To test the power of graph representation learning methods based on Isomorphism Testing
3260 papers • 126 benchmarks • 313 datasets
To test the power of graph representation learning methods based on Isomorphism Testing
(Image credit: Papersgraph)
These leaderboards are used to track progress in graph-classification
No benchmarks available.
Use these libraries to find graph-classification models and implementations
No datasets available.
No subtasks available.
UGT reaches the expressive power of the third-order Weisfeiler-Lehman isomorphism test (3d-WL) in distinguishing non-isomorphic graph pairs and proposes a self-supervised learning task that effectively learns transition probability to fuse local and global structural features, which could be transferred to other downstream tasks.
A local relational pooling approach with inspirations from Murphy et al. (2019) is proposed and demonstrated that it is not only effective for substructure counting but also able to achieve competitive performance on real-world tasks.
It is proved that order-2 Graph G-invariant networks fail to distinguish non-isomorphic regular graphs with the same degree, and is extended to a new architecture, Ring-GNNs, which succeeds on distinguishing these graphs and provides improvements on real-world social network datasets.
This work shows that one can increase the expressive power of the Weisfeiler-Leman (WL) test ad infinitum, and proposes an efficient pre-coloring based on spectral features that provably increase the expressiveness of the vanilla WL test.
This work compares multi-layer Graph Neural Networks with a simplified alternative that is called Graph-Augmented Multi-Layer Perceptrons (GA-MLPs), which first augments node features with certain multi-hop operators on the graph and then applies an MLP in a node-wise fashion.
This work generalizes the concept of color refinement and proposes a framework for gradual neighborhood refinement, which allows a slower convergence to the stable coloring and thus provides a more fine-grained refinement hierarchy and vertex similarity.
This work proposes the (k, c)(<=)-SETWL hierarchy with greatly reduced complexity from k-WL, achieved by moving fromk-tuples of nodes to sets with<=k nodes defined over<=c connected components in the induced original graph, and shows favorable theoretical results for this model in relation to k- WL.
Inspired by the classical planar graph isomorphism algorithm of Hopcroft and Tarjan, PlanE is proposed as a framework for planar representation learning, which includes architectures which can learn complete invariants over planar graphs while remaining practically scalable.
Adding a benchmark result helps the community track progress.