Keyphrases
Acoustic Metamaterials
66%
Attenuation
11%
Band Folding
16%
Band Gap
66%
Band Gap Characteristics
13%
Bandgap Property
16%
Chained Systems
12%
Diatomic Chain
8%
Dispersion Relation
12%
Dissipation Mechanism
33%
Dual-mode Resonator
33%
Effective Mass
12%
Effective Stiffness
8%
Excitation Frequency
20%
Flexural Mode
11%
Flexural Motion
33%
Friction Damper
33%
Geometric Nonlinearity
19%
High Response
11%
Hysteresis Friction
33%
Inertance
18%
Inerter
100%
Locally Resonant Acoustic Metamaterial
30%
Locally Resonant Bandgap
8%
Low Frequency Range
19%
Low-band
8%
Low-frequency Bandgap
11%
Low-frequency Vibration
33%
Lumped Mass
18%
Material Parameters
13%
Metamaterial Structure
16%
Metamaterials
68%
Metastructure
33%
Monoatomic
8%
Negative Stiffness
16%
Negative Stiffness Structure
33%
Nonlinear Mechanism
8%
Numerical Results
11%
Power Waves
41%
Resonator
17%
Rotational Inertia
11%
Stiffness Value
8%
Structural Vibration Suppression
33%
Ultra-low Frequency Vibration
8%
Vibration Control Performance
11%
Vibration Power Flow
47%
Vibration Suppression
44%
Vibration Transmission
48%
Wave Transmittance
47%
Wave Vibration
12%
Engineering
Bragg Cell
33%
Dispersion Relation
56%
Dynamic Behavior
6%
Energy Engineering
6%
Excitation Frequency
20%
Flow Analysis
6%
Flow Diagram
16%
Fourier Transform
16%
Frequency Vibration
33%
Friction Element
16%
Good Agreement
33%
Harmonic Balance
16%
Longitudinal Wave
16%
Low Frequency Vibration
40%
Lumped Mass
30%
Material Parameter
50%
Nonlinearity
33%
One Dimensional
6%
Optimal Design
6%
Overall Response
33%
Performance Improvement
33%
Potential Application
33%
Potential Benefit
33%
Power Flow
83%
Relation Diagram
6%
Resonator
66%
Rotational
33%
Structural Vibration
33%
Transmissions
73%
Vibration Control
66%
Vibration Reduction
33%
Zero Frequency
33%