Interstitial-mediated spinodal decomposition pathways leading to strengthening in TiNb

Keyphrases

• Spinodal Decomposition 100%
• Dislocation Glide 100%
• Ti2Ni 100%
• Decomposition Pathway 100%
• Structural Evolution 50%
• High Temperature 50%
• Lamellae 50%
• Lamellar Structure 50%
• Body-centered Cubic 50%
• Extreme Environmental Conditions 50%
• Advanced Steels 50%
• Undulation 50%
• Temperature Resistance 50%
• Dislocation 50%
• Engineering Approach 50%
• Ambient Conditions 50%
• Design Approach 50%
• Nanoindentation 50%
• Toughness 50%
• Microstructural Characteristics 50%
• Strength-toughness 50%
• Elevated Temperature 50%
• Burgers 50%
• Initiation Fracture Toughness 50%
• Tensile Test 50%
• Refractory Alloys 50%
• Metastability 50%
• Multiple Length Scales 50%
• Pseudo-ductility 50%
• Nanoscale Domains 50%
• Spinodal 50%
• Orthorhombic Structure 50%
• Structural Applications 50%
• Equiatomic 50%
• Phase Decomposition 50%
• Low Toughness 50%
• Nanostructured Architectures 50%
• Micro-tensile Test 50%
• Alloy Design 50%
• Oxygen Interstitials 50%
• In-situ Tensile 50%
• Oxygen-induced 50%
• Dual-phase 50%
• Hierarchical Microstructure 50%

Material Science

• Nanoindentation 100%
• Lamellar Structure 100%
• Fracture Toughness 100%
• Refractory Alloys 100%
• Metastability 100%
• Hierarchical Microstructure 100%
• Ductility 100%
• Elevated Temperature 100%
• Alloy Design 100%