3D quantitative brain tumor growth model based on cell proliferation and diffusion

Sohana Tanzeem, W. Reddick, K. Iftekharuddin
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引用次数: 1

Abstract

The focus of this work was to develop a 3D mapping of brain tumor (glioma) growth based on cell proliferation and diffusion. In this mathematical model, we incorporated high resolution brain tissue maps (white and gray matter) from an anonymized pediatric patient and initialized the model with a single voxel seed point of tumor with a Gaussian distribution. We used this model to investigate the ratio of growth rate to the diffusion coefficient (ρ/D) which determines the proportion of tumor that is detectable. After expansion of the tumor growth model to three dimensions and solving the differential equations for our specific starting conditions, we performed several simulations to assess tumor growth patterns. After observing the performance of the model at varying time points across a one year time frame with different values for ρ/D, we ascertained that the tumor diffused more rapidly than the cell proliferated for a short period of time followed by an exponential growth in detectable tumor size.
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基于细胞增殖和扩散的三维脑肿瘤生长定量模型
这项工作的重点是开发基于细胞增殖和扩散的脑肿瘤(胶质瘤)生长的3D地图。在该数学模型中,我们结合了一位匿名儿科患者的高分辨率脑组织图(白质和灰质),并使用高斯分布的单个肿瘤体素种子点初始化模型。我们用这个模型研究了生长速率与扩散系数(ρ/D)的比值,它决定了肿瘤的可检出比例。在将肿瘤生长模型扩展到三维并求解特定起始条件的微分方程后,我们进行了几次模拟来评估肿瘤的生长模式。在观察模型在不同时间点的表现后,在一年的时间框架内,ρ/D值不同,我们确定肿瘤扩散比细胞增殖更快,在短时间内,随后可检测的肿瘤大小呈指数增长。
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