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Volume: 12 Issue 06 June 2026


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A Novel Dense-swish-cnn With Bi-lstm Framework For Image Deepfake Detection

  • Author(s):

    Mrs. R. Devika | Allen Shaji | Aswin Benny | Ashwin R | KR Abhiram Lal

  • Keywords:

    Deepfake Detection, DenseNet121, Swish Activation, Bidirectional LSTM, Hybrid Deep Learning, Image Forensics, Generative Adversarial Networks

  • Abstract:

    The Rapid Advancement Of Deep Generative Models, Particularly Generative Adversarial Networks (GANs) And Diffusion-based Architectures, Has Substantially Lowered The Barrier To Producing Photorealistic Synthetic Human Faces, Collectively Referred To As Deepfakes. Such Media Present Critical Societal Risks Encompassing Identity Fraud, Large-scale Misinformation, And Coordinated Cybercrime. Existing Detection Approaches, Predominantly Convolutional Neural Network (CNN)-based Architectures, Demonstrate Adequate Performance On Benchmark Datasets; However, They Are Limited In Their Capacity To Jointly Model Spatial Artifact Patterns And Sequential Feature Dependencies Inherent In Manipulated Imagery. This Paper Proposes A Novel Hybrid Deep Learning Framework—the Dense-Swish Convolutional Neural Network Integrated With A Bidirectional Long Short-Term Memory (Bi-LSTM) Network—designed To Overcome These Limitations. The Proposed Architecture Leverages DenseNet121 As The Backbone For Dense Multi-scale Spatial Feature Extraction, Augmented By The Swish Activation Function To Improve Gradient Propagation And Representational Capacity. Extracted Feature Maps Are Spatially Reshaped Into Sequential Vectors And Processed By A Bi-LSTM Module That Captures Bidirectional Contextual Dependencies, Thereby Enhancing Discriminative Power Against Sophisticated Forgeries. Empirical Evaluation On A Curated Real-and-fake Image Dataset Yields A Classification Accuracy Of 99.37%, Precision Of 99.44%, Recall Of 99.31%, And F1-score Of 99.37%, Representing Consistent Improvements Over CNN-only, DenseNet Transfer Learning, And Dense-Swish-CNN Baselines. Deployment Is Realized Through A Flask-based Web Application Supporting Real-time Image Upload And Classification Inference.

Other Details

  • Paper id:

    IJSARTV12I4104884

  • Published in:

    Volume: 12 Issue: 4 April 2026

  • Publication Date:

    2026-04-06


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