Thermodynamic stabilization of precipitates through interface segregation: Chemical effects

Keyphrases

• High Temperature 100%
• High Density 100%
• Chemical Effect 100%
• Mg2Si 100%
• Ternary Alloys 100%
• Interface Segregation 100%
• Thermodynamic Stabilization 100%
• Energy Impact 50%
• Precipitation Hardening 50%
• Structural Alloys 50%
• Thermodynamic Model 50%
• Thermodynamic Parameters 50%
• Enhanced Strength 50%
• Solid-solution Interface 50%
• Nanoscale Precipitates 50%
• Interface Interaction 50%
• Compositional Parameters 50%
• Nanocrystalline 50%
• Solute Segregation 50%
• Elastic Strain Energy 50%
• Excess Energy 50%
• Temperature Parameter 50%
• Bulk Solids 50%
• Gibbs Free Energy 50%
• Mg-Zn 50%
• Interface Parameters 50%
• Free Energy Functional 50%
• Zn Segregation 50%
• Equilibrium Configuration 50%
• Solution Model 50%
• Intermetallic Precipitates 50%
• Mg-Zn Alloy 50%
• Global Composition 50%

Engineering

• Ternary Alloy 100%
• Chemical Effect 100%
• Gibbs Free Energy 100%
• Solution Interface 50%
• Thermodynamic Model 50%
• Elastic Strain 50%
• Thermodynamic Parameter 50%
• Equilibrium Configuration 50%
• Nanocrystalline 50%
• Excess Energy 50%
• Nanoscale 50%
• Strain Energy 50%
• Temperature Parameter 50%
• Phase Composition 50%
• Precipitation Hardening 50%
• Solid Solutions 50%
• Intermetallics 50%

Material Science

• Coarsening 100%
• Density 100%
• Ternary Alloy 100%
• Age Hardening 50%
• Nanocrystalline 50%
• Phase Composition 50%
• Intermetallics 50%
• Solid Solutions 50%