The material removal and the nanometric surface characteristics formation mechanism of TiC/Ni cermet in ultra-precision grinding

Keyphrases

• Material Removal 100%
• Formation Mechanism 100%
• Ti(C,N)-based Cermets 100%
• Ultra-precision Grinding 100%
• Nanometric Surface Characteristics 100%
• Crystal Plane 66%
• Surface Damage 33%
• Surface Material 33%
• Surface Characteristics 33%
• Extrusion 33%
• Machining Parameters 33%
• Surface Topography 33%
• Material Removal Mechanism 33%
• Nanoindentation 33%
• Plastic Deformation 33%
• Surface Layer 33%
• Material Removal Rate 33%
• Ground Surface 33%
• Damage Mechanics 33%
• TiC Particles 33%
• Diamond 33%
• Surface Morphology 33%
• Smooth Surface 33%
• Hard Particles 33%
• Scratch Test 33%
• Surface Relief 33%
• Material Microstructure 33%
• Ni(111) 33%
• Ductile Material Removal 33%
• Dislodgement 33%
• Ploughing 33%
• Plastic Fracture 33%
• Deformed Layer 33%
• Interface Fracture 33%
• Binding Phase 33%
• Scratching Process 33%
• Rim Structure 33%
• Preferred Growth 33%
• Precision Grinding Process 33%
• Diamond Grits 33%
• Materials Microstructure Analysis 33%

Engineering

• Material Removal 100%
• Cermet 100%
• Grinding (Machining) 100%
• Material Microstructure 66%
• Material Removal Mechanism 33%
• Induced Surface 33%
• Subsurface 33%
• Machining Parameter 33%
• Material Removal Rate 33%
• Ground Surface 33%
• Hard Particle 33%
• Smooth Surface 33%
• Diamond Grit 33%
• Binding Phase 33%
• Plastic Deformation 33%
• Indentation 33%
• Damage Mechanics 33%
• Diamond 33%
• Surface Topography 33%
• Surface Morphology 33%
• Surface Layers 33%

Material Science

• Surface (Surface Science) 100%
• Surface Property 100%
• Cermet 100%
• Diamond 66%
• Machining 33%
• Plastic Deformation 33%
• Ductile Material 33%
• Nanoindentation 33%
• Surface Morphology 33%
• Microstructural Analysis 33%
• Damage Mechanics 33%
• Surface Damage 33%
• Interface Fracture 33%
• Surface Topography 33%