IM-MPNN coarsens a graph into multiple scales, runs message passing on each scale in parallel, and interleaves information between scales, improving long-range information flow in MPNNs.
Where Did the Gap Go? Reassessing the Long-Range Graph Benchmark
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abstract
The recent Long-Range Graph Benchmark (LRGB, Dwivedi et al. 2022) introduced a set of graph learning tasks strongly dependent on long-range interaction between vertices. Empirical evidence suggests that on these tasks Graph Transformers significantly outperform Message Passing GNNs (MPGNNs). In this paper, we carefully reevaluate multiple MPGNN baselines as well as the Graph Transformer GPS (Ramp\'a\v{s}ek et al. 2022) on LRGB. Through a rigorous empirical analysis, we demonstrate that the reported performance gap is overestimated due to suboptimal hyperparameter choices. It is noteworthy that across multiple datasets the performance gap completely vanishes after basic hyperparameter optimization. In addition, we discuss the impact of lacking feature normalization for LRGB's vision datasets and highlight a spurious implementation of LRGB's link prediction metric. The principal aim of our paper is to establish a higher standard of empirical rigor within the graph machine learning community.
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2025 1verdicts
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Improving the Effective Receptive Field of Message-Passing Neural Networks
IM-MPNN coarsens a graph into multiple scales, runs message passing on each scale in parallel, and interleaves information between scales, improving long-range information flow in MPNNs.