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SCALE-INDEPENDENT SPATIO-TEMPORAL STATISTICAL SHAPE REPRESENTATIONS FOR 3D HUMAN ACTION RECOGNITION
Author(s) -
Marco Körner,
Daniel Haase,
Joachim Denzler
Publication year - 2012
Language(s) - English
Resource type - Conference proceedings
DOI - 10.5220/0003766202880294
Subject(s) - computer science , robustness (evolution) , action recognition , artificial intelligence , principal component analysis , focus (optics) , noise (video) , pattern recognition (psychology) , translation (biology) , invariant (physics) , scale (ratio) , domain adaptation , machine learning , computer vision , mathematics , classifier (uml) , cartography , gene , biochemistry , chemistry , image (mathematics) , messenger rna , mathematical physics , optics , physics , geography , class (philosophy)
Since depth measuring devices for real-world scenarios became available in the recent past, the use of 3d data now comes more in focus of human action recognition. We propose a scheme for representing human actions in 3d, which is designed to be invariant with respect to the actor’s scale, rotation, and translation. Our approach employs Principal Component Analysis (PCA) as an exemplary technique from the domain of manifold learning. To distinguish actions regarding their execution speed, we include temporal information into our modeling scheme. Experiments performed on the CMU Motion Capture dataset shows promising recognition rates as well as its robustness with respect to noise and incorrect detection of landmarks.

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