Human Activity Detection Using Smart Wearable Sensing Devices with Feed Forward Neural Networks and PSO

Hospitals must continually monitor their patients’ actions to lower the chance of accidents, such as patient falls and slides. Human behavior is difficult to track due to the complexity of human activities and the unpredictable nature of their conduct. As a result, creating a static link that is use...

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Bibliographic Details
Published in:Applied sciences 2023-03, Vol.13 (6), p.3716
Main Authors: Al_Hassani, Raghad Tariq, Atilla, Dogu Cagdas
Format: Article
Language:English
Subjects:
4SFNN
Accelerometers
accuracy
AEC
Artificial intelligence
Falls
Gait
Gyroscopes
Human activity recognition
Human acts
Human behavior
Human motion
MAE
Monitoring systems
Motion perception
Motion sensors
Neural networks
Optimization
prediction
PSO
Sensors
Smartphones
Technology application
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Summary:Hospitals must continually monitor their patients’ actions to lower the chance of accidents, such as patient falls and slides. Human behavior is difficult to track due to the complexity of human activities and the unpredictable nature of their conduct. As a result, creating a static link that is used to influence human behavior is challenging, since it is hard to forecast how individuals will think or act in response to a certain event. Mobility tracking depends on intelligent monitoring systems that apply artificial intelligence (AI) applications referred to as “categories”. Because motion sensors, such as gyroscopes and accelerometers, output unconnected data that lack labels, event detection is a vital task. The fall feature parameters of tridimensional accelerometers and gyroscope sensors are presented and used, and the classification technique is based on distinguishing characteristics. This study focuses on the age-old problem of tracking turbulence in motion to improve detection precision. We trained the model, considering that detection accuracy is limited by factors such as the subject’s mass, velocity, and gait style. This is performed by employing an experimental dataset. When we used the sophisticated technique of particle swarm optimization (PSO) in combination with a four-stage forward neural network (4SFNN) to forecast four different types of turbulent motion, we observed that the total prediction accuracy was 98.615% accurate.
ISSN:2076-3417
2076-3417
DOI:10.3390/app13063716