Fabrication of NiTi through additive manufacturing: A review

Engineering

• Additive Manufacturing 100%
• Additive Manufacturing Technique 40%
• Influencing Factor 40%
• Functional Property 40%
• Medical Applications 40%
• Building Block 20%
• Fatigue Behavior 20%
• Corrosion Behavior 20%
• Rod 20%
• Wear Resistance 20%
• Absorption Property 20%
• Laser Parameter 20%
• Aerospace Applications 20%
• Comprehensive Review 20%
• Temperature Property 20%
• Compressive Behavior 20%
• Structural Defect 20%
• Simple Geometry 20%
• Memory Effect 20%
• Microstructural Characteristic 20%
• Powder Preparation 20%

Keyphrases

• Additive Manufacturing 100%
• Medical Applications 20%
• Additive Manufacturing Techniques 20%
• Functional Properties 20%
• Mechanical Properties 10%
• High Cost 10%
• Control Method 10%
• Biocompatibility 10%
• Characteristic Behavior 10%
• Corrosion Behavior 10%
• Microstructural Characteristics 10%
• Lattice-based 10%
• Damping Characteristics 10%
• Unique Functions 10%
• Wear Resistance 10%
• Laser Machining 10%
• Structural Defects 10%
• Absorption Properties 10%
• High Reactivity 10%
• Direct Production 10%
• Aerospace Applications 10%
• Temperature Property 10%
• Hollow Structure 10%
• Compressive Behavior 10%
• Low Stiffness 10%
• Simple Geometry 10%
• Transformation Temperature 10%
• High Ductility 10%
• Shape Memory Effect 10%
• Porous Nickel 10%
• Fatigue Characteristics 10%
• Superelasticity 10%
• Shock Absorption 10%

Material Science

• Titanium 100%
• Three Dimensional Printing 100%
• Machining 10%
• Fatigue Behavior 10%
• Corrosion 10%
• Biocompatibility 10%
• Wear Resistance 10%
• Shape Memory Effect 10%
• Superelasticity 10%