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Basic technological characteristics of a designed water-drop cooling device (irrigation density, its distribution on the cooled surface, and temperature dependence of the heat transfer coefficient) were determined. The effect of technological and design spraying jet parameters on the cooling capacity of large steel parts (hot rolling mill rolls) was obtained. Among the technological parameters under consideration was the water pressure in front of spraying jets and the number of spraying jets in a cooling device. The varied design parameters were the diameters of the spraying jet channels, the distance between the jets, the distance to the cooled surface, and the operating mode of the cooling device. The experimental data was used to obtain the correlation between listed parameters and basic technological characteristics of spraying jets in order to apply the uniform cooling of mill rolls during heat treatment.
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Torkamani, H., Raygan, S., & Rassizadehghani, J. (2014). Comparing microstructure and mechanical properties of AISI D2 steel after bright hardening and oil quenching. Materials and Design, 54, 1049–1055. CrossRef
Rasouli, D., Khameneh Asl, S., Akbarzadeh, A., & Daneshi, G. H. (2008). Effect of cooling rate on the microstructure and mechanical properties of microalloyed forging steel. Journal of Materials Processing Technology, 206, 92–98. CrossRef
Nilsson, M., & Olsson, M. (2013). Microstructural, mechanical and tribological characterisation of roll materials for the finishing stands of the hot strip mill for steel rolling. Wear, 307, 209–217. CrossRef
Spuzic, S., Strafford, K. N., Subramanian, C., & Savage, G. (1994). Wear of hot rolling mill rolls: An overview. Wear, 176, 261–271. CrossRef
Veksler, E. M., & Adamova, N. A. (1991). Planning regimes of induction hardening of cold-rolling rolls. Metal Science and Heat Treatment, 33, 306–310. CrossRef
Vlasova, N. V., Adamova, N. A., & Sorokin, V. G. (1986). Stress-strain state of steel articles with controlled cooling. Metal Science and Heat Treatment, 28, 904–908. CrossRef
Borisov, I. A., & Borisov, A. I. (1998). Development of the technology of spray quenching of back-up rolls. Metal Science and Heat Treatment, 39, 321–323. CrossRef
Pola, A., Gelfi, M., & La Vecchia, G. M. (2013). Simulation and validation of spray quenching applied to heavy forgings. Journal of Materials Processing Technology, 213, 2247–2253. CrossRef
Pyshmintsev, I. Y., Eismondt, Y. G., Yudin, Y. V., Shaburov, D. V., & Zakharov, V. B. (2003). Hardening of large forgings in water-air mixture. Metal Science and Heat Treatment, 45, 103–108. CrossRef
Yudin, Y. V., Maisuradze, M. V., & Anufriev, N. P. (2013). Design of water-drip cooling facilities for heat treatment of mill rollers. Metal Science and Heat Treatment, 55, 129–133. CrossRef
Maisuradze, M. V., & Yudin, Y. V. (2008). Centrifugal-jet water-drop sprayers for steel quenching. Steel in. Translation, 38, 614–617.
Maisuradze, M. V., Eismondt, Y. G., & Yudin, Y. V. (2011). Determination of optimum design parameters of water-drop cooling devices. Metal Science and Heat Treatment, 52, 508–513. CrossRef
Maisuradze, M. V. (2008). Development of the heat treatment technology and the design of water-drop cooling devices (in Russian). PhD thesis, Yekaterinburg.
Maisuradze M. V., Yudin Yu. V., & Ryzhkov M. A. (2014). Investigation and development of spray cooling device for heat treatment of large steel forgings. Materials Performance and Characterization. Special issue on advances in methods, Quenchants and equipment for hardening steel, 3, 449–462.
Hasan, H. S., Peet, M. J., Jalil, J. M., & Bhadeshia, H. K. D. H. (2011). Heat transfer coefficients during quenching of steels. Heat and Mass Transfer, 47, 315–321. CrossRef
Heming, C., Jianbin, X., & Jianyun, L. (2004). Determination of surface heat-transfer coefficients of steel cylinder with phase transformation during gas quenching with high pressures. Computational Materials Science, 29, 453–458. CrossRef
Caron, E. J. F. R., Daun, K. J., & Wells, M. A. (2014). Experimental heat transfer coefficient measurements during hot forming die quenching of boron steel at high temperatures. International Journal of Heat and Mass Transfer, 71, 396–404. CrossRef
Lambert, N., & Economopoulos, M. (1970). Measurement of the heat-transfer coefficients in metallurgical processes. Journal of Iron and Steel Institute, 23, 917–928.
- Cooling Capacity of Jet Spraying Devices for Large Steel Parts Heat Treatment
- Chapter 8
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