CONDUCTING A SYNTHESIS OF A DIGITAL AUTOMATON FOR AN AUTOMATED FIREFIGHTING SYSTEM
DOI:
https://doi.org/10.14529/ctcr210105Keywords:
Mili automaton, digital automaton, graph, graph vertex, minimization of logic functionAbstract
Every year the industry in the world is gaining momentum: the number of industrial enterprises is growing, and with it the number of accidents at them. Oil today is the most common product for the synthesis and production of products. Increasing the level of fire protection systems at oil refineries remains one of the most important components of protecting people from technogenic hazards. The speed of innovation allows the application of artificial intelligence in the creation of automated fire protection systems. Research objective. This study is aimed at building a model of an automated integrated fire protection system (AISPPO).Through the synthesis of digital automata and minimizing the control functions of the digital model is created a system of automated integrated fire protection system. Materials and methods. To solve the problems of research used methods of constructing graphical algorithms of automated integrated fire protection system. This system is a new approach to solving the issue of safety of industrial facilities in the oil refining industry. Results. The proposed new model of the software implementation of a digital automaton in an automated integrated system of fire detection and monitoring of an oil refinery has made it possible
to create a bank of calculated and analytical data on all potential types of failures in the structure of the enterprise in order to train personnel and make changes to existing methodological documents and instructions for personnel actions in a particular situation. Conclusion. The developed technology allows you to process the incoming signal contained in cyclograms into an intermediate form for the synthesis of digital automata using innovative tools.
References
Topolsky N.G. [Problems and principles of creating integrated security and life support systems]. Proceedings of the Fourth International Conference “Informatization of security systems” – ISB-95. Moscow, VIPTSH MVD RF, 1995, pp. 14–17. (in Russ.)
Pupkov K.A., Egupov N.D. Metody klassicheskoy i sovremennoy teorii avtomaticheskogo upravleniya [Methods of Classical and Modern Automatic Control Theory]. Moscow, Bauman Moscow State Technical University, 2004.
Protiv pozhara. Entsiklopediya bezopasnosti [Against Fire. Encyclopedia of Security]. Available at: http://protivpozhara.ru/tipologija/teorija/pozhary-i-vzryvy-na-vzryvopozharoopasnyx-obektax.
Yurevich E.I. Teoriya avtomaticheskogo upravleniya [Theory of automatic control]. St. Petersburg, VCB-Peterburg, 2007.
Little I.D.C. Models and Managers. The Concept of a Decision Calculus. Management Science, 1970, vol. 16, no. 8.
Larichev O.I., Petrovsky A.V. [Decision Support Systems. The modern state and prospects for their development]. Progress of science and engineering. Ser. of Technical Cybernetics. Moscow, VINITI, 1987, vol. 21, pp. 131–164. (in Russ.)
Edwards J.S. Expert Systems in Management and Administration – Are they different from Decision Support Systems? European Journal of Operational Research, 1992, vol. 61, pp. 114–121.
Topolsky N.G., Tarakanov D.V. [Modeling the dynamics of fire monitoring parameters in
the building based on cellular automata]. Security Systems – 2016: Proceedings of the 25th International Scientific and Technical Conference. Moscow, Academy of State Fire Service of the Ministry of Emergency Situations of Russia, 2016, pp. 585–588. (in Russ.)
Shalyto A. A. [Automated programming]. Computer science and information technology: theses of reports of the International scientific conference in memory of Professor A. M. Bogomolov. Saratov, Saratov State University, 2007. (in Russ.)
Martinov G.M., Kozak N.V., Nezhmetdinov R.A. Implementation of Control for Peripheral Machine Equipment Based on the External Soft PLC Integrated with CNC. 2017 International Conference on Industrial Engineering, Applications and Manufacturing, ICIEAM 2017, 16–19 May 2017, pp. 1–4.
Martinova L.I., Kozak N.V., Nezhmetdinov R.A. The Russian multi-functional CNC system AxiOMA control: Practical aspects of application. Automation and remote control, 2015, vol. 76, no. 1, pp. 179–186.
Martinov G.M., Nezhmetdinov R.A., Kuliev A.U. Approach to implementing hardware-independent automatic control systems of lathes and lathe-milling CNC machines. Russian Aeronautics, 2016, vol. 59, no. 2, pp. 293–296.
Mori Masahiko, Fujishima Makoto, Yohei Oda. 5 axis mill turn and hybrid machining for advanced application. Procedia CIRP, 2012, vol. 1 (1), pp. 22–27. DOI: 10.1016/j.procir.2012.04.004
Patent EP 0690426 (A2), G09B 19/00. Système d'entraînement à l'emploi de l'ordinateur, 03.01.1996.
Patent EP 1111966 A, G08B 5/00. Signaling Device, 27.06.2001.
