图推理网络及其应用

Qingxing Cao, Wentao Wan, Xiaodan Liang, Liang Lin
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引用次数: 1

摘要

尽管数据驱动的深度神经网络在各个领域取得了显著的成功,但其特征可解释性受到损害,缺乏全局推理能力,并且无法整合复杂的现实世界任务所必需的外部信息。由于结构化知识可以为记录人类观察和常识提供丰富的线索,因此需要将符号语义与学习到的局部特征表示连接起来。在本章中,我们回顾了将不同领域知识纳入中间特征表示的工作。这些方法首先构建一个特定领域的图来表示相关的人类知识。然后,他们用神经网络特征来表征节点表示,并通过图神经网络(GNN)进行图卷积来增强这些符号节点。最后,他们将增强的节点特征映射回神经网络以进一步传播或预测。通过将知识图集成到神经网络中,可以使用相同的监督损失函数协同特征学习和图推理,实现更有效和可解释的方式引入结构约束。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Graph Reasoning Networks and Applications
Despite the significant success in various domains, the data-driven deep neural networks compromise the feature interpretability, lack the global reasoning capability, and can’t incorporate external information crucial for complicated real-world tasks. Since the structured knowledge can provide rich cues to record human observations and commonsense, it is thus desirable to bridge symbolic semantics with learned local feature representations. In this chapter, we review works that incorporate different domain knowledge into the intermediate feature representation.These methods firstly construct a domain-specific graph that represents related human knowledge. Then, they characterize node representations with neural network features and perform graph convolution to enhance these symbolic nodes via the graph neural network(GNN).Lastly, they map the enhanced node feature back into the neural network for further propagation or prediction. Through integrating knowledge graphs into neural networks, one can collaborate feature learning and graph reasoning with the same supervised loss function and achieve a more effective and interpretable way to introduce structure constraints.
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