Cross-modal Consistency Learning with Fine-grained Fusion Network for Multimodal Fake News Detection
Jun Li, Yi Bin, Jie Zou, Jie Zou, Guoqing Wang, Yang Yang

TL;DR
This paper introduces a novel fine-grained fusion network that separately analyzes relevant and irrelevant parts of multimodal news content to improve fake news detection accuracy.
Contribution
It proposes a consistency-learning fine-grained fusion network (CFFN) that distinguishes and leverages high-relevant and low-relevant multimodal content for better fake news detection.
Findings
CFFN outperforms baseline models on public datasets.
The method effectively captures relevant and irrelevant content inconsistencies.
The approach improves detection accuracy by focusing on key multimodal clues.
Abstract
Previous studies on multimodal fake news detection have observed the mismatch between text and images in the fake news and attempted to explore the consistency of multimodal news based on global features of different modalities. However, they fail to investigate this relationship between fine-grained fragments in multimodal content. To gain public trust, fake news often includes relevant parts in the text and the image, making such multimodal content appear consistent. Using global features may suppress potential inconsistencies in irrelevant parts. Therefore, in this paper, we propose a novel Consistency-learning Fine-grained Fusion Network (CFFN) that separately explores the consistency and inconsistency from high-relevant and low-relevant word-region pairs. Specifically, for a multimodal post, we divide word-region pairs into high-relevant and low-relevant parts based on their…
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Taxonomy
TopicsMisinformation and Its Impacts · Spam and Phishing Detection · Topic Modeling
