A novel approach that leverages the capabilities of CLIP to detect Deepfake videos through the identification of temporal affinity inconsistencies and spatial artifacts on key facial features, exhibiting superior generalization across diverse datasets.
Diffusion models present significant challenges for real-world deepfake detection, requiring new benchmarks and training strategies to enhance generalizability.
The core message of this paper is to propose a proactive and sustainable deepfake training augmentation solution that introduces artificial fingerprints into models using an ensemble learning approach with autoencoders. This approach aims to improve the generalization, robustness, and resilience of deepfake detectors against various perturbations, compression, and adversarial attacks.
Enlarging the forgery space through latent space augmentation can help models learn a more robust and generalizable decision boundary, mitigating overfitting to forgery-specific features.
Proposing a novel framework, SDIF, to enhance face forgery detection performance by reducing sensitivity to face forgery and improving generalizability.
Introducing Adversarial Feature Similarity Learning (AFSL) to enhance deepfake detection by optimizing similarity across different feature learning paradigms.
The author introduces FreqNet, a frequency-aware approach to enhance deepfake detection by focusing on high-frequency information and incorporating frequency domain learning. This method improves generalizability and outperforms existing models with fewer parameters.
The author presents the Data-Independent Operator (DIO) framework as a training-free artifact representation extractor to enhance generalizable forgery image detection by suppressing content and aligning artifacts across diverse domains.