Assessment of thread-cutting strategies to enable damage-tolerant surfaces on an advanced Ni-based aerospace superalloy

Keyphrases

• Cutting Strategy 100%
• Ni-based 100%
• Aerospace Superalloys 100%
• Damage Tolerant 100%
• Thread Cutting 100%
• Tool Life 66%
• Thread Milling 66%
• Manufacturing Industry 33%
• Cutting Process 33%
• Surface Integrity 33%
• Cutting Force 33%
• High Strength 33%
• High Temperature 33%
• High Productivity 33%
• Sensory Signal 33%
• Residual Stress 33%
• Difficult-to-cut Materials 33%
• Tool Surface 33%
• Ni-based Superalloy 33%
• Superalloy 33%
• Friction 33%
• Severe Plastic Deformation 33%
• Aerospace Alloys 33%
• Surface Anomaly 33%
• Difficult-to-cut 33%
• Cutting Torque 33%
• Life Test 33%
• Productivity Rate 33%
• Accuracy Requirements 33%
• Milling Strategy 33%
• Engine Efficiency 33%
• Surface Accuracy 33%
• Aerospace Manufacturing 33%

Engineering

• Thread Cutting 100%
• Tapping (Threads) 66%
• Surface Integrity 33%
• Cutting Method 33%
• Cutting Edge 33%
• Cutting Force 33%
• Plastic Deformation 33%
• Residual Stress 33%
• Cut Material 33%
• Aerospace Alloy 33%
• Interrelationship 33%
• Surface Anomaly 33%
• Life Test 33%
• Technical Challenge 33%
• Engine Efficiency 33%