Bridging Cognition and Emotion: Empathy-Driven Multimodal Misinformation Detection
Zihan Wang, Lu Yuan, Zhengxuan Zhang, Qing Zhao
TL;DR
This work tackles misinformation detection by integrating cognitive and emotional empathy through a Dual-Aspect Empathy Framework (DAE) that analyzes creator strategies and simulates reader responses using Large Language Models. The method introduces an empathy-aware comment generation and filtering pipeline, multi-level feature extraction with cross-modal fusion, and a dual-empathy representation that encodes both cognitive alignment and emotional gaps. Empirical results on publicly available multimodal datasets show that DAE consistently outperforms strong baselines, with ablations confirming the importance of text, reader comments, and both empathy dimensions. The proposed human-centric approach offers a new paradigm for interpretable and robust multimodal misinformation detection, with potential applicability to real-time and cross-cultural settings.
Abstract
In the digital era, social media has become a major conduit for information dissemination, yet it also facilitates the rapid spread of misinformation. Traditional misinformation detection methods primarily focus on surface-level features, overlooking the crucial roles of human empathy in the propagation process. To address this gap, we propose the Dual-Aspect Empathy Framework (DAE), which integrates cognitive and emotional empathy to analyze misinformation from both the creator and reader perspectives. By examining creators' cognitive strategies and emotional appeals, as well as simulating readers' cognitive judgments and emotional responses using Large Language Models (LLMs), DAE offers a more comprehensive and human-centric approach to misinformation detection. Moreover, we further introduce an empathy-aware filtering mechanism to enhance response authenticity and diversity. Experimental results on benchmark datasets demonstrate that DAE outperforms existing methods, providing a novel paradigm for multimodal misinformation detection.
