Semantic-Enhanced Relational Metric Learning for Recommender Systems
Mingming Li, Fuqing Zhu, Feng Yuan, Songlin Hu

TL;DR
This paper introduces SERML, a semantic-enhanced relational metric learning framework that leverages review-derived semantic signals to improve recommendation accuracy by incorporating richer semantic information into relational learning.
Contribution
The paper proposes a novel SERML framework that integrates semantic signals from reviews into relational metric learning for recommender systems, enhancing discriminative ability.
Findings
SERML outperforms several state-of-the-art methods on four public datasets.
Semantic signals from reviews significantly improve recommendation performance.
The approach effectively incorporates semantic information into relational learning.
Abstract
Recently, relational metric learning methods have been received great attention in recommendation community, which is inspired by the translation mechanism in knowledge graph. Different from the knowledge graph where the entity-to-entity relations are given in advance, historical interactions lack explicit relations between users and items in recommender systems. Currently, many researchers have succeeded in constructing the implicit relations to remit this issue. However, in previous work, the learning process of the induction function only depends on a single source of data (i.e., user-item interaction) in a supervised manner, resulting in the co-occurrence relation that is free of any semantic information. In this paper, to tackle the above problem in recommender systems, we propose a joint Semantic-Enhanced Relational Metric Learning (SERML) framework that incorporates the semantic…
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Taxonomy
TopicsRecommender Systems and Techniques · Topic Modeling · Advanced Graph Neural Networks
