Spurious images on social media result in misinformation, online fraud, and manipulation. Conventional CNN-based techniques fail to precisely localize tampered areas because of poor feature extraction abilities and limited generalization. In this paper, the authors suggest a hybrid deep learning method combining CNN with ResNet-50 for enhanced fake image localization. ResNet-50 improves feature extraction through capturing long-distance dependencies and optimal feature propagation, minimizing loss of information. The innovation of this method is efficient spatial and contextual feature fusion through ResNet-50, resulting in better segmentation of fake regions and enhanced adversarial robustness. The model is trained on publicly released datasets, including Kaggle Deepfake Dataset and FaceForensics++, and tested against state-of-the-art localization methods. Experimental results indicate better detection accuracy, better segmentation of tampered regions, and adversarial robustness. This method further improves digital forensics through a robust, effective, and economical means of identifying and locating counterfeit images on social media.
Introduction
The widespread use of deception images on social media poses significant challenges related to misinformation, fraud, and public manipulation. Advances in AI and deep learning have made it easier to create highly realistic fake images, including deepfakes, which are difficult to detect and localize precisely. Traditional handcrafted and CNN-based detection methods lack the feature extraction capabilities and generalization needed for accurate fake image localization.
This research proposes a hybrid deep learning approach combining CNN with ResNet-50 to enhance the detection and localization of manipulated regions in images. ResNet-50’s residual learning architecture allows better global and local feature extraction, minimizing issues like vanishing gradients and improving generalization. Additionally, a feature fusion technique integrates spatial and contextual information, leading to more precise segmentation of fake regions.
The model is trained and evaluated on open-source datasets such as Kaggle Deepfake Dataset and FaceForensics++, utilizing image preprocessing and augmentation to improve robustness and generalization. Comparative analyses show that this approach outperforms existing methods, especially in identifying subtle manipulations and resisting adversarial attacks.
The study highlights the importance of such detection tools for combating misinformation on social media and enhancing digital trust. It also stresses the need for continuous development of adaptive detection models to keep pace with evolving AI-based image manipulation technologies. The proposed method offers a cost-effective, accurate, and practical solution for forensic and fact-checking applications.
Conclusion
The research effectively created a state-of-the-art deep learning method for fake image localization by combining CNN with ResNet-50. The suggested model showed considerable improvements compared to conventional CNN-based methods in detection accuracy, localization accuracy, and adversarial robustness. The feature fusion method successfully merged spatial and contextual information, allowing the model to identify real and manipulated areas with greater sensitivity. Leveraging ResNet-50\'s powerful feature extraction capacity, the system preserved long-range dependencies, promoting best feature propagation and minimizing information loss during training. The improvements promoted better fake region segmentation, enhancing interpretability and robustness. Testing on public datasets, such as Kaggle Deepfake Dataset and FaceForensics++, validated the model\'s generalization across various manipulation methods.The suggested system outperformed the traditional CNN architectures in the detection of subtle and sophisticated forgeries, filling significant limitations of current fake image localizing approaches. The enhanced segmentation accuracy also confirmed the model\'s ability to demarcate manipulated regions more accurately, rendering it a useful application for digital forensics and misinformation control. The research also investigated the model\'s resilience towards adversarial manipulations, where the system proved to remain highly accurate in localization even when perturbed deliberately. This resistance guarantees practicality in real-world applications, specifically in deepfake detection and AI-generated forgery detection.
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