Effect of Ti De-oxidation on solidification and post-solidification microstructure in low carbon high manganese steel

Keyphrases

• Low Carbon 100%
• Pre-oxidation 100%
• Solidification Microstructure 100%
• High Manganese Steel 100%
• Al-killed Steel 100%
• Aluminum Oxide 66%
• Solidification Structure 66%
• Oxide Inclusion 66%
• Austenite Decomposition 66%
• Rutile 33%
• Vacuum Furnace 33%
• TiAl 33%
• Solid State 33%
• Microstructure 33%
• Grain Boundary 33%
• Lath 33%
• Microstructural Evolution 33%
• Grain Size 33%
• Cooling Rate 33%
• Al-Mg-Si 33%
• Differential Scanning Calorimeter 33%
• Confocal Laser Scanning Microscope 33%
• High Mn 33%
• Isothermal Condition 33%
• Inclusion Size 33%
• Continuous Cooling 33%
• Grain Boundary Mobility 33%
• Low Carbon Steel 33%
• Primary Dendrite 33%
• Dendrite Arm 33%
• Austenite Grain 33%
• Austenite Grain Structure 33%
• MgO Crucible 33%

Material Science

• Density 100%
• Oxidation Reaction 100%
• Solidification 100%
• Austenite 100%
• Manganese Steel 100%
• Oxide Compound 50%
• Al2O3 50%
• Grain Boundary 50%
• Aluminum 25%
• Titanium 25%
• Grain Size 25%
• Crystal Microstructure 25%
• Microstructural Evolution 25%
• Magnesium Oxide 25%
• Low Carbon Steel 25%
• Microstructure 25%

Engineering

• Killed Steel 100%
• Manganese Steel 100%
• Austenite 33%
• Solidification Structure 33%
• Austenite Decomposition 33%
• Oxide Inclusion 33%
• Calorimeter 16%
• Microstructure 16%
• Microstructural Evolution 16%
• Cooling Rate 16%
• Confocal Laser Scanning Microscope 16%
• Isothermal Condition 16%
• Mild Steel 16%