Investigation of bonding features and residual stress in the cold-sprayed single angular titanium particle

Keyphrases

• Residual Stress 100%
• Cold Spray 100%
• Bonding Feature 100%
• Titanium Particles 100%
• Titanium Substrate 100%
• Impact Velocity 66%
• Thermal Softening 66%
• Peening 66%
• Cold Spray Deposition 66%
• Angular Particles 66%
• Finite Element Model 33%
• Tensile Residual Stress 33%
• Stress Evolution 33%
• Softening Mechanism 33%
• Compressive Stress 33%
• Compressive Residual Stress 33%
• Rutile 33%
• Thermal Effect 33%
• Stress Distribution 33%
• Bonding Mechanism 33%
• Impact Dynamics 33%
• Tensile Stress 33%
• Mechanical Integrity 33%
• Adiabatic Shear Instability 33%
• Impact Speed 33%
• Deposited Material 33%
• Strain Evolution 33%
• Particle Impact 33%
• Residual Stress Evolution 33%
• Splat 33%
• Evolutionary Distinctiveness 33%
• Focused Ion Beam Scanning Electron Microscopy (FIB-SEM) 33%
• Interface Region 33%
• Softening Resistance 33%
• Thermal Bonding 33%
• Substrate Interface 33%
• Elastic Strain Energy 33%
• Interfacial Gap 33%
• Stress Increase 33%
• Systematically Evaluate 33%
• Evolution Effect 33%

Engineering

• Residual Stress 100%
• Impact Velocity 100%
• Shot Peening 100%
• Thermal Softening 100%
• Angular Particle 100%
• Finite Element Modeling 50%
• Combined Effect 50%
• Tensile Residual Stress 50%
• Compressive Stress 50%
• Compressive Residual Stress 50%
• Thermal Effect 50%
• Strain Energy 50%
• Bonding Mechanism 50%
• Elastic Strain 50%
• Tensile Stress σ 50%
• Shear Instability 50%
• Focused Ion Beam 50%
• Adiabatic Shear 50%
• Impact Speed 50%
• Substrate Interface 50%
• Deposited Material 50%
• Impact Dynamics 50%

Material Science

• Residual Stress 100%
• Titanium 100%
• Spray Forming 28%
• Finite Element Modeling 14%
• Scanning Electron Microscopy 14%
• Ultimate Tensile Strength 14%
• Focused Ion Beam 14%