arXiv:2511.12434cs.LG2025-11

提出新方法缓解图神经网络训练中的历史嵌入过时问题

VISAGNN: Versatile Staleness-Aware Efficient Training on Large-Scale Graphs

  • 将过时度动态融入消息传递、损失函数和历史嵌入中
  • 在大规模图上实现更快收敛与更高下游精度
  • 适合需要高效训练超深图神经网络的研究者

图神经网络(GNN)在图表示学习和众多实际应用中表现优异。然而,在大规模图上训练更深的GNN面临邻居爆炸问题。为缓解此问题,现有方法利用历史嵌入减少计算与内存开销,同时保持模型表达能力,通过历史嵌入对批量外节点进行近似全批量训练,避免了传统采样方法丢失邻居信息的缺陷。但历史嵌入的过时性常引入显著偏差,成为性能瓶颈。本文提出一种新型通用过时感知图神经网络VISAGNN,将过时度动态自适应地融入大规模GNN训练过程。通过将过时度嵌入消息传递机制、损失函数及历史嵌入中,模型可自适应缓解过时嵌入的负面影响,从而降低估计误差并提升下游任务准确率。大量实验表明,该方法有效克服了现有历史嵌入技术的过时问题,在大规模基准测试中表现出更优性能与效率,并实现显著更快收敛。

原文摘要 · Abstract (English)

Graph Neural Networks (GNNs) have shown exceptional success in graph representation learning and a wide range of real-world applications. However, scaling deeper GNNs poses challenges due to the neighbor explosion problem when training on large-scale graphs. To mitigate this, a promising class of GNN training algorithms utilizes historical embeddings to reduce computation and memory costs while preserving the expressiveness of the model. These methods leverage historical embeddings for out-of-batch nodes, effectively approximating full-batch training without losing any neighbor information-a limitation found in traditional sampling methods. However, the staleness of these historical embeddings often introduces significant bias, acting as a bottleneck that can adversely affect model performance. In this paper, we propose a novel VersatIle Staleness-Aware GNN, named VISAGNN, which dynamically and adaptively incorporates staleness criteria into the large-scale GNN training process. By embedding staleness into the message passing mechanism, loss function, and historical embeddings during training, our approach enables the model to adaptively mitigate the negative effects of stale embeddings, thereby reducing estimation errors and enhancing downstream accuracy. Comprehensive experiments demonstrate the effectiveness of our method in overcoming the staleness issue of existing historical embedding techniques, showcasing its superior performance and efficiency on large-scale benchmarks, along with significantly faster convergence.

图神经网络过时感知高效训练大规模图

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