Engineering
Harvester
100%
Energy Engineering
85%
Energy Harvesting
40%
Power Output
37%
Cantilever Beam
36%
Finite Element Method
22%
Damping Ratio ζ
21%
Rotor System
16%
Natural Frequency
15%
Rotors
15%
Mechanical Damping
15%
Magnetic Flux Density
14%
Piezoelectric
13%
Single Degree
12%
Degree of Freedom
12%
Power Density
11%
Optimum Load
11%
Load Resistance
11%
Numerical Modeling
10%
Wind Power
9%
Rotational Energy
7%
Transducer
7%
Experimental Result
7%
Loading Case
7%
Two Degree of Freedom
7%
Electrical Energy
7%
Electromagnetic Coupling
6%
Flux Density
6%
Simulation Result
6%
Analytical Model
6%
Optimization Approach
5%
Control System
5%
Design Optimization
5%
Active Control
5%
Wireless Sensor Network
5%
Keyphrases
Electromagnetic Vibration Energy Harvester
55%
Power Output
38%
Cantilever Beam
31%
Harvester
29%
Vibration Energy Harvester
23%
Energy Harvesting System
23%
Damping Ratio
21%
Mechanical Damping
18%
Rotor System
16%
Natural Frequency
16%
Vibration Energy Harvesting
14%
Electromagnetic Damping
14%
Finite Element Analysis
14%
Electromagnetic Energy Harvester
13%
Single Degree of Freedom
11%
Magnetic Flux Density
11%
Numerical Modeling
11%
Optimum Load Resistance
11%
Power Density
11%
Structural Optimization
10%
Electrical Energy
10%
Energy Harvester
9%
Piezoelectric Cantilever Beam
9%
Shape Optimization
9%
Wind Energy Harvesting
9%
Dual Cantilever
9%
Flutter
9%
Connection Mode
8%
Design Optimization
8%
Flux Density
7%
Electromagnetic Coupling
7%
Operational Bandwidth
7%
Bimorph Cantilever Beam
7%
Analytical Modeling
7%
Two-degree-of-freedom
7%
Wireless Sensor Networks
6%
Further Analysis
6%
Structural Sizing
6%
Optimization Approach
6%
Analytical Formula
6%
High Output Power
5%
Load Case
5%
Harvested Power
5%
Energy Harvesting
5%
Active Bearing
5%