arXiv:2608.05833cs.AI2026-08

用视觉化子图让大模型更准补全多模态知识图谱

ViSR-KGC: Visual Subgraph Reasoning with Vision-Language Models for Multimodal Knowledge Graph Completion

论文配图:ViSR-KGC: Visual Subgraph Reasoning with Vision-Language Models for Multimodal Knowledge Graph Completion
图 1 · 摘自论文原文
  • 将知识图谱子图转为图像,结合视觉与语言模型推理
  • 在多个数据集上超越现有方法,最高提升6.3%准确率
  • 适合做多模态知识推理、视觉语言模型应用的研究者

知识图谱补全(KGC)旨在从不完整结构中推断缺失的实体或关系,已发展为多模态知识图谱补全(MMKGC),其中实体关联文本和图像等多模态信息。传统嵌入方法在关系证据不足时表现受限,而基于大语言模型的方法通常将图结构线性化为文本提示,忽略拓扑结构与视觉信息。尽管视觉语言模型(VLMs)擅长多模态推理,但无法原生理解结构化图拓扑,尤其在节点与边承载复杂语义的知识图谱中。为此,我们提出ViSR-KGC,一种视觉子图推理方法。该方法融合三种互补能力:通过表示学习捕捉全局拓扑依赖,利用VLM分析局部多模态证据,并借助预训练模型提供常识知识。基于学习到的多模态嵌入,框架首先提取紧凑且查询感知的子图;随后采用经实证比较选择的布局策略,将子图转化为视觉可解释图像;最后将可视化子图、实体图像、文本描述与候选答案整合为统一提示,驱动VLM推断缺失实体。在AMR、FB15k-237-M等数据集上的实验表明,该方法在多模态知识图谱补全任务中显著优于基线方法。

原文摘要 · Abstract (English)

Knowledge graph completion (KGC) aims to infer missing entities or relations from incomplete graph structures, and has evolved into multimodal knowledge graph completion (MMKGC), where entities are associated with multiple modalities such as text and images. Traditional representation learning approaches follow the embedding-based paradigm and may struggle when relation-specific evidence is limited. Meanwhile, LLM-based reasoning methods typically linearize graph structures into textual prompts, which obscures structural topology and neglects vital visual information. While vision-language models (VLMs) excel at multimodal reasoning, they cannot natively interpret structured graph topology, particularly when it comes to knowledge graphs where nodes and edges carry complex semantics. To bridge this gap, we propose ViSR-KGC, a visual subgraph reasoning approach for KGC. It integrates three complementary capabilities to capture semantic correlations: identifying global topology dependencies via representation learning, analyzing local multimodal evidence using VLMs, and providing necessary commonsense knowledge inherent in pre-trained models. Based on learned multimodal embeddings, our framework first extracts a compact and query-aware subgraph from the MMKG. Then, this subgraph is transformed into a visually interpretable image using a layout strategy selected through empirical comparison. Finally, the visualized subgraph, entity images, textual descriptions, and candidate answers are combined into a unified prompt, enabling the VLM to infer the missing entity.

知识图谱多模态视觉推理VLM

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