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Models that are both highly accurate and computationally efficient for edge deployment are required for IoT sensor streams for real-time patient health prediction. To predict catastrophic health events, this work presents TCB-Health, a hybrid Temporal Convolutional Network (TCN) and Bidirectional LSTM (Bi-LSTM) architecture that uses multivariate physiological inputs, including respiration, accelerometer data, ECG, and PPG. The large MIMIC-IV waveform database (>10,000 patients) was used for additional validation, and the WESAD wearable dataset (15 participants) was employed for the investigations. The proposed model surpasses the CNN-only, GRU, and solo TCN baselines, achieving classification accuracy of 98.67%, precision of 98.54%, recall of 98.82%, F1-score of 98.90%, and inference latency of less than 10 ms per data window. The method reduces computational costs by around 35% in FLOPs and 28% in parameters, enabling reliable real-time deployment on edge devices with constrained resources. These results demonstrate that TCB-Health, in IoT-enabled healthcare systems, provides a scalable and effective solution for remote patient monitoring, early detection of cardiac abnormalities, and real-time clinical decision support.
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Alotaibi et al. (2026) studied this question.
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