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Pubmed for Handhelds

PUBMED FOR HANDHELDS

Journal Abstract Search

131 related items for PubMed ID: 33399816

  • 1.
    ; . PubMed ID:
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  • 2. On the acoustical relevance of supraglottal flow structures to low-frequency voice production.
    Zhang Z, Neubauer J.
    J Acoust Soc Am; 2010 Dec; 128(6):EL378-83. PubMed ID: 21218861
    [Abstract] [Full Text] [Related]

  • 3. Analysis of Measured and Simulated Supraglottal Acoustic Waves.
    Fraile R, Evdokimova VV, Evgrafova KV, Godino-Llorente JI, Skrelin PA.
    J Voice; 2016 Sep; 30(5):518-28. PubMed ID: 26377510
    [Abstract] [Full Text] [Related]

  • 4. Nonlinear source-filter coupling in phonation: theory.
    Titze IR.
    J Acoust Soc Am; 2008 May; 123(5):2733-49. PubMed ID: 18529191
    [Abstract] [Full Text] [Related]

  • 5. Estimation of Source-Filter Interaction Regions Based on Electroglottography.
    Palaparthi A, Maxfield L, Titze IR.
    J Voice; 2019 May; 33(3):269-276. PubMed ID: 29277351
    [Abstract] [Full Text] [Related]

  • 6. Computational Modeling of Fluid-Structure-Acoustics Interaction during Voice Production.
    Jiang W, Zheng X, Xue Q.
    Front Bioeng Biotechnol; 2017 May; 5():7. PubMed ID: 28243588
    [Abstract] [Full Text] [Related]

  • 7. What can vortices tell us about vocal fold vibration and voice production.
    Khosla S, Murugappan S, Gutmark E.
    Curr Opin Otolaryngol Head Neck Surg; 2008 Jun; 16(3):183-7. PubMed ID: 18475068
    [Abstract] [Full Text] [Related]

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  • 10. Flow-structure-acoustic interaction in a human voice model.
    Becker S, Kniesburges S, Müller S, Delgado A, Link G, Kaltenbacher M, Döllinger M.
    J Acoust Soc Am; 2009 Mar; 125(3):1351-61. PubMed ID: 19275292
    [Abstract] [Full Text] [Related]

  • 11. A computational study of the effect of false vocal folds on glottal flow and vocal fold vibration during phonation.
    Zheng X, Bielamowicz S, Luo H, Mittal R.
    Ann Biomed Eng; 2009 Mar; 37(3):625-42. PubMed ID: 19142730
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  • 12.
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  • 13. Subglottal pressure oscillations accompanying phonation.
    Sundberg J, Scherer R, Hess M, Müller F, Granqvist S.
    J Voice; 2013 Jul; 27(4):411-21. PubMed ID: 23809566
    [Abstract] [Full Text] [Related]

  • 14. Fluid-structure-acoustic interactions in an ex vivo porcine phonation model.
    Semmler M, Berry DA, Schützenberger A, Döllinger M.
    J Acoust Soc Am; 2021 Mar; 149(3):1657. PubMed ID: 33765793
    [Abstract] [Full Text] [Related]

  • 15. The influence of source-filter interaction on the voice source in a three-dimensional computational model of voice production.
    Zhang Z.
    J Acoust Soc Am; 2023 Oct 01; 154(4):2462-2475. PubMed ID: 37855666
    [Abstract] [Full Text] [Related]

  • 16. Analysis of flow-structure interaction in the larynx during phonation using an immersed-boundary method.
    Luo H, Mittal R, Bielamowicz SA.
    J Acoust Soc Am; 2009 Aug 01; 126(2):816-24. PubMed ID: 19640046
    [Abstract] [Full Text] [Related]

  • 17. Influence of acoustic loading on an effective single mass model of the vocal folds.
    Zañartu M, Mongeau L, Wodicka GR.
    J Acoust Soc Am; 2007 Feb 01; 121(2):1119-29. PubMed ID: 17348533
    [Abstract] [Full Text] [Related]

  • 18. On the role of glottis-interior sources in the production of voiced sound.
    Howe MS, McGowan RS.
    J Acoust Soc Am; 2012 Feb 01; 131(2):1391-400. PubMed ID: 22352512
    [Abstract] [Full Text] [Related]

  • 19. Effect of vocal fold stiffness on voice production in a three-dimensional body-cover phonation model.
    Zhang Z.
    J Acoust Soc Am; 2017 Oct 01; 142(4):2311. PubMed ID: 29092586
    [Abstract] [Full Text] [Related]

  • 20. Voice production model integrating boundary-layer analysis of glottal flow and source-filter coupling.
    Kaburagi T.
    J Acoust Soc Am; 2011 Mar 01; 129(3):1554-67. PubMed ID: 21428519
    [Abstract] [Full Text] [Related]

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