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Literature DB >> 885895

Wall vibrations induced by flow through simulated stenosis in models and arteries.

R L Kirkeeide, D F Young, N R Cholvin.

Abstract

Mesh：

Year: 1977 PMID： 885895 DOI： 10.1016/0021-9290(77)90020-3

Source DB: PubMed Journal: J Biomech ISSN： 0021-9290 Impact factor: 2.712

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10 in total

1. Computerised analysis of auscultatory sounds associated with vascular patency of haemodialysis access.

Authors: H A Mansy; S J Hoxie; N H Patel; R H Sandler
Journal: Med Biol Eng Comput Date: 2005-01 Impact factor: 2.602

2. Acoustic radiation from a fluid-filled, subsurface vascular tube with internal turbulent flow due to a constriction.

Authors: Yigit Yazicioglu; Thomas J Royston; Todd Spohnholtz; Bryn Martin; Francis Loth; Hisham S Bassiouny
Journal: J Acoust Soc Am Date: 2005-08 Impact factor: 1.840

3. Acoustic method for assessment of urethral obstruction: a model study.

Authors: H Teriö
Journal: Med Biol Eng Comput Date: 1991-07 Impact factor: 2.602

4. Experimental and numerical investigation on soft tissue dynamic response due to turbulence-induced arterial vibration.

Authors: Huseyin Enes Salman; Yigit Yazicioglu
Journal: Med Biol Eng Comput Date: 2019-06-08 Impact factor: 2.602

5. Effect of stenotic geometry on flow behaviour across stenotic models.

Authors: U Solzbach; H Wollschläger; A Zeiher; H Just
Journal: Med Biol Eng Comput Date: 1987-09 Impact factor: 2.602

Review 6. Bio-acoustic signals from stenotic tube flow: state of the art and perspectives for future methodological development.

Authors: P Ask; B Hök; D Loyd; H Teriö
Journal: Med Biol Eng Comput Date: 1995-09 Impact factor: 2.602

Wall vibrations induced by flow through simulated stenosis in models and arteries.

1. Computerised analysis of auscultatory sounds associated with vascular patency of haemodialysis access.

2. Acoustic radiation from a fluid-filled, subsurface vascular tube with internal turbulent flow due to a constriction.

3. Acoustic method for assessment of urethral obstruction: a model study.

4. Experimental and numerical investigation on soft tissue dynamic response due to turbulence-induced arterial vibration.

5. Effect of stenotic geometry on flow behaviour across stenotic models.

Review 6. Bio-acoustic signals from stenotic tube flow: state of the art and perspectives for future methodological development.

7. Effects of stenosis on non-Newtonian flow of the blood in an artery.

8. A coupled flow-acoustic computational study of bruits from a modeled stenosed artery.

9. Effect of Varying Hemodynamic and Vascular Conditions on Fractional Flow Reserve: An In Vitro Study.

10. Spectral Decomposition and Sound Source Localization of Highly Disturbed Flow through a Severe Arterial Stenosis.