Interpretable Spatio-Temporal Embedding for Brain Structural-Effective Network with Ordinary Differential Equation.

Haoteng Tang, Guodong Liu, Siyuan Dai, Kai Ye, Kun Zhao, Wenlu Wang, Carl Yang, Lifang He, Alex Leow, Paul Thompson, Heng Huang, Liang Zhan
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Abstract

The MRI-derived brain network serves as a pivotal instrument in elucidating both the structural and functional aspects of the brain, encompassing the ramifications of diseases and developmental processes. However, prevailing methodologies, often focusing on synchronous BOLD signals from functional MRI (fMRI), may not capture directional influences among brain regions and rarely tackle temporal functional dynamics. In this study, we first construct the brain-effective network via the dynamic causal model. Subsequently, we introduce an interpretable graph learning framework termed Spatio-Temporal Embedding ODE (STE-ODE). This framework incorporates specifically designed directed node embedding layers, aiming at capturing the dynamic inter-play between structural and effective networks via an ordinary differential equation (ODE) model, which characterizes spatial-temporal brain dynamics. Our framework is validated on several clinical phenotype prediction tasks using two independent publicly available datasets (HCP and OASIS). The experimental results clearly demonstrate the advantages of our model compared to several state-of-the-art methods.

用常微分方程对大脑结构-效应网络进行可解释的时空嵌入
核磁共振成像(MRI)衍生的大脑网络是阐明大脑结构和功能方面的重要工具,包括疾病和发育过程的影响。然而,现有的方法通常侧重于功能磁共振成像(fMRI)的同步BOLD信号,可能无法捕捉到脑区之间的定向影响,也很少处理时间功能动态。在本研究中,我们首先通过动态因果模型构建了脑效网络。随后,我们引入了一个可解释的图学习框架,称为时空嵌入式 ODE(STE-ODE)。该框架包含专门设计的有向节点嵌入层,旨在通过常微分方程(ODE)模型捕捉结构网络和有效网络之间的动态相互作用,从而描述大脑的时空动态。我们的框架利用两个独立的公开数据集(HCP 和 OASIS)在多个临床表型预测任务中进行了验证。实验结果清楚地表明,与几种最先进的方法相比,我们的模型更具优势。
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