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A link prediction method for multi-modal knowledge graphs based on Adaptive Fusion and Modality Information
Zenglong Wang1, Xuan Liu1, Zheng Liu1
1The Key Laboratory of Ethnic Language Intelligent Analysis and Security Governance, Minzu University of China, Beijing, China.
This study introduces the Adaptive Fusion and Modality Information Enhancement (AFME) framework to improve multi-modal knowledge graph reasoning. AFME effectively fuses and enhances diverse information, overcoming limitations of existing methods for better link prediction.
Area of Science:
- Artificial Intelligence
- Data Science
- Knowledge Representation
Background:
- Multi-modal knowledge graphs (MMKGs) enhance traditional knowledge graphs with diverse information, showing promise in reasoning tasks.
- Existing MMKGs struggle with link prediction due to complex, diverse, and imbalanced multi-modal data, hindering effective information fusion and enhancement.
- Current fusion methods often use simple concatenation or weighting, failing to capture deep semantic interactions and performing poorly with noisy or missing data.
Purpose of the Study:
- To propose a novel framework, Adaptive Fusion and Modality Information Enhancement (AFME), to address the challenges in multi-modal knowledge graph link prediction.
- To develop efficient adaptive fusion and enhancement mechanisms for multi-modal information within knowledge graphs.
- To improve the utilization of multi-modal features and enhance knowledge reasoning capabilities in complex scenarios.
Main Methods:
- The AFME framework comprises a Modal Information Fusion (MoIFu) module and a Modal Information Enhancement (MoIEn) module.
- Introduced a relationship-driven denoising mechanism and dynamic weight allocation for efficient adaptive fusion.
- Employed a generative adversarial network (GAN) for global guidance and a multi-layer self-attention mechanism for intra- and inter-modal feature optimization.
Main Results:
- The AFME framework demonstrated significant improvements in multi-modal feature utilization across multiple benchmark datasets.
- Experimental results validated the framework's efficiency and superiority in complex multi-modal knowledge graph scenarios.
- The proposed methods effectively addressed issues of modal noise and missing information, enhancing link prediction accuracy.
Conclusions:
- The AFME framework offers a robust solution for challenges in multi-modal knowledge graph completion reasoning.
- The adaptive fusion and enhancement strategies significantly boost knowledge reasoning performance.
- AFME represents a substantial advancement in leveraging diverse information for more capable knowledge graphs.
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