The Evolution of Oxygen-Based Inclusions in an Additively Manufactured Super-Duplex Stainless Steel

Keyphrases

• Oxygen Evolution Reaction 100%
• Additive Manufacturing 100%
• Duplex Stainless Steel 100%
• Powder Feedstock 75%
• Directed Energy Deposition Additive Manufacturing 50%
• Rapid Cooling 50%
• Chromium 25%
• Manganese 25%
• Rapid Heating 25%
• Complex Structure 25%
• Oxygen-rich 25%
• Cooling Rate 25%
• Thermodynamic Calculation 25%
• Computational Thermodynamics 25%
• Stable Phase 25%
• Processed Material 25%
• Experimental Validation 25%
• Additive Manufacturing Process 25%
• Thermodynamic Equilibrium Model 25%
• Corrosion Properties 25%
• Microstructural Evolution 25%
• Cooling Cycle 25%
• Heating Cycle 25%
• Amorphous Phase 25%
• Spinel 25%
• Metastable Phases 25%
• Amorphous Region 25%
• Hot Isostatic Pressing Treatment 25%
• Spinel Oxide 25%
• Stainless Steel Powder 25%
• Impact Mechanical Properties 25%
• Gas Atomisation Process 25%

Engineering

• Additive Manufacturing 100%
• Duplex Stainless Steel 100%
• Feedstock Powder 100%
• Rapid Cooling 66%
• Rapid Heating 33%
• Predicted Result 33%
• Cooling Rate 33%
• Complex Structure 33%
• Thermodynamic Calculation 33%
• Thermodynamic Equilibrium Calculation 33%
• Microstructural Evolution 33%
• Stable Phase 33%
• Additive Manufacturing Process 33%
• Amorphous Region 33%
• Amorphous Phase 33%
• Metastable Phase 33%
• Cooling Cycle 33%
• Heating Cycle 33%
• Corrosion Property 33%
• Phase Composition 33%
• Hot Isostatic Pressing 33%
• Gas Atomization 33%

Material Science

• Three Dimensional Printing 100%
• Duplex Stainless Steel 100%
• Feedstock 75%
• Directed Energy Deposition 50%
• Manganese 25%
• Chromium 25%
• Silicon 25%
• Oxide Compound 25%
• Hot Isostatic Pressing 25%
• Corrosion 25%
• Microstructural Evolution 25%
• Phase Composition 25%
• Mechanical Impact 25%