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A Simple and Scalable Graph Neural Network for Large Directed Graphs
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A Simple and Scalable Graph Neural Network for Large Directed Graphs
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Node classification is one of the hottest tasks in graph analysis. Though existing studies have explored various node representations in directed and undirected graphs, they have overlooked the distinctions of their capabilities to capture the information of graphs. To tackle the limitation, we investigate various combinations of node representations (aggregated features vs. adjacency lists) and edge direction awareness within an input graph (directed vs. undirected). We address the first empirical study to benchmark the performance of various GNNs that use either combination of node representations and edge direction awareness. Our experiments demonstrate that no single combination stably achieves state-of-the-art results across datasets, which indicates that we need to select appropriate combinations depending on the dataset characteristics. In response, we propose a simple yet holistic classification method A2DUG which leverages all combinations of node representations in directed and undirected graphs. We demonstrate that A2DUG stably performs well on various datasets and improves the accuracy up to 11.29 compared with the state-of-the-art methods. To spur the development of new methods, we publicly release our complete codebase under the MIT license.
Forward citations
Cited by 2 Pith papers
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Graph Neural Network leveraging Higher-order Class Label Connectivity for Heterophilous Graphs
LCC uses four walk types on directed graphs to build label context embeddings that improve node classification when combined with GNNs on heterophilous data.
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Toward General Digraph Contrastive Learning: A Dual Spatial Perspective
S2-DiGCL combines personalized magnetic Laplacian perturbations with BFS/DFS path sampling to improve contrastive learning on directed graphs.
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