Shear stress distributions on the membrane of endothelial cells using 3-D computational modeling with fluid-structure interactions

D. Tang, Chun Yang, S.Q. Liu
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引用次数: 0

Abstract

Fluid shear stress may play an important role in regulating cell activities and motility of growth factors in artery remodeling, atherosclerosis and re-stenosis process. 3-D computational models based on a multi-cell experimental model are introduced and solved to quantify shear stress distributions on cell surfaces under physiological setting. Combined with experimental data, relationship between fluid shear stress and endothelial cell activities can be established. Cell geometry and membrane mechanical properties affect micro flow environment leading to considerable changes in shear stress distributions and various cell activities such as cell migration and activation of cell migration signaling mechanisms.
基于流固耦合的内皮细胞膜剪切应力三维计算模型研究
流体剪切应力可能在动脉重构、动脉粥样硬化和再狭窄过程中调节细胞活性和生长因子的运动中起重要作用。引入并求解了基于多细胞实验模型的三维计算模型,以量化生理条件下细胞表面的剪应力分布。结合实验数据,建立了流体剪切应力与内皮细胞活性之间的关系。细胞几何和膜力学特性影响微流环境,导致剪切应力分布和各种细胞活动的显著变化,如细胞迁移和激活细胞迁移信号机制。
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