Details

Title

Kinetics of Solidification and Crystallization of Liquid Axial Zone of Fe-C Alloys in Cylindrical Molds

Journal title

Archives of Foundry Engineering

Yearbook

2024

Volume

Accepted articles

Authors

Affiliation

Khrychikov, V. : Ukrainian State University of Science and Technologies, Ukraine ; Semenov, O. : Progress-tech, Ukraine ; Aftandiliants, Y. : National University of Life and Environmental Sciences of Ukraine ; Aftandiliants, Y. : Physical and Technological Institute of Metals and Alloys, National Academy of Sciences of Ukraine ; Gnyloskurenko, S. : Physical and Technological Institute of Metals and Alloys, National Academy of Sciences of Ukraine ; Semenova, T. : Ukrainian State University of Science and Technologies, Ukraine ; Meniailo, H. : Ukrainian State University of Science and Technologies, Ukraine

Keywords

Fe-C alloys ; Solidification ; Kinetics ; Pour point ; Modification ; Axial zone ; Liquid-solid

Divisions of PAS

Nauki Techniczne

Publisher

The Katowice Branch of the Polish Academy of Sciences

Bibliography

  1. McCaulay, J.L. (1971). Production of nodula graphite iron casting by the inmold-process. Foundry Trade Journal. 130,(2836), 327-332.
  2. Tanaka, T., Yamagut, T., Shimovaki, K. (1971). Japan. Patent No. 39223, Class. 11В0/В22d, appl. 05.25.68, publ. 11/18/71.
  3. Stefanescu, D.M. (2002). Science and Engineering of Casting Solidification. Springer.
  4. Escobar, A., Celentano, D., Cruchaga, M. & Schulz, B. (2015). On the effect of pouring temperature on spheroidal graphite cast iron solidification. Metals. 5(2), 628-647. DOI:10.3390/met5020628.
  5. Fesenko, E.V., Mogylatenko, V.G., Fesenko, A.N., Kosyachkov, V.A. & Fesenko, M.A. (2015). Manufacture of two-layers and double-sided iron castings with differential structure and properties. EUREKA: Physics and Engineering. 1, 55-59.
  6. Ciesielski, M. & Mochnacki, B. (2019). Comparison of approaches to the numerical modelling of pure metals solidifi cation using the control volume method. International Journal of Cast Metals Research. 32(4), 213-220. https://doi.org/10.1080/13640461.2019.1607650.
  7. Moumeni, (2013). Solidification of cast iron - A study on the effect of microalloy elements on cast iron. Technical University of Denmark. Denmark: Department of Mechanical Engineering.
  8. Green, L.G. (1978). Thermal analysis for quality control of molten metal. Temperature Measurement and Control. 4-th Annual Conference Inst. Met. Techn. Sheffield.
  9. Gulyaev, B.B. (1960). Foundry processes. Moscow-Leningrad: Mashgiz.
  10. Gulyaev, B.B., Magnitsky, O.N. (1957). Physico-chemical processes of ingot solidification. Physico-chemical fundamentals of steel production. In III Conference on the Physical and Chemical Foundations of steel production. (pp. 659–682). Moscow: Academy of Sciences of the USSR. Institute of Metallurgy named after A.A. Baykov.
  11. Gulyaev, B.B. (1950). Hardening and heterogeneity of steel. Moscow-Leningrad: Metallurgizdat.
  12. Stefan, J. (1890). Monatsschrift für Mathematik und Phisik 1-6. (in German).
  13. Khvorinov, N.I. (1958). Crystallization and heterogeneity of steel. Moscow: translation from Czech. Mashgiz, 392 p.
  14. Khvorinov, N.I. (1955). Hardening of castings. Moscow: translation from him and Czech. Foreign literature.
  15. Nazaratin, V.V. & Vasilevsky, P.F. (1968). Experimental study of the solidification process of steel castings under various cooling conditions. Moscow: TSNIITMASH.
  16. Nazaratin, V.V., Vasilevsky, P.F., Kvyatkovsky, A.F., Beltsov, P.F. (1972). Kinetics of the formation process of steel castings under various cooling conditions. Collection of works: Casting properties of alloys. Kyiv: IPL AN Ukrainian SSR.
  17. Khrychikov, V.E., & Menyailo E.V. (2011). Temperature patterns and pouring limits of high-strength cast iron during solidification in the combined chill-sandy mold box. Metallurgical and Mining Industry. 3(2), 39-43.
  18. Khrychikov, V.E. (1993). Thermophysical processes of directional solidification of cast iron rolling rolls. Unpublished doctoral dissertation. Institute of Foundry Problems NAS Ukraine. Kyiv. Ukraine.
  19. Semenov, O.D., Khrichikov, V.E., Kutsova, V.Z., & Menyailo, O.V. (2021). Development of the kinetics of sliding to the front of the solid isosolidus of zinc-carbon alloys in small cylindrical forms. Processy littya. 144(2), 23-30. https://doi.org/10.15407/plit2021.02.023.
  20. Nehendzi, A. (1967). Casting properties of alloys. In Proceedings of XI Conference on the theory of foundry processes: Casting properties of metals and alloys. (pp. 25-38). Moscow: Nauka.
  21. Semenov, O.D., Khrichikov, V.E., Menyailo, O.V., Aftandilyants, E.G. & Gnyloskurenko, S.V. (2022). Pour instead of carbon onto the solid surface of the solid front of isoliquidus Fe-C alloys in small cylindrical forms. Theory and practice of metallurgy. 3, pp. 57-62.
  22. Reisa, A., Xub, Z., Tolb, R.V. & Netoc, R. (2012). Modeling feeding shows related shrinkage defects in aluminum castings. Journal of Manufacturing Processes. 14(1), 1-7. https://doi.org/10.1016/j.jmapro.2011.05.003.
  23. Girshovich, N.G. (1966). Crystallization and properties of cast iron in castings. Mashinostroenie, Moscow.
  24. Ukraine (2018). TU U 28.9-00187375-106:2018. Iron and steel rolls for hot rolling of metals. Dnipro: Dnipropetrovsk Roll Plant. 36 p. https://nmetau.edu.ua/file/tu_u_28.9-00187375-106-2018.pdf
  25. Shestakova, E.N., Potapov, A.I., Orlov, G.A. (2014). Ways to improve the quality of forged rolling rolls. Ural Federal University, Institute of Mechanical Science Russian Academy of Sciences, Ekaterinburg, pp. 483-486. https://elar.urfu.ru/bitstream/10995/33343/1/itvmim_2014_103.pdf
  26. Leibenzon, V.O., Pilyushenko, V.L., Kondratenko, V.M. ta in. (2009). Hardening of metals and metal compositions: Handbook for universities – Seen by a friend, additional. Kiev: Naukova
  27. Khrichikov, V E., Khitko, Yu., Klimenko, F.K., Boyko, L.G. (2007). Patent No 80101. Bulletin 13. 27.08.2007. Ukraine.

Date

30.12.2024

Type

Article

Identifier

DOI: 10.24425/afe.2024.153373
×