This system employs deep learning for brain tumor segmentation and watermarking in medical images, suggesting enhanced security and diagnostic efficacy.
This observation introduces a unified framework that guarantees both the stable watermarking of medical pics and effective brain tumor segmentation. By leveraging a hybrid approach that integrates deep learning with a couple of area transformation strategies, the device complements photograph security and diagnostic precision. The approach embeds MRI scans into host photographs through a fusion of Discrete Wavelet Transform, Discrete Cosine Transform, and Singular Value Decomposition. The embedding strength is adaptively optimized using Black Widow Optimization guided by a Genetic Algorithm, enhancing robustness and imperceptibility. DWT decomposes the images, DCT shifts them to the frequency domain, and SVD modifies singular values with an adaptive power factor. Inverse operations reconstruct the watermarked image, authenticated using a unique code via the ThingSpeak IoT platform. Successful authentication enables watermark extraction through inverse SVD, DCT, and DWT, yielding high fidelity (PSNR > 34 dB, SSIM > 0.91). A Hybrid U-Net-based deep mastering segmentation method is employed to extract mind tumors from watermarked clinical snapshots for diagnostic analysis. Morphological operations and boundary extraction refine the segmented regions. Tumor stages—initial, middle, or advanced—are determined based on pixel count. This dual-purpose framework ensures secure embedding and reliable transmission of sensitive medical data, while also providing accurate and efficient brain tumor detection. The system is highly relevant for applications in telemedicine, secure medical data sharing, and remote diagnosis.
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Sujatha et al. (2025) studied this question.
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