A Systematic Review on the Integration of Machine Learning and Deep Learning for Disease Detection from ECG/EEG/EMG/EOG Signals in the Internet of Medical Things (IoMT) and Artificial Intelligence (AI)
نویسندگان
doi
چکیده
The convergence of the Internet of Medical Things (IoMT), biosignal processing and artificial intelligence has redefined early disease detection by enabling real-time, remote and ultra-low-power analytics at the edge. In this systematic review we analyse 40 peer-reviewed studies (2020–2025) that apply machine-learning or deep-learning techniques to electrocardiogram (ECG), electroencephalogram (EEG), electromyogram (EMG) and electrooculogram (EOG) data within IoMT ecosystems. We chronicle the complete pipeline—from sensor physics (AD8232, Myoware, Muse 2) through Fog/Edge preprocessing, feature engineering and model selection, to deployment on Raspberry Pi, ESP32 or Jetson Nano boards. Reported clinical accuracies peak at 99 % for arrhythmia, 98.5 % for neonatal seizure and 97 % for stress detection, while end-to-end latency is pushed below 120 ms and raw-data uploads are reduced by 99 % via on-device inference. Methodological trends show a migration from classical SVM/Random-Forest-PSO models (2020) to compressed CNN-LSTM-GRU hybrids (2025) and multimodal CNN-Transformer architectures. Remaining challenges include patient-specific fine-tuning, scalable 5G-Edge orchestration, multimodal fusion and zero-trust security. The evidence indicates that hybrid Edge-Fog-Cloud frameworks which couple pruned deep nets with optimised classical learners currently offer the most pragmatic route toward large-scale, privacy-preserving and clinically validated IoMT diagnostics.