ReGraph Generates Structured Recipe Graphs from Food Images

Guoshan Liu, Bin Zhu, Pengkun Jiao, Jingjing Chen, Chong-Wah Ngo, Yu-Gang Jiang· August 10, 2026 View original

Key takeaways

  • ReGraph is a new dataset and framework for generating structured recipe graphs from food images.
  • It explicitly represents cooking entities, state changes, and procedural ordering.
  • Existing LMMs struggle with generating accurate procedural structure despite good text output.
  • RGL significantly improves the generation of structured cooking entities and relations.

Who benefits

Food TechE-commerceSmart Kitchen AppliancesContent CreationHospitality

Summary

ReGraph is a large-scale dataset and a two-stage framework that enables Large Multimodal Models (LMMs) to generate fine-grained, structured recipe graphs from food images. It explicitly represents ingredients, actions, tools, state changes, and procedural ordering, revealing a significant gap between text generation quality and recoverable procedural structure in existing LMMs.

Recent advancements in Large Multimodal Models (LMMs) have shown impressive capabilities in generating recipes from food images. However, cooking is inherently a structured, transformational process where ingredients undergo specific state changes through ordered actions. The free-form text recipes generated by LMMs often leave these critical procedural details—such as entities, intermediate states, and dependencies—implicit and entangled, making it difficult to assess if models truly understand the underlying cooking process. To address this limitation, researchers have introduced ReGraph, a comprehensive, large-scale dataset of recipe graphs. ReGraph explicitly represents cooking entities (ingredients, actions, tools), describes ingredient state changes using attributes, and encodes manipulation targets, destinations, and procedural ordering through typed relations. It also includes explicit Recipe Reasoning Chain-of-Thought (RR-CoT) traces, providing additional supervision for decomposing procedures and generating structured graphs. Building on this dataset, the paper proposes Recipe Graph Learning (RGL), a two-stage framework that enables LMMs to generate a plausible, fine-grained cooking workflow as a structured recipe graph from a food image. Experiments using a deterministic, schema-aware matching protocol reveal a substantial disparity: while existing LMMs produce competitive text-generation scores, they yield limited reference-aligned entity and relation structures under the ReGraph schema. In contrast, RGL consistently improves the generation of cooking entities and procedural relations across different LMM backbones, though capturing fine-grained ingredient states remains the most challenging aspect.

Why it matters

For professionals in food tech, AI product development, or content creation, ReGraph offers a way to move beyond superficial recipe generation to create deeply structured, actionable, and verifiable cooking instructions, enhancing user experience and enabling new applications.

How to implement this in your domain

  1. 1Explore using the ReGraph dataset to train LMMs for generating structured, procedural cooking knowledge.
  2. 2Implement the Recipe Graph Learning (RGL) framework to enable LMMs to output explicit recipe graphs from food images.
  3. 3Focus on improving LMMs' ability to capture fine-grained ingredient state changes, identified as a key challenge.
  4. 4Develop applications that leverage structured recipe graphs for enhanced user experiences, such as interactive cooking guides or personalized meal planning.
  5. 5Benchmark your LMMs' procedural understanding using ReGraph's schema-aware matching protocol, rather than just text-generation metrics.

Original post by Guoshan Liu, Bin Zhu, Pengkun Jiao, Jingjing Chen, Chong-Wah Ngo, Yu-Gang Jiang

"arXiv:2608.06917v1 Announce Type: new Abstract: Recent Large Multimodal Models (LMMs) have achieved impressive performance in recipe generation from food images.However, cooking is a structured transformation process in which ingredients undergo state changes through ordered acti…"

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Originally posted by Guoshan Liu, Bin Zhu, Pengkun Jiao, Jingjing Chen, Chong-Wah Ngo, Yu-Gang Jiang on X · view source

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