Probabilistic theory and differential equation are powerful tools for the interpretability and guidance of the design of machine learning models, especially for illuminating the mathematical motivation of learning latent variable from observation. Subspace learning maps high-dimensional features on low-dimensional subspace to capture efficient representation. Graphs are widely applied for modeling latent variable learning problems, and graph neural networks implement deep learning architectures on graphs. Inspired by probabilistic theory and differential equations, this paper conducts notes and proposals about graph neural networks to solve subspace learning problems by variational inference and differential equation. Source code of this paper is available at https://github.com/zshicode/Latent-variable-GNN.
翻译:概率理论和差异等式是解释和指导设计机器学习模型的有力工具,特别是说明从观测中学习潜伏变量的数学动机。子空间学习绘制了低维次空间的高维特征图以获取高效代表性。图表被广泛用于模拟潜伏变量学习问题,图形神经网络在图形上实施深层学习结构。在概率理论和差异方程式的启发下,本文件就图形神经网络编写说明和建议,通过变式推论和差异方程式解决子空间学习问题。本文的源代码见https://github.com/zshicode/Latent-可变性GNN。