On understanding the specific cutting mechanisms governing the workpiece surface integrity in metal matrix composites machining

Keyphrases

• Abrasive 20%
• Brittle Fracture 20%
• Composite Manufacturing 100%
• Cutting Experiment 20%
• Cutting Force 20%
• Cutting Mechanism 100%
• Cutting Regime 100%
• Cutting Temperature 20%
• Damage Mechanism 20%
• Ductile Mode Cutting 20%
• Feed Rate 20%
• Flank Wear 20%
• Hard Particles 20%
• High Density 20%
• Local Barrier 20%
• Machined Surface 20%
• Machined Surface Morphology 20%
• Matrix Materials 20%
• Mechanical Properties 20%
• Metal Matrix Composites 100%
• Metallurgical Changes 20%
• Particle Behavior 20%
• Particle Removal 20%
• Plastic Deformation 20%
• Plastic Flow 20%
• Pullout 20%
• Push-in 20%
• Rapid Tools 20%
• Reinforcing Particles 40%
• Removal Mode 20%
• Semi-brittle 60%
• SiC Particles 20%
• Soft Matrix 20%
• Specific Mechanisms 20%
• Strain Hardening 20%
• Subsurface Damage 20%
• Surface Damage 40%
• Surface Integrity 100%
• Surface Morphology 20%
• Thermal Properties 20%
• Thermo-mechanical Loading 20%
• Tool Wear 20%
• Undeformed chip Thickness 60%
• Working Surface 100%

Engineering

• Brittle Fracture 20%
• Chip Thickness 60%
• Cutting Force 20%
• Cutting Temperature 20%
• Damage Mechanism 20%
• Damage Surface 40%
• Feed Rate 20%
• Flank Wear 20%
• Hard Particle 20%
• Machined Surface 40%
• Matrix Material 20%
• Metal Matrix Composite 100%
• Plastic Deformation 20%
• Plastic Flow 20%
• Rapid Tool Wear 20%
• Strain Hardening 20%
• Subsurface 20%
• Superficial Surface 20%
• Surface Integrity 100%
• Surface Morphology 40%
• Thermomechanical Loads 20%

Material Science

• Brittle Fracture 20%
• Density 20%
• Machining 100%
• Metal Matrix Composite 100%
• Plastic Deformation 20%
• Plastic Flow 20%
• Surface Damage 60%
• Surface Morphology 40%
• Thermal Property 20%
• Thermomechanical Loads 20%
• Work Hardening 20%