Oblique Genomics Mixture of Experts: Prediction of Brain Disorder With Aging-Related Changes of Brain's Structural Connectivity Under Genomic Influences.

Yanjun Lyu, Jing Zhang, Lu Zhang, Wei Ruan, Tianming Liu, Dajiang Zhu
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Abstract

During the process of brain aging, the changes of white matter structural connectivity are closely correlated with the cognitive traits and brain function. Genes have strong controls over this transition of structural connectivity-altering, which influences brain health and may lead to severe dementia disease, e.g., Alzheimer's disease. In this work, we introduce a novel deep-learning diagram, an oblique genomics mixture of experts(OG-MoE), designed to address the prediction of brain disease diagnosis, with awareness of the structural connectivity changes over time, and coupled with the genomics influences. By integrating genomics features into the dynamic gating router system of MoE layers, the model specializes in representing the structural connectivity components in separate parameter spaces. We pretrained the model on the self-regression task of brain connectivity predictions and then implemented multi-task supervised learning on brain disorder predictions and brain aging prediction. Compared to traditional associations analysis, this work provided a new way of discovering the soft but intricate inter-play between brain connectome phenotypes and genomic traits. It revealed the significant divergence of this correlation between the normal brain aging process and neurodegeneration.

专家的倾斜基因组学混合:在基因组影响下,大脑结构连接的衰老相关变化预测大脑疾病。
在脑老化过程中,脑白质结构连通性的变化与认知特征和脑功能密切相关。基因对这种结构连接改变的转变有很强的控制力,这种转变会影响大脑健康,并可能导致严重的痴呆症,例如阿尔茨海默病。在这项工作中,我们引入了一种新的深度学习图,一种倾斜基因组学混合专家(OG-MoE),旨在解决脑疾病诊断的预测,意识到结构连接随时间的变化,并结合基因组学的影响。该模型通过将基因组学特征集成到MoE层的动态门控路由器系统中,专注于在单独的参数空间中表示结构连接组件。我们在脑连通性预测的自回归任务上对模型进行预训练,然后在脑障碍预测和脑衰老预测上实现多任务监督学习。与传统的关联分析相比,这项工作提供了一种新的方法来发现脑连接组表型和基因组性状之间柔软而复杂的相互作用。它揭示了正常大脑衰老过程和神经变性之间这种相关性的显著差异。
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