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contributor authorMorton H. Friedman
contributor authorHeather A. Himburg
contributor authorJeffrey A. LaMack
date accessioned2017-05-09T00:18:45Z
date available2017-05-09T00:18:45Z
date copyrightDecember, 2006
date issued2006
identifier issn0148-0731
identifier otherJBENDY-26642#965_1.pdf
identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/133118
description abstractBackground. In vivo experimentation is the most realistic approach for exploring the vascular biological response to the hemodynamic stresses that are present in life. Post-mortem vascular casting has been used to define the in vivo geometry for hemodynamic simulation; however, this procedure damages or destroys the tissue and cells on which biological assays are to be performed. Method of Approach. Two statistical approaches, regional (RSH) and linear (LSH) statistical hemodynamics, are proposed and illustrated, in which flow simulations from one series of experiments are used to define a best estimate of the hemodynamic environment in a second series. As an illustration of the technique, RSH is used to compare the gene expression profiles of regions of the proximal external iliac arteries of swine exposed to different levels of time-average shear stress. Results. The results indicate that higher shears promote a more atheroprotective expression phenotype in porcine arterial endothelium. Conclusion. Statistical hemodynamics provides a realistic estimate of the hemodynamic stress on vascular tissue that can be correlated against biological response.
publisherThe American Society of Mechanical Engineers (ASME)
titleStatistical Hemodynamics: A Tool for Evaluating the Effect of Fluid Dynamic Forces on Vascular Biology In Vivo
typeJournal Paper
journal volume128
journal issue6
journal titleJournal of Biomechanical Engineering
identifier doi10.1115/1.2354212
journal fristpage965
journal lastpage968
identifier eissn1528-8951
keywordsStress
keywordsShear (Mechanics)
keywordsHemodynamics
keywordsBiological tissues
keywordsFluid-dynamic forces AND Casting
treeJournal of Biomechanical Engineering:;2006:;volume( 128 ):;issue: 006
contenttypeFulltext


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