Hypergraph Convolution and Hypergraph Attention
About
Recently, graph neural networks have attracted great attention and achieved prominent performance in various research fields. Most of those algorithms have assumed pairwise relationships of objects of interest. However, in many real applications, the relationships between objects are in higher-order, beyond a pairwise formulation. To efficiently learn deep embeddings on the high-order graph-structured data, we introduce two end-to-end trainable operators to the family of graph neural networks, i.e., hypergraph convolution and hypergraph attention. Whilst hypergraph convolution defines the basic formulation of performing convolution on a hypergraph, hypergraph attention further enhances the capacity of representation learning by leveraging an attention module. With the two operators, a graph neural network is readily extended to a more flexible model and applied to diverse applications where non-pairwise relationships are observed. Extensive experimental results with semi-supervised node classification demonstrate the effectiveness of hypergraph convolution and hypergraph attention.
Related benchmarks
| Task | Dataset | Result | Rank | |
|---|---|---|---|---|
| Node Classification | Citeseer (test) | Accuracy0.7242 | 729 | |
| Node Classification | Cora (test) | Mean Accuracy79.14 | 687 | |
| Node Classification | PubMed (test) | Accuracy86.41 | 500 | |
| Node Classification | Cora HOMO. (test) | Mean Accuracy79.23 | 30 | |
| Node Classification | Cora HET. (test) | Accuracy63.27 | 30 | |
| Hypergraph Classification | IMDB dir form | Accuracy61.65 | 26 | |
| Node Classification | Yelp (test) | -- | 26 | |
| Vertex Classification | Zoo (test) | Accuracy (%)93.65 | 21 | |
| Node Classification | Twitter HOMO (test) | Mean Accuracy72.04 | 15 | |
| Node Classification | Congress sigma=1.0 | Mean Accuracy89.81 | 15 |