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2013 | OriginalPaper | Buchkapitel

The Auditory Modeling Toolbox

verfasst von : P. L. Søndergaard, P. Majdak

Erschienen in: The Technology of Binaural Listening

Verlag: Springer Berlin Heidelberg

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Abstract

The Auditory Modeling Toolbox, AMToolbox, is a Matlab/Octave toolbox for developing and applying auditory perceptual models with a particular focus on binaural models. The philosophy behind the AMToolbox is the consistent implementation of auditory models, good documentation, and user-friendly access in order to allow students and researchers to work with and to advance existing models. In addition to providing the model implementations, published human data and model demonstrations are provided. Further, model implementations can be evaluated by running so-called experiments aimed at reproducing results from the corresponding publications. AMToolbox includes many of the models described in this volume. It is freely available from http://amtoolbox.sourceforge.net

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Vorheriges Kapitel An Introduction to Binaural Processing

Nächstes Kapitel Trends in Acquisition of Individual Head-Related Transfer Functions

Much of the cooperation on the AMToolbox takes place within the framework of the AabbA group, an open group of scientist dealing with aural assessment by means of binaural algorithms.

http://www.gnu.org/licenses/gpl.html, last viewed on 9.1.2013.

http://sourceforge.net/projects/amtoolbox, last viewed on 9.1.2013.

http://www.mathworks.de/products/matlab/ last viewed on 9.1.2013.

http://www.gnu.org/software/octave/, last viewed on 9.1.2013.

http://git-scm.com/, last viewed on 11.1.2013.

http://amtoolbox.sourceforge.net/notes/amtnote003.pdf, last viewed on 9.1.2013.

The current up-to-date status of the AMToolbox can be found under http://amtoolbox.sourceforge.net/notes/amtnote006.pdf, last viewed on 14.2.2013.

http://www.gnu.org/philosophy/free-sw.html, last viewed on 9.1.2013.

from http://amtoolbox.sourceforge.net, last viewed on 9.1.2013.

see http://amtoolbox.sourceforge.net/doc/ last viewed on 9.1.2013.

see http://amtoolbox.sourceforge.net/notes/amtnote006.pdf, last viewed on 9.1.2013.

American National Standards Institute, New York. Methods for calculation of the speech intelligibility index, ANSI S3.5-1997 edition, 1997.

C. Antweiler, A. Telle, P. Vary, and G. Enzner. Perfect-Sweep NLMS for Time-Variant Acoustic System Identification. In Proc. Intl. Conf. Acoustics, Speech, and Signal Processing, ICASSP, pages 517–529, Kyoto, Japan, 2012.

R. Baumgartner, P. Majdak, and B. Laback. Assessment of sagittal-plane sound-localization performance in spatial-audio applications. In J. Blauert, editor, The technology of binaural listening, chapter 4. Springer, Berlin-Heidelberg-New York NY, 2013.

R. A. Bentler and C. V. Pavlovic. Transfer Functions and Correction Factors used in Hearing Aid Evaluation and Research. Ear Hear, 10:58–63, 1989.

L. Bernstein, S. van de Par, and C. Trahiotis. The normalized interaural correlation: Accounting for NoS\(\pi \) thresholds obtained with Gaussian and “low-noise” masking noise. J Acoust Soc Am, 106:870–876, 1999.

J. Breebaart, S. van de Par, and A. Kohlrausch. Binaural processing model based on contralateral inhibition. I. Model structure. J Acoust Soc Am, 110:1074–1088, 2001.

J. Breebaart, S. van de Par, and A. Kohlrausch. Binaural processing model based on contralateral inhibition. II. Dependence on spectral parameters. J Acoust Soc Am, 110:1089–1104, 2001.

J. Breebaart, S. van de Par, and A. Kohlrausch. Binaural processing model based on contralateral inhibition. III. Dependence on temporal parameters. J Acoust Soc Am, 110:1105–1117, 2001.

J. Buckheit and D. Donoho. Wavelab and Reproducible Research, pages 55–81. Springer, New York NY, 1995.

10.

J. Claerbout. Electronic documents give reproducible research a new meaning. Expanded Abstracts, Soc Expl Geophys, 92:601–604, 1992.

11.

J. Culling. Evidence specifically favoring the equalization-cancellation theory of binaural unmasking. J Acoust Soc Am, 122:2803–2813, 2007.

12.

J. Culling, S. Jelfs, and M. Lavandier. Mapping Speech Intelligibility in Noisy Rooms. In Proc. 128th Conv. Audio Enginr. Soc. (AES), page Convention paper 8050, 2010.

13.

T. Dau, B. Kollmeier, and A. Kohlrausch. Modeling auditory processing of amplitude modulation. I. Detection and masking with narrow-band carriers. J Acoust Soc Am, 102:2892–2905, 1997.

14.

T. Dau, B. Kollmeier, and A. Kohlrausch. Modeling auditory processing of amplitude modulation. II. Spectral and temporal integration. J Acoust Soc Am, 102:2906–2919, 1997.

15.

T. Dau, D. Püschel, and A. Kohlrausch. A quantitative model of the effective signal processing in the auditory system. I. Model structure. J Acoust Soc Am, 99:3615–3622, 1996.

16.

T. Dau, D. Püschel, and A. Kohlrausch. A quantitative model of the “effective” signal processing in the auditory system. II. Simulations and measurements. J Acoust Soc Am, 99:3623–3631, 1996.

17.

M. Dietz, S. D. Ewert, and V. Hohmann. Lateralization of stimuli with independent fine-structure and envelope-based temporal disparities. J Acoust Soc Am, 125:1622–1635, 2009.

18.

M. Dietz, S. D. Ewert, and V. Hohmann. Auditory model based direction estimation of concurrent speakers from binaural signals. Speech Comm, 53:592–605, 2011.

19.

M. Dietz, S. D. Ewert, V. Hohmann, and B. Kollmeier. Coding of temporally fluctuating interaural timing disparities in a binaural processing model based on phase differences. Brain Res, 1220:234–245, 2008.

20.

F. Dubbelboer and T. Houtgast. The concept of signal-to-noise ratio in the modulation domain and speech intelligibility. J Acoust Soc Am, 124:3937–3946, 2008.

21.

N. I. Durlach. Binaural signal detection: equalization and cancellation theory. In J. V. Tobias, editor, Foundations of Modern Auditory Theory. Vol. II, pages 369–462. Academic, New York, 1972.

22.

C. Elberling, J. Callø, and M. Don. Evaluating auditory brainstem responses to different chirp stimuli at three levels of stimulation. J Acoust Soc Am, 128:215–223, 2010.

23.

G. Enzner. Analysis and optimal control of LMS-type adaptive filtering for continuous-azimuth acquisition of head related impulse responses. In Proc. Intl. Conf. Acoustics, Speech, and Signal Processing, ICASSP, pages 393–396, Las Vegas NV, 2008.

24.

G. Enzner. 3D-continuous-azimuth acquisition of head-related impulse responses using multi-channel adaptive filtering. In Proc. IEEE Worksh. Appl. of Signal Process. to Audio and Acoustics, WASPAA, pages 325–328, New Paltz NY, 2009.

25.

S. Ewert and T. Dau. Characterizing frequency selectivity for envelope fluctuations. J Acoust Soc Am, 108:1181–1196, 2000.

26.

G. Fant. Analysis and synthesis of speech processes. In B. Malmberg, editor, Manual of phonetics. North-Holland, Amsterdam, 1968.

27.

R. Fassel and D. Püschel. Modulation detection and masking using deterministic and random maskers, pages 419–429. Universitätsgesellschaft, Oldenburg, 1993.

28.

D. Gabor. Theory of communication. J IEE, 93:429–457, 1946.

29.

E. Georganti, T. May, S. van de Par, and J. Mourjopoulos. Sound source distance estimation in rooms based on statistical properties of binaural signals. IEEE Trans Audio Speech Lang Proc, submitted.

30.

E. Georganti, T. May, S. van de Par, and J. Mourjopoulos. Extracting sound-source-distance information from binaural signals. In J. Blauert, editor, The technology of binaural listening, chapter 7. Springer, Berlin-Heidelberg-New York NY, 2013.

31.

B. R. Glasberg and B. Moore. Derivation of auditory filter shapes from notched-noise data. Hear Res, 47:103–138, 1990.

32.

R. Goode, M. Killion, K. Nakamura, and S. Nishihara. New knowledge about the function of the human middle ear: development of an improved analog model. Am J Otol, 15:145–154, 1994.

33.

L. Han and T. Poulsen. Equivalent threshold sound pressure levels for Sennheiser HDA 200 earphone and Etymotic Research ER-2 insert earphone in the frequency range 125 Hz to 16 kHz. Scandinavian Audiology, 27:105–112, 1998.

34.

M. Hofman and J. Van Opstal. Binaural weighting of pinna cues in human sound localization. Exp Brain Res, 148:458–70, 2003.

35.

V. Hohmann. Frequency analysis and synthesis using a gammatone filterbank. Acta Acust./ Acustica, 88:433–442, 2002.

36.

T. Houtgast, H. Steeneken, and R. Plomp. Predicting speech intelligibility in rooms from the modulation transfer function. i. general room acoustics. Acustica, 46:60–72, 1980.

37.

ISO 226:2003. Acoustics - Normal equal-loudness-level contours. International Organization for Standardization, Geneva, Switzerland, 2003.

38.

ISO 389–2:1994(E). Acoustics - Reference zero for the calibration of audiometric equipment - Part 2: Reference equivalent threshold sound pressure levels for pure tones and insert earphones. International Organization for Standardization, Geneva, Switzerland, 1994.

39.

ISO 389–5:2006. Acoustics - Reference zero for the calibration of audiometric equipment - Part 5: Reference equivalent threshold sound pressure levels for pure tones in the frequency range 8 kHz to 16 kHz. International Organization for Standardization, Geneva, Switzerland, 2006.

40.

ISO 389–8:2004. Acoustics - Reference zero for the calibration of audiometric equipment - Part 8: Reference equivalent threshold sound pressure levels for pure tones and circumaural earphones. International Organization for Standardization, Geneva, Switzerland, 2004.

41.

L. Jeffress. A place theory of sound localization. J Comp Physiol Psych, 41:35–39, 1948.

42.

S. Jelfs, J. Culling, and M. Lavandier. Revision and validation of a binaural model for speech intelligibility in noise. Hear Res, 2011.

43.

J. Jetzt. Critical distance measurement of rooms from the sound energy spectral response. J Acoust Soc Am, 65:1204–1211, 1979.

44.

S. Jørgensen and T. Dau. Predicting speech intelligibility based on the signal-to-noise envelope power ratio after modulation-frequency selective processing. J Acoust Soc Am, 130:1475–1487, 2011.

45.

E. Langendijk and A. Bronkhorst. Contribution of spectral cues to human sound localization. J Acoust Soc Am, 112:1583–1596, 2002.

46.

M. Lavandier and J. Culling. Prediction of binaural speech intelligibility against noise in rooms. J Acoust Soc Am, 127:387–399, 2010.

47.

W. Lindemann. Extension of a binaural cross-correlation model by contralateral inhibition. I. Simulation of lateralization for stationary signals. J Acoust Soc Am, 80:1608–1622, 1986.

48.

E. Lopez-Poveda and R. Meddis. A human nonlinear cochlear filterbank. J Acoust Soc Am, 110:3107–3118, 2001.

49.

R. Lyon. All pole models of auditory filtering. In E. Lewis, G. Long, R. Lyon, P. Narins, C. Steele, and E. Hecht-Poinar, editors, Diversity in Auditory Mechanics: Proc. Intl. Symp., University of California, Berkeley. World Scientific Publishing, 1996.

50.

R. Lyon, A. Katsiamis, and E. Drakakis. History and future of auditory filter models. In Proc. 2010 IEEE Intl. Symp. Circuits and Systems, ISCAS, pages 3809–3812, 2010.

51.

P. Majdak, P. Balazs, and B. Laback. Multiple exponential sweep method for fast measurement of head-related transfer functions. J Audio Eng Soc, 55:623–637, 2007.

52.

P. Majdak, B. Masiero, and J. Fels. Sound localization in individualized and non-individualized crosstalk cancellation systems. J Acoust Soc Am, 133:2055–2068, 2013.

53.

P. Majdak, T. Necciari, B. Baumgartner, and B. Laback. Modeling sound-localization performance in vertical planes: level dependence. In Poster at the 16th International Symposium on Hearing (ISH), Cambridge, UK, 2012.

54.

T. May, S. van de Par, and A. Kohlrausch. Binaural localization and detection of speakers in complex acoustic scenes. In J. Blauert, editor, The technology of binaural listening, chapter 15. Springer, Berlin-Heidelberg-New York NY, 2013.

55.

D. McAlpine and B. Grothe. Sound localization and delay lines-do mammals fit the model? Trends in Neurosciences, 26:347–350, 2003.

56.

R. Meddis, M. J. Hewitt, and T. M. Shackleton. Implementation details of a computation model of the inner hair-cell auditory-nerve synapse. J Acoust Soc Am, 87:1813–1816, 1990.

57.

R. Meddis, L. O’Mard, and E. Lopez-Poveda. A computational algorithm for computing nonlinear auditory frequency selectivity. J Acoust Soc Am, 109:2852–2861, 2001.

58.

B. Moore and B. Glasberg. Suggested formulae for calculating auditory-filter bandwidths and excitation patterns. J Acoust Soc Am, 74:750–753, 1983.

59.

S. Neely, S. Norton, M. Gorga, and J. W. Latency of auditory brain-stem responses and otoacoustic emissions using tone-burst stimuli. J Acoust Soc Am, 83:652–656, 1988.

60.

P. O’Mard. Development system for auditory modelling. Technical report, Centre for the Neural Basis of Hearing, University of Essex, UK, 2004.

61.

M. Park, P. A. Nelson, and K. Kang. A model of sound localisation applied to the evaluation of systems for stereophony. Acta Acustica/Acust., 94:825–839, 2008.

62.

R. Patterson, I. Nimmo-Smith, J. Holdsworth, and P. Rice. An efficient auditory filterbank based on the gammatone function. APU report, 2341, 1988.

63.

R. D. Patterson, M. H. Allerhand, and C. Giguère. Time-domain modeling of peripheral auditory processing: A modular architecture and a software platform. J Acoust Soc Am, 98:1890–1894, 1995.

64.

D. Pralong and S. Carlile. The role of individualized headphone calibration for the generation of high fidelity virtual auditory space. J Acoust Soc Am, 100:3785–3793, 1996.

65.

V. Pulkki and T. Hirvonen. Functional count-comparison model for binaural decoding. Acta Acustica/Acust., 95:883–900, 2009.

66.

D. Püschel. Prinzipien der zeitlichen Analyse beim Hören. PhD thesis, Universität Göttingen, 1988.

67.

A. Recio and W. Rhode. Basilar membrane responses to broadband stimuli. J Acoust Soc Am, 108:2281–2298, 2000.

68.

F. Rønne, J. Harte, C. Elberling, and T. Dau. Modeling auditory evoked brainstem responses to transient stimuli. J Acoust Soc Am, 131:3903–3913, 2012.

69.

M. Schroeder. Die statistischen Parameter der Frequenzkurven von grossen Räumen. Acustica, 4:594–600, 1954.

70.

C. Shera. Intensity-invariance of fine time structure in basilar-membrane click responses: Implications for cochlear mechanics. J Acoust Soc Am, 110:332–348, 2001.

71.

M. Slaney. Auditory toolbox, 1994.

72.

P. L. Søndergaard, B. Torrésani, and P. Balazs. The Linear Time Frequency Analysis Toolbox. Int J Wavelets Multi, 10:1250032 [27 pages], 2012.

73.

C. Spille, B. Meyer, M. Dietz, and V. Hohmann. Binaural scene analysis with multi-dimensional statistical filters. In J. Blauert, editor, The technology of binaural listening, chapter 6. Springer, Berlin-Heidelberg-New York NY, 2013.

74.

S. Stevens, J. Volkmann, and E. Newman. A scale for the measurement of the psychological magnitude pitch. J Acoust Soc Am, 8:185–190, 1937.

75.

M. Takanen, O. Santala, and V. Pulkki. Binaural assessment of parametrically coded spatial audio signals. In J. Blauert, editor, The technology of binaural listening, chapter 13. Springer, Berlin-Heidelberg-New York NY, 2013.

76.

P. Vandewalle, J. Kovacevic, and M. Vetterli. Reproducible research in signal processing - what, why, and how. IEEE Signal Proc Mag, 26:37–47, 2009.

77.

G. von Békésy. Zur theorie des hörens; Über das Richtungshören bei einer Zeitdefferenz oder Lautstärkenungleichheit der beiderseitigen Schalleinwirkungen. Phys Z, 31:824–835, 1930.

78.

P. Ziegelwanger, H Majdak. Continuous-direction model of the time-of-arrival in the head-related transfer functions.J Acoust Soc Am, submitted.

79.

M. S. A. Zilany and I. C. Bruce. Representation of the vowel \(/\epsilon /\) in normal and impaired auditory nerve fibers: Model predictions of responses in cats. J Acoust Soc Am, 122:402–248, 2007.

80.

G. Zweig. Finding the impedance of the organ of corti. J Acoust Soc Am, 89:1229–1254, 1991.

81.

E. Zwicker. Subdivision of the audible frequency range into critical bands (frequenzgruppen). J Acoust Soc Am, 33:248–248, 1961.

82.

E. Zwicker and H. Fastl. Psychoacoustics: Facts and models. Springer Berlin, 1999.

Titel: The Auditory Modeling Toolbox
verfasst von: P. L. Søndergaard
P. Majdak
Verlag: Springer Berlin Heidelberg
Buch: The Technology of Binaural Listening
Print ISBN: 978-3-642-37761-7

Electronic ISBN: 978-3-642-37762-4

Copyright-Jahr: 2013
DOI: https://doi.org/10.1007/978-3-642-37762-4_2

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