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Hot Ductility Behavior of a Peritectic Steel during Continuous Casting

Hot ductility properties of a peritectic steel for welded gas cylinders during continuous casting were studied by performing hot tensile tests at certain temperatures ranging from 1200 to 700 °C for some cooling rates by using Gleeble-3500 thermo-mechanical test and simulation machine in this study....

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Published in:Metals (Basel ) 2015-06, Vol.5 (2), p.986-999
Main Author: Arikan, Mustafa Merih
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Language:English
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description Hot ductility properties of a peritectic steel for welded gas cylinders during continuous casting were studied by performing hot tensile tests at certain temperatures ranging from 1200 to 700 °C for some cooling rates by using Gleeble-3500 thermo-mechanical test and simulation machine in this study. The effects of cooling rate and strain rate on hot ductility were investigated and continuous casting process map (time-temperature-ductility) were plotted for this material. Reduction of area (RA) decreases and cracking susceptibility increases during cooling from solidification between certain temperatures depending on the cooling rate. Although the temperatures which fracture behavior change upon cooling during continuous casting may vary for different materials, it was found that the type of fracture was ductile at 1100 and 1050 °C; semi-ductile at 1000 °C, and brittle at 800 °C for the steel P245NB. There is a ductility trough between 1000 and 725 °C. The ductility trough gets slightly narrower as the cooling rate decreases.
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subjects Casting machines
Continuous casting
Cooling
Cooling effects
Cooling rate
Cracks
Ductile brittle transition
Ductile fracture
Ductility
Ductility tests
Fracture mechanics
Gas cylinders
hot ductility
Low carbon steels
Mechanical tests
Metals
peritectic steel
Process mapping
Reduction of area
Simulation
Solidification
Steel
Steel making
Steels
Strain rate
Temperature
Tensile tests
Tension tests
Thermal simulation
Titanium alloys
title Hot Ductility Behavior of a Peritectic Steel during Continuous Casting
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