Table 1 Summary of related works.
Author (Ref) | Model/approach | Techniques used | Application domain | Key contributions/outcomes | Research gap |
---|---|---|---|---|---|
Arslan et al.19 | ML Healthcare monitoring | k-NN, SVM | Patient health monitoring | Increased healthcare monitoring accuracy | Limited to basic ML models; lacks deep learning integration |
Shi et al.20 | DSFNet for action recognition | CNN | Activity recognition | Enhanced precision through feature extraction | Lacks temporal modeling and multi-sensor fusion |
Gong et al.21 | Wearable data management system | Intelligent analysis techniques | Healthcare data management | Secured data sharing, improved communication | No real-time dynamic data handling |
Alruwaili et al.22 | PTL-DTM Model | Probabilistic transfer learning | Wireless transmission monitoring | Improved accuracy and security in data transmission | Model not validated across diverse environments |
Imran et al.23 | CNN-BiGRU activity recognition | CNN, BiGRU, Data Mining | Human activity recognition | High activity recognition accuracy | Limited personalization and adaptive learning |
Zha et al.24 | SCNN-LSTM for SNR prediction | SCNN, LSTM | Wireless sensor SNR prediction | Increased prediction precision, low latency | Lacks robustness to noise or signal anomalies |
Tatli et al.25 | Prediabetes detection method | ML, Signal Processing | Early disease detection | Cost-effective, accurate early prediction | Focused only on prediabetes, not generalized |
Nihar et al.26 | Heat stress prediction model | Data-driven ML | Heat stress detection | Accurate indoor heat stress prediction | Limited scalability and contextual adaptation |
Matsumura et al.27 | Real-time Healthcare analysis | Edge computing | Vital sign monitoring | Generalized, real-time diagnosis enhancement | Lacks integration with cloud-based long-term analytics |
Pini et al.28 | Infant development monitoring | Sensor-based monitoring | Child development | Enhanced brain development tracking | Limited to physical activity; lacks cognitive/emotional metrics |
Kim et al.29 | Channel attention for stress detection | Efficient Channel Attention, DNN | Stress detection | High accuracy, reduced computational latency | No adaptive mechanism for individual variability |
Matsumura et al.30 | Step length estimation for the elderly | ML with inertial sensor | Mobility estimation | Reduced step-length estimation error | Needs broader age group validation |
Mahato et al.31 | HM-HMS (hybrid multimodal health monitoring) | Hybrid multimodal WS | Health diagnostics | Improved diagnostic precision | Not benchmarked against standard clinical datasets |
Gashi et al.32 | MS classification | Behavioral Markers, ML | Multiple sclerosis classification | Higher system effectiveness and prediction quality | Disease-specific model lacks generalizability |
Li et al.33 | Athlete health monitoring | Naïve Bayes, Convolutional Vector Network | Athlete health tracking | Maximized prediction of physical condition | Needs inclusion of mental/emotional health data |
Zhang et al.34 | Gait analysis for Parkinson’s | Quantitative gait modeling | Disease diagnosis | Accurate stage classification, reduced complexity | Not integrated with real-time feedback systems |