基于改进深度学习模型的高阶基因-基因相互作用的密集搜索

Suneetha Uppu, A. Krishna
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引用次数: 1

摘要

在遗传流行病学的新时代,人们对研究遗传变异及其与复杂疾病的关系越来越感兴趣。现代计算方法的进步促使人们寻找与疾病表现相关的有用的相互作用遗传变异。然而,当数据采集和维度增加时,这些传统策略在预测有趣的交互方面面临许多挑战。深度学习有望在包括生物信息学在内的许多应用中取得经验上的成功,以推动对生物复杂性的见解。以前提出了一种深度神经网络来识别真正的致病双位点SNP相互作用。在各种模拟和真实数据集上对该方法进行了评估。在本研究中,通过改进网络学习和避免过拟合来最大化先前提出的深度学习方法的性能。该方法进一步扩展到灵敏度分析。该方法的性能是评估慢性透析患者的数据,以确定高阶相互作用。我们观察到,线粒体D-loop中排名靠前的两位点和三位点SNP相互作用具有最高的疾病表现风险。
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[Regular Paper] An Intensive Search for Higher-Order Gene-Gene Interactions by Improving Deep Learning Model
In the new era of genetic epidemiology, there have been growing interest in studying genetic variants and their associations to complex diseases. Advances in modern computational approaches have led to the search for useful interacting genetic variants that are associated to the manifestation of a disease. However, these conventional strategies face number of challenges in predicting interesting interactions when data acquisition and dimensionality increases. Deep learning promises empirical success in number of applications including bioinformatics to drive insights of biological complexities. A deep neural network was previously proposed to identify true causative two-locus SNP interactions. The method was evaluated on various simulated and real datasets. In this study, the performance of the previously proposed deep learning method is maximized by improving network learning and avoiding overfitting. The method is further extended for performing sensitivity analysis. The performance of the method is evaluated on chronical dialysis patient's data for identifying higher-order interactions. It was observed that the highly ranked two-locus and three-locus SNP interactions in mitochondrial D-loop has the highest risk for the manifestation of disease.
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