Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography

Abstract This article proposes a secure, real-time, intelligent, edge-based Internet of Medical Things (IoMT) monitoring framework for intensive care unit (ICU) environments. The system integrates TinyML-powered decision trees with lattice-based post-quantum cryptography (PQC), specifically Kyber 51...

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發表在:Scientific Reports
Main Authors: Umar Hayat Khan, Affaq Qamar, Rahim Khan, Fahad Alturise, Abdul Rahman Alshaabani, Salem Alkhalaf
格式: Article
語言:英语
出版: Nature Portfolio 2025-10-01
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在線閱讀:https://doi.org/10.1038/s41598-025-20017-6
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author Umar Hayat Khan
Affaq Qamar
Rahim Khan
Fahad Alturise
Abdul Rahman Alshaabani
Salem Alkhalaf
author_facet Umar Hayat Khan
Affaq Qamar
Rahim Khan
Fahad Alturise
Abdul Rahman Alshaabani
Salem Alkhalaf
author_sort Umar Hayat Khan
collection DOAJ
container_title Scientific Reports
description Abstract This article proposes a secure, real-time, intelligent, edge-based Internet of Medical Things (IoMT) monitoring framework for intensive care unit (ICU) environments. The system integrates TinyML-powered decision trees with lattice-based post-quantum cryptography (PQC), specifically Kyber 512, to enable low-latency anomaly detection and quantum-resistant data transmission. Although designed for deployment on resource-constrained ESP32 microcontrollers, the entire pipeline is implemented and evaluated within an OMNeT++ simulation environment, including on-device inference and PQC encryption. A synthetically generated ICU dataset, validated by three hospitals, ensures clinical relevance and robustness in diverse patient scenarios. Data fusion techniques improve feature reliability, while Kyber 512 provides lightweight, quantum-safe encryption. OMNeT++ simulations demonstrate end-to-end communication with zero observed packet loss and very low end-to-end latency, under realistic ICU network conditions. The framework addresses key challenges in computational efficiency, data confidentiality, and scalability, offering a future-ready solution for intelligent healthcare systems. The results show 99.4% accuracy in anomaly detection, with strong generalization validated on external datasets (PhysioNet: 98.5%, Kaggle: 99.0%). This work represents one of the first integrations of TinyML and PQC in a simulated IoMT setting, paving the way for secure, scalable, and intelligent ICU monitoring.
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spelling doaj-art-e6c3320fd0784f3e86dc8210fc3bbe4f2025-10-19T11:20:43ZengNature PortfolioScientific Reports2045-23222025-10-0115112310.1038/s41598-025-20017-6Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptographyUmar Hayat Khan0Affaq Qamar1Rahim Khan2Fahad Alturise3Abdul Rahman Alshaabani4Salem Alkhalaf5Department of Computer Science, Abdul Wali Khan UniversityDepartment of Electrical Engineering, College of Engineering, Imam Mohammad Ibn Saud Islamic University (IMSIU)Department of Computer Science, Abdul Wali Khan UniversityDepartment of Cybersecurity, College of Computer, Qassim UniversityDepartment of Electrical Engineering, College of Engineering, Imam Mohammad Ibn Saud Islamic University (IMSIU)Department of Computer Engineering, College of Computer, Qassim UniversityAbstract This article proposes a secure, real-time, intelligent, edge-based Internet of Medical Things (IoMT) monitoring framework for intensive care unit (ICU) environments. The system integrates TinyML-powered decision trees with lattice-based post-quantum cryptography (PQC), specifically Kyber 512, to enable low-latency anomaly detection and quantum-resistant data transmission. Although designed for deployment on resource-constrained ESP32 microcontrollers, the entire pipeline is implemented and evaluated within an OMNeT++ simulation environment, including on-device inference and PQC encryption. A synthetically generated ICU dataset, validated by three hospitals, ensures clinical relevance and robustness in diverse patient scenarios. Data fusion techniques improve feature reliability, while Kyber 512 provides lightweight, quantum-safe encryption. OMNeT++ simulations demonstrate end-to-end communication with zero observed packet loss and very low end-to-end latency, under realistic ICU network conditions. The framework addresses key challenges in computational efficiency, data confidentiality, and scalability, offering a future-ready solution for intelligent healthcare systems. The results show 99.4% accuracy in anomaly detection, with strong generalization validated on external datasets (PhysioNet: 98.5%, Kaggle: 99.0%). This work represents one of the first integrations of TinyML and PQC in a simulated IoMT setting, paving the way for secure, scalable, and intelligent ICU monitoring.https://doi.org/10.1038/s41598-025-20017-6TinyMLIoMTEdge computingDecision TreeData fusionPost-quantum cryptography
spellingShingle Umar Hayat Khan
Affaq Qamar
Rahim Khan
Fahad Alturise
Abdul Rahman Alshaabani
Salem Alkhalaf
Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
TinyML
IoMT
Edge computing
Decision Tree
Data fusion
Post-quantum cryptography
title Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
title_full Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
title_fullStr Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
title_full_unstemmed Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
title_short Secure edge-based IoMT framework for ICU monitoring with TinyML and post-quantum cryptography
title_sort secure edge based iomt framework for icu monitoring with tinyml and post quantum cryptography
topic TinyML
IoMT
Edge computing
Decision Tree
Data fusion
Post-quantum cryptography
url https://doi.org/10.1038/s41598-025-20017-6
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