肿瘤细胞血管样结构形成的建模与模拟

Tomoka Tsuchiya, T. Saiki, T. Nakano
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引用次数: 1

摘要

最近的癌症生物学研究表明,癌细胞形成了一个大规模的血管样结构,使它们能够以合作的方式进入血管和营养来源。为了了解癌细胞是如何形成这种结构的,我们开发了一个基于个体的癌细胞模型。在我们的模型中,每个癌细胞的移动都是基于吸引力和排斥力。引力分为两种:远距离力和接触力。远力是指一个细胞在一定距离内对另一个细胞施加的力,而接触力是指两个细胞在物理接触中作用的力。斥力表示体积排斥效应,允许两个细胞彼此保持距离。它也负责细胞向上运动。此外,在我们的模型中,细胞分裂的概率是基于细胞周期的。使用我们开发的模型,我们进行计算机模拟实验,并复制类似于在湿实验室实验中观察到的癌细胞结构。本文所建立的模型可用于肿瘤细胞血管样结构形成的计算机分析。
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Modeling and Simulations of Vascular-like Structure Formation of Cancer Cells
Recent studies in cancer biology reveal that cancer cells form a large-scale vascular-like structure, allowing them to gain access to blood vessels and nutrient sources in a cooperative manner. To understand how cancer cells form such a structure, we develop an individual-based model of cancer cells. In our model, each cancer cell moves based on the attraction and repulsion forces. The attraction force is divided into two types: remote and contact forces. The remote force is the one that one cell exerts on another at a distance while the contact force is the one that acts between two cells in physical contact. The repulsion force represents volume exclusion effects, allowing two cells to maintain a distance from each other. It is also responsible for the upward cell motion. Also, in our model, cells divide probabilistically based on a cell cycle. Using the model we develop, we conduct computer simulation experiments and reproduce the structure of cancer cells similar to that observed in wet laboratory experiments. The model developed in this paper can be used for in silico analysis of vascular-like structure formation of cancer cells.
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