Table 1 Summary of related works.

From: Enhancing wearable sensor data analysis for patient health monitoring using allied data disparity technique and multi instance ensemble perceptron learning

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