压力负荷下脂肪源间充质干细胞的机械调节研究:细胞工程的数值研究

Zakieh Alihemmati, B. Vahidi, N. Haghighipour
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引用次数: 0

摘要

间充质干细胞(MSCs)具有向其他细胞分化的潜力,这一特性使其成为组织工程中有吸引力的来源。间充质干细胞在体内受到许多机械刺激,如体内压力负荷,细胞对这些刺激的反应之一是分化为软骨细胞或骨细胞。实现这一目标最重要的途径之一是一种叫做机械转导的过程,它可以激活细胞成分中的许多生化信号。信号传递的生物力学途径尚不清楚,最近的发育发现表明导致细胞变形的力也参与其中。本文从单元构件的力学行为出发,分析了单元的力学行为。本研究介绍了一种理想的方法,使用有限元建模,着重于使用计算工具的细胞力学。本研究是为了模拟细胞变形发生的实验情况。该方法用于分析胞体内部的应变分布,对估算胞体在压力荷载作用下的性能起着关键作用。
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Mechanical modulation study of an adipose-derived mesenchymal stem cell under pressure loading: A numerical investigation on cell engineering
Mesenchymal stem cells (MSCs) have the potential to differentiate to other cells and this feature makes it as an attractive source in tissue engineering. Mesenchymal stem cells are subjected to many mechanical stimuli in vivo such as an in vivo pressure loading and one of the cell respond to these stimuli is differentiation to cartilage or bone cell. One of the most significant ways for this goal is a process which is called mechanotransduction which can activate many biochemical signals in cell components. The biomechanical pathways for signal transmission are unknown and recent developmental findings indicate that forces which cause cell deformation are involved. Cell behavior is analyzed in this paper based on mechanical behavior of cell components. This study introduces an ideal method using finite element modeling which focuses on the cell mechanics using computational tools. This study is conducted in order to simulate an experimental situation in which cell deformation occurs. This method is used to analyze the strain distribution in the cell and play a key role in estimating the cell behavior under pressure loading.
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