INIS
power
100%
applications
67%
design
59%
efficiency
34%
resonators
27%
performance
27%
signals
23%
compacts
21%
power amplifiers
20%
impedance
18%
transistors
18%
psychological behavior
18%
electron mobility
18%
gallium nitrides
18%
modeling
18%
ghz range
17%
size
15%
architecture
13%
environment
12%
range
11%
body areas
11%
information
11%
configuration
11%
frequency range
11%
ports
10%
antennas
10%
filters
9%
investigations
9%
orientation
9%
validation
9%
transmission
9%
radiowave radiation
9%
mapping
9%
kernels
9%
optimization
9%
defects
7%
simulation
6%
vectors
6%
devices
6%
accuracy
6%
particles
6%
algorithms
6%
gain
6%
substrates
6%
reflection
6%
units
6%
nonlinear problems
5%
distance
5%
comparative evaluations
5%
microwave radiation
5%
amplification
5%
stability
5%
data
5%
Keyphrases
Wireless Power Transfer System
36%
Resonator
24%
Wireless Power Transfer
22%
Near-field Wireless Power Transfer
22%
High Efficiency
22%
Defected Ground Structure
18%
Highly Linear
18%
Linear Transmitter
18%
Doherty Power Amplifier
18%
Millimeter-wave Applications
18%
RF Power
18%
Transmitter Front-end
18%
Chipless RFID
18%
Amount of Input
14%
DC Power
14%
Power Transfer Efficiency
11%
Transmitter
10%
Amplification Method
10%
Power Divider
9%
Proposed Design
9%
Dual-band
9%
Dual-band Wilkinson Power Divider
9%
Impedance Termination
9%
Dual-band Wireless Power Transfer
9%
Meandered Slot
9%
Slot Resonator
9%
Input Port
9%
Experimental Validation
9%
Behavioral Modeling
9%
Transmission Range
9%
Output Port
9%
GaN HEMT
9%
Orientation Dependence
9%
Design Techniques
9%
Design Application
9%
Kernel Map
9%
Recent Advancements
9%
Globalized
9%
Small Signal
9%
Least Squares Support Vector Regression (LSSVR)
9%
Medical Body Area Network
9%
Design Process
8%
Drain Efficiency
7%
Power Added Efficiency
7%
RF Power Amplifier
7%
Magnetic Field
6%
Particle Swarm Optimization
6%
Performance Metrics
5%
Engineering
Wireless Power Transfer
63%
Resonator
33%
Defected Ground Structures
28%
Front End
22%
Doherty Power Amplifier
18%
Millimeter Wave
18%
Behavioral Modeling
18%
Design Process
18%
Antenna
13%
Frequency Ratio
13%
Realization
12%
Power Amplifier
12%
Compact Size
12%
Scattering Parameters
12%
Computer Aided Design
12%
Body Sensor Network
11%
Metrics
10%
Transmissions
9%
Source Impedance
9%
Load Impedance
9%
Artificial Neural Network
9%
Simultaneous Wireless Information and Power Transfer
9%
Design System
9%
Band Stop
9%
Radio Frequency Identification
9%
Design Technique
9%
Particle Swarm Optimization
9%
Power Added Efficiency
9%
Convergence Rate
9%
Input Port
9%
Microwave Circuit
9%
Design Tool
9%
Neural Network Approach
9%
Output Port
9%
Design Procedure
6%
Resonant Frequency
6%
Circuit Model
6%
Defects
6%
Figure of Merit
6%
Good Agreement
6%