A computational scheme connecting gene regulatory network dynamics with heterogeneous stem cell regeneration

Yakun Li, Xiyin Liang, Jinzhi Lei
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Abstract

Stem cell regeneration is a vital biological process in self-renewing tissues, governing development and tissue homeostasis. Gene regulatory network dynamics are pivotal in controlling stem cell regeneration and cell type transitions. However, integrating the quantitative dynamics of gene regulatory networks at the single-cell level with stem cell regeneration at the population level poses significant challenges. This study presents a computational framework connecting gene regulatory network dynamics with stem cell regeneration through a data-driven formulation of the inheritance function. The inheritance function captures epigenetic state transitions during cell division in heterogeneous stem cell populations. Our scheme allows the derivation of the inheritance function based on a hybrid model of cross-cell-cycle gene regulation network dynamics. The proposed scheme enables us to derive the inheritance function based on the hybrid model of cross-cell-cycle gene regulation network dynamics. By explicitly incorporating gene regulatory network structure, it replicates cross-cell-cycling gene regulation dynamics through individual-cell-based modeling. The numerical scheme holds the potential for extension to diverse gene regulatory networks, facilitating a deeper understanding of the connection between gene regulation dynamics and stem cell regeneration.
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连接基因调控网络动力学与异质干细胞再生的计算方案
干细胞再生是自我更新组织中的一个重要生物过程,支配着组织的发育和平衡。基因调控网络动力学是控制干细胞再生和细胞类型转换的关键。然而,将单细胞水平的基因调控网络定量动态与群体水平的干细胞再生结合起来是一项重大挑战。本研究提出了一个计算框架,通过数据驱动的遗传函数表述,将基因调控网络动力学与干细胞再生联系起来。遗传函数捕捉了异质干细胞群体细胞分裂过程中的表观遗传状态转变。我们的方案允许在跨细胞周期基因调控网络动力学混合模型的基础上推导遗传函数。我们提出的方案使我们能够在跨细胞周期基因调控网络动力学混合模型的基础上推导出遗传函数。通过明确纳入基因调控网络结构,它通过基于单细胞的建模复制了跨细胞周期基因调控动态。该数值方案有可能扩展到多种基因调控网络,有助于加深对基因调控动态与干细胞再生之间联系的理解。
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