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Deep learning based medical image segmentation for encryption with copyright protection through data hiding

journal contribution
posted on 2025-02-28, 11:29 authored by M Singh, KN Singh, A Mohan, AK Singh, Huiyu ZhouHuiyu Zhou

The prevention of medical information leakage has gained significant attention in recent
times. As a result, numerous image encryption schemes are gaining prominence in protecting
the privacy of original images. However, third-party users can easily compromise and access
encrypted data after decryption. Therefore, it is imperative to develop encryption systems
with enhanced confidentiality to address this issue. To tackle these problems, 3D-chaos-based
encryption combined with copyright protection is proposed. This achieves high security at a
low time cost. The method first segments the most significant information, i.e. the region of
interest (ROI) part of the medical image, through the recent deep learning-based
segmentation, i.e., you only look once (YOLO) version 8, for image encryption. The 3D-
chaos-based encryption encodes only the ROI part, making it well-suited for secure
healthcare with a low time cost. Finally, the hash of the ROI and the MAC address of the
sender system is embedded into the non-region of interest (NROI) part of the image, making
it effective against copyright violation, high bandwidth and storage costs. The results of
extensive experiments on COVID-19 and COCO2017 datasets indicate that the method is
highly secure, cost-effective and resistant to brute-force attacks. Given the advantages of
encryption and data hiding, the proposed method could be an apt choice for medical data
transmission and protection against any brute-force, statistical or differential attacks.

Funding

This work is supported by IES212111 - International Exchanges 2021 Round 2, dt. 28 Feb 2022, under Royal Society, UK

History

Author affiliation

College of Science & Engineering Comp' & Math' Sciences

Version

  • AM (Accepted Manuscript)

Published in

Computers and Electrical Engineering

Publisher

Elsevier

issn

0045-7906

eissn

1879-0755

Copyright date

2025

Publisher DOI

Notes

Embargo until publication

Language

en

Deposited by

Professor Huiyu Zhou

Deposit date

2025-02-21

Data Access Statement

No data was used for the research described in the article.