Infusing Collaborative Recommenders with Distributed Representations
Greg Zanotti, Miller Horvath, Lucas Nunes Barbosa, Venkata Trinadh, Kumar Gupta Immedisetty, Jonathan Gemmell

TL;DR
This paper introduces a method to enhance recommender systems by integrating multiple data sources and neural network-based distributed representations, leading to improved rating prediction accuracy.
Contribution
It proposes a novel approach to combine ratings, tags, and item data using neural networks for richer representations in recommender systems.
Findings
Neural network-based representations outperform traditional methods in rating prediction.
Combining multiple data sources yields better recommendation accuracy.
Distributed representations capture complex relationships among users, items, and tags.
Abstract
Recommender systems assist users in navigating complex information spaces and focus their attention on the content most relevant to their needs. Often these systems rely on user activity or descriptions of the content. Social annotation systems, in which users collaboratively assign tags to items, provide another means to capture information about users and items. Each of these data sources provides unique benefits, capturing different relationships. In this paper, we propose leveraging multiple sources of data: ratings data as users report their affinity toward an item, tagging data as users assign annotations to items, and item data collected from an online database. Taken together, these datasets provide the opportunity to learn rich distributed representations by exploiting recent advances in neural network architectures. We first produce representations that subjectively capture…
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Taxonomy
TopicsRecommender Systems and Techniques · Advanced Graph Neural Networks · Topic Modeling
