RUM: network Representation learning throUgh Multi-level structural information preservation
Yanlei Yu, Zhiwu Lu, Jiajun Liu, Guoping Zhao, Ji-Rong Wen, Kai Zheng

TL;DR
RUM is a novel network representation learning framework that captures multi-level structural information, including local triads, neighborhood, and global communities, leading to improved performance in real-world tasks.
Contribution
The paper introduces RUM, a flexible framework that explicitly preserves multi-level structural information in network embeddings, extending beyond local structures to include global community features.
Findings
RUM outperforms existing methods in real-life tasks.
Incorporating multi-level structural info improves embedding quality.
Flexible integration with various community detection algorithms.
Abstract
We have witnessed the discovery of many techniques for network representation learning in recent years, ranging from encoding the context in random walks to embedding the lower order connections, to finding latent space representations with auto-encoders. However, existing techniques are looking mostly into the local structures in a network, while higher-level properties such as global community structures are often neglected. We propose a novel network representations learning model framework called RUM (network Representation learning throUgh Multi-level structural information preservation). In RUM, we incorporate three essential aspects of a node that capture a network's characteristics in multiple levels: a node's affiliated local triads, its neighborhood relationships, and its global community affiliations. Therefore the framework explicitly and comprehensively preserves the…
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Taxonomy
TopicsAdvanced Graph Neural Networks · Domain Adaptation and Few-Shot Learning · Complex Network Analysis Techniques
