High-strain-rate behavior of low-alloy multiphase aluminum- and silicon-based transformation-induced plasticity steels

Keyphrases

• Twinning-induced Plasticity Steel 100%
• Low Alloy 100%
• Silicon-based 100%
• High Strain Rate 100%
• Aluminum-based 100%
• Martensite 25%
• Car Body 25%
• Steel Grade 25%
• Ductility 25%
• High Strength 25%
• Energy Dissipation 25%
• Strain Rate 25%
• Crash 25%
• Johnson-Cook Model 25%
• Multiphase Steel 25%
• Yield Stress 25%
• Stress Deformation 25%
• Yield Deformation 25%
• Strain Aging 25%
• Impact Dynamics 25%
• Plastic Deformation 25%
• Plastic Deformability 25%
• Adiabatic Heating 25%
• Dynamic Properties 25%
• Temperature-dependent Behavior 25%
• Split Hopkinson Pressure Bar 25%
• Phenomenological Material Model 25%
• Metastable Austenite 25%
• Stress Energy 25%
• Microstructural Phases 25%
• Strain Effect 25%
• Plastic Hardening 25%
• Complex Interactions 25%
• High Strain Rate Loading 25%
• Strength Level 25%
• Strain-rate-dependent Behavior 25%
• Thermal Softening 25%
• High-strength Low-alloy 25%
• Strain Hardening Rate 25%
• Bake-hardening Treatment 25%
• Stress Dissipation 25%

Engineering

• Induced Plasticity 100%
• High Strain Rate 100%
• Aluminum 100%
• Strain Rate 50%
• Automotives 25%
• Martensite 25%
• Austenite 25%
• Material Model 25%
• Energy Dissipation 25%
• Good Agreement 25%
• Cook Model 25%
• Steel Grade 25%
• Hopkinson 25%
• Plastic Deformation 25%
• Dependent Behavior 25%
• Impact Dynamics 25%
• Strain Hardening Rate 25%
• Thermal Softening 25%
• Tensile Bar 25%
• Dynamic Property 25%
• Effect of Strain 25%
• Yield Point 25%
• Precipitation Hardening 25%

Material Science

• Silicon 100%
• TRIP Steel 100%
• Strain Rate 100%
• Alloy 100%
• Martensite 20%
• Austenite 20%
• Effect of Strain 20%
• Yield Stress 20%
• Plastic Deformation 20%
• Ductility 20%