Hierarchical Scene Graph Generation With Coarse-to-Fine Reasoning

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Authors: Zefang Han, Xiukun Liu, Xuemei Xie, Jianxiu Yang, Guangming Shi
Cited by: 0
References: 47

Abstract

Scene graph generation denotes the process of parsing a visual input into a graph representation for downstream reasoning tasks. Most existing research models input scenes as flat scene graphs, capturing solely on horizontal relationships between two objects, while disregarding vertical dependencies. Such flat scene graphs merely describe direct relationships between objects, and cannot represent higher-level semantics. The lack of hierarchical relationships also limits the performance of scene graphs in downstream reasoning tasks. In this work, we propose hierarchical scene graph generation, a new problem task that requires the model to generate scene graphs with clear hierarchy. To achieve this goal, a hierarchical scene graph generation with coarse-to-fine reasoning framework is proposed. It contains three stages: first, summarize the main caption of the scene; second, describe the main visual elements related to the theme; and finally, add secondary elements with background. To facilitate training, a high-quality hierarchical scene graph dataset that comprises 40 K image-scene description pairs is constructed. Utilize rich knowledge and powerful multi-turn conversation capabilities of multi-modal large language models, the proposed framework can not only achieve better semantic understanding and relational modeling, but also seamlessly integrating its relational modeling capabilities to enhance visual-language tasks. Extensive experimental results demonstrate that our method constructs an effective scene representation, outperforming the state-of-the-art by 3.35% in recall while generating significantly fewer average triplets 8.7vs. 9.2. The results on downstream tasks also indicate that hierarchical scene graph significantly contributes to visual-language interactive reasoning.

Fields of Study & Subjects

Multimodal Machine Learning Applications Advanced Image and Video Retrieval Techniques Image Retrieval and Classification Techniques

Publication details

Journal / source
IEEE Transactions on Multimedia
Volume
28
Pages
5380–5394
Publication date
1 January 2026
Language
EN