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From Raw Features to Effective Embeddings: A Three-Stage Approach for Multimodal Recipe Recommendation

Jeeho Shin, Kyungho Kim, Kijung Shin

TL;DR

This paper addresses the challenge of leveraging rich multimodal features for recipe recommendation beyond user–recipe interactions. It introduces TESMR, a three-stage framework that first creates content-based summaries via foundation models, then propagates these summaries over the user–recipe interaction graph for relation-based enhancement, and finally aligns content-based and learnable embeddings through cross-view contrastive learning. The approach yields 7–15% gains in Recall@10 over eight baselines on two real-world datasets, with ablations highlighting the critical role of relation-based propagation and user reviews. The work demonstrates a practical path to robust multimodal recipe recommendation and underscores the value of combining foundation-model-derived signals with collaborative learning.

Abstract

Recipe recommendation has become an essential task in web-based food platforms. A central challenge is effectively leveraging rich multimodal features beyond user-recipe interactions. Our analysis shows that even simple uses of multimodal signals yield competitive performance, suggesting that systematic enhancement of these signals is highly promising. We propose TESMR, a 3-stage framework for recipe recommendation that progressively refines raw multimodal features into effective embeddings through: (1) content-based enhancement using foundation models with multimodal comprehension, (2) relation-based enhancement via message propagation over user-recipe interactions, and (3) learning-based enhancement through contrastive learning with learnable embeddings. Experiments on two real-world datasets show that TESMR outperforms existing methods, achieving 7-15% higher Recall@10.

From Raw Features to Effective Embeddings: A Three-Stage Approach for Multimodal Recipe Recommendation

TL;DR

This paper addresses the challenge of leveraging rich multimodal features for recipe recommendation beyond user–recipe interactions. It introduces TESMR, a three-stage framework that first creates content-based summaries via foundation models, then propagates these summaries over the user–recipe interaction graph for relation-based enhancement, and finally aligns content-based and learnable embeddings through cross-view contrastive learning. The approach yields 7–15% gains in Recall@10 over eight baselines on two real-world datasets, with ablations highlighting the critical role of relation-based propagation and user reviews. The work demonstrates a practical path to robust multimodal recipe recommendation and underscores the value of combining foundation-model-derived signals with collaborative learning.

Abstract

Recipe recommendation has become an essential task in web-based food platforms. A central challenge is effectively leveraging rich multimodal features beyond user-recipe interactions. Our analysis shows that even simple uses of multimodal signals yield competitive performance, suggesting that systematic enhancement of these signals is highly promising. We propose TESMR, a 3-stage framework for recipe recommendation that progressively refines raw multimodal features into effective embeddings through: (1) content-based enhancement using foundation models with multimodal comprehension, (2) relation-based enhancement via message propagation over user-recipe interactions, and (3) learning-based enhancement through contrastive learning with learnable embeddings. Experiments on two real-world datasets show that TESMR outperforms existing methods, achieving 7-15% higher Recall@10.

Paper Structure

This paper contains 8 sections, 6 equations, 4 figures, 3 tables.

Figures (4)

  • Figure 1: Example multimodal data for recipes and users.
  • Figure 2: Observation: A simple use of multimodal features without training (MP) matches state-of-the-art performance.
  • Figure 3: Overview of TESMR with (a) content-, (b) relation-, and (c) learning-based enhancement of multimodal features.
  • Figure 4: Effects of $\tau$ and $\lambda_{CL}$ on the NDCG@20 of TESMR.