A general graph-based framework for top-N recommendation using content, temporal and trust information
Armel Jacques Nzekon Nzeko'o, Maurice Tchuente, Matthieu Latapy

TL;DR
This paper introduces GraFC2T2, a versatile graph-based framework that combines content, temporal, and trust data to enhance top-N recommendations, outperforming traditional matrix factorization and deep learning methods.
Contribution
The paper presents a novel, flexible graph-based framework that integrates multiple side information types for improved top-N recommendation performance.
Findings
Combining content, temporal, and trust information improves recommendation accuracy.
GraFC2T2 outperforms matrix factorization and deep learning baselines.
The framework is effective on Epinions and Ciao datasets.
Abstract
Recommending appropriate items to users is crucial in many e-commerce platforms that contain implicit data as users' browsing, purchasing and streaming history. One common approach consists in selecting the N most relevant items to each user, for a given N, which is called top-N recommendation. To do so, recommender systems rely on various kinds of information, like item and user features, past interest of users for items, browsing history and trust between users. However, they often use only one or two such pieces of information, which limits their performance. In this paper, we design and implement GraFC2T2, a general graph-based framework to easily combine and compare various kinds of side information for top-N recommendation. It encodes content-based features, temporal and trust information into a complex graph, and uses personalized PageRank on this graph to perform recommendation.…
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Taxonomy
TopicsRecommender Systems and Techniques · Advanced Graph Neural Networks · Topic Modeling
