CLOUD-IOT SYNERGY WITH DEEP LEARNING FOR SECURE AND REAL-TIME BIOANALYSIS: A SMART FRAMEWORK FOR REMOTE HEALTH MONITORING.

The convergence of Internet of Things (IoT), Cloud Computing, and Artificial Intelligence (AI) has transformed modern bioanalytical practices, enabling real-time physiological data acquisition, transmission, and analysis. This paper proposes a secure, scalable, and intelligent bioanalytical framework—BioCloudSense—which integrates IoT-based biosensors, cloud-based data processing, and deep learning models for early detection of critical health conditions. The system collects multi-modal physiological data (ECG, SpO₂, temperature, etc.) from wearable devices and transmits it securely to a federated cloud platform, where pre-trained convolutional and recurrent neural networks perform real-time diagnostic predictions. Differential privacy and blockchain-based identity management secure patient data during cloud processing. Experimental validation on the MIT-BIH and MIMIC-III datasets demonstrates 97.3% accuracy for arrhythmia detection and 94.1% precision in early sepsis prediction. The proposed framework offers a robust architecture for real-time, remote bioanalysis, ensuring high diagnostic accuracy while preserving privacy and scalability.

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Publication Details

Journal
International Journal of Apllied Mathematics
Published
2025-10-02
DOI
https://doi.org/10.12732/ijam.v38i5.344
Primary Topic
Cell Image Analysis Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

CLOUD-IOT SYNERGY WITH DEEP LEARNING FOR SECURE AND REAL-TIME BIOANALYSIS: A SMART FRAMEWORK FOR REMOTE HEALTH MONITORING.

Preethi Madadi
International Journal of Apllied Mathematics
Cell Image Analysis Techniques
article

CLOUD-IOT SYNERGY WITH DEEP LEARNING FOR SECURE AND REAL-TIME BIOANALYSIS: A SMART FRAMEWORK FOR REMOTE HEALTH MONITORING.

Preethi Madadi
article en

Abstract

The convergence of Internet of Things (IoT), Cloud Computing, and Artificial Intelligence (AI) has transformed modern bioanalytical practices, enabling real-time physiological data acquisition, transmission, and analysis. This paper proposes a secure, scalable, and intelligent bioanalytical framework—BioCloudSense—which integrates IoT-based biosensors, cloud-based data processing, and deep learning models for early detection of critical health conditions. The system collects multi-modal physiological data (ECG, SpO₂, temperature, etc.) from wearable devices and transmits it securely to a federated cloud platform, where pre-trained convolutional and recurrent neural networks perform real-time diagnostic predictions. Differential privacy and blockchain-based identity management secure patient data during cloud processing. Experimental validation on the MIT-BIH and MIMIC-III datasets demonstrates 97.3% accuracy for arrhythmia detection and 94.1% precision in early sepsis prediction. The proposed framework offers a robust architecture for real-time, remote bioanalysis, ensuring high diagnostic accuracy while preserving privacy and scalability.

International Journal of Apllied MathematicsVol. 38(5)
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Openalex Percentile: Top 80%
Cell Image Analysis Techniques
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