Literature DB >> 33138511

Study of spatiotemporal liquid dynamics in a vibrating vocal fold by using a self-oscillating poroelastic model.

Austin Scholp1, Caroline Jeddeloh1, Chao Tao2, Xiaojun Liu3, Seth H Dailey1, Jack J Jiang1.   

Abstract

The main purpose of this study is to investigate the spatiotemporal interstitial fluid dynamics in a vibrating vocal fold. A self-oscillating poroelastic model is proposed to study the liquid dynamics in the vibrating vocal folds by treating the vocal fold tissue as a transversally isotropic, fluid-saturated, porous material. Rich spatiotemporal liquid dynamics have been found. Specifically, in the vertical direction, the liquid is transported from the inferior side to the superior side due to the propagation of the mucosal wave. In the longitudinal direction, the liquid accumulates at the anterior-posterior midpoint. However, the contact between the two vocal folds forces the accumulated liquid out laterally in a very short time span. These findings could be helpful for exploring etiology of some laryngeal pathologies, optimizing laryngeal disease treatment, and understanding hemodynamics in the vocal folds.

Mesh:

Year:  2020        PMID: 33138511      PMCID: PMC7575330          DOI: 10.1121/10.0002163

Source DB:  PubMed          Journal:  J Acoust Soc Am        ISSN: 0001-4966            Impact factor:   1.840


  40 in total

1.  A finite-element model of vocal-fold vibration.

Authors:  F Alipour; D A Berry; I R Titze
Journal:  J Acoust Soc Am       Date:  2000-12       Impact factor: 1.840

2.  Medial surface dynamics of an in vivo canine vocal fold during phonation.

Authors:  Michael Döllinger; David A Berry; Gerald S Berke
Journal:  J Acoust Soc Am       Date:  2005-05       Impact factor: 1.840

3.  Anterior-posterior biphonation in a finite element model of vocal fold vibration.

Authors:  Chao Tao; Jack J Jiang
Journal:  J Acoust Soc Am       Date:  2006-09       Impact factor: 1.840

4.  Vocal nodules and edema may be due to vibration-induced rises in capillary pressure.

Authors:  Lukasz Czerwonka; Jack J Jiang; Chao Tao
Journal:  Laryngoscope       Date:  2008-04       Impact factor: 3.325

5.  Noninvasive assessment of vocal fold mucosal wave velocity using color doppler imaging.

Authors:  Y W Shau; C L Wang; F J Hsieh; T Y Hsiao
Journal:  Ultrasound Med Biol       Date:  2001-11       Impact factor: 2.998

6.  Ranking vocal fold model parameters by their influence on modal frequencies.

Authors:  Douglas D Cook; Eric Nauman; Luc Mongeau
Journal:  J Acoust Soc Am       Date:  2009-10       Impact factor: 1.840

7.  Clinical measurement of mucosal wave velocity using simultaneous photoglottography and laryngostroboscopy.

Authors:  D G Hanson; J Jiang; M D'Agostino; G Herzon
Journal:  Ann Otol Rhinol Laryngol       Date:  1995-05       Impact factor: 1.547

8.  Parameters quantifying dehydration in canine vocal fold lamina propria.

Authors:  Kevin P Hanson; Yu Zhang; Jack J Jiang
Journal:  Laryngoscope       Date:  2010-07       Impact factor: 3.325

9.  A Computational Study of Vocal Fold Dehydration During Phonation.

Authors:  Liang Wu; Zhaoyan Zhang
Journal:  IEEE Trans Biomed Eng       Date:  2017-04-05       Impact factor: 4.538

10.  Determination of superior surface strains and stresses, and vocal fold contact pressure in a synthetic larynx model using digital image correlation.

Authors:  Mychal Spencer; Thomas Siegmund; Luc Mongeau
Journal:  J Acoust Soc Am       Date:  2008-02       Impact factor: 1.840

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