Dynamic Motion of the Corrugated Ribbon in a Ribbon Microphone
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JO. S.. Abel, and DA. MO. Schlessinger, "Dynamic Motion of the Corrugated Ribbon in a Ribbon Microphone," Paper 8215, (2010 November.). doi:
JO. S.. Abel, and DA. MO. Schlessinger, "Dynamic Motion of the Corrugated Ribbon in a Ribbon Microphone," Paper 8215, (2010 November.). doi:
Abstract: Ribbon microphones are known for their warm sonics, owing in part to the unique ribbon motion induced by the sound field. Here the motion of the corrugated ribbon element in a sound field is considered, and a physical model of the ribbon motion is presented. The model separately computes propagating torsional disturbances and coupled transverse and longitudinal disturbances. Each propagation mode is implemented as a mass-spring model where a mass is identified with a ribbon corrugation fold. The model is parameterized using ribbon material and geometric properties. Laser vibrometer measurements are presented, revealing stiffness in the transverse and longitudinal propagation, and showing close agreement between measured and modeled ribbon motion.
@article{abel2010dynamic,
author={abel, jonathan s. and schlessinger, daniel moses},
journal={journal of the audio engineering society},
title={dynamic motion of the corrugated ribbon in a ribbon microphone},
year={2010},
volume={},
number={},
pages={},
doi={},
month={november},}
@article{abel2010dynamic,
author={abel, jonathan s. and schlessinger, daniel moses},
journal={journal of the audio engineering society},
title={dynamic motion of the corrugated ribbon in a ribbon microphone},
year={2010},
volume={},
number={},
pages={},
doi={},
month={november},
abstract={ribbon microphones are known for their warm sonics, owing in part to the unique ribbon motion induced by the sound field. here the motion of the corrugated ribbon element in a sound field is considered, and a physical model of the ribbon motion is presented. the model separately computes propagating torsional disturbances and coupled transverse and longitudinal disturbances. each propagation mode is implemented as a mass-spring model where a mass is identified with a ribbon corrugation fold. the model is parameterized using ribbon material and geometric properties. laser vibrometer measurements are presented, revealing stiffness in the transverse and longitudinal propagation, and showing close agreement between measured and modeled ribbon motion.},}
TY - paper
TI - Dynamic Motion of the Corrugated Ribbon in a Ribbon Microphone
SP -
EP -
AU - Abel, Jonathan S.
AU - Schlessinger, Daniel Moses
PY - 2010
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - November 2010
TY - paper
TI - Dynamic Motion of the Corrugated Ribbon in a Ribbon Microphone
SP -
EP -
AU - Abel, Jonathan S.
AU - Schlessinger, Daniel Moses
PY - 2010
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - November 2010
AB - Ribbon microphones are known for their warm sonics, owing in part to the unique ribbon motion induced by the sound field. Here the motion of the corrugated ribbon element in a sound field is considered, and a physical model of the ribbon motion is presented. The model separately computes propagating torsional disturbances and coupled transverse and longitudinal disturbances. Each propagation mode is implemented as a mass-spring model where a mass is identified with a ribbon corrugation fold. The model is parameterized using ribbon material and geometric properties. Laser vibrometer measurements are presented, revealing stiffness in the transverse and longitudinal propagation, and showing close agreement between measured and modeled ribbon motion.
Ribbon microphones are known for their warm sonics, owing in part to the unique ribbon motion induced by the sound field. Here the motion of the corrugated ribbon element in a sound field is considered, and a physical model of the ribbon motion is presented. The model separately computes propagating torsional disturbances and coupled transverse and longitudinal disturbances. Each propagation mode is implemented as a mass-spring model where a mass is identified with a ribbon corrugation fold. The model is parameterized using ribbon material and geometric properties. Laser vibrometer measurements are presented, revealing stiffness in the transverse and longitudinal propagation, and showing close agreement between measured and modeled ribbon motion.
Authors:
Abel, Jonathan S.; Schlessinger, Daniel Moses
Affiliations:
CCRMA, Stanford University, Stanford, CA, USA; Sennheiser DSP Research Laboratory, Palo Alto, CA, USA(See document for exact affiliation information.)
AES Convention:
129 (November 2010)
Paper Number:
8215
Publication Date:
November 4, 2010Import into BibTeX
Subject:
Acoustical and Physical Modeling
Permalink:
http://www.aes.org/e-lib/browse.cfm?elib=15637