Accurate Timbre and Frontal Localization without Head Tracking through Individual Eardrum Equalization of Headphones
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D. Griesinger, "Accurate Timbre and Frontal Localization without Head Tracking through Individual Eardrum Equalization of Headphones," Paper 9620, (2016 September.). doi:
D. Griesinger, "Accurate Timbre and Frontal Localization without Head Tracking through Individual Eardrum Equalization of Headphones," Paper 9620, (2016 September.). doi:
Abstract: The ear and brain perceive the vertical position of sounds by matching the timbre detected at the eardrum of a listener to timbre patterns built up by that individual over a long period of time. But the eardrum timbre depends dramatically on ear canal resonances between 1000 Hz and 6000 Hz that boost the pressure at the eardrum as much as 20 dB. These resonances are highly individual and are either eliminated or altered by headphones. In-head localization is the result. We have developed an app that uses an equal-loudness procedure to measure and restore the natural timbre. Accurate timbre and frontal localization are then perceived without head-tracking, and binaural recordings can be stunningly realistic.
@article{griesinger2016accurate,
author={griesinger, david},
journal={journal of the audio engineering society},
title={accurate timbre and frontal localization without head tracking through individual eardrum equalization of headphones},
year={2016},
volume={},
number={},
pages={},
doi={},
month={september},}
@article{griesinger2016accurate,
author={griesinger, david},
journal={journal of the audio engineering society},
title={accurate timbre and frontal localization without head tracking through individual eardrum equalization of headphones},
year={2016},
volume={},
number={},
pages={},
doi={},
month={september},
abstract={the ear and brain perceive the vertical position of sounds by matching the timbre detected at the eardrum of a listener to timbre patterns built up by that individual over a long period of time. but the eardrum timbre depends dramatically on ear canal resonances between 1000 hz and 6000 hz that boost the pressure at the eardrum as much as 20 db. these resonances are highly individual and are either eliminated or altered by headphones. in-head localization is the result. we have developed an app that uses an equal-loudness procedure to measure and restore the natural timbre. accurate timbre and frontal localization are then perceived without head-tracking, and binaural recordings can be stunningly realistic.},}
TY - paper
TI - Accurate Timbre and Frontal Localization without Head Tracking through Individual Eardrum Equalization of Headphones
SP -
EP -
AU - Griesinger, David
PY - 2016
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - September 2016
TY - paper
TI - Accurate Timbre and Frontal Localization without Head Tracking through Individual Eardrum Equalization of Headphones
SP -
EP -
AU - Griesinger, David
PY - 2016
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - September 2016
AB - The ear and brain perceive the vertical position of sounds by matching the timbre detected at the eardrum of a listener to timbre patterns built up by that individual over a long period of time. But the eardrum timbre depends dramatically on ear canal resonances between 1000 Hz and 6000 Hz that boost the pressure at the eardrum as much as 20 dB. These resonances are highly individual and are either eliminated or altered by headphones. In-head localization is the result. We have developed an app that uses an equal-loudness procedure to measure and restore the natural timbre. Accurate timbre and frontal localization are then perceived without head-tracking, and binaural recordings can be stunningly realistic.
The ear and brain perceive the vertical position of sounds by matching the timbre detected at the eardrum of a listener to timbre patterns built up by that individual over a long period of time. But the eardrum timbre depends dramatically on ear canal resonances between 1000 Hz and 6000 Hz that boost the pressure at the eardrum as much as 20 dB. These resonances are highly individual and are either eliminated or altered by headphones. In-head localization is the result. We have developed an app that uses an equal-loudness procedure to measure and restore the natural timbre. Accurate timbre and frontal localization are then perceived without head-tracking, and binaural recordings can be stunningly realistic.
Open Access
Author:
Griesinger, David
Affiliation:
David Griesinger Acoustics, Cambridge, MA, USA
AES Convention:
141 (September 2016)
Paper Number:
9620
Publication Date:
September 20, 2016Import into BibTeX
Subject:
Spatial Audio
Permalink:
http://www.aes.org/e-lib/browse.cfm?elib=18424