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HeartGuard IoT prototype demonstrates functional integration of multimodal physiological sensing with cardiovascular risk dashboards.
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HeartGuard demonstrates a prototype IoT and machine learning platform combining real-time physiological sensing with clinical profiles for remote cardiovascular risk prediction and ECG arrhythmia classification.
HeartGuard is a prototype system that uses Internet of Things (IoT) technology to monitor cardiovascular health and predict risks. It combines physiological sensing, ECG data capture, wireless communication, database storage, and patient medical profiles within one integrated platform. The hardware centers on an ESP32 microcontroller and includes sensors for heart rate, oxygen saturation (SpO₂), temperature, and ECG. The system displays data locally on an OLED screen and also sends it to a web application, allowing remote data viewing. The software integrates real-time sensor readings with patient details such as age, sex, blood pressure, cholesterol, chest-pain type, exercise-induced angina, ST depression, and resting ECG results. For risk prediction, HeartGuard uses a Random Forest machine learning model, while ECG arrhythmia classification relies on a convolutional neural network (CNN). Currently, these models are developed using publicly available data from Kaggle. In the future, HeartGuard aims to train models directly on data collected by the deployed sensors. The prototype presents cardiovascular risk as a percentage calculated at the application level, but future versions plan to use calibrated probabilities directly from the Random Forest output. The system includes interactive interfaces for risk visualization, ECG analysis, patient records management, and generates clinical-style PDF reports.
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Gupta et al. (2026) studied Cardiovascular disease. HeartGuard IoT-enabled cardiovascular monitoring and risk prediction system was evaluated on Qualitative implementation-level functional integration of physiological sensing, IoT communication, database storage, and predictive dashboard interfaces. The HeartGuard prototype demonstrated functional integration of ESP32-based physiological sensing (e.g., 79 BPM heart rate, 96% SpO2, 360-Hz ECG) with web dashboards for risk visualization.
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