Development of a human-machine interface for cascade control mills in obtaining nepheline ore charge

Автор: Ivanov R.D., Danykina G.B., Piskazhova T.V., Kolmakova L.P.

Журнал: Siberian Aerospace Journal @vestnik-sibsau-en

Рубрика: Technological processes and material science

Статья в выпуске: 3 vol.23, 2022 года.

Бесплатный доступ

Aluminum and alloys based on it are the main materials for space engineering, both in the production of vehicle parts, and in the organization of power supply and electronics. The raw material for producing aluminum is alumina. Alumina production is a multi-stage process that includes the processing of raw materials in various ways: mechanically, thermally, chemically. Mechanical processing of raw materials is the first stage of production, it includes a crushing department and a batch preparation department. The preparation of the charge from nepheline ore for further stages of production takes place in mills with the addition of limestone and recycled solution. The ratio of the components entering the mills directly affects the composition of the charge and the quality of the final product. At the same time, the required quality of the charge is not always ensured, since the costs of the components are set by a person based on the re-sults of a rare chemical analysis performed by the laboratory with a delay. The aim of the work is to improve the control of the mill when receiving a mixture of nepheline ore. A virtual mill control program and a mnemonic diagram were developed in the TIA Portal software environ-ment using the S7-1500 microprocessor controller. A system for automatic control of the lime and alkaline modules of the raw charge has been developed. The control program is built on the basis of calculating the moisture content of the charge, as well as the al-kaline and limestone modules, depending on the composition of the ore, limestone, as well as the feed rates of circulating water, ore and limestone to the mill. The mnemonic diagram includes an indication of important process parameters, trends in input and output characteristics, and tools for setting control actions.

Еще

Batch preparation, nepheline ore grinding, virtual control, mnemonic diagram

Короткий адрес: https://sciup.org/148329649

IDR: 148329649   |   DOI: 10.31772/2712-8970-2022-23-3-542-550

Список литературы Development of a human-machine interface for cascade control mills in obtaining nepheline ore charge

  • Anikeev V. I. Sposob pererabotki nefelinovoy rudy s dozirovkoy boksita [Method for processing nepheline ore with bauxite dosage]. Patent RF, No. 2006112505, 2006.
  • Anushenkov A. N., Shepelev I. I., Golovnyh N. V., Chudiyenko K. V. Sposob upravleniy prigotovleniem shihty pr ipererabotke nefelinovogo cyrya s polucheniem glinozema I sodoproduktov [Method for controlling the charge preparation during the processing of nepheline raw material with the production of alumina and soda products]. Patent RF, No. 2725228, 2019.
  • Ogol V. G., Yagin V. P. Sposob pererabotki nefelinovoy rudy dly polucheniy glinozema I sodoproduktov [Method for processing nepheline ores for producing alumina and soda products]. Patent RF, No. 2450066, 2011.
  • Shepelev I. I., Sakhachev A. Y., Anushenkov A. N., Aleksandrov A. V. Sposob pererabotki ne-felinovoy rudy [Method of processing nepheline ore]. Patent RF, No. 2606821 C, 2017.
  • Algebraistova N. K., Shepelev I. I., Sakhachev A. Y., Zhukov E. I., Zhizhaev A. M., Aleksan-drov A. V., Sviridov L. I. Sposob pererabotki nefelinovoy rudy I koncentratov [Processing method of nepheline ores and concentrates]. Patent RF, No. 2702590 C2, 2019.
  • Shepelev I. I., Algebraistova N. K., Sakhachev A. Y., Zhyzhaev A. M., Prokopiev I. V. [Grinda-bility study of nepheline ore and ferrotitanium production slag for their processing by sintering tech-nology]. VestnikIrGTU. 2017, Vol. 21, No. 11 (130), P. 167–178 (In Russ.).
  • Kozlov A. A, Kolmakova L. P., Kovtun O. N. [Analysis of technologies of preparation of the charge for sintering of nepheline ore at RUSAL Achinsk]. EvraziskiSouzYchenyh. 2018, No. 11 (56), P. 22–22 (In Russ.).
  • Achinsky Glinozemny Kombinat. RUSAL [Achinsky Alumina Plant. RUSAL] (In Russ.). Availa-ble at: https://rusal.ru/about/geography/achinskiy-glinozemnyy-kombinat/ (accessed 24.03.2022).
  • Liner A. I. Proizvodstvoglinozema [Alumina production]. Moscow, Metallurgizdat Publ., 1961, 619 p.
  • Pivnev A. I. Razrabotka I vnedreniye novoy tekhnologii prigotovleniya glinozemsoderzhashchey shikhty pri kompleksnoy pererabotke nefelinov. Kand. Dis. [Development and introduction of a new technology for the preparation of alumina-containing charge. Cand. Dis.]. Krasnoyarsk, KICM Publ., 1994.
  • Programmnoye obespecheniye konfigurirovaniya SIMATIC WinCC (TIA Portal): catalog In-dustry Mall [Software for configuration of the SIMATIC WinCC (TIA Portal): catalogueIndustry Mall]. (In Russ.). Available at: https://mall.industry.siemens.com/mall/ru/RU/catalog/products/ 10090965 (accessed 24.03.2022).
  • Piskazhova T. V., Sidelnikov S. B., Belolipetskii V. M., Yakivyuk P. N., Sidelnikov A. S. [Virtual CC&RP – a mathematical model for the control of the unit CC&RP and its visualization by means software products WinCC 7.0 and Step 7]. Vestnik SibGAU. 2015, No. 2(54), P. 140–144 (In Russ.).
  • Sverchkov D. [Human-machine interface development and application in control systems]. Transactfons of the Kryfov State Research Centre. 2018, No. 1, P. 184–190 (In Russ.).
  • Rukovodstvo po programmirovaniyu kontrollerov S7-1200/S7-1500: bazovoye sistemnoye rukovodstvo [Guide to programming controllers S7-1200/S7-1500: base system guide]. Available at: https://assets.new.siemens.com/siemens/assets/api/uuid:6f74436a53942bf8f1c7b6ed34d2ae72e92ed8a8/programming-guideline-v14-rus.pdf (accessed 02.05.2022).
  • Kayukov I. Yu. [Creation process trends in the WINCC development environment]. Mezhdunarodny studencheskiy nauchny vestnik. 2021, No. 6, P. 44–50 (In Russ.).
Еще
Статья научная