Boolean Factor Graph Modeling and Analysis of Gene Graphs: Budding Yeast Cell-Cycle

Stephen Kotiang, A. Eslami
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Abstract

The desire to understand genomic functions and the behavior of complex gene regulatory networks has recently been a major research focus in systems biology. As a result, a plethora of computational and modeling tools have been proposed to identify and infer interactions among biological entities. Here, we consider the general question of the effect of perturbation on the global dynamical network behavior as well as error propagation in biological networks to incite research pertaining to intervention strategies. This paper introduces a computational framework that combines the formulation of Boolean networks (BNs) and factor graphs to explore the global dynamical features of biological systems. A message-passing algorithm is proposed for this formalism to evolve network states as messages in the graph. The model is applied to assess the network state progression and the impact of gene deletion in the budding yeast cell cycle. Simulation results show that our model predictions match published experimental data.
基因图的布尔因子图建模与分析:出芽酵母细胞周期
了解基因组功能和复杂基因调控网络的行为的愿望最近已成为系统生物学的主要研究焦点。因此,已经提出了大量的计算和建模工具来识别和推断生物实体之间的相互作用。在这里,我们考虑扰动对全局动态网络行为的影响以及生物网络中的误差传播的一般问题,以激发有关干预策略的研究。本文介绍了一种结合布尔网络(BNs)和因子图的计算框架来探索生物系统的全局动态特征。针对这种形式,提出了一种消息传递算法,将网络状态演化为图中的消息。该模型用于评估出芽酵母细胞周期中网络状态的进展和基因缺失的影响。仿真结果表明,我们的模型预测与已发表的实验数据相符。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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