The effects of short-range chemical and structural ordering related to oxygen interstitials on mechanical properties of CrCoFeNi high-entropy alloys: A first-principles study

Keyphrases

• Mechanical Properties 100%
• Oxygen Interstitials 100%
• Structural Ordering 100%
• First-principles Study 100%
• High-entropy Alloy 100%
• Chemical Ordering 100%
• Oxygen Concentration 33%
• Lattice Distortion 33%
• Structural Properties 16%
• Non-axisymmetric 16%
• Sodium Chloride 16%
• Oxides 16%
• Yield Strength 16%
• Formation Energy 16%
• Mechanical Strength 16%
• Fracture Strain 16%
• Fracture Strength 16%
• Oxygen Effect 16%
• Face-centered Cubic 16%
• Interstitial Content 16%
• Randomly Distributed 16%
• First-principles Calculations 16%
• Alloying Elements 16%
• Local Strain 16%
• Strengthening Mechanism 16%
• Ordered Cluster 16%
• Sub-nanometer 16%
• Distortion Results 16%
• Octahedral Sites 16%
• Salt Crystals 16%
• Interstitial Strengthening 16%
• High-entropy Oxides 16%
• Local Chemical Order 16%

Engineering

• High-Entropy Alloys 100%
• Interstitial Oxygen 100%
• Oxygen Concentration 33%
• Lattice Distortion 33%
• Nanometre 16%
• Face-Centered Cubic 16%
• Alloy Element 16%
• Strengthening Mechanism 16%
• Local Strain 16%
• Fracture Strain 16%
• Lead Content 16%
• Formation Energy 16%
• Structural Property 16%
• Crystal Structure 16%
• Yield Point 16%
• Fracture Strength 16%

Material Science

• High Entropy Alloys 100%
• Yield Stress 20%
• Fracture Toughness 20%
• Structural Property 20%
• Oxide Compound 20%
• Crystal Structure 20%
• High-entropy Oxides 20%