Supplemental material to Fritzsche et al. (2022), "Toward unraveling the mechanisms of aerosol generation during phonation"

Contributing person
datacite.contributor.HostingInstitution

Institut für Mechanik und Fluiddynamik

Contributing person
datacite.contributor.ProjectLeader

Bauer, Katrin (orcid: 0000-0001-6869-3323)

References to related material
datacite.relatedItem.IsSupplementTo

10.1063/5.0124944

Description of the data
datacite.resourceType

Raw data (images); CAD renderings, photos, schematic representations and technical drawings of the experimental setup and the vocal folds model; flow chart of the in-house algorithm for particle detection and sizing; experimental results (droplet size spectra and high-speed recordings of the vocal folds)

Type of the data
datacite.resourceTypeGeneral

Text

Type of the data
datacite.resourceTypeGeneral

Model

Type of the data
datacite.resourceTypeGeneral

Image

Type of the data
datacite.resourceTypeGeneral

Dataset

Type of the data
datacite.resourceTypeGeneral

Other

Total size of the dataset
datacite.size

1083211121

Author
dc.contributor.author

Fritzsche, Lisa

Upload date
dc.date.accessioned

2023-01-16T07:14:47Z

Upload date
dc.date.accessioned

2026-06-05T15:19:16Z

Publication date
dc.date.available

2023-01-16T07:14:47Z

Publication date
dc.date.available

2026-06-05T15:19:16Z

Data of data creation
dc.date.created

2021-2022

Publication date
dc.date.issued

2022

Abstract of the dataset
dc.description.abstract

Supplemental material and supporting information for the publication: Fritzsche, L., Schwarze, R., Junghans, F., & Bauer, K. (2022). Toward unraveling the mechanisms of aerosol generation during phonation. Physics of Fluids, 34(12), 121904. (DOI: 10.1063/5.0124944). For the purpose of investigating the atomization of respiratory mucus during phonation, a new experimental setup was designed which emulates the vocal folds, their oscillating movement and the expiratory air flow in a simplified manner. The primary atomization of an artificial mucus can be observed. Based on the shadowgraphy measurements carried out, droplet size spectra were evaluated and the influence of the parameters flow rate, oscillation frequency and amplitude was investigated. Furthermore, high-speed recordings allowed the visualization and discussion of the droplet formation mechanisms.

Public reference to this page
dc.identifier.uri

https://opara.zih.tu-dresden.de/handle/123456789/2559

Public reference to this page
dc.identifier.uri

https://doi.org/10.25532/OPARA-199

dc.language
dc.language

eng

Publisher
dc.publisher

Technische Universität Bergakademie Freiberg

Licence
dc.rights

Attribution 4.0 International

URI of the licence text
dc.rights.uri

http://creativecommons.org/licenses/by/4.0/

Specification of the discipline(s)
dc.subject.classification

4

Specification of the discipline(s)
dc.subject.classification

2::22

Title of the dataset
dc.title

Supplemental material to Fritzsche et al. (2022), "Toward unraveling the mechanisms of aerosol generation during phonation"

Project abstract
opara.project.description

For the purpose of investigating the atomization of respiratory mucus during phonation, a new experimental setup was designed which emulates the vocal folds, their oscillating movement and the expiratory air flow in a simplified manner. The primary atomization of an artificial mucus can be observed. Based on the shadowgraphy measurements carried out, droplet size spectra were evaluated and the influence of the parameters flow rate, oscillation frequency and amplitude was investigated. Furthermore, high-speed recordings allowed the visualization and discussion of the droplet formation mechanisms.

Project title
opara.project.title

Aerosol generation at a model of the human vocal folds

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