Directed energy depositing a new Fe-Cr-Ni alloy with gradually changing composition with elemental powder mixes and particle size’ effect in fabrication process

Keyphrases

• Fabrication Methods 100%
• Fe-Ni-Cr Alloy 100%
• Directed Energy 100%
• Powder Particles 100%
• Elemental Powder 100%
• Powder Mixture 100%
• Particle Size Effect 100%
• Microstructure 66%
• Metallography 66%
• Corrosion Resistance 33%
• Spectroscopic Analysis 33%
• Vickers Hardness Test 33%
• Energy Dispersive X-ray Spectroscopy 33%
• X Ray Diffraction 33%
• Severe Corrosion 33%
• Thin-walled 33%
• Alloy Properties 33%
• Material Characterization 33%
• Phase Detection 33%
• Directed Energy Deposition 33%
• Mixing Enthalpy 33%
• Cr Content 33%
• Ni-based Alloy 33%
• X-ray Diffraction Pattern 33%
• Fe-Cr-Ni 33%
• Hardness Profile 33%
• Premixed 33%
• Ferritic Phase 33%
• Austenite Morphology 33%
• Austenite Phase 33%
• Work Environment 33%
• Austenite Dendrites 33%
• Three-element 33%
• Composition Design 33%
• Functionality Requirements 33%
• Particle Size Optimization 33%
• Vickers Hardness number 33%
• Acicular 33%

Engineering

• Ni Alloy 100%
• Size Effect 100%
• Vickers 100%
• Metallography 100%
• Corrosion Resistance 50%
• Austenite 50%
• X-Ray Diffraction Pattern 50%
• Austenite Phase 50%
• Cell Morphology 50%
• Hardness Profile 50%
• Size Optimization 50%
• X Ray Diffraction 50%
• Direct Energy Deposition 50%

Material Science

• X-Ray Diffraction 100%
• Vickers Hardness 100%
• Nickel-Chromium Alloys 100%
• Austenite 100%
• Metallography 100%
• Corrosion Resistance 50%
• Corrosion 50%
• Indentation Hardness Testing 50%
• Nickel Alloy 50%
• Directed Energy Deposition 50%
• Diffraction Pattern 50%