Publication | Open Access
Syntactic model-based human body 3D reconstruction and event classification via association based features mining and deep learning
30
Citations
37
References
2021
Year
Geometric LearningEngineeringMachine LearningHuman Pose Estimation3D Pose EstimationBiometricsWearable TechnologyHuman ModellingGait Event DetectionImage AnalysisKinesiologyData ScienceData MiningPattern RecognitionHuman MotionHealth SciencesMachine VisionComputer ScienceVideo UnderstandingDeep LearningMedical Image Computing3D Object RecognitionGait Event RecognitionComputer VisionHuman MovementActivity RecognitionEvent ClassificationHuman Posture AnalysisMotion Analysis
The study of human posture analysis and gait event detection from various types of inputs is a key contribution to the human life log. With the help of this research and technologies humans can save costs in terms of time and utility resources. In this paper we present a robust approach to human posture analysis and gait event detection from complex video-based data. For this, initially posture information, landmark information are extracted, and human 2D skeleton mesh are extracted, using this information set we reconstruct the human 2D to 3D model. Contextual features, namely, degrees of freedom over detected body parts, joint angle information, periodic and non-periodic motion, and human motion direction flow, are extracted. For features mining, we applied the rule-based features mining technique and, for gait event detection and classification, the deep learning-based CNN technique is applied over the mpii-video pose, the COCO, and the pose track datasets. For the mpii-video pose dataset, we achieved a human landmark detection mean accuracy of 87.09% and a gait event recognition mean accuracy of 90.90%. For the COCO dataset, we achieved a human landmark detection mean accuracy of 87.36% and a gait event recognition mean accuracy of 89.09%. For the pose track dataset, we achieved a human landmark detection mean accuracy of 87.72% and a gait event recognition mean accuracy of 88.18%. The proposed system performance shows a significant improvement compared to existing state-of-the-art frameworks.
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