Wasserstein Graph Distance Based on L1-Approximated Tree Edit Distance between Weisfeiler-Lehman Subtrees
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Abstract (arXiv)
The Weisfeiler-Lehman (WL) test is a widely used algorithm in graph machine learning, including graph kernels, graph metrics, and graph neural networks. However, it focuses only on the consistency of the graph, which means that it is unable to detect slight structural differences. Consequently, this limits its ability to capture structural information, which also limits the performance of existing models that rely on the WL test. This limitation is particularly severe for traditional metrics defined by the WL test, which cannot precisely capture slight structural differences. In this paper, we propose a novel graph metric called the Wasserstein WL Subtree (WWLS) distance to address this problem. Our approach leverages the WL subtree as structural information for node neighborhoods and defines node metrics using the L1-approximated tree edit distance (L1-TED) between WL subtrees of nodes. Subsequently, we combine the Wasserstein distance and the L1-TED to define the WWLS distance, which can capture slight structural differences that may be difficult to detect using conventional metrics. We demonstrate that the proposed WWLS distance outperforms baselines in both metric validation and graph classification experiments.
Key facts. Cited by 4 papers in the map (data through 7 Oct 2026). Builds on 22 of its 59 references that are in the map. First posted on arXiv 9 Jul 2022.
Builds on
22 of 59 references.
References · 22
- 2018How Powerful are Graph Neural Networks?cited by 4,355
- 2017Neural Message Passing for Quantum Chemistrycited by 3,460
- 2019A Comprehensive Survey on Graph Neural Networkscited by 2,906
- 2013Sinkhorn Distances: Lightspeed Computation of Optimal Transportation Distancescited by 2,277
- 2016node2vec: Scalable Feature Learning for Networkscited by 1,913
- 2014DeepWalk: Online Learning of Social Representationscited by 1,543
- 2018Weisfeiler and Leman Go Neural: Higher-order Graph Neural Networkscited by 878
- 2020TUDataset: A collection of benchmark datasets for learning with graphscited by 718
- 2019Graph Neural Networks for Social Recommendationcited by 711
- 2019A Fair Comparison of Graph Neural Networks for Graph Classificationcited by 244
- 2021Weisfeiler and Lehman Go Topological: Message Passing Simplicial Networkscited by 219
- 2018Optimal Transport for structured data with application on graphscited by 170
10 more
- 2020A Survey on The Expressive Power of Graph Neural Networkscited by 111
- 2019Wasserstein Weisfeiler-Lehman Graph Kernelscited by 104
- 2018Fused Gromov-Wasserstein distance for structured objects: theoretical foundations and mathematical propertiescited by 93
- 2018SimGNN: A Neural Network Approach to Fast Graph Similarity Computationcited by 89
- 2016On Valid Optimal Assignment Kernels and Applications to Graph Classificationcited by 49
- 2019Graph Kernels: A Surveycited by 43
- 2015Graph Isomorphism in Quasipolynomial Timecited by 19
- 2021A Generalized Weisfeiler-Lehman Graph Kernelcited by 9
- 2020LCS Graph Kernel Based on Wasserstein Distance in Longest Common Subsequence Metric Spacecited by 7
- 2016Linear Programming Heuristics for the Graph Isomorphism Problemcited by 3
Built on by
Citing papers per year: 2022: 1; 2023: 1; 2024: 1; 2025: 0; 2026: 1.
4 papers.
- 2022Gradual Weisfeiler-Leman: Slow and Steady Wins the Racecited by 5
- 2024TopER: Topological Embeddings in Graph Representation Learningcited by 1
- 2026TopoFormer: Topology Meets Attention for Graph Learningcited by 1
- 2023Anchor Space Optimal Transport as a Fast Solution to Multiple Optimal Transport Problemscited by 0
- 2026TopoFormer: Topology Meets Attention for Graph Learning30 Jul 2026
- 2024TopER: Topological Embeddings in Graph Representation Learning2 Oct 2024
- 2023Anchor Space Optimal Transport as a Fast Solution to Multiple Optimal Transport Problems24 Oct 2023
- 2022Gradual Weisfeiler-Leman: Slow and Steady Wins the Race19 Sep 2022