Towards Semantic Consistency: Dirichlet Energy Driven Robust Multi-Modal Entity Alignment

Fuente: arXiv
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Autores principales: Wang, Yuanyi, Sun, Haifeng, Wang, Jiabo, Wang, Jingyu, Tang, Wei, Qi, Qi, Sun, Shaoling, Liao, Jianxin
Formato: Preprint
Publicado: 2024
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author Wang, Yuanyi
Sun, Haifeng
Wang, Jiabo
Wang, Jingyu
Tang, Wei
Qi, Qi
Sun, Shaoling
Liao, Jianxin
author_facet Wang, Yuanyi
Sun, Haifeng
Wang, Jiabo
Wang, Jingyu
Tang, Wei
Qi, Qi
Sun, Shaoling
Liao, Jianxin
contents In Multi-Modal Knowledge Graphs (MMKGs), Multi-Modal Entity Alignment (MMEA) is crucial for identifying identical entities across diverse modal attributes. However, semantic inconsistency, mainly due to missing modal attributes, poses a significant challenge. Traditional approaches rely on attribute interpolation, but this often introduces modality noise, distorting the original semantics. Moreover, the lack of a universal theoretical framework limits advancements in achieving semantic consistency. This study introduces a novel approach, DESAlign, which addresses these issues by applying a theoretical framework based on Dirichlet energy to ensure semantic consistency. We discover that semantic inconsistency leads to model overfitting to modality noise, causing performance fluctuations, particularly when modalities are missing. DESAlign innovatively combats over-smoothing and interpolates absent semantics using existing modalities. Our approach includes a multi-modal knowledge graph learning strategy and a propagation technique that employs existing semantic features to compensate for missing ones, providing explicit Euler solutions. Comprehensive evaluations across 60 benchmark splits, including monolingual and bilingual scenarios, demonstrate that DESAlign surpasses existing methods, setting a new standard in performance. Further testing with high rates of missing modalities confirms its robustness, offering an effective solution to semantic inconsistency in real-world MMKGs.
format Preprint
id arxiv_https___arxiv_org_abs_2401_17859
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Towards Semantic Consistency: Dirichlet Energy Driven Robust Multi-Modal Entity Alignment
Wang, Yuanyi
Sun, Haifeng
Wang, Jiabo
Wang, Jingyu
Tang, Wei
Qi, Qi
Sun, Shaoling
Liao, Jianxin
Information Retrieval
In Multi-Modal Knowledge Graphs (MMKGs), Multi-Modal Entity Alignment (MMEA) is crucial for identifying identical entities across diverse modal attributes. However, semantic inconsistency, mainly due to missing modal attributes, poses a significant challenge. Traditional approaches rely on attribute interpolation, but this often introduces modality noise, distorting the original semantics. Moreover, the lack of a universal theoretical framework limits advancements in achieving semantic consistency. This study introduces a novel approach, DESAlign, which addresses these issues by applying a theoretical framework based on Dirichlet energy to ensure semantic consistency. We discover that semantic inconsistency leads to model overfitting to modality noise, causing performance fluctuations, particularly when modalities are missing. DESAlign innovatively combats over-smoothing and interpolates absent semantics using existing modalities. Our approach includes a multi-modal knowledge graph learning strategy and a propagation technique that employs existing semantic features to compensate for missing ones, providing explicit Euler solutions. Comprehensive evaluations across 60 benchmark splits, including monolingual and bilingual scenarios, demonstrate that DESAlign surpasses existing methods, setting a new standard in performance. Further testing with high rates of missing modalities confirms its robustness, offering an effective solution to semantic inconsistency in real-world MMKGs.
title Towards Semantic Consistency: Dirichlet Energy Driven Robust Multi-Modal Entity Alignment
topic Information Retrieval
url https://arxiv.org/abs/2401.17859