HRR: Hierarchical Retrospection Refinement for Generated Image Detection
Peipei Yuan, Zijing Xie, Shuo Ye, Hong Chen, Yulong Wang

TL;DR
This paper introduces HRR, a diffusion model-based framework for detecting generated images that enhances multi-scale feature representation and reduces style bias, leading to superior detection performance.
Contribution
The paper proposes a novel hierarchical retrospection refinement framework that improves generalization in generated image detection by multi-scale style analysis and feature refinement.
Findings
HRR outperforms state-of-the-art methods in detection accuracy.
The multi-scale style retrospection module enhances realistic feature extraction.
The feature refinement module reduces redundancy and improves generalization.
Abstract
Generative artificial intelligence holds significant potential for abuse, and generative image detection has become a key focus of research. However, existing methods primarily focused on detecting a specific generative model and emphasizing the localization of synthetic regions, while neglecting the interference caused by image size and style on model learning. Our goal is to reach a fundamental conclusion: Is the image real or generated? To this end, we propose a diffusion model-based generative image detection framework termed Hierarchical Retrospection Refinement~(HRR). It designs a multi-scale style retrospection module that encourages the model to generate detailed and realistic multi-scale representations, while alleviating the learning biases introduced by dataset styles and generative models. Additionally, based on the principle of correntropy sparse additive machine, a feature…
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Taxonomy
TopicsBrain Tumor Detection and Classification · Machine Learning and Data Classification · Advanced Neural Network Applications
MethodsDiffusion · Focus
