Finite element modeling of the vocal folds with deformable interface tracking

Alba Granados; Jonas Brunskog; Marek Krzysztof Misztal; Vincent Visseq; Kenny Erleben

Finite element modeling of the vocal folds with deformable interface tracking

Alba Granados, Jonas Brunskog, Marek Krzysztof Misztal, Vincent Visseq, Kenny Erleben

2 Citationer (Scopus)

Abstract

Continuous and prolonged use of the speaking voice may lead to functional speech disorders that are not apparent for voice clinicians from high-speed imaging of the vocal folds' vibration. However it is hypothesized that time dependent tissue properties provide some insight into the injury process. To infer material parameters via an inverse optimization problem from recorded deformation, a self sustained theoretical model of the vocal folds is needed. With this purpose, a transversely isotropic three-dimensional finite element model is proposed and investigated. Special attention is paid to the collision and time integration schemes. Accuracy in the deformation process is introduced by means of a topology-adaptive method for deformable interface tracking, called the Deformable Simplicial Complex, which has been previously applied to immiscible fluids. For computational reasons aerodynamic driving forces are derived from Bernoulli's principle.

Originalsprog	Engelsk
Titel	Forum Acusticum
Antal sider	9
Forlag	European Acoustics Association
Publikationsdato	2014
Status	Udgivet - 2014
Begivenhed	Forum Acusticum - Krakow, Polen Varighed: 7 sep. 2014 → 12 sep. 2014

Konference

Konference	Forum Acusticum
Land/Område	Polen
By	Krakow
Periode	07/09/2014 → 12/09/2014

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Finite element modeling of the vocal folds with deformable interface trackingForlagets udgivne version, 772 KB

Citationsformater

@inproceedings{d6fa4e7fbe4e408ea5df45b482a6838b,

title = "Finite element modeling of the vocal folds with deformable interface tracking",

abstract = "Continuous and prolonged use of the speaking voice may lead to functional speech disorders that are not apparent for voice clinicians from high-speed imaging of the vocal folds' vibration. However it is hypothesized that time dependent tissue properties provide some insight into the injury process. To infer material parameters via an inverse optimization problem from recorded deformation, a self sustained theoretical model of the vocal folds is needed. With this purpose, a transversely isotropic three-dimensional finite element model is proposed and investigated. Special attention is paid to the collision and time integration schemes. Accuracy in the deformation process is introduced by means of a topology-adaptive method for deformable interface tracking, called the Deformable Simplicial Complex, which has been previously applied to immiscible fluids. For computational reasons aerodynamic driving forces are derived from Bernoulli's principle.",

author = "Alba Granados and Jonas Brunskog and Misztal, {Marek Krzysztof} and Vincent Visseq and Kenny Erleben",

year = "2014",

language = "English",

booktitle = "Forum Acusticum",

publisher = "European Acoustics Association",

note = "Forum Acusticum ; Conference date: 07-09-2014 Through 12-09-2014",

}

TY - GEN

T1 - Finite element modeling of the vocal folds with deformable interface tracking

AU - Granados, Alba

AU - Brunskog, Jonas

AU - Misztal, Marek Krzysztof

AU - Visseq, Vincent

AU - Erleben, Kenny

PY - 2014

Y1 - 2014

N2 - Continuous and prolonged use of the speaking voice may lead to functional speech disorders that are not apparent for voice clinicians from high-speed imaging of the vocal folds' vibration. However it is hypothesized that time dependent tissue properties provide some insight into the injury process. To infer material parameters via an inverse optimization problem from recorded deformation, a self sustained theoretical model of the vocal folds is needed. With this purpose, a transversely isotropic three-dimensional finite element model is proposed and investigated. Special attention is paid to the collision and time integration schemes. Accuracy in the deformation process is introduced by means of a topology-adaptive method for deformable interface tracking, called the Deformable Simplicial Complex, which has been previously applied to immiscible fluids. For computational reasons aerodynamic driving forces are derived from Bernoulli's principle.

AB - Continuous and prolonged use of the speaking voice may lead to functional speech disorders that are not apparent for voice clinicians from high-speed imaging of the vocal folds' vibration. However it is hypothesized that time dependent tissue properties provide some insight into the injury process. To infer material parameters via an inverse optimization problem from recorded deformation, a self sustained theoretical model of the vocal folds is needed. With this purpose, a transversely isotropic three-dimensional finite element model is proposed and investigated. Special attention is paid to the collision and time integration schemes. Accuracy in the deformation process is introduced by means of a topology-adaptive method for deformable interface tracking, called the Deformable Simplicial Complex, which has been previously applied to immiscible fluids. For computational reasons aerodynamic driving forces are derived from Bernoulli's principle.

M3 - Article in proceedings

BT - Forum Acusticum

PB - European Acoustics Association

T2 - Forum Acusticum

Y2 - 7 September 2014 through 12 September 2014

ER -

Finite element modeling of the vocal folds with deformable interface tracking

Abstract

Konference

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