Enhancing microstructure, nanomechanical and anti-wear characteristics of spark plasma sintered Ti6Al4V alloy via nickel-silicon carbide addition

Keyphrases

• Abrasive Wear 33%
• Alloy Samples 33%
• Anti-wear 100%
• Anti-wear Performance 33%
• Applied Load 33%
• Asperity Contact 33%
• Composites Reinforced 33%
• Elastic Modulus 33%
• In Situ Formation 66%
• Load Capacity 33%
• Metal Matrix 33%
• Microstructural Analysis 33%
• Microstructure 100%
• Nanohardness 33%
• Nanoindentation Analysis 33%
• Nanomechanical Performance 33%
• Nanomechanics 100%
• Ni Particles 33%
• Pull-out 33%
• Reinforcement Phase 33%
• SiC Particles 33%
• Silicon Carbide 100%
• Sintered Samples 33%
• Sliding Interface 33%
• Spark Plasma 100%
• Specific Wear Rate 100%
• Stable Transfer 33%
• Superior Wear Resistance 33%
• Surface Hardness 33%
• Ti-6Al-4V Alloy 100%
• Ti3SiC2 Phase 33%
• Ti5Si3 Phase 33%
• Ti6Al4V Based Composite 33%
• Ti6Al4V Matrix Composites 33%
• TiC Phase 33%
• Transfer Layer 33%
• Tribological Behavior 33%
• Unreinforced 33%
• Wear Characteristics 100%
• Wear Resistant Applications 33%

Material Science

• Abrasion 50%
• Alloy 100%
• Elastic Moduli 50%
• Matrix Composite 50%
• Microstructural Analysis 50%
• Nanohardness 50%
• Nanoindentation 50%
• Silicon Carbide 100%
• Wear Resistance 50%