Comparative investigation of phase transformation behavior as a function of annealing temperature and cooling rate of two Medium-Mn steels

Keyphrases

• Cooling Rate 100%
• Medium Mn Steel 100%
• Retained Austenite 100%
• Phase Transformation Behavior 100%
• Temperature Rate 100%
• Annealing Temperature 100%
• Final Microstructure 50%
• Bainite 25%
• Dilatometry 25%
• C Concentration 25%
• Intercritical Annealing Temperature 25%
• Ferrite Matrix 25%
• Mn Content 25%
• Ferrite 25%
• Ferrite-austenite 25%
• Transformation-induced Plasticity 25%
• Austenite Stabilization 25%
• Austenite 25%
• Advanced High Strength Steel 25%
• Austenite Content 25%
• Microstructural Evolution 25%
• Pearlite 25%
• Model Calculation 25%
• Third Generation 25%
• Thermodynamical Model 25%
• Slow Cooling 25%
• High Annealing Temperature 25%
• Carbon Media 25%
• Model Adaption 25%
• Chemical Stabilization 25%
• Mn Concentration 25%
• Low Carbon 25%
• Scanning Electron Microscope-electron Backscatter Diffraction (SEM-EBSD) 25%
• Slow Cooling Rate 25%
• Diffusional Transformation 25%
• Retained Martensite 25%
• Microstructural Observation 25%

Engineering

• Cooling Rate 100%
• Annealing Temperature 100%
• Medium Mn Steel 100%
• Retained Austenite 60%
• Austenite 40%
• Final Microstructure 40%
• Slow Cooling 40%
• Bainite 20%
• Martensite 20%
• Intercritical Annealing 20%
• Mn Content 20%
• Induced Plasticity 20%
• Austenite Stabilization 20%
• Promising Candidate 20%
• Advanced High Strength Steel 20%
• Retained Austenite Content 20%
• Microstructural Evolution 20%
• Pearlite 20%
• Ferritic Matrix 20%

Material Science

• Austenite 100%
• Annealing 42%
• Martensite 14%
• Bainite 14%
• Dilatometry 14%
• Scanning Electron Microscopy 14%
• X-Ray Diffraction 14%
• High Strength Steels 14%
• Microstructural Evolution 14%
• Electron Backscatter Diffraction 14%