Enhancing Graph-Based Learning with Advanced Clustering and Representation Techniques

The recent advancements in graph-based machine learning have significantly focused on enhancing clustering and representation learning techniques. A notable trend is the integration of feature-rich approaches with graph neural networks (GNNs), addressing the limitations of traditional methods that often overlook node feature information. Innovations such as personalized and multi-granularity clustering are emerging, offering more nuanced and user-specific solutions. Additionally, contrastive learning on dynamic graphs is gaining traction, providing robust unsupervised learning mechanisms that adapt to evolving graph structures. These developments collectively push the boundaries of graph-based learning, enabling more accurate and efficient solutions for complex tasks such as link prediction, node classification, and friend suggestion in social networks. Notably, methods like Augmentation-Free Edge Contrastive Learning and Multi-view Granular-ball Contrastive Clustering stand out for their novel approaches to enhancing model performance without the need for extensive data augmentation or complex computations.

Sources

One Node One Model: Featuring the Missing-Half for Graph Clustering

Deep Spectral Clustering via Joint Spectral Embedding and Kmeans

Edge Contrastive Learning: An Augmentation-Free Graph Contrastive Learning Model

THESAURUS: Contrastive Graph Clustering by Swapping Fused Gromov-Wasserstein Couplings

SE-GCL: An Event-Based Simple and Effective Graph Contrastive Learning for Text Representation

GNN Applied to Ego-nets for Friend Suggestions

Bidirectional Logits Tree: Pursuing Granularity Reconcilement in Fine-Grained Classification

Multi-Granularity Open Intent Classification via Adaptive Granular-Ball Decision Boundary

Multi-view Granular-ball Contrastive Clustering

Personalized Clustering via Targeted Representation Learning

Optimal Exact Recovery in Semi-Supervised Learning: A Study of Spectral Methods and Graph Convolutional Networks

CLDG: Contrastive Learning on Dynamic Graphs

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