ArticleName |
Energy-technological and design parameters during ferroalloy melting in electric furnaces by carbon-thermal
process. Part 2. Increasing the size and weight of ferroalloy furnace equipment. Analysis of the causes of furnace performance
deterioration |
ArticleAuthorData |
Financial University under the Government of the Russian Federation, Moscow, Russia
A. P. Shkirmontov, Dr. Eng., Director of the Scientific Journal Editorial Center, e-mail: aps-panor@yandex.ru |
References |
1. Shkirmontov A. P. Increase in the diameter of electrodes and weight of equipment with the growth of ferroalloy furnaces power. Glavny mechanik. 2010. No. 10. pp. 21–24. 2. Shevchenko V. F. Arrangement and operation of equipment of ferroalloy plants. Moscow : Metallurgiya, 1982. 208 p. 3. Svenchansky A. D., Zherdev I. T., Kruchinin A. M., Popov A. N. Electric industrial furnaces: Arc furnaces and special heating units. Moscow : Energoizdat, 1981. 296 p. 4. Gasik M. I. Electrodes of ore-reducing electric furnaces. Moscow : Metallurgiya, 1984. 248 p. 5. Vorobiev V. P. Electrothermy of reduction processes. Yekaterinburg : Izdatelstvo UrO RAN, 2009. 270 p. 6. Shkirmontov A. P. Establishing the theoretical foundations and energy parameters for the production of ferroalloys with a larger-than-normal gap under the electrode. Metallurgist. 2009. Vol. 53, Iss. 5-6. pp. 300–308. 7. Mikulinsky A. S., Shkirmontov A. P., Topilsky P. V., Druinsky M. I. Effect of electrode decay on electrical resistance of a furnace bath for smelting ferrosilicon. Stal. 1979. No. 10. pp. 761–762. 8. Shkirmontov A.P. The role of the subelectrode gap in a ferroalloy furnace in improving the energy-technological parameters of smelting by a carbon-thermal process. Elektrometallurgiya. 2017. No. 6. pp. 24–31. 9. Mikulinsky A.S. Determination of parameters of ore-thermal furnaces based on the theory of similarity. Moscow – Leningrad : Energiya, 1964. 87 p. 10. Sergeev P. V. Energy regularities of ore-thermal electric furnaces, electrolysis and electric arc. Alma-Ata : Izdatelstvo AN KazSSR, 1963. 252 p. 11. Povolotsky D. Ya., Roshchin V. E., Ryss M. A., Stroganov A. I., et al. Electrometallurgy of steel and ferroalloys. Moscow : Metallurgiya, 1974. 550 p. 12. Gavrilov V. A., Polyakov I. I., Polyakov O. I. Optimization of operating modes of ferroalloy furnaces. Moscow : Metallurgiya, 1996. 176 p. 13. Shkirmontov A. P. Effect of electrode diameter on the electrical resistance of a ferroalloy furnace bath. Elektrooborudovanie: ekspluatatsiya i remont. 2011. No. 4. pp. 42–49. 14. Strunsky B. M. Calculations of ore-thermal furnaces. Moscow : Metallurgiya, 1982. 192 p. 15. Shkirmontov A. P. Carbonaceous reducing agents with increased specific electrical resistance and parameters of ferroalloy smelting in electric furnaces. Elektrooborudovanie: ekspluatatsiya i remont. 2018. No. 1-2. pp. 22–37. 16. Mizin V. G., Serov G. V. Carbonaceous reducing agents for ferroalloys production. Moscow : Metallurgiya, 1976. 272 p. 17. Shkrabov E. I., Serov G. V., Sidorov A. N. Kanaev Yu. P. Modernization of equipment in the production of silicon alloys (by experience of the Kuznetsk Ferroalloy Plant). Moscow : Metallurgiya, 1990. 79 p. 18. Lapchenkov V. I., Slobodnin E. M., Pekarsky L. F., Erko V. I. Vacuum under the roof of closed ore-reducing electric furnaces — a reserve for improving the production of ferroalloys. Production of ferroalloys: scientific works of the Research Institute of Metallurgy. Moscow : Metallurgiya, 1988. pp. 16–22. 19. Rosenberg V. L., Brukovsky I. P., Nekhamin S. M., Fridman G. B. Main indicators of ferrosilicon smelting in low-frequency furnaces. New technology and technical re-equipment of ferroalloy production: thematic collection. Chelyabinsk : Metallurgiya, 1989. pp. 71–75. 20. Sager D., Grant D., Stadler R., Schreiter T. Low cost ferroalloys extraction in DC-arc furnace at middleburg ferro-chrome. Proccedings of the Twelfth International Ferroalloys Congress Sustainable Future. Helsinki, Finland: Infacon-XII, 6–9 June 2010. pp. 803–814. |