Development of a device for cooling ladle liners for casting ladles

Описание

Тип публикации: статья из журнала

Год издания: 2026

Идентификатор DOI: 10.5937/jaes0-62455

Аннотация: <jats:p>This article focuses on the controlled cooling process of the linings of ferroalloy production ladles. Analysis of the operating conditions of the linings revealed that temperature stresses during heating and cooling are the main cause of damage to the linings of high-temperature units. At the enterprise in question, the coПоказать полностьюoling process is uncontrolled when the lining is exposed to the workshop atmosphere. This leads to cracks forming in the lining and its subsequent destruction. Cooling schedules have been developed for the ladles under consideration, during which the resulting thermal stresses do not damage the lining. A device has been developed for the ladle liners to ensure the cooling process is kept on schedule. Incomplete liner replacement involves cooling the ladle by supplying a mixture of combustion gases from the ladle heating booth and air. The liner is cooled using a mixture of three media: ambient air from the workshop, combustion products from the ladle heating stand, and combustion products from the ferroalloy gas burnt in the burner. A cooling schedule for casting ladle liners has been developed to ensure that thermal stresses do not exceed the strength limit of the refractory materials. At the same time, the cooling time is reduced from 19 hours 30 minutes to 6 hours 50 minutes. The developed device enables the outer and inner walls of the lining to be cooled, secondary resources (ferroalloy gas and combustion products from the ladle heating stand) to be used.</jats:p>

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Издание

Журнал: Journal of Applied Engineering Science

Выпуск журнала: Т. 24, 1

Номера страниц: 107-116

ISSN журнала: 14514117

Издатель: Institut za Istrazivanja I Projektovanja u Privredi

Персоны

  • Aripova Nazgul (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)
  • Nikiforov Alexander (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)
  • Kulagin Vladimir (Siberian Federal University, Polytechnic School, Department of Thermal Engineering and Hydrogas Dynamics, Krasnoyarsk, Russian Federation)
  • Evgeniy Prikhodko (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)
  • Kinzhibekova Akmaral (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)
  • Karmanov Amangeldy (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)
  • Plevako Anzhela (Toraighyrov University, Faculty of Energy, Department of Heat Power Engineering, Pavlodar, Republic of Kazakhstan)

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