2024
DOI: 10.1007/s11063-024-11496-1
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GraphSAGE++: Weighted Multi-scale GNN for Graph Representation Learning

E. Jiawei,
Yinglong Zhang,
Shangying Yang
et al.

Abstract: Graph neural networks (GNNs) have emerged as a powerful tool in graph representation learning. However, they are increasingly challenged by over-smoothing as network depth grows, compromising their ability to capture and represent complex graph structures. Additionally, some popular GNN variants only consider local neighbor information during node updating, ignoring the global structural information and leading to inadequate learning and differentiation of graph structures. To address these challenges, we intr… Show more

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“…Recently, some researchers have proposed several hybrid models for link prediction to improve its performance [ 21 ]. Jiawei et al [ 22 ] proposed a new graph neural network framework, GraphSAGE++, which introduced causal inference into the GraphSAGE model and used aggregation functions to integrate selected neighbor features into the feature vector generation of target nodes. Tan et al [ 23 ] proposed a counterfactual and factual (CF2) reasoning-based deep neural network interpretation and evaluation method for graph prediction.…”
Section: Introductionmentioning
confidence: 99%
“…Recently, some researchers have proposed several hybrid models for link prediction to improve its performance [ 21 ]. Jiawei et al [ 22 ] proposed a new graph neural network framework, GraphSAGE++, which introduced causal inference into the GraphSAGE model and used aggregation functions to integrate selected neighbor features into the feature vector generation of target nodes. Tan et al [ 23 ] proposed a counterfactual and factual (CF2) reasoning-based deep neural network interpretation and evaluation method for graph prediction.…”
Section: Introductionmentioning
confidence: 99%