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September 10, 2025Journal of Internet Services and Information Security0 citationsOpen Access

Fractal-Hyper Net: Elevating X-Ray Diagnostic Visualization through Deep Hyper-Dimensional Feature Learning and Fractal-Scale Structural Integrity

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MMMaysoon Khazaal Abbas MaaroofNANuha Kareem Hameed Rasheed Al-MsarhedAJAlaa Abdulhady Jaber

Key Points

  • Fractal-HyperNet achieved a 3.2 dB increase in peak signal-to-noise ratio, significantly enhancing x-ray image clarity.
  • The method shows a reduction of 0.025 in learned perceptual image patch similarity, implying fewer artifacts in enhanced images.
  • A strong preference for the enhanced images was noted among radiologists, improving diagnostic quality scores by 0.9 points.
  • Extensive evaluations included public datasets like ChestX-ray14 and MIMIC-CXR, reinforcing the method's reliability.

Abstract

X-ray imaging is fundamental to medical diagnosis, but its effectiveness is often hampered by noise, poor contrast, and overlapping anatomical structures that can hide crucial signs of disease. Deep learning techniques have improved X-ray enhancement, yet many current approaches still struggle to retain fine details without introducing unwanted artifacts, which can limit their practical use in clinics. This work introduces Fractal-HyperNet, a novel deep learning framework designed to significantly advance X-ray image enhancement. Our approach uniquely combines two core innovations Dynamic Hyper-Dimensional Embedding (DHDE) module, which intelligently maps image features into an exceptionally high-dimensional space using an adaptive attention mechanism. This allows for more effective separation of subtle image signals from noise and interference. A Recursive Fractal-Scale Consistency (RFSC) architecture, complemented by a sophisticated multi-component loss function. This design enforces structural self-similarity and detail preservation across various image resolutions, reflecting the natural fractal characteristics of anatomical features. Conducted extensive evaluations on widely recognized public X-ray datasets, including ChestX-ray14, MIMIC-CXR, and a specially prepared simulated low-dose X-ray dataset. Compared to leading contemporary deep learning models, including advanced Transformer and diffusion-based architectures, Fractal-HyperNet demonstrated marked improvements. Specifically, our method achieved an average increase of 3.2 dB in Peak Signal-to-Noise Ratio (PSNR), an improvement of 0.04 in Structural Similarity Index (SSIM), a reduction of 0.025 in Learned Perceptual Image Patch Similarity (LPIPS), and a decrease of 7.5 points in Fréchet Inception Distance (FID), indicating superior image fidelity and perceptual quality. Furthermore, analysis of intensity histograms confirmed enhanced contrast restoration and a significant reduction in image artifacts. Crucially, in blinded evaluations, board-certified radiologists showed a strong preference for images enhanced by Fractal-HyperNet, with mean diagnostic quality scores improving by 0.9 points on a 5-point Likert scale compared to the next best method. These results underscore Fractal-HyperNet's capacity to retrieve more reliable diagnostic information from challenging X-ray images, offering a substantial step forward in the field.

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Cite This Study

Maaroof et al. (2025) studied this question.

synapsesocial.com/papers/68c1ae7f54b1d3bfb60e6e78https://doi.org/10.58346/jisis.2025.i2.058
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