Concept2Box: Joint Geometric Embeddings for Learning Two-View Knowledge Graphs
Zijie Huang, Daheng Wang, Binxuan Huang, Chenwei Zhang, Jingbo Shang,, Yan Liang, Zhengyang Wang, Xian Li, Christos Faloutsos, Yizhou Sun, Wei Wang

TL;DR
Concept2Box introduces a dual geometric embedding approach for knowledge graphs, modeling concepts as boxes and entities as vectors to better capture structural differences and semantics across two views.
Contribution
It presents a novel joint embedding method using box and vector representations for different KG views, capturing hierarchy and granularity effectively.
Findings
Outperforms existing methods on DBpedia and industrial KGs.
Effectively models hierarchical and overlapping concept relations.
Demonstrates improved semantic understanding of KG structures.
Abstract
Knowledge graph embeddings (KGE) have been extensively studied to embed large-scale relational data for many real-world applications. Existing methods have long ignored the fact many KGs contain two fundamentally different views: high-level ontology-view concepts and fine-grained instance-view entities. They usually embed all nodes as vectors in one latent space. However, a single geometric representation fails to capture the structural differences between two views and lacks probabilistic semantics towards concepts' granularity. We propose Concept2Box, a novel approach that jointly embeds the two views of a KG using dual geometric representations. We model concepts with box embeddings, which learn the hierarchy structure and complex relations such as overlap and disjoint among them. Box volumes can be interpreted as concepts' granularity. Different from concepts, we model entities as…
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Taxonomy
TopicsAdvanced Graph Neural Networks · Bayesian Modeling and Causal Inference · Data Quality and Management
