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 <front>
  <journal-meta>
   <journal-id journal-id-type="publisher">setsci</journal-id>
   <journal-title-group>
    <journal-title>Setsci conference indexing system</journal-title>
   </journal-title-group>
   <issn>2618-6446</issn>
   <publisher>
    <publisher-name>SET Technology</publisher-name>
   </publisher>
  </journal-meta>
  <article-meta>
   <article-id pub-id-type="publisher-id">ca2262a7-eff7-45e1-aec0-96f6a01b4ff4</article-id>
   <title-group>
    <article-title>Gait Recognition using RGB-D Camera for Player Labeling</article-title>
   </title-group>
   <contrib-group>
    <contrib contrib-type="author" corresp="yes">
     <name>
      <surname>Atay</surname>
      <given-names>Yilmaz</given-names>
     </name>
     <xref ref-type="aff" rid="aff1"/>
    </contrib>
    <contrib contrib-type="author">
     <name>
      <surname>Wicaksono</surname>
      <given-names>Agusta   </given-names>
     </name>
     <xref ref-type="aff" rid="aff1"/>
    </contrib>
    <contrib contrib-type="author">
     <name>
      <surname>Arslan  </surname>
      <given-names>Ahmet </given-names>
     </name>
     <xref ref-type="aff" rid="aff1"/>
    </contrib>
   </contrib-group>
   <aff id="aff1">
    <institution>Osmaniye Korkut Ata University  </institution>
   </aff>
   <pub-date date-type="pub">
    <day>01</day>
    <month>06</month>
    <year>2019</year>
   </pub-date>
   <volume>4</volume>
   <fpage>282</fpage>
   <lpage>284</lpage>
   <permissions>
    <copyright-statement>© 2019 SET Technology</copyright-statement>
    <copyright-year>2019</copyright-year>
    <copyright-holder>SET Technology</copyright-holder>
    <license xlink:href="https://creativecommons.org/licenses/by/4.0/">
     <license-p>CC BY 4.0</license-p>
    </license>
   </permissions>
   <abstract>
    <p>The identification of the 3-dimensional physical properties of humans has recently become a very important field of study. In this respect, today's applications and research use depth cameras such as Kinect as an input tool for identification of quantitative characteristics of people. Due to the completeness of data offered by conventional cameras, depth-cameras are the driving force for more up-to-date research. Introduction of human objects recognition offered by its library makes researchers easily take three-dimensional data from Kinect for skeletonization algorithms. The skeletonization is an algorithm that can facilitate the depth-camera’s user to detect human objects and track the bone and each joint. In this way, a human can be tracked precisely by bone and joint motion. Moreover, the camera is able to do skeleton tracking over a human object. However, if the human object is actively moving in the field, the skeleton mapping may change. In this paper, we propose a new method for labeling players by using gait recognition and other features thus even the human is moving in/out of the camera field, the camera will recognize it as the same human based on its characteristic. This approach can be easily used in real-time recognition of people and is also performed to label the player. Experiments of this method were carried out in the real environment. Tests were performed successfully in experiments where people with different characteristics are involved. According to the obtained results, the proposed method has a good performance and can be applied in real-time easily.</p>
   </abstract>
   <kwd-group xml:lang="en">
    <kwd>Person identification, Skeleton mapping, Player labeling, Kinect, Gait recognition</kwd>
   </kwd-group>
   <kwd-group xml:lang="en">
    <kwd>Person identification, Skeleton mapping, Player labeling, Kinect, Gait recognition</kwd>
   </kwd-group>
  </article-meta>
 </front>
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  <ref-list>
   <ref id="ref1">
    <mixed-citation>Kastaniotis, D., Theodorakopoulos, I., Theoharatos, C., Economou, G., &amp; Fotopoulos, S. (2015). A framework for gait-based recognition using Kinect. Pattern Recognition Letters, 68, 327-335.</mixed-citation>
   </ref>
   <ref id="ref2">
    <mixed-citation>Lu, W., Zong, W., Xing, W., &amp; Bao, E. (2014). Gait recognition based on joint distribution of motion angles. Journal of Visual Languages &amp; Computing, 25(6), 754-763.</mixed-citation>
   </ref>
   <ref id="ref3">
    <mixed-citation>Chattopadhyay, P., Roy, A., Sural, S., &amp; Mukhopadhyay, J. (2014). Pose Depth Volume extraction from RGB-D streams for frontal gait recognition. Journal of Visual Communication and Image Representation, 25(1), 53-63.</mixed-citation>
   </ref>
   <ref id="ref4">
    <mixed-citation>Yang, K., Dou, Y., Lv, S., Zhang, F., &amp; Lv, Q. (2016). Relative distance features for gait recognition with Kinect. Journal of Visual Communication and Image Representation, 39, 209-217.</mixed-citation>
   </ref>
   <ref id="ref5">
    <mixed-citation>Sun, B., Zhang, Z., Liu, X., Hu, B., &amp; Zhu, T. (2017). Self-esteem recognition based on gait pattern using Kinect. Gait &amp; posture, 58, 428-432.</mixed-citation>
   </ref>
   <ref id="ref6">
    <mixed-citation>Gianaria, E., Grangetto, M., Lucenteforte, M., &amp; Balossino, N. (2014, June). Human classification using gait features. In International Workshop on Biometric Authentication (pp. 16-27). Springer, Cham.</mixed-citation>
   </ref>
   <ref id="ref7">
    <mixed-citation>Dikovski, B., Madjarov, G., &amp; Gjorgjevikj, D. (2014, May). Evaluation of different feature sets for gait recognition using skeletal data from Kinect. In Information and Communication Technology, Electronics and Microelectronics (MIPRO), 2014 37th International Convention on (pp. 1304-1308). IEEE.</mixed-citation>
   </ref>
   <ref id="ref8">
    <mixed-citation>Yang, L., Ren, Y., &amp; Zhang, W. (2016). 3D depth image analysis for indoor fall detection of elderly people. Digital Communications and Networks, 2(1), 24-34.</mixed-citation>
   </ref>
   <ref id="ref9">
    <mixed-citation>Nieto-Hidalgo, M., Ferrández-Pastor, F. J., Valdivieso-Sarabia, R. J., Mora-Pascual, J., &amp; García-Chamizo, J. M. (2016). A vision based proposal for classification of normal and abnormal gait using RGB camera. Journal of biomedical informatics, 63, 82-89.</mixed-citation>
   </ref>
   <ref id="ref10">
    <mixed-citation>Arifoglu, D., &amp; Bouchachia, A. (2017). Activity recognition and abnormal behaviour detection with recurrent neural networks. Procedia Computer Science, 110, 86-93.</mixed-citation>
   </ref>
   <ref id="ref11">
    <mixed-citation>Tran, T. H., Le, T. L., Hoang, V. N., &amp; Vu, H. (2017). Continuous detection of human fall using multimodal features from Kinect sensors in scalable environment. Computer methods and programs in biomedicine, 146, 151-165.</mixed-citation>
   </ref>
   <ref id="ref12">
    <mixed-citation>Khoshelham, K., &amp; Elberink, S. O. (2012). Accuracy and resolution of Kinect depth data for indoor mapping applications. Sensors, 12(2), 1437-1454.</mixed-citation>
   </ref>
   <ref id="ref13">
    <mixed-citation>Yavşan, E., &amp; Uçar, A. (2016). Gesture imitation and recognition using Kinect sensor and extreme learning machines. Measurement, 94, 852- 861.</mixed-citation>
   </ref>
   <ref id="ref14">
    <mixed-citation>Panahi, L., &amp; Ghods, V. (2018). Human fall detection using machine vision techniques on RGB–D images. Biomedical Signal Processing and Control, 44, 146-153.</mixed-citation>
   </ref>
   <ref id="ref15">
    <mixed-citation>Lei, J., Song, M., Li, Z. N., &amp; Chen, C. (2015). Whole-body humanoid robot imitation with pose similarity evaluation. Signal Processing, 108, 136-146.</mixed-citation>
   </ref>
  </ref-list>
 </back>
</article>
