红细胞通过微血管挤压的数学模型和疟疾感染的影响

Priyank Gullipalli, Sarit K. Das
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引用次数: 0

摘要

被疟疾寄生虫感染的红细胞具有一整套完全不同的结构、生化和生物物理特性。这些变化对我们体内携带氧气的细胞的流动产生了巨大的影响。生物物理参数的变化,如膜的刚度,是通过实验得到的,也可以在文献中找到。观察了红细胞在感染条件下的运动。红细胞变成球形,在其膜上形成手指状结构,这些结构可以观察到,但无法分析,因为在如此小的尺度下测量是非常困难的。因此,一个能够复制这种运动的计算模型对于了解如此小尺度的生物物理现象是非常必要的。为了克服这一限制,本研究开发了一个红细胞模型,以计算模拟红细胞在不同条件下的流动,无论有无感染。这个模型成功地预测了红细胞流动中发生的现象。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mathematical Modeling of Red Blood Cells Squeezing through Micro-capillaries and the Effect of Malaria Infection
Red Blood Cells (RBCs) when infected by Malaria Parasites have altogether a different set of structural, biochemical and biophysical properties. These changes have drastic effects on the flow of these oxygen carrying cells in our body. The change in the biophysical parameters like the stiffness of the membrane is obtained experimentally and is available in the literature. The motion of the RBCs has been observed under the infected conditions. The RBCs becoming spherocytic, develops finger-like structures on its membrane which are observed but could not be analyzed as measurement at such small scale is extremely difficult. Hence, a computational model to replicate such motion is very essential for knowing the biophysical phenomena at such small scale. To overcome this limitation, a model has been developed for RBCs in the present study to simulate their flow under different conditions with or without infection computationally. This model successfully predicts the phenomena occurring in the flow of the RBCs...
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