The effect of coarse and fine Ti₃SiC₂ particle reinforcement in aluminum matrix composites

Keyphrases

• Aluminum Matrix Composites 100%
• Ti3SiC2 100%
• Particle Reinforcement 100%
• MAX Phase 80%
• Metal Matrix Composites 60%
• Reinforced 40%
• Low Temperature 20%
• Coarse Particles 20%
• Electrical Conductivity 20%
• Mapping Analysis 20%
• Mechanical Properties 20%
• Advanced Materials 20%
• Porosity 20%
• Thermal Conductivity 20%
• Fracture Toughness 20%
• Metal Matrix 20%
• Thin Oxides 20%
• Grain Boundary 20%
• Wear Resistance 20%
• Fine Particles 20%
• Layered Structure 20%
• Weak Interface 20%
• High Mechanical Strength 20%
• Ceramic Particles 20%
• Microstructural Analysis 20%
• Superior Mechanical Properties 20%
• Homogeneous Microstructure 20%
• Al Composites 20%
• Nanoindentation Hardness 20%
• Spark Plasma Sintering 20%
• Sintering Process 20%
• Residual Porosity 20%
• Strengthening Mechanism 20%
• Traditional Ceramics 20%
• High Bending Strength 20%
• Hardness Mapping 20%
• Machinability 20%

Material Science

• Aluminum 100%
• Matrix Composite 100%
• Particle-Reinforcement 100%
• MAX Phases 100%
• Metal Matrix Composite 75%
• Oxide Compound 25%
• Electrical Conductivity 25%
• Mechanical Strength 25%
• Flexural Strength 25%
• Advanced Material 25%
• Thermal Conductivity 25%
• Microstructural Analysis 25%
• Fracture Toughness 25%
• Sintering 25%
• Grain Boundary 25%
• Nanoindentation 25%
• Wear Resistance 25%
• Fine Particle 25%
• Spark Plasma Sintering 25%
• Machinability 25%

Engineering

• Metal Matrix Composite 100%
• Aluminum Matrix 100%
• Microstructure 33%
• Low-Temperature 33%
• Electrical Conductivity 33%
• Anisotropic 33%
• Porosity 33%
• Thermal Conductivity 33%
• Impact Toughness 33%
• Oxide Layer 33%
• Grain Boundary 33%
• Wear Resistance 33%
• Bending Strength 33%
• Phase Particle 33%
• Layered Structure 33%
• Coarse Particle 33%
• Spark Plasma Sintering 33%
• Sintering Process 33%
• Residual Porosity 33%
• Ceramic Particle 33%
• Strengthening Mechanism 33%