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基于霍普菲尔德神经网络的可重构安全解决方案在电子医疗保健应用中的应用。

Reconfigurable security solution based on hopfield neural network for e-healthcare applications.

作者信息

Lakshmi C, Nithya C, Thenmozhi K, Sivaraman R, Yasvanthira Sri D, Vinizia B, Subashini R, Meikandan Padmapriya Velupillai, Mahalingam Hemalatha, Amirtharajan Rengarajan

机构信息

School of Electrical & Electronics Engineering, SASTRA Deemed University, Thanjavur, 613 401, India.

School of Computing, SASTRA Deemed University, Thanjavur, 613 401, India.

出版信息

Sci Rep. 2025 Feb 15;15(1):5628. doi: 10.1038/s41598-025-88561-9.

Abstract

In the healthcare sector, e-diagnosis through medical images is essential in a multi-speciality hospital; securing the medical images becomes crucial for preserving an individual's privacy in e-healthcare applications. So, this paper has proposed a novel encryption scheme implemented on reconfigurable hardware. Realising image encryption schemes on FPGA hardware platforms offers substantial advantages over software implementations. The image-specific key and Hopfield Neural Network (HNN) carry out the diffusion process using the suggested encryption method. The confusion is accomplished simultaneously by the pseudo-random memory addresses derived via a 16-bit stream cipher circuit, which incorporates cryptography and neural network dynamics methods. By breaking up the spatial redundancy in image data, this diffusion mechanism increases the data's resilience against statistical attacks, yielding an average entropy of 7.99 and near zero correlation. When implemented on an FPGA platform, this dual-layer encryption technique's fast processing speed, parallelism, and reconfigurability are substantial benefits, especially for real-time and resource-constrained applications. FPGA implementation occupies 20% of the total hardware and 424.71 mW of power dissipation on Intel Cyclone V FPGA.

摘要

在医疗保健领域,通过医学图像进行电子诊断在多专科医院中至关重要;保护医学图像对于在电子医疗保健应用中保护个人隐私至关重要。因此,本文提出了一种在可重构硬件上实现的新型加密方案。在FPGA硬件平台上实现图像加密方案比软件实现具有显著优势。特定于图像的密钥和霍普菲尔德神经网络(HNN)使用所提出的加密方法进行扩散过程。混淆通过由16位流密码电路导出的伪随机存储器地址同时完成,该电路结合了密码学和神经网络动力学方法。通过打破图像数据中的空间冗余,这种扩散机制提高了数据对统计攻击的抵抗力,平均熵为7.99,相关性接近零。当在FPGA平台上实现时,这种双层加密技术的快速处理速度、并行性和可重构性是显著优点,特别是对于实时和资源受限的应用。在英特尔Cyclone V FPGA上,FPGA实现占用总硬件的20%,功耗为424.71毫瓦。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/25ca/11830060/03b1652142fa/41598_2025_88561_Fig1_HTML.jpg

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