
pmid: 38302545
pmc: PMC10834495
AbstractIn the healthcare sector, the health status and biological, and physical activity of the patient are monitored among different sensors that collect the required information about these activities using Wireless body area network (WBAN) architecture. Sensor-based human activity recognition (HAR), which offers remarkable qualities of ease and privacy, has drawn increasing attention from researchers with the growth of the Internet of Things (IoT) and wearable technology. Deep learning has the ability to extract high-dimensional information automatically, making end-to-end learning. The most significant obstacles to computer vision, particularly convolutional neural networks (CNNs), are the effect of the environment background, camera shielding, and other variables. This paper aims to propose and develop a new HAR system in WBAN dependence on the Gramian angular field (GAF) and DenseNet. Once the necessary signals are obtained, the input signals undergo pre-processing through artifact removal and median filtering. In the initial stage, the time series data captured by the sensors undergoes a conversion process, transforming it into 2-dimensional images by using the GAF algorithm. Then, DenseNet automatically makes the processes and integrates the data collected from diverse sensors. The experiment results show that the proposed method achieves the best outcomes in which it achieves 97.83% accuracy, 97.83% F-measure, and 97.64 Matthews correlation coefficient (MCC).
Artificial intelligence, Ambient Intelligence, Computer Networks and Communications, Science, Non-contact Physiological Monitoring Technology, Biomedical Engineering, Activity Recognition in Pervasive Computing Environments, Convolutional neural network, FOS: Medical engineering, Activity Recognition, Pattern recognition (psychology), Article, Real-time computing, Context-Aware Applications, Wearable Electronic Devices, Engineering, Deep Learning, Machine learning, Humans, Human Activities, Embedded system, Wearable Sensors, Computer network, Internet of Things and Edge Computing, Q, R, Wearable computer, Deep learning, Body area network, Computer science, Process (computing), Operating system, Activity recognition, Computer Science, Physical Sciences, Wireless, Telecommunications, Medicine, Neural Networks, Computer, Computer Vision and Pattern Recognition, Algorithms, Wireless sensor network
Artificial intelligence, Ambient Intelligence, Computer Networks and Communications, Science, Non-contact Physiological Monitoring Technology, Biomedical Engineering, Activity Recognition in Pervasive Computing Environments, Convolutional neural network, FOS: Medical engineering, Activity Recognition, Pattern recognition (psychology), Article, Real-time computing, Context-Aware Applications, Wearable Electronic Devices, Engineering, Deep Learning, Machine learning, Humans, Human Activities, Embedded system, Wearable Sensors, Computer network, Internet of Things and Edge Computing, Q, R, Wearable computer, Deep learning, Body area network, Computer science, Process (computing), Operating system, Activity recognition, Computer Science, Physical Sciences, Wireless, Telecommunications, Medicine, Neural Networks, Computer, Computer Vision and Pattern Recognition, Algorithms, Wireless sensor network
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