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Automated Self-trained System of Functional Control and State Detection of Railway Transport Nodes

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Języki publikacji
EN
Abstrakty
EN
Automation of data processing of contactless diagnostics (detection) of the technical condition of the majority of nodes and aggregates of railway transport (RWT) minimizes the damage from failures of these systems in operating modes. This becomes possible due to the rapid detection of serious defects at the stage of their origin. Basically, in practice, the control of the technical condition of the nodes and aggregates of the RWT is carried out during scheduled repairs. It is not always possible to identify incipient defects. Consequently, it is not always possible to warn personnel (machinists, repairmen, etc.) of significant damage to the RWT systems until their complete failure. The difficulties of obtaining diagnostic information is that there is interdependence between the main nodes of the RWT. This means that if physical damage occurs at any of the RWT nodes, in other nodes there can also occur malfunctions. As the main way to improve the efficiency of state detection of the nodes and aggregates of RWT, we see the direction of giving the adaptability property for an automated data processing system from various contactless diagnostic information removal systems. The global purpose can be achieved, in particular, through the use of machine learning methods and failure recognition (recognition objects). In order to improve the operational reliability and service life of the main nodes and aggregates of RWT, there are proposed an appropriate model and algorithm of machine learning of the operator control system of nodes and aggregates. It is proposed to use the Shannon normalized entropy measure and the Kullback-Leibler distance information criterion as a criterion of the learning effectiveness of the automated detection system and operator node state control of RWT. The article describes the application of the proposed method on the example of an automatic detection system (ADS) of the state of a traction motor of an electric locomotive. There are given the test data of the model and algorithm in the MATLAB environment.
Twórcy
  • Kazakh University Ways of Communications, Almaty, Kazakhstan
  • National University of Life and Environmental Sciences of Ukraine, Kyiv
  • Kazakh University Ways of Communications, Almaty, Kazakhstan
  • Kazakh University Ways of Communications, Almaty, Kazakhstan
  • Kazakh University Ways of Communications, Almaty, Kazakhstan
Bibliografia
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  • [2] Le Mortellec, A., Clarhaut, J., Sallez, Y., Berger, T., & Trentesaux, D. (2013). Embedded holonic fault diagnosis of complex transportation systems. Engineering Applications of Artificial Intelligence, 26(1), pp. 227-240.
  • [3] Ph Papaelias, M., Roberts, C., & Davis, C. L. (2008). A review on nondestructive evaluation of rails: state-of-the-art and future development. Proceedings of the Institution of Mechanical Engineers, Part F: Journal of Rail and rapid transit, 222(4), pp. 367-384.
  • [4] Seeliger, A., Mackel, J., & Georges, D. (2002). Measurement and diagnosis of process-disturbing oscillations in high-speed rolling plants. In Proc. XIV IMEKO World Congress.
  • [5] Jin, X. S., Guo, J., Xiao, X. B., Wen, Z. F., & Zhou, Z. R. (2009). Key scientific problems in the study on running safety of high speed trains. Engineering Mechanics, 26(Sup II), pp. 825.
  • [6] Mariani, L., Pastore, F., & Pezze, M. (2011). Dynamic analysis for diagnosing integration faults. IEEE Transactions on Software Engineering, 37(4), pp. 486-508.
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  • [8] Orbn, Zoltn, and Marc Gutermann. ”Assessment of masonry arch railway bridges using non-destructive in-situ testing methods.”, Engineering Structures, 31.10 (2009): pp. 2287-2298.
  • [9] Yella, Siril, M. S. Dougherty, and N. K. Gupta (2006). ”Artificial intelligence techniques for the automatic interpretation of data from non-destructive testing.” Insight-Non-Destructive Testing and Condition Monitoring, 48.1: pp. 10-20.
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  • [11] Petr Dolezel, Pavel Skrabanek, Lumir Gago Pattern recognition neural network as a tool for pest birds detection, Computational Intelligence (SSCI IEEE Symposium Series on), 2016, pp. 1-6.
  • [12] Lakhno, V., Tkach, Y., Petrenko, T., Zaitsev, S., & Bazylevych, V. (2016). Development of adaptive expert system of information security using a procedure of clustering the attributes of anomalies and cyber attacks. Eastern-European Journal of Enterprise Technologies, (6 (9)), pp. 32-44.
  • [13] Lakhno, V. ”Creation of the adaptive cyber threat detection system on the basis of fuzzy feature clustering.” Eastern-European Journal of Enterprise Technologies, 2.9 (2016): 18.
  • [14] Lakhno, V.A., Kravchuk, P.U., Malyukov, V.P., Domrachev, V.N., Myrutenko, L.V., Piven, O.S., Developing of the cyber security system based on clustering and formation of control deviation signs, Journal of Theoretical and Applied Information Technology, Vol. 95, Iss. 21, pp. 5778-5786.
  • [15] Dovbish A.S. Osnovi proektuvannja ntelektual’nih sistem / A.S. Dovbish. Sumi: SumDU, 2009. 171 p.
  • [16] Zhang, X., Feng, N., Wang, Y., & Shen, Y. (2015). Acoustic emission detection of rail defect based on wavelet transform and Shannon entropy. Journal of Sound and Vibration, 339, pp. 419-432.
  • [17] Giantomassi, A., Ferracuti, F., Iarlori, S., Ippoliti, G., & Longhi, S. (2015). Electric motor fault detection and diagnosis by kernel density estimation and KullbackLeibler divergence based on stator current measurements. IEEE Transactions on Industrial Electronics, 62(3), pp. 1770-1780.
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Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-e1682da4-5995-4b60-848b-3388a3bfbe10
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