Progress in smart industrial control applied to renewable energy system

Author:

Salhi Mohamed Salah1,Kashoob Said2,Lachiri Zied1

Affiliation:

1. National Engineering School of Tunis-Tunisia , Research Laboratory of Signal Image and Information Technology LR-SITI, University of Tunis El Manor , Tunis , Tunisia

2. Ministry of Higher Education , Director of SVC , Salalah , Oman

Abstract

Abstract The industrial Supervising Control and Data Acquisition, referred by SCADA system, tends to improve its accuracy in detecting faults. In that, it uses fault diagnosis models based mostly on probabilistic methods with close uncertainties. These models are based on a subjective evaluation by comparing the obtained signal to its reference. Therefore, SCADA precision fault detection varies depending on the operation environment, system design and analysis approach among other factors. The contribution of this research work is to propose a smart strategy that will enrich and enhance failure recognition in SCADA systems by integrating two additional models into the classic technique. The first model is a SOM map reduce simple classifier and the second model is an evolutionary recurrent self-organizing neural filter for final decision-making. This integrated paradigm improves results accuracy and robustness against signal interference. The proposed idea involves best details around any remotely listed defect. This study has been conducted on Simulink-Matlab, through the analysis of multi signals emitted by sensors and received by corresponding antennas.

Publisher

Walter de Gruyter GmbH

Subject

Electrochemistry,Electrical and Electronic Engineering,Energy Engineering and Power Technology,Renewable Energy, Sustainability and the Environment

Reference18 articles.

1. Blickey, G. J. 1985. “SCADA Systems Affected by Distributed Control.” Control Engineering 32 (3): 79–81.

2. Boualem, I. 2009. contribution à l’étude de la superviion industrielle automatique dans un environnement SCADA, 01–103. University Boumerdes-Alger: mémoire de Magester.

3. Boyer, S. A. 1993. SCADA: Supervisory Control and Data Acquisition, 239. ACM Digital Library -USA: Instrumemts Society of America.

4. Chartre, J.-M. 2013 “Supervision : outil de mesure de la production”, Techniques de l’Ingénieur, National Conservatory of Arts and Crafts-France, R 7630, 01–14.

5. Farana, R., and L. Landryova. 1998. “Data Visualization of the SCADA lHMI System on the Internet/Intranet.” In 13th International Conference on Automation in Mining ICAMC’98/ASRTP’98, 386–9. High Tatras: TU Kosice, Slovak Republic.

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