2016
DOI: 10.1007/s11042-016-3945-6
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Landmark-based multimodal human action recognition

Abstract: Human activity recognition has received a lot of attention recently, mainly thanks to the advancements in sensing technologies and systems' increasing computational power. However, complexity in human movements, sensing devices' noise and person-specific characteristics impose challenges that still remain to be overcome. In the proposed work, a novel, multi-modal human action recognition method is presented for handling the aforementioned issues. Each action is represented by a basis vector and spectral analys… Show more

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Cited by 14 publications
(5 citation statements)
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References 31 publications
(41 reference statements)
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“…To enhance robustness to outliers, the Cauchy estimator is imposed on the reconstruction error. Asteriadis et al [29] presented a novel, multimodal human action recognition method to handle a sensing device's noise and person-specific characteristics. Each action is represented by a basis vector and spectral analysis is performed on an affinity matrix of new action feature vectors.…”
Section: Multimodal Feature Fusion-based Methodmentioning
confidence: 99%
“…To enhance robustness to outliers, the Cauchy estimator is imposed on the reconstruction error. Asteriadis et al [29] presented a novel, multimodal human action recognition method to handle a sensing device's noise and person-specific characteristics. Each action is represented by a basis vector and spectral analysis is performed on an affinity matrix of new action feature vectors.…”
Section: Multimodal Feature Fusion-based Methodmentioning
confidence: 99%
“…In Table A.5 ("Appendix 1"), the description of sensor-datasets is illustrated with attributes such as data source, #factors, sensor location, and activity type. It includes wearable sensor-based datasets (Alsheikh et al 2016;Asteriadis and Daras 2017;Zhang et al 2012;Chavarriaga et al 2013;Munoz-Organero 2019;Roggen et al 2010;Qin et al 2019), as well as smart-device sensor-based datasets (Ravi et al 2016;Cui and Xu 2013;Weiss et al 2019;Miu et al 2015;Reiss and Stricker 2012a, b;Lv et al 2020;Gani et al 2019;Stisen et al 2015;Röcker et al 2017;Micucci et al 2017) Apart from datasets mentioned in Table A.5, there are few more datasets worth mentioning such as Kasteren dataset (Kasteren et al 2011;, which is also very popular. (2) Vision-based HAR: Devices for collecting 3D data are CCTV cameras (Koppula and Saxena 2016;Devanne et al 2015;Zhang and Parker 2016;Li et al 2010;Duan et al 2020;Kalfaoglu et al 2020;Gorelick et al 2007;Mahadevan et al 2010), depth cameras (Cippitelli et al 2016;Gaglio et al 2015;Neili Boualia and Essoukri Ben Amara 2021;Ding et al 2016; Cornell Activity Datasets: CAD-60 & CAD-120 2021), and videos from public domains like YouTube and Hollywood movie scenes (Gu et al 2018;Soomro et al 2012;Kuehne et al 2011;Sigurdsson et...…”
Section: A Short Note On Har Datasetsmentioning
confidence: 99%
“…In this section, the related work about people counting and activity recognition is introduced in brief. The traditional method of human sensing is based on video [5][6][7]. It uses the camera to obtain scene information to realize the people counting and the recognition of actions.…”
Section: Related Workmentioning
confidence: 99%