Computational Nanotechnology Issue №4 — 2020

Automation of continuous broadband hot rolling mill
( Pp. 48-53)

Gerasimova Alla A. Romanov Sergey P.

DOI: 10.33693/2313-223X-2020-7-4-48-53

Gerasimova Alla A. Candidate of Engineering, Associated Professor; National University of Science and Technology “MISiS”. Moscow, Russian Federation. ORCID: https://orcid.org/0000-0002-1317-9025; Scopus Author ID: 54404655200; Researcher ID: AAD-7091-2021; РИНЦ Author ID: 872766; E-mail: allochka@rambler.ru Romanov Sergey P. aspirant
National Research and Engineering University “MISIS”

Abstract:

The article deals with a continuous wide-field hot rolling mill for a foundry and rolling complex (LPC). The goal of automation of a continuous broadband hot rolling mill is to ensure the production of high - quality hot rolled products regardless of the working staff using a self-learning neural network and huge databases in the rolling industry. The collector was designed with an innovative shape and a new cooling liquid spray scheme in the COMPASS-3D CAD. The collector is equipped with infrared sensors that read the surface temperature of the rolling roll and actuators. An open microcontroller platform Arduino UNO was chosen to implement an automatic system for purposeful cooling of rolling mill rolls. The proposed scheme of an automatic system for purposeful cooling of rolls is a classic system with negative feedback. The whole system can be divided into two circuits: the first is to regulate the amount of water supplied based on the readings of temperature sensors, one for regulating the pressure of water supplied based on the pressure sensor. This approach is proposed for the first time to automate cooling of rolling mill rolls. Analysis of the results of modeling the operation of the automated collector showed the following results: 16 transshipments per month, 2 scheduled preventive repairs, and the average roll working rate of 87%. The proposed system allows efficient use of the coolant compared to the old system. Based on the analysis of the operating time of rolling rolls under various cooling modes, the system will allow you to track roll wear and inform the staff about the upcoming transshipment dates. An artificial neural network was developed and implemented in the cooling system of rolling rolls at the 1950 LPC mill in order to increase the stability of the working rolls and improve the quality of the resulting products.

How to Cite:

Gerasimova A.A., Romanov S.P., (2020), AUTOMATION OF CONTINUOUS BROADBAND HOT ROLLING MILL. Computational Nanotechnology, 4 => 48-53.

Reference list:

Vydrin V.N., Fedosienko A.S. Avtomatizatsiya prokatnogo proizvodstva: uchebnik dlya vuzov. M.: Metallurgiya, 1984. 472 c.
Gorbatyuk S.M., Romanov S.P., Morozova I.G. Komp yuternoe modelirovanie sistemy okhlazhdeniya chistovoy kleti shirokopolosnogo stana goryachey prokatki i razrabotka novoy skhemy okhlazhdeniya s tsel yu snizheniya termicheskikh napryazheniy v prokatnykh valkakh // Metallurg. 2019. № 63 (7-8). S. 836-840. DOI: 10.1007/s11015-019-00897-6.
Belelyubskiy B.F., Gerasimova A.A., KHlamkova S.S. Mashiny i agregaty dlya obrabotki metallov davleniem: ucheb. posobie. M.: Izd. Dom NITU MISiS , 2019. 74 c.
Gerasimova A.A. Vybor temperaturnogo rezhima dlya tolstolistovogo prokatnogo stana na OAO VMZ // Vestnik BGTU im. V.G. SHukhova. 2018. № 10. S. 126-131.
Bast J., Kryukov I.Yu. Study of the temperature fields in the mold of a horizontal continuous caster // Metallurgist. 2011. No. 55 (3-4). Pp. 163-166. DOI: 10.1007/s11015-011-9407-5.
Glukhov L.M., Gorbatyuk S.M., Morozova I.G., Naumova M.G. Effective laser technology for making metal products and tools // Metallurgist. 2016. No. 60 (3-4). Pp. 306-312. DOI: 10.1007/s11015-016-0291-x1.
Gerasimova A.A. Issledovanie zakonomernostey plasticheskogo deformirovaniya polykh stal nykh profiley szhatiem // Computational nanotechnology. 2019. № 3. S. 22-26.
Durelli A.J., Chichenev N.A., Clark J.A. Developments in the optical spatial filtering of superposed crossed gratings - Spatial-filtering techniques are used to obtain individually, as separate patterns in a simple and precise manner, the whole field of displacement components and of their time and space derivatives // Experimental Mechanics. 1972. No. 12 (11). Pp. 496-501.
Neyronnaya set . URL: https://ru.wikipedia.org/wiki (data obrashcheniya: 03.02.2020).
Pasport stana 1950 LPK. 11-58.005.000-000.00055. Audit okhlazhdeniya rabochikh valkov F1-F6. Vyksa, 2008.
Ganin N.B. Trekhmernoe proektirovanie v KOMPAS-3D. M.: DMK-Press, 2012. S. 784.
Lutts M. Izuchaem Python. 4-e izd. / per. s angl. SPb. Simvol-Plyus, 2011. 1280 c.: il.
Lechler. URL: https://www.lechler.com/ru (data obrashcheniya: 03.02.2020).
Marochnik stali i splavov. URL: http://splav-kharkov.com/mat start.php name id 345 (data obrashcheniya 03.02.2020).
Dubovskiy S.V. i dr. Patent RU 2457913 C1. Sposob okhlazhdeniya prokatnykh valkov stanov goryachey prokatki. 2012.

Keywords:

cooling system, sheet steel, hot rolling, defects, thermal stresses.