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An auditory process model for the evaluation of virtual acoustic imaging systems

An auditory process model for the evaluation of virtual acoustic imaging systems
An auditory process model for the evaluation of virtual acoustic imaging systems
This paper describes the initial application of an auditory process model to the evaluation of various virtual acoustic imaging systems. The model has been designed to simulate human binaural hearing by means of an equalization-cancellation process for the binaural process and a template-matching with frequency weighting for the central process, while linear and non-linear filters have been employed for the peripheral process. The model prediction has been shown to be consistent with the performance of human spatial hearing in case of the localization of white Gaussian noise and the lateralization of low-frequency pure tones. In this study, virtual acoustic images presented by conventional stereophony, the Stereo Dipole and the Optimal Source Distribution have been tested on the optimal listening positions, following a discussion on the template matching process of the model. The simulation results suggest that the current model, with certain limitations, can be a good predictor of the fidelity of such systems in providing a virtual sound image.
6854
Institute of Acoustics
Park, M.
9b3514af-1639-4c21-981e-b8831a4817ba
Nelson, P.A.
5c6f5cc9-ea52-4fe2-9edf-05d696b0c1a9
Kim, Y.
1b151f34-277a-4414-b508-f944c626d90d
Park, M.
9b3514af-1639-4c21-981e-b8831a4817ba
Nelson, P.A.
5c6f5cc9-ea52-4fe2-9edf-05d696b0c1a9
Kim, Y.
1b151f34-277a-4414-b508-f944c626d90d

Park, M., Nelson, P.A. and Kim, Y. (2006) An auditory process model for the evaluation of virtual acoustic imaging systems. In Spring Conference Futures in Acoustics 2006: today's research - tomorrow's careers. Institute of Acoustics..

Record type: Conference or Workshop Item (Paper)

Abstract

This paper describes the initial application of an auditory process model to the evaluation of various virtual acoustic imaging systems. The model has been designed to simulate human binaural hearing by means of an equalization-cancellation process for the binaural process and a template-matching with frequency weighting for the central process, while linear and non-linear filters have been employed for the peripheral process. The model prediction has been shown to be consistent with the performance of human spatial hearing in case of the localization of white Gaussian noise and the lateralization of low-frequency pure tones. In this study, virtual acoustic images presented by conventional stereophony, the Stereo Dipole and the Optimal Source Distribution have been tested on the optimal listening positions, following a discussion on the template matching process of the model. The simulation results suggest that the current model, with certain limitations, can be a good predictor of the fidelity of such systems in providing a virtual sound image.

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Published date: 1 May 2006

Identifiers

Local EPrints ID: 468711
URI: http://eprints.soton.ac.uk/id/eprint/468711
PURE UUID: 65d0d60d-43ac-4feb-b2fa-1b25864ae0fd
ORCID for P.A. Nelson: ORCID iD orcid.org/0000-0002-9563-3235

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Date deposited: 23 Aug 2022 16:56
Last modified: 21 Feb 2024 02:31

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Contributors

Author: M. Park
Author: P.A. Nelson ORCID iD
Author: Y. Kim

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