A High Resolution and Full-Spherical Head-Related Transfer Function Database for Different Head-Above-Torso Orientations
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F. Brinkmann, A. Lindau, S. Weinzierl, ST. DE. Par, M. Müller-Trapet, R. Opdam, and M. Vorländer, "A High Resolution and Full-Spherical Head-Related Transfer Function Database for Different Head-Above-Torso Orientations," J. Audio Eng. Soc., vol. 65, no. 10, pp. 841-848, (2017 October.). doi: https://doi.org/10.17743/jaes.2017.0033
F. Brinkmann, A. Lindau, S. Weinzierl, ST. DE. Par, M. Müller-Trapet, R. Opdam, and M. Vorländer, "A High Resolution and Full-Spherical Head-Related Transfer Function Database for Different Head-Above-Torso Orientations," J. Audio Eng. Soc., vol. 65 Issue 10 pp. 841-848, (2017 October.). doi: https://doi.org/10.17743/jaes.2017.0033
Abstract: Head-related transfer functions (HRTFs) capture the free-field sound transmission from a sound source to the listeners ears, incorporating all the cues for sound localization, such as interaural time and level differences as well as the spectral cues that originate from scattering, diffraction, and reflection on the human pinnae, head, and body. In this study, HRTFs were acoustically measured and numerically simulated for the FABIAN head-and-torso simulator on a full-spherical and high-resolution sampling grid. HRTFs were acquired for 11 horizontal head-above-torso orientations, covering the typical range of motion of +/-50°. This made it possible to account for head movements in dynamic binaural auralizations. Because of a lack of an external reference for the HRTFs, measured and simulated data sets were cross-validated by applying auditory models for localization performance and spectral coloration. The results indicate a high degree of similarity between the two data sets regarding all tested aspects, thus suggesting that they are free of systematic errors.
@article{brinkmann2017a,
author={brinkmann, fabian and lindau, alexander and weinzierl, stefan and par, steven van de and müller-trapet, markus and opdam, rob and vorländer, michael},
journal={journal of the audio engineering society},
title={a high resolution and full-spherical head-related transfer function database for different head-above-torso orientations},
year={2017},
volume={65},
number={10},
pages={841-848},
doi={https://doi.org/10.17743/jaes.2017.0033},
month={october},}
@article{brinkmann2017a,
author={brinkmann, fabian and lindau, alexander and weinzierl, stefan and par, steven van de and müller-trapet, markus and opdam, rob and vorländer, michael},
journal={journal of the audio engineering society},
title={a high resolution and full-spherical head-related transfer function database for different head-above-torso orientations},
year={2017},
volume={65},
number={10},
pages={841-848},
doi={https://doi.org/10.17743/jaes.2017.0033},
month={october},
abstract={head-related transfer functions (hrtfs) capture the free-field sound transmission from a sound source to the listeners ears, incorporating all the cues for sound localization, such as interaural time and level differences as well as the spectral cues that originate from scattering, diffraction, and reflection on the human pinnae, head, and body. in this study, hrtfs were acoustically measured and numerically simulated for the fabian head-and-torso simulator on a full-spherical and high-resolution sampling grid. hrtfs were acquired for 11 horizontal head-above-torso orientations, covering the typical range of motion of +/-50°. this made it possible to account for head movements in dynamic binaural auralizations. because of a lack of an external reference for the hrtfs, measured and simulated data sets were cross-validated by applying auditory models for localization performance and spectral coloration. the results indicate a high degree of similarity between the two data sets regarding all tested aspects, thus suggesting that they are free of systematic errors.},}
TY - report
TI - A High Resolution and Full-Spherical Head-Related Transfer Function Database for Different Head-Above-Torso Orientations
SP - 841
EP - 848
AU - Brinkmann, Fabian
AU - Lindau, Alexander
AU - Weinzierl, Stefan
AU - Par, Steven van de
AU - Müller-Trapet, Markus
AU - Opdam, Rob
AU - Vorländer, Michael
PY - 2017
JO - Journal of the Audio Engineering Society
IS - 10
VO - 65
VL - 65
Y1 - October 2017
TY - report
TI - A High Resolution and Full-Spherical Head-Related Transfer Function Database for Different Head-Above-Torso Orientations
SP - 841
EP - 848
AU - Brinkmann, Fabian
AU - Lindau, Alexander
AU - Weinzierl, Stefan
AU - Par, Steven van de
AU - Müller-Trapet, Markus
AU - Opdam, Rob
AU - Vorländer, Michael
PY - 2017
JO - Journal of the Audio Engineering Society
IS - 10
VO - 65
VL - 65
Y1 - October 2017
AB - Head-related transfer functions (HRTFs) capture the free-field sound transmission from a sound source to the listeners ears, incorporating all the cues for sound localization, such as interaural time and level differences as well as the spectral cues that originate from scattering, diffraction, and reflection on the human pinnae, head, and body. In this study, HRTFs were acoustically measured and numerically simulated for the FABIAN head-and-torso simulator on a full-spherical and high-resolution sampling grid. HRTFs were acquired for 11 horizontal head-above-torso orientations, covering the typical range of motion of +/-50°. This made it possible to account for head movements in dynamic binaural auralizations. Because of a lack of an external reference for the HRTFs, measured and simulated data sets were cross-validated by applying auditory models for localization performance and spectral coloration. The results indicate a high degree of similarity between the two data sets regarding all tested aspects, thus suggesting that they are free of systematic errors.
Head-related transfer functions (HRTFs) capture the free-field sound transmission from a sound source to the listeners ears, incorporating all the cues for sound localization, such as interaural time and level differences as well as the spectral cues that originate from scattering, diffraction, and reflection on the human pinnae, head, and body. In this study, HRTFs were acoustically measured and numerically simulated for the FABIAN head-and-torso simulator on a full-spherical and high-resolution sampling grid. HRTFs were acquired for 11 horizontal head-above-torso orientations, covering the typical range of motion of +/-50°. This made it possible to account for head movements in dynamic binaural auralizations. Because of a lack of an external reference for the HRTFs, measured and simulated data sets were cross-validated by applying auditory models for localization performance and spectral coloration. The results indicate a high degree of similarity between the two data sets regarding all tested aspects, thus suggesting that they are free of systematic errors.
Open Access
Authors:
Brinkmann, Fabian; Lindau, Alexander; Weinzierl, Stefan; Par, Steven van de; Müller-Trapet, Markus; Opdam, Rob; Vorländer, Michael
Affiliations:
Audio Communication Group, Technical University Berlin, Germany; Acoustics Group, Cluster of Excellence(See document for exact affiliation information.) JAES Volume 65 Issue 10 pp. 841-848; October 2017
Publication Date:
October 30, 2017Import into BibTeX
Permalink:
http://www.aes.org/e-lib/browse.cfm?elib=19357