erik ^b   Kristiansen, Ulf R ^b  

^a UNIVERSITÉ DE LYON   (France)

^b NORWEGIAN UNIVERSITY OF SCIENCE AND TECHNOLOGY   (Norway)

^c Laboratoire Regional des Ponts et Chaussees de Strasbourg   (France)

Author keywords

[No Author keywords available]

Indexed keywords

BUILDINGS; CONFORMAL MAPPING; MICROPHONES; TRANSDUCERS; TRANSFER FUNCTIONS;

NOISE-IMMUNE ACQUISITION TECHNIQUE;

ACOUSTIC WAVE ABSORPTION;

EID: 0035342512     PISSN: 0003682X     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0003-682X(00)00048-7     Document Type: Article

References (33)

1. ASTM E 1050-85a. Test method for impedance and absorption of acoustical materials using a tube, two microphones, and a digital frequency analysis system, Philadelphia, USA, August 1985.
2. ISO 354. Acoustics-measurement of sound absorption in a reverberation room, Geneve, Switzerland, 1985.
3. ASTM C 384-385. Standard test method for impedance and absorption of acoustical material by the impedance tube method, May 1985.
4. J.F. Allard A. Aknine Acoustical measurements with a sound intensity meter Appl Acoust 18 1985 69 75
5. J.F. Allard Y. Champoux In situ two-microphone technique for the measurement of the acoustic surface impedance of materials Noise Con Eng J. 32 1 1989 15 23
6. J.Y. Chung D.A. Blaser Transfer function method of measuring in-duct acoustic properties. I. theory J Acoust Soc Am 68 3 1980 907 913
7. A.J. Cramond C.G. Don Reflection of impulses as a method of determining the acoustic impedance J Acoust Soc Am 75 2 1984 382 389
8. A.J. Cramond C.G. Don Soil impedance measurement by an acoustic pulse technique J Acoust Soc Am 77 4 1985 1601 1609
9. L. Cremer H.A. Muller Principles and applications of room acoustics I 1982 Applied Science Publishers London p. 651.
10. J.C. Davies K.A. Mulholland An impulse method of measuring normal impedance at oblique incidence J Sound Vib 67 1979 135 149
11. Dutilleux, G. Mesure in situ de l'absorption acoustique des matériaux dans le bâtiment. PhD thesis, INSA de Lyon, 1999. 318 p. Available from internet: 〈URL: http://csidoc.insa-lyon.fr/these/1999/dutilleux/index.html〉.
12. Dutilleux G, Kristiansen UR, Sgard F. Assessment of the in situ acoustic absorption of materials at arbitrarily low frequencies in rooms: a global approach using evolution strategy. Submitted to International Journal of Numerical Methods in Engineering, 2000.
13. M. Garai Measurement of the sound absorption coefficient in situ, the reflexion method using periodic pseudo random sequences of maximum length Applied Acoustics 39 1993 119 139
14. D. Habault D. Corsain Identification of the acoustical properties of a ground surface J Sound Vib 100 2 1985 169 180
15. F.J. Harris On the use of windows for harmonic analysis with the discrete fourier tranform Proc. IEEE 66 1 1978 51 83
16. R. Hazebrouck Mesure de l'impédance acoustique et du coefficient d'⊙rption d'un revetement par une méthode de filtrage temporel Revue d'acoustique 56 1981 4 10
17. Holslaw C. Preliminary measurement for determining absorption and transmission characteristics utilizing TDS. In: Proc. Noise Con 85, Colombus, 1985. p. 99–106.
18. U. Ingård R.H. Bolt Free field method of measuring the absorption coefficient of acoustic materials J Acoust Soc Am 23 5 1951 509 516
19. Z. Kintsl Investigation of the sound absorption of wall sections by a pulse technique Soviet Physics Acoustics 21 1 1975 30 32
20. H. Kuttruff Room acoustics 3rd ed. 1991 Elsevier Applied Science London (p. 329)
21. Le Louer P, Engler G, Nemerlin J, Tran QH. Measuring the absorption factor of materials in industrial shops by TDS and impulse methods. In: Proceedings inter-noise 93, 1993. p. 1551–4.
22. Lundeby, A. Freecrc. Trondheim, SINTEF internal research note, 1995.
23. A. Lundeby T.E. Vigran H. Bietz M. Vorländer Uncertainties of measurements in room acoustics Acustica 81 1995 344 355
24. Lundeby A, Vigran, TE, Sørsdal S. A versatile 2-channel MLS measuring system. In: proc. ICA 95, volume IV, Trondheim, 1995. p. 171–4.
25. E. Mommertz Angle dependant in situ measurement of the complex reflection coefficient using a subtraction technique Appl Acoust 46 1995 251 263
26. F. Nocke V. Mellert T. Waters-Fuller K. Attenborough K.M. Li Impedance deduction from broad-band, point-source measurements at grazing incidence Acta Acustica 83 1997 1085 1090
27. Taherzadeh S, Attenborough K. Deduction of ground impedance from measurements of excess attenuation spectra. J Acoust Soc Am 2039-;105(3).
28. M. Tamura Spatial Fourier transform method of measuring reflection coefficients at oblique incidence. I theory and numerical examples J Acoust Soc Am 88 5 1990 2259 2264
29. M. Tamura J.F. Allard D. Lafarge Spatial Fourier transform method for measuring reflexion coefficients at oblique incidence. II experimental results J Acoust Soc Am 97 4 1995 2255 2262
30. F. Spandöck Experimentelle Untersuchung der akustischen Eigenschaften von Baustoffen durch die Kurztonmethode Annalen der Physik 5 20 1934 328 344
31. U. Wilms R. Heinz In situ Messung komplexer Reflexionsfaktoren von Wandflächen Acustica 75 1991 28 39
32. Wunsch AD. Complex variables with applications 2nd ed. Addison Wesley, 1994 (p. 622).
33. M. Yusawa A method of obtaining the oblique incident reflexion coefficient through an on the spot measurement Applied Acoustics 8 1975 27 41