Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium

A mathematical model of heat transfer at cooling a high-temperature metal billet from structural steel by the flow of a gas-liquid medium in a vertical circular channel is presented. The model has been built with the use of the continuum mechanics approaches and the theory of heat-mass transfer. The...

Full description

Bibliographic Details
Main Authors: Makarov Sergey, Dement’yev Vyacheslav, Makhneva Tat’yana, Makarova Elena
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:MATEC Web of Conferences
Online Access:https://doi.org/10.1051/matecconf/201822404003
id doaj-ab421610e277429db12a1a09a23f46bc
record_format Article
spelling doaj-ab421610e277429db12a1a09a23f46bc2021-02-02T06:25:49ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-012240400310.1051/matecconf/201822404003matecconf_icmtmte2018_04003Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid mediumMakarov Sergey0Dement’yev Vyacheslav1Makhneva Tat’yana2Makarova Elena3Federal State Budgetary Institution of Sciences «Udmurt Federal Research Centre Ural Branch of the Russian Academy of Sciences»Federal State Budgetary Institution of Sciences «Udmurt Federal Research Centre Ural Branch of the Russian Academy of Sciences»Federal State Budgetary Institution of Sciences «Udmurt Federal Research Centre Ural Branch of the Russian Academy of Sciences»Kalashnikov Izhevsk State Technical UniversityA mathematical model of heat transfer at cooling a high-temperature metal billet from structural steel by the flow of a gas-liquid medium in a vertical circular channel is presented. The model has been built with the use of the continuum mechanics approaches and the theory of heat-mass transfer. The non-regular mode of cooling is considered. The results of the numerical parametric investigations of the heat transfer at cooling a metal billet are obtained for a standard regime of thermomechanical strengthening on the basis of the mathematical model of conjugate heat transfer in a two-dimensional nonstationary formulation accounting for the symmetry of the cooling medium flow relative to the longitudinal axis of a cylinder. The control volume approach is used for solving the system of differential equations. The flow field parameters are computed by an algorithm SIMPLE. For the iterative solution of the systems of linear algebraic equations the Gauss-Seidel method with under-relaxation is used. Taking into account evaporation in the liquid, the intensity of the change of the rate of cooling the material of the metal cylindrical billet by the laminar gas-liquid flow is analyzed depending on the time of cooling and the velocity of the gas-liquid flow.https://doi.org/10.1051/matecconf/201822404003
collection DOAJ
language English
format Article
sources DOAJ
author Makarov Sergey
Dement’yev Vyacheslav
Makhneva Tat’yana
Makarova Elena
spellingShingle Makarov Sergey
Dement’yev Vyacheslav
Makhneva Tat’yana
Makarova Elena
Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
MATEC Web of Conferences
author_facet Makarov Sergey
Dement’yev Vyacheslav
Makhneva Tat’yana
Makarova Elena
author_sort Makarov Sergey
title Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
title_short Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
title_full Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
title_fullStr Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
title_full_unstemmed Numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
title_sort numerical simulation of the non-regular mode of cooling a high-temperature metal billet by the flow of a gas-liquid medium
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2018-01-01
description A mathematical model of heat transfer at cooling a high-temperature metal billet from structural steel by the flow of a gas-liquid medium in a vertical circular channel is presented. The model has been built with the use of the continuum mechanics approaches and the theory of heat-mass transfer. The non-regular mode of cooling is considered. The results of the numerical parametric investigations of the heat transfer at cooling a metal billet are obtained for a standard regime of thermomechanical strengthening on the basis of the mathematical model of conjugate heat transfer in a two-dimensional nonstationary formulation accounting for the symmetry of the cooling medium flow relative to the longitudinal axis of a cylinder. The control volume approach is used for solving the system of differential equations. The flow field parameters are computed by an algorithm SIMPLE. For the iterative solution of the systems of linear algebraic equations the Gauss-Seidel method with under-relaxation is used. Taking into account evaporation in the liquid, the intensity of the change of the rate of cooling the material of the metal cylindrical billet by the laminar gas-liquid flow is analyzed depending on the time of cooling and the velocity of the gas-liquid flow.
url https://doi.org/10.1051/matecconf/201822404003
work_keys_str_mv AT makarovsergey numericalsimulationofthenonregularmodeofcoolingahightemperaturemetalbilletbytheflowofagasliquidmedium
AT dementyevvyacheslav numericalsimulationofthenonregularmodeofcoolingahightemperaturemetalbilletbytheflowofagasliquidmedium
AT makhnevatatyana numericalsimulationofthenonregularmodeofcoolingahightemperaturemetalbilletbytheflowofagasliquidmedium
AT makarovaelena numericalsimulationofthenonregularmodeofcoolingahightemperaturemetalbilletbytheflowofagasliquidmedium
_version_ 1724301324981370880