For the clinical analysis of underlying mechanisms of voice disorders, we developed a
numerical aeroacoustic larynx model, called simVoice, that mimics commonly observed …

A hybrid aeroacoustic approach was developed for the efficient numerical computation of
human phonation. In the first step, an incompressible flow simulation on a three-dimensional …

Sound for the human voice is produced by vocal fold flow-induced vibration and involves a
complex coupling between flow dynamics, tissue motion, and acoustics. Over the past three …

In this paper, a multimodal theory accounting for higher order acoustical propagation modes
is presented as an extension to the classical plane wave theory. This theoretical …

Biomechanical modeling allows obtaining information on physical phenomena that cannot
be directly observed. This study aims to review models that represent voice production. A …

The detailed analysis of sound generation in human phonation is severely limited as the
accessibility to the laryngeal flow region is highly restricted. Consequently, the physical …

Human phonation is based on the interaction between tracheal airflow and laryngeal
dynamics. This fluid-structure interaction is based on the energy exchange between airflow …

The fluid flow within a human larynx plays an essential role in the fluid–structure–acoustic
interaction during voice production. This study addresses the flow field downstream of …

Within the human larynx, the ventricular folds serve primarily as a protecting valve during
swallowing. They are located directly above the sound-generating vocal folds. During …

The biomechanics of human voice production are commonly studied using benchtop
silicone vocal fold models that mimic the vibration of their in vivo counterparts. These models …