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January 17, 20260 citationsOpen Access

GAN Fingerprinting and DeepFake Attribution Using a CNN-Based Ensemble Architecture

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AMArchana MSRM Institute of Science and TechnologyJSJayshnav SSRM Institute of Science and Technology

Key Points

  • The aim is to develop a multi-class framework that detects deepfakes and identifies the generative models used to create them.
  • Proposed a multi-class deep learning framework combining deepfake detection and source identification.
  • Utilized an ensemble of three CNN architectures: EfficientNetB0, ResNet50, and Xception.
  • Applied image augmentations like rotation and brightness changes during training to increase robustness.
  • Fused model predictions at the decision stage by averaging Softmax probabilities.
  • Achieved an overall test accuracy of 98.27% across all categories.
  • Demonstrated strong and stable performance in detecting various deepfake sources.

Abstract

Recent advances in generative adversarial networks have made it possible to create synthetic images that are visually close to real photographs. While this progress is impressive, it also raises serious concerns for image authenticity and digital forensics. Most existing deepfake detection methods focus only on deciding whether an image is real or fake. However, identifying which generative model produced a fake image is a more difficult problem and has received much less attention. This work addresses both tasks together by proposing a multi-class deep learning framework for deepfake detection and generative source identification. The proposed system uses an ensemble of three convolutional neural networks: EfficientNetB0, ResNet50, and Xception. At the decision stage, each model is fused after being trained separately. The dataset contains real images along with images generated using StyleGAN, BigGAN, GauGAN, and StarGAN, with roughly three thousand samples per class. To improve robustness, common image augmentations such as rotation, brightness and contrast changes, zoom, and horizontal flipping are applied during training. Final predictions are obtained by averaging the Softmax probabilities from all three models. The experimental results show strong and stable performance across all categories. The ensemble achieves an overall test accuracy of 98.27%.

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Cite This Study

M et al. (2026) studied this question.

synapsesocial.com/papers/696b2616d2a12237a93496abhttps://doi.org/10.5281/zenodo.18250978
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