The Effect of TiN-TiB₂ on the Microstructure, Wear, and Nanoindentation Behavior of Ti6Al4V-Ni-Cr Matrix Composites

Keyphrases

• Bimodal Structure 50%
• Densification Behavior 50%
• Friction Coefficient 50%
• Friction Reduction 50%
• Frictional Coefficient 50%
• Gliding 50%
• Lubricant 50%
• Matrix Composites 100%
• Microhardness 50%
• Microstructural Analysis 50%
• Microstructure Behavior 100%
• Nanohardness 50%
• Nanoindentation Behavior 100%
• NiCrBSi 100%
• Oxide Layer Formation 50%
• Phase Structure 50%
• Reduced Elastic Modulus 50%
• Reinforced Composites 50%
• Relative Density 50%
• Spark Plasma Sintering 50%
• Ti-6Al-4V (Ti64) 100%
• TiB2 100%
• TiB2 Particles 50%
• TiN Particle 50%
• Titanium Matrix Composites 50%
• Wear Behavior 100%
• Wear Mechanism 50%
• Wear Resistance 50%

Material Science

• Coefficient of Friction 33%
• Density 33%
• Elastic Moduli 33%
• Matrix Composite 100%
• Microhardness 33%
• Microstructural Analysis 33%
• Nanohardness 33%
• Nanoindentation 100%
• Oxide Compound 33%
• Reinforced Composite 33%
• Spark Plasma Sintering 33%
• Titanium 33%
• Wear Resistance 33%

Engineering

• Coefficient of Friction 50%
• Densification 50%
• Microhardness 50%
• Microstructure 100%
• Modulus Value 50%
• Nanohardness 50%
• Oxide Layer 50%
• Spark Plasma Sintering 50%
• Wear Resistance 50%
• Young's Modulus 50%