Detail publikace
THE INFLUENCE OF CHEMICAL COMPOSITION OF STEELS ON THE NUMERICAL SIMULATION OF A CONTINUOUSLY CAST OF SLAB
ŠTĚTINA, J. KAVIČKA, F.
Anglický název
THE INFLUENCE OF CHEMICAL COMPOSITION OF STEELS ON THE NUMERICAL SIMULATION OF A CONTINUOUSLY CAST OF SLAB
Typ
Článek recenzovaný mimo WoS a Scopus
Jazyk
en
Originální abstrakt
The chemical composition of steels has significant influence on the actual concasting process, and on the accuracy of its numerical simulation and optimization. The chemical composition of steel affects the thermophysical properties (heat conductivity, specific heat capacity and density in the solid and liquid states) often requires more time than the actual numerical calculation of the temperature fields of a continuously cast steel slab. Therefore, an analysis study of these thermophysical properties was conducted. The order of importance within the actual process and the accuracy of simulation were also determined. The order of significance of the chemical composition on thermophysical properties was determined with respect to the metallurgical length. The analysis was performed by means of a so-called calculation experiment, i.e. by means of the original numerical continuously cast model developed by the authors of this paper. It is convenient to conduct such an analysis in order to facilitate the simulation of each individual case of continuously cast, thus enhancing the process of optimization.
Klíčová slova anglicky
concast slabs, chemical composition, numerical model, solidification
Vydáno
2011-07-01
Nakladatel
Inštitut za kovinske materiale tehnologije
Místo
Ljubljana, Slovenija
ISSN
1580-2949
Časopis
Materiali in Tehnologije
Ročník
45
Číslo
4
Strany od–do
363–368
Počet stran
6
BIBTEX
@article{BUT72815,
author="Josef {Štětina} and František {Kavička}",
title="THE INFLUENCE OF CHEMICAL COMPOSITION OF STEELS ON THE NUMERICAL SIMULATION OF A CONTINUOUSLY CAST OF SLAB",
journal="Materiali in Tehnologije",
year="2011",
volume="45",
number="4",
pages="363--368",
issn="1580-2949"
}