METHOD OF THE MULTITONAL SIGNAL CONSTRUCTION IN DECISION SUPPORT SYSTEMS ACS

Main Article Content

Oleksii Nesmiian
https://orcid.org/0000-0002-3312-9439

Abstract

Subject: The article deals with the issues of creation of a psychoacoustic model of perception of sound quality of sound signals, the development on its basis of the method of creating a multi-tonal signal, which provides a high correlation with subjective evaluation. Purpose: to develop a multitoon signal creation method. Objective: To analyze the distortion of the sound signals that arise during reproducing them on the sound reproduction devices. Classify these distortions and assess the extent of their impact on subjective assessment. Allocate the most significant of them in terms of impact on the quality of sound. Investigate modern methods for assessing the quality of reproduction of sound signals, standards and recommendations devoted to this task; to evaluate the effectiveness of modeling the human auditory system used in the development of these methods; formulate the scientific and applied requirements for developing objective quality assessment method. Conclusions: The application of the developed method will allow obtain results that coincide with the data of subjective and statistical examinations (SSE) with the accuracy required for practice.

Article Details

How to Cite
Nesmiian, O. (2018). METHOD OF THE MULTITONAL SIGNAL CONSTRUCTION IN DECISION SUPPORT SYSTEMS ACS. Advanced Information Systems, 2(4), 21–25. https://doi.org/10.20998/2522-9052.2018.4.03
Section
Information systems modeling
Author Biography

Oleksii Nesmiian, Ivan Kozhedub Kharkiv National University of Air Force, Kharkiv

Senior Lecturer of the Department

References

Fletcher, H. (1942), “Hearing the determing factor for high fidelity transmission”, Proceedings of the IRE, No. 30(6), pp. 266-277, DOI: https://doi.org/10.1109/JRPROC.1942.230995.

Gannet, D.K. and Kerny, J. (1944), “The discernibility of changes in program band width”, Bell Systems Technical Journal, Vol. 23, pp. 1-10.

Stuart, J.R.: (1992), “Implementation and measurement with respect to human auditory capabilities”, AES UK DSP Conference, London, September 1992.

Paillard B. Mabilleau, P. and Morissette S. (1992), “PERCEVAL: Perceptual Evaluation of the Quality of Audio Signals”, Journal of the Audio Engineering Society, 1992 January/February, Vol. 40 (1/2), pp. 21-31.

Beerends, J.G. abd Stemerdink, J.A. (1992), “A Perceptual Audio Quality Measure Based on a Psychoacoustic Sound Representation”, J. Audio Eng. Soc, Vol 40, No. 12. pp. 963-973.

Geddes, E.R. and Lee, L.W. (2003), “Auditory Perception of Nonlinear Distortion – Theory”, AES 115th Convention, Paper 5890.

Olive, S. (2004), “A Multiple Regression Model For Predicting Loudspeaker Preference Using Objective Measurements: Part I-Listening Test Results”, 116th Convention, 2004 May 8-11, Berlin, Germany.

Olive, S. (2004), “A Multiple Regression Model for Predicting Loudspeaker Preference Using Objective Measurements: Part II - Development of the Model”, 117th Convention, 2004 Oct 28-31, San Francisco, USA.

ITU-T Recommendation P.862 (2001), PESQ an objective method for end-to-end speech quality assessment of narrowband telephone networks and speech codecs, February 2001.

ISO/IEC 11172-3 (1993), Information Technology - Coding of Moving Pictures and Associated Audio for Digital Storage Media at up to about 1.5 Mbit/s - part 3: Audio, 1993.

ITU-R Recommendation BS.562-3, Subjective assessment of sound quality, 1990.

Shitov, L.V. and Belkin, B.G. (1970), “Statistical characteristics of signals representing natural sound, and their use in the research of electro-acoustic systems”, Works of the Research and Development Film Photo Institute, No. 56, pp. 77-173.

Kovalgin, I.A. and Vologodin, E.I. (2004), “Tsifrovoe kodirovanie zvukovyih signalov ” [Digital coding of sound signals], Korona print, Saint Petersburg.

Sheluhin, O.I. and Lukiantsev, N.F. (2000), Digital processing and voice transmission, Radio and communication, Moscow, 456 p.