Effects of particle damper design parameters on the damping performance of laser powder bed fused structures

Keyphrases

• Design Parameters 100%
• Laser Powder Bed 100%
• Damping Performance 100%
• Damper Design 100%
• Fused Structures 100%
• Particle Damper 100%
• Dynamic Behavior 66%
• Additive Manufacturing 66%
• Volume Fraction 33%
• Friction 33%
• Maximum Displacement 33%
• Damping Ratio 33%
• Specific Parameters 33%
• Full Potential 33%
• Simple Design 33%
• Frequency Response Function 33%
• Printing Process 33%
• Band Range 33%
• Total Weight 33%
• Second Mode 33%
• Wide Frequency Band 33%
• Modal Parameters 33%
• Modal Testing 33%
• Passive Damping 33%
• Harsh Conditions 33%
• Specific Mode 33%
• Polynomial Method 33%
• First Mode 33%
• Powder Bed Fusion Process 33%
• Damping Technology 33%
• Rational Fraction Polynomial 33%
• Natural Frequency Ratio 33%
• External Dampers 33%
• Cell Wall Interactions 33%

Engineering

• Dynamic Behavior 100%
• Powder Bed 100%
• Design Parameter 100%
• Applicability 50%
• Damping Ratio ζ 50%
• Frequency Response Function 50%
• Frequency Ratio 50%
• Printing Process 50%
• Additive Manufacturing 50%
• Powder Bed Fusion 50%
• Fusion Process 50%
• Modal Parameter 50%
• Harsh Condition 50%
• Manufactured Sample 50%
• Resonant Frequency 50%

Material Science

• Volume Fraction 100%
• Three Dimensional Printing 100%
• Powder Bed Fusion 100%