Solving Recent Challenges for Wrought Ni-Base Superalloys

Keyphrases

• High Temperature 100%
• Phase Stability 100%
• Powder Metallurgy 100%
• Ni-based Superalloy 100%
• Disc Rotor 100%
• New Composition 100%
• Ingot Metallurgy 100%
• Engineering Application 50%
• Motivation 50%
• Greenhouse Gas 50%
• Alloy Composition 50%
• Growth Phase 50%
• Environmental Damage 50%
• Aerospace Sector 50%
• High-temperature Strength 50%
• Strength Level 50%
• Enhanced Resistance 50%
• Design Space 50%
• Power Plant 50%
• Emission Reduction 50%
• Oxidation Resistance 50%
• Aerospace 50%
• Alloy Microstructure 50%
• Alloy 718 50%
• Thermal Efficiency 50%
• Strengthening Precipitates 50%
• Life Cycle Stages 50%
• High-temperature Properties 50%
• Multiple Applications 50%
• Current Strength 50%
• Gamma Prime 50%
• New Alloys 50%
• Temperature Capability 50%
• Aircraft Engine 50%
• Environmental Targets 50%
• Steam Temperature 50%
• Long-term Creep 50%
• Greenhouse Gasses 50%
• Design for Manufacturing 50%
• Creep Life 50%
• National Energy Technology Laboratory 50%
• Steady-state Crack Growth 50%
• Powder Alloys 50%
• Resistance-to-time 50%
• Advanced Ultra-supercritical 50%
• Advanced Ultra-supercritical Power Plant 50%
• Candidate Alloys 50%

Engineering

• Phase Stability 100%
• Powder Metallurgy 100%
• Rotor Disc 100%
• Ingot Metallurgy 100%
• Engineering Application 50%
• Crack Growth 50%
• Polycrystalline 50%
• Creep 50%
• Alloy Composition 50%
• Temperature Strength 50%
• Review Paper 50%
• Growth Phase 50%
• Design Space 50%
• Electric Power Plant 50%
• Thermodynamic Efficiency 50%
• Temperature Property 50%
• Enhanced Resistance 50%
• Greenhouse Gas 50%
• Gamma Prime 50%
• Oxidation Resistance 50%
• Aircraft Engine 50%
• Energy Technology 50%
• Environmental Damage 50%
• Design for Manufacturability 50%
• Steam Power Plant 50%

Material Science

• Powder Metallurgy 100%
• Superalloys 100%
• Metallurgy 100%
• Creep 50%
• Crack Growth 50%
• Greenhouse Gas 50%
• Aircraft 50%
• Oxidation Resistance 50%