Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Autoren

  • Yuqing Li
  • Stephan Preihs
  • Jürgen Peissig

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Details

OriginalspracheEnglisch
Titel des SammelwerksAES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022
Herausgeber (Verlag)Audio Engineering Society
Seiten266-274
Seitenumfang9
ISBN (elektronisch)9781713855415
PublikationsstatusVeröffentlicht - 2022
VeranstaltungAES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022 - The Hague, Virtual, Niederlande
Dauer: 16 Mai 202219 Mai 2022

Publikationsreihe

NameAES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022

Abstract

Near-field Head-Related Transfer Functions (HRTFs) depend on both source direction (azimuth/elevation) and distance. The acquisition procedure for near-field HRTF data on a dense spatial grid is time-consuming and prone to measurement errors. Therefore, existing databases only cover a few discrete source distances. Coming from the fact that continuous-azimuth acquisition of HRTFs has been made possible by applying the Normalized Least Mean Square (NLMS) adaptive filtering method, in this work we applied the NLMS algorithm in measuring near-field HRTFs under continuous variation of source distance. We developed and validated a novel measurement setup that allows the acquisition of near-field HRTFs for source distances ranging from 20 to 120 cm with one recording. We then evaluated the measurement accuracy by analyzing the estimation error from the adaptive filtering algorithm and the key characteristics of the measured HRTFs associated with near-field binaural rendering.

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Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering. / Li, Yuqing; Preihs, Stephan; Peissig, Jürgen.
AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022. Audio Engineering Society, 2022. S. 266-274 (AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022).

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Li, Y, Preihs, S & Peissig, J 2022, Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering. in AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022. AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022, Audio Engineering Society, S. 266-274, AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022, The Hague, Virtual, Niederlande, 16 Mai 2022.
Li, Y., Preihs, S., & Peissig, J. (2022). Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering. In AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022 (S. 266-274). (AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022). Audio Engineering Society.
Li Y, Preihs S, Peissig J. Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering. in AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022. Audio Engineering Society. 2022. S. 266-274. (AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022).
Li, Yuqing ; Preihs, Stephan ; Peissig, Jürgen. / Acquisition of Continuous-Distance Near-Field Head-Related Transfer Functions on KEMAR Using Adaptive Filtering. AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022. Audio Engineering Society, 2022. S. 266-274 (AES Europe Spring 2022 - 152nd Audio Engineering Society Convention 2022).
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abstract = "Near-field Head-Related Transfer Functions (HRTFs) depend on both source direction (azimuth/elevation) and distance. The acquisition procedure for near-field HRTF data on a dense spatial grid is time-consuming and prone to measurement errors. Therefore, existing databases only cover a few discrete source distances. Coming from the fact that continuous-azimuth acquisition of HRTFs has been made possible by applying the Normalized Least Mean Square (NLMS) adaptive filtering method, in this work we applied the NLMS algorithm in measuring near-field HRTFs under continuous variation of source distance. We developed and validated a novel measurement setup that allows the acquisition of near-field HRTFs for source distances ranging from 20 to 120 cm with one recording. We then evaluated the measurement accuracy by analyzing the estimation error from the adaptive filtering algorithm and the key characteristics of the measured HRTFs associated with near-field binaural rendering.",
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Download

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